TW201234069A - Electronic spectacle frames - Google Patents

Abstract

Embodiments may provide a first device that includes a frame having a first temple and a second temple. The frame may also comprise a housing module coupled (e.g. attached) to a structural member. The first device may further include a first lens and a second lens coupled to the frame and an electronics module that may be located within the housing module. The electronics module may include at least any two of: a power source; a controller; and/or a sensing mechanism.

Description

201234069 VI. INSTRUCTIONS: This application claims priority to U.S. Application Serial No. 13/298,997, filed on Nov. 17, 2011, and the application Serial No. 13/298,992, filed on Jan. The cases are US Application Nos. 13/175,633, filed on July 1, 2011, and US Application No. 13/175,634, filed on July 1, 2011 (these applications are based on 35 uSC § 119(e) U.S. Provisional Patent Application No. 61/361,110, filed on July 2, 2010, and US Provisional Patent Application No. 61/376,719, filed on August 25, 2010; and application on November 19, 2010 U.S. Provisional Patent Application Serial No. 61/415,391, which is also incorporated herein by reference in its entirety Serial No. 13/179,219, filed on Jul. 8, 2011. Further contending for the continuation of US Provisional Patent Application No. 61/362,877, filed on Jul. 9, 2010, and the benefit of US Provisional Patent Application No. 61/48, No. 353, filed May 2, 2011. Part of the continuation case. The entire disclosure of each of the above-referenced applications is hereby incorporated by reference for all purposes. [Prior Art] In today's world, spectacle lens frames are very popular. While the lens lens has a tendency to be thinner, lighter, and less noticeable, at the same time, the lens frame creates a stylish effect for the lens wearer. At the same time as these trends, there is another trend regarding the inclusion of electronic devices in glasses. The trend in glasses to make use of electronic devices seems to be accelerating and applications developed by others are expanding. As these trends continue, it has been found that the method of merging electronic devices into the glasses without damaging the aesthetics and functionality of the glasses 160384.doc 201234069 becomes important. One of these challenges. When the frame is set, the tenth π is the second month b. • The lens is not limited to K or the lens is not limited. (4) The lens frame or lens frame assembly may be less. d beam, mirror foot) library f measuring unit (coffee), allowing the electronic device to be placed firmly, and can make it to buy the framework. ～ 且 在 在 【 【 【 【 【 【 【 【 【 【 【 【 【 【 【 【 【 【 【 【 【 【 【 【 【 【 【 【 【 【 【 【 【 【 【 【 【 【 【 【 【 【 【 【 【 【 【 The eye is coupled (eg, attached) to one of the electronic structural components and can house one or more electronic components (and/or an electronic device module) of the Ray-Ban electronic glasses (eg, including 3) Or an electronic component (and/or the electronic device module), spoofing the one or more electronic components (and/or the electronic device module), surrounding the -+ history or multiple electronic components (and/or the electronic device module), etc. The second embodiment may also include a spring hinge and an electrical path from the temple to the lens. Some embodiments may also include a conductive flexible material. Providing a portion of an electrical path between the electronic components (eg, components in an electronic device module) and electronic devices located on the electronic eyeglass frame and/or the electro-optical lens. Some embodiments may also include Single electronic device module or multiple batteries The device module. Some embodiments may also include an appearance coupled to the front of the electronic lens frame. In some embodiments, a first device is provided. The first device includes - having a first leg and a - a frame of the second temple. The frame also includes a housing module coupled (eg, attached) to a structural component. The first device further includes a first lens and a second lens that are consuming to the frame The device may include an electronic device module that can be located in the housing module. The electronic device module can further include at least two of the following: a power source; a controller; and/or a sensing mechanism. In some embodiments, in the first device as described above, an insulating layer can be disposed in one or more electronic components located in the electronic device module. Between the frames of the first device. In some embodiments, in the first device (which includes an insulating layer) as described above, the housing module can include the insulating layer. In some embodiments, The electronic device module can include a a conductive material, such as a metal. In some embodiments, in the first device (which includes an insulating layer) as described above, the housing module can include a conductive material and the insulating layer can be disposed on the housing mold At least a portion of the set is between the electronic device module. In some embodiments, in the first device (which includes an insulating layer) as described above, the insulating layer can comprise a portion of the electronic device module. In some embodiments, the housing module can comprise a conductive material, such as a metal. In some embodiments, in the first device as described above, the housing module is removably attached to The first temple. In some embodiments, 'in the first device as described above, the housing module is removably coupled to the first temple to enable the housing module to be adapted The first temple is removed from the first temple and recoupled to the first temple. In some embodiments, in the first device as described above, the housing module includes a first end, a second end, and a body disposed between the first end and the second end. The first end can include an opening and 160384.doc 201234069 The electronics module can be configured to be inserted into the opening. In some embodiments, the electronics module can be press fit to the housing module. In some embodiments, the electronics module is located within the body of the housing module. In some embodiments, the outer casing module comprises nylon or carbon fiber. In some embodiments, in the first device as described above, the structural component includes a cavity in the first temple and the housing module is configured to be selectively placed within the cavity. In some embodiments, the housing module is coupled to the first temple using at least one of a screw or a double sided tape. In some embodiments, the housing module can be selectively removed. In some embodiments, the housing module is press fit to the cavity in the first temple. In some embodiments, in the first device as described above, the first lens is electrically connected to the electronic device module. In some embodiments, the control pirate configuration generates a time-varying apostrophe supplied to the first lens from the singular power source. In some embodiments, the sensing mechanism is configured to The input j is supplied to the (four)th poem to determine when the time-varying (four) is supplied to the first lens. In some embodiments, the power source includes a battery. In some embodiments the controller contains a moving body. In some embodiments, the controller includes a multiplier. In some embodiments, the controller is configured to provide at least one of a zero DC bias sine wave or a zero DC bias square wave command to the first lens. In some embodiments, in the first device as described above, the housing module further includes an aperture disposed on an outer side of the housing module. In two embodiments, the aperture has an area in the range of approximately 1 cm 2 to 5 cm 2 160384.doc 201234069. In some embodiments, the sensing mechanism includes a touch sensitive switch that is substantially exposed through the aperture. In some embodiments, the touch sensitive switch can include a capacitive switch or a membrane switch. In some embodiments, in the first device as described above, the structural component includes the first temple. In some embodiments, the first temple includes a first portion and a second portion. In some embodiments, the first portion is closer to the first lens location than the second portion and the housing module is coupled to the first portion of the first temple. In some embodiments, the housing module is the first portion of the first temple. In some embodiments, in the first device as described above, the housing module can comprise a conductive material. In some embodiments, the housing module can comprise a non-conductive material in the first device as described above. In some embodiments, in the electronic device module embodiment as described above, in the first device as described above, the electronic device module may comprise a conductive material. In some of the above-described devices, the structural component may comprise - a non-conductive material. In some embodiments, the structural component comprises: any one or a combination of - plastic or resistant materials. In some embodiments, the structural component can comprise an acetate. In some embodiments, in the above-described device, wherein the housing module can comprise a non-conductive material, the structural portion is electrically material. In a 4b sound *4:, _ _ ^ electrically isolates the electronic device, the center or the 以 position, the structural component may comprise a metal. Second Embodiment 160384.doc 201234069 In some embodiments, in the first device as described above, the first device may further include a first lens having a first electrical contact, and a first A conductive path in which the first electrical contact of the lens is in electrical contact. The electronic device module can also have a first electrical contact. The electrically conductive path is in electrical contact with the first electrical contact of the electronic device module. In some embodiments, the electrically conductive path includes at least one pogo pin. In some embodiments, the electrically conductive path includes a spring hinge. In some embodiments, the electrically conductive path includes a flexible conductive element. In some embodiments, in the first device as described above, the housing module can have a thickness less than or equal to about 0.7 mm. In some embodiments, the housing module can have a less than or equal to about厚度 5 mm thickness. In some embodiments, the outer casing module can have a thickness of less than or equal to about 0.3 mm. A first method can also be provided. The first method can include a method of making or fabricating a device. The device includes a frame having a first temple and a second temple, and a housing module including a first end, a second end, and a first end and the first end a body between the two ends and a cavity disposed in the body. The first end may include an opening. The first method may further include inserting an electronic device module (or a plurality of electronic components) into The opening of the housing module is such that the electronic device module is disposed in the cavity of the housing module. In some embodiments, the first method as described above may further include via the housing module ( And/or the temple) the opening of the device from the cavity = the device module (ie, the 'one-electronic device module'), and the device - 160384.doc 201234069 module (ie, a second electronic device module is inserted into the opening of the housing module such that the second housing module is disposed in the cavity of the housing module. In some embodiments, the first electronic device The module and the second electronic device module are the same electronic device module (eg, the modules are the same module or the modules include the same components). In some embodiments, the first electronic device module And the second electronic device module is provided with a first method for different electronic device modules. The second method may include manufacturing or fabricating a frame including a first temple and a second temple. Method of the device. The first leg can include a first end a second end, a body disposed between the first end and the second end, and a cavity disposed in the body. The first end may include an opening. The first method may further The method includes: inserting an electronic device module (or a plurality of electronic components) into a housing module, and inserting the housing module into the opening of the mirror to enable the housing module to be disposed on the first mirror In the embodiment, the second method as described above may further comprise removing the outer casing module from the first cavity via the opening of the temple (ie, - Inserting a housing module (ie, a second housing module) into the opening of the temple so that the second housing module is placed in the first leg In the embodiment, the first outer casing module and the second outer casing module are the same outer casing module (that is, the same materials are included in the same proposal). In some embodiments, the outer set and the second outer casing module are different outer casing modules. In some embodiments, the electronics module (or plurality of electronic components) can be removed from the housing module: 160384.doc 201234069. In some embodiments, in the electronics module (or multiple electronic components) In the case where the outer casing modules are removed together, a second electronic device module and (or a plurality of electronic components) can be inserted into the cavity in cooperation with the second outer casing module. In some embodiments, the second method as described above can further include removing the housing module from the first cavity via the opening of the temple without removing the electronics module. In some embodiments, in the second method as described above, the step of inserting the electronic component module into the housing module includes coupling the housing module to the electronics module. In some embodiments, in the second method as described above, the housing module can be inserted into the opening of the temple before the electronic module is inserted into the housing module. A first device can be provided in some embodiments. The first device can include a lens comprising at least a - electrical contact, and a lens housing holding the lens, wherein the lens housing comprises at least - a second electrical contact. The first device may further include: a conductive material disposed between the first electrical contact and the first portion, wherein the conductive material electrically connects the first electrical contact with the second electrical connection. A barrier layer is included that is positioned to cover at least a portion of the electrically conductive material. It will be understood that after reading the invention as provided herein, it will be understood by those skilled in the art that the above described combinations can be formed such that some or all of the features described with respect to a device are characteristic of a device. Some or all combinations. Embodiments may provide a housing module that houses one of the electronic eyeglass frames 160384.doc • 10· 201234069 or a plurality of electronic components (and/or an electronics module) (eg, containing the one or more electronic components ( And/or the electronic device module), surrounding the one or more electronic components (and/or the electronic device module), surrounding the one or more electronic components (and/or the electronic device module), Encapsulating the one or more electronic components (and/or the electronic device module), substantially encapsulating the electronic component (and/or the electronic device module), and/or coupling to the One or more electronic components (and/or the electronic device module... The electronic device module can comprise any suitable material that can be selected based in part on the materials and configuration of other components of the electronic eyewear (such as a frame). In some embodiments, an electronic device for electronic glasses can be placed within the housing module such that some or all of the components are partially covered by the housing module. The housing module can then be placed Within these electronic frameworks For example, in a cavity in one of the temples) [in this way (eg, in an electronic device module) electronics can be interfaced (eg, attached) to the electronic frames. In an embodiment, the housing module can electrically isolate the electronic components from the frame (or external components) and/or provide structural support for the frames around the electronic components of the electronic glasses. In some embodiments, The housing module can also provide a mechanism for the electronic frames to interact with the electronic components in the electronic frames (eg, via the use of touch switches such as capacitive switches or membrane switches). The following disclosure provides exemplary devices that include electronic (ie, electro-acting) glasses. Before discussing a particular embodiment, some descriptions of some specific terms are provided below. As used herein, "frame" can refer to complete Wearable outer casing, 160384.doc 201234069 which secures two spectacle lenses and aligns the spectacle lenses in position relative to the wearer's eye when worn. The frame may include such as An element of a temple and a second temple, and a lens housing configured to support the lens of the lens. As used herein, "an articulated temple" may refer to a side section of a frame that is attached via a hinge The attachment mechanism is coupled to the lens housing (or directly to the lens) and further provides stability by resting on the wearer's ear when worn. As used herein, "hingeless temple" can refer to a frame One side section that is attached to the lens housing (or directly to the lens) without a hinge attachment mechanism and further provides stability by resting on the wearer's ear when worn. As used herein, The end of the temple can refer to the portion of the temple that is furthest from the lens housing. The end of the temple usually begins behind the wearer's ear and ends at the end of the temple that is furthest from the lens housing, but this is not required of. As used herein, "lens end section" may refer to the portion of the lens housing that is furthest from the bridge and has a space with the bridge. Each frame typically has two lens housing end segments: one on the spatial side of the right lens and one on the spatial side of the left lens. As used herein, "nose bridge" can refer to the portion of the frame that is mounted on/above the wearer's nose. The bridge is typically between the portion of the lens housing that supports the right lens and the portion of the lens housing that supports the left lens or between the right lens and the left lens itself. In some embodiments 160384.doc -12- 201234069 the 'hip bridge can include a portion of the lens housing. As used herein, the term "comprising" is not intended to be limiting, but may be a transitional term synonymous with "including", "containing" or "characterized". The term "comprising" may therefore be inclusive or open-ended and does not exclude additional undescribed elements or method steps. For example, the "include" deduction technology scheme is open-ended and allows for additional steps when describing the method. "Inclusion" when describing a device may mean that one (or more) of the specified elements may be essential to an embodiment, but other elements may be added and still be constructed within the scope of the technical aspects. In contrast, the transitional phrase "consisting of" excludes any elements, steps or components not specified in the technical solution. As used herein, "hinge" may refer to a portion of a frame that allows the lens housing and temples to be attached such that the lens housing and temples are openable and closed against the lens housing on the rear side of the lens housing when not worn. . In some embodiments, the hinge can be directly attached to the lens. As used herein, "eye_wire" may refer to a rim that surrounds a lens frame of a spectacle frame. The side of the frame may include a lens housing that holds a lens (right or left lens) in a full frame or half. Part of the frameless frame. There can be two frame sides for each lens housing. However, in a completely frameless frame, there are no frame edges. As used herein, "lens housing" may refer to a portion of a frame that is configured or adapted to support or hold a first lens and a second lens in place (preferably securely holding or holding in place) . The lens housing may also include a frame portion to which the temples are attached. The lens housing can include any component or material that is adapted to support the lens, including, for example, screws, nylon filaments 160384.doc • 13· 201234069 fibers, frame edges, and the like, or any combination thereof. The lens housing can contain any material, including metal or plastic. The lens housing can be included in any type of frame design (including fully framed, semi-frameless, and frameless). In some embodiments, the lens housing may also include a bridge, such as when the lens housing includes a single component or two components that support both the first lens and the second lens. In addition, as used herein, reference to "lens" also includes any suitable optic or optical component. That is, the lens housing can hold any optical component and does not necessarily have to include a lens having a focus (e.g., the lens can include a piece of glass or plastic that can be used for any purpose). For example, as used herein, "lens" may refer to a virtual image that can be projected or maintained by a viewer and/or can be used in a heads-up display, video game, check email, and/or any other suitable manner. Optical components. — “ can refer to a plurality of sub-device modules that can include a capacitive switch that can be activated or microprocessor). As used herein, "a housing or container of an electrical component of an electronic device module. For example, a power source (such as a battery), a sensing mechanism (such as an electrical start-up electronics), and/or a controller (such as, for example) As used herein, "electronic deduction", "," and "pieces" can be decoupled to any electronic device that can be coupled to an electrical action frame, including a power supply, a controller (such as micro A processor, a sensing mechanism (such as a touch switch), etc. As used herein, "frameless frame." can refer to a frame that is designed to have a lens housing that does not include a frame edge. , the lens housing is not 3 frame edges 'but may include, for example, a filament-resistant fiber strand, a screw, or other material used to hold the lens in place. It may be referred to as having a portion as used herein, "half Frame frame 160384.doc • 14- 201234069 frame (ie, a frame side that does not completely enclose or surround the lens) and/or may have a lens housing that secures the lens to the fiber-reinforced filamentary fiber strand of the frame or the like Framework. As described in this article The use of "full frame" or "completely framed" may refer to a frame comprising a lens housing having a complete frame enclosing or surrounding the first lens and the second lens (ie, the lens housing includes a complete frame edge). As used herein, "Zyle frame" may refer to a frame that mainly comprises plastic. As used herein, "metal frame" may refer to a frame that mainly comprises metal. As used herein, "right space gap" may be used. Refers to the space formed by the right portion of the lens housing in the plane of the front of the wearer's face to fold back to meet the right temple. The angle formed between the right portion of the lens housing and the right temple is approximately (but not always Yes) 90 degrees. This space is further defined as a bounded space on three sides: on the first side, by the imaginary line set on the inner rear surface of the right lens or the inner right portion of the lens housing On the two sides, by the imaginary line in the middle of the right temple (excluding any electronic device attached to it), and on the third side, the wearer's face and / or head The right side is bounded. As used herein, "left space void" may refer to the space formed by the left portion of the front portion of the lens housing frame in the plane of the front of the wearer's face that folds back to meet the left temple. The angle between the left portion of the lens housing and the left temple is approximately 90 degrees. This space is further defined as a space bounded on three sides: on the first side, by being placed on the left side 160384.doc • 15 · 201234069 The imaginary line on the inner rear surface of the mirror or the inner left part of the lens housing, on the second side 'by the imaginary line in the middle of the left temple (excluding any electronics attached to it), and On the third side, it is bounded by the wearer's face and/or the left side of the head. As used herein, 'coupled' can refer to any manner of joining two components together in any suitable manner, such as By way of example only, an attachment (eg, attached to a surface), disposed on, disposed within, substantially disposed within, embedded within, substantially embedded within, etc. "Coupling" may further comprise securely attaching the two components (such as by using screws or embedding the first component into the second component during the manufacturing process), but need not be. That is, the two components can be temporarily coupled simply by physical contact with each other. If current can flow from one component to another, the two components are "electrically coupled" or "electrically connected". That is, the two components do not have to be in direct contact to allow current to flow directly from one component to another. There may be any number of other electrically conductive materials and components that are electrically placed between the two components of the "electrically coupled" as long as current can flow between the two components. As used herein, "conductive path" refers to a continuous path through which electrons (i.e., current) flow from one point to another. The conductive path can include one component or more than one component. In (4), the conductive path may comprise a lens housing, temples, hinges, lenses, and/or portions of conductive material disposed between some or all of the components. As used herein, '"electrically actuated glasses", "electronic glasses", "electrically actuated glasses frames", "electronic glasses frames", "electrically actuated lenses", "electrical effects 160384.doc -16 - 201234069 lens frames", Any arrangement of "electroactive frame," "electrically actuated lens," or "electrically acting" or "electron" can broadly refer to any lens frame or lens that includes one or more electronic components. The electrical component can be coupled to an electrical (e.g., 'electronic) frame or any portion of the lens. This may include, for example, by the lens frame housing some, most or all of the electronics and the lens comprising any and all uses of one or more components that can be activated and/or deactivated by current or voltage, such as (only By way of example): an electronic focusing lens, an electrochromic lens, an electronic dyed lens, a lens containing a microdisplay that allows viewing of digital images in the air, a lens including an electronic heads-up display, and an antistatic element including a lens lens for keeping the lens lens clean. Lenses, electronic shutter lenses for viewing 3D images, electronic lenses containing occlusion control for visual training, electronic lenses for myopia control, lenses containing telescope components or telescopes, lenses containing microscopes, including cameras Lenses, lenses comprising directional microphones, lenses comprising rangefinders, lenses comprising image intensifiers, lenses comprising night vision enhancement features, professional lenses, gaming lenses; may be included to provide for the user to receive for self-wearing Input and execute as a response - specific operations (such as f A lens that provides a functional electronic component (eg, a virtual personal assistant) to the wearer (ie, a lens that can include electronic components such as: for receiving signals (eg, commands or questions) from the wearer) An input device (for example, a microphone) capable of processing a microprocessor that is in contact with a person and responding to an action or response; a memory or other storage device that stores an association between the received input and a predetermined function; Voice recognition software for identifying information from input received by the wearer; for communicating or signaling information to an output device (eg, a speaker), etc.). Additional functionality and availability are available. Electrical components comprising portions of electrical or electronic glasses, including those discussed in more detail below. The use of 'first' or 'second' as used herein does not limit the components mentioned to a particular location unless A clear statement. For example, a reference to "first temple" may include a temple on the left or right side of the wearer's head. The term "about" can mean positive or negative 10 〇 / 〇 (including boundaries). Therefore, the phrase "about 10 rnm" can be understood to mean from 9 mm to 11 mm (including the boundary). Electrically Actuated Frames Some embodiments of the electro-acting eyeglass frames provided herein can include a spring mechanism. The spring mechanism can be, for example, disposed on a frame of the eyeglasses (such as on the temples, embedded in the temples, coupled to a temple and a lens housing, etc.) and may provide a force that causes the temple member to apply pressure in a direction substantially perpendicular to the wearer's head or in the direction of the wearer's head. In this manner, the eyeglass frame can be tight The fit fits over the head of the person regardless of size or shape. This provides a more comfortable fit and reduces the risk of lens displacement or accidental fall from the wearer's head. In addition, the spring mechanism is used for electrical action. The frame may provide the added benefit of power savings by cutting off the electrical connection between the electronics located on the lens housing (or in the lens) and the power source located on the temples when the frame is not in use. That is, for example, the two conductors can be separated by moving the temple of the frame away from the lens housing to the spring mechanism so that current cannot flow from the temple to the lens housing (or any other separation). * 18 - 160384.doc 201234069 The use of springs (eg, spring hinges) for non-electrically actuated lens systems is well known in the art. Examples of such spring hinges are provided in the following references, which are hereby incorporated by reference in their entirety:

Takeda's US Patent No. 6,336,250 entitled "Spring Hinge for Eyeglasses";

U.S. Patent No. 5,760,869 to Mitamura entitled "Eyeglasses Frame with Spring Hinges";

U.S. Patent No. 5,657,107 to Wagner et al., entitled "Spring Hinge for Eyewear";

U.S. Patent No. 4,991,258 to "Eyeglass Spring Hinges" by Dr. To date, there has been no similar method for electro-acting lenses. In addition to some of the benefits provided by the spring mechanism (including the benefits mentioned above, such as 'closer fit and the ability to power off by disconnecting the component), there are also inventors identified. Other considerations related to the use of such devices in an electrical action frame. For example, an electro-acting lens frame may need to provide an electrical path from the temple to the lens housing that is not used on conventional (i.e., 'non-electrically acting frame') frames. However, the use of spring means (such as a spring chain) in the electro-acting lens frame allows the temple to form an angle of less than 90 degrees with the lens housing (even when the frame is in use, this can result in the temples) Disruption of electrical connectivity between the electronic device or power supply and any electronic device located on the lens housing (or in the lens itself). This is illustrated in Figure 1. As shown in Figure 1, the temple is relative to the lens housing The typical position (eg, 160384.doc 201234069 such as 'when the frame is worn) is that the first temple 1〇1 and/or the second temple 102 form an angle of approximately 90 degrees with the lens housing 103. In practice, this angle can be Slightly smaller or larger (depending on factors such as the size and shape of the wearer's head, the size of the frame, etc.). In this position, a conductive path may be the first temple 1〇1 or the second temple 102. The upper assembly is coupled to the assembly disposed on the lens housing ι 3. However, 'using a spring mechanism that exerts a force in the direction of the wearer's head can cause the angle 104 to be substantially less than 9 degrees (eg, the angle can be 85 degrees or less), this Separating the conductive path between the first temple 101 or the second temple 102 and the lens housing 103. For example, if one of the conductive paths from the first temple 1〇1 to the lens housing 103 is included The electrical contacts at the respective ends of each of the components are such that, for example, when the first temple 1 〇 1 and the lens housing 103 are worn, there is a direct connection between the electrical contacts, then the connection It may be broken due to the reduction of the angle 1 〇 4 between the components. As mentioned above, the use of springs or the like in the lens frame to provide continuous pressure is likely to form such an equiangular angle, and thus such springs and Similar devices have not been used in electro-mechanical frames. An electro-mechanical frame comprising a spring mechanism is provided herein. As used herein, "#-spring mechanism" refers to an elastic member that can be used to store mechanical energy. The spring mechanism can include a spring. And/or other components, such as conductors disposed within the spring or side by side with the spring (or within the coil of the coil spring). When compressed or stretched, the first magazine can act on components of the device (such as Y-electrical action) frame One or more of the temples or lens housings apply a force. When the first device (eg, an electrical action frame) is worn, the first spring: the structure can be substantially perpendicular to the wearer's head A continuous force I60384.doc -20- 201234069 (variable or constant) is provided in the direction. In some embodiments, the first spring mechanism can also be coupled to or placed in a spring (or component thereof) One of the conductors conducts electricity and thereby forms a portion of a conductive path. In some embodiments, the conductor can be embedded within the spring mechanism, coupled to the spring mechanism, and/or surrounded by the spring mechanism. As used herein, the spring mechanism can also include additional components such as a money chain that can be attached to the temples and/or lenses. The spring mechanism can comprise any suitable material 'including metal, plastic or a combination thereof. Figures 2(a) and 2(b) show two examples of an electro-mechanical frame containing a spring mechanism. A first device is provided that includes a frame including a lens housing adapted to support a first lens and a second lens. The first device also includes a first temple movably coupled to the lens housing and a second temple movably coupled to the lens housing. That is, the first temple and the second temple can be coupled to the lens housing such that each can be moved relative to the lens housing such that the angle therebetween (eg, the angle in the figure is 1〇4) ) can vary. In this regard, the lens housing and the temples can be coupled in any suitable manner that allows for this movement, by way of example, including the use of hinges or screws. The first device further includes a first spring mechanism coupled to the first temple and the lens housing. As defined above, this does not require the spring mechanism to be permanently attached to the two components. For example, the spring mechanism can be fixed to the first temple and within the specific distance between the first temple and the lens housing (or components thereof, such as the end segments) (ie, the angle between the components) 104 applies force to the lens housing near 90 degrees (eg, within 5 degrees) or some other suitable value) 160384.doc • 21 - 201234069. When the first temple and the lens housing are sufficiently moved apart, the spring mechanism can no longer physically contact the lens housing. An example of this situation is provided in Figure 2(b) and will be described in detail below. Although so defined above, it is worth noting that the spring mechanism is not necessarily in the form of a coil spring, but can take any suitable shape and can be located in any suitable location on the frame. As will be described below, such locations may be disposed on or embedded within the lens housing and/or disposed on or embedded within the first temple. An example of a spring mechanism embedded in the first temple is shown in Figure 2(a), which will be described below. The first device also includes a first conductive path from the first temple to the lens housing for the first leg relative to the frame. That is, as defined above, electrons (in the form of current) may be dispersed (ie, conducted) from the first temple to the lens housing or may be dispersed (ie, conducted) from the first temple to the Lens housing. In this case, the first device can, for example, comprise an electro-active frame having some electronic components (such as 'power, controller, sensing mechanism, etc.) located on the first temple and disposed on the lens Other electronics on the housing and/or on (or within) the lens itself (such as those described below). As defined above, the first conductive path can be exemplified by any suitable component 5 ' the conductive path can include the first leg, the spring mechanism, and the lens peripheral itself (ie, each can include Electrically conductive material, or the like, and some or all of the components may comprise conductive components disposed on (or embedded within) the components of the conductive path. For example, 160384.doc -22- 201234069 As indicated above, the conductive path does not have to be present all the time, but can be provided for at least one position of the first temple relative to the lens housing. Referring again to Figure 1, the first temple 101 can be moved relative to the lens housing 103 to a plurality of locations, each of the plurality of locations having different angles 104. Preferably, when the first temple and the lens housing are corresponding to the first device, being worn by a wearer The first conductive path is provided in a time position. In some embodiments, the position may have an angle corresponding to approximately 9 degrees. However, as described above, embodiments are not limited thereto and the angle may be many Factor It should also be understood that the conductive path can be provided for a plurality of locations. In some embodiments, in the first device as described above, the first conductive path is provided by the first spring mechanism. For example, the first spring mechanism can provide the first conductive path between the first temple and the lens housing - or all of this may be due in part to the ridge mechanism being (or substantially Between the first and the lens housing. In some embodiments, the first elastic mechanism includes a spring that provides the first conductive circuit control. A conventional coil spring is included, but may comprise any resilient material such as mechanical energy stored when the magazine is displaced. An example of a non-coil spring is provided with reference to Figure 2 (4). As mentioned above, and when the first conductive path is provided At least a portion of the magazine may comprise any electrically conductive material. Preferably, the spring mechanism comprises a metal. By using the spring mechanism to form a portion of the electrically conductive path, some embodiments may provide for reducing the attachment to the frame Advantages of the number of components required: In addition, in some embodiments, the use of a spring mechanism as part of the conductive path can be a means by which a conductive path can be selectively provided (eg, the guide 160384.doc -23- 201234069 The circuit light can be used while the first device is being worn and not available while the first device is wearing. For example, the spring mechanism can be permanently: (ie, 'stablely, such as via the use of screws, Adhesive, etc.) to only the first temple, and selectively lightly connected (ie, temporarily, such as physical contact two but not adhered to, screwed on, etc.) to the lens housing, 'looking in The spring mechanism is in physical contact with the lens housing in some, but not all, positions of the first temple relative to the lens housing. In some or all of the embodiments in which the first spring mechanism provides the conductive path, The first: the spring mechanism is no longer in contact with the lens housing, and the circuit core may not be provided. This may be one way of providing a selectively available conductive path between the first temple and the lens housing. In some embodiments, in the first device as described above, the first spring mechanism comprises - a magazine and m. The conductor may comprise any suitable material and may have any suitable shape. There is no need for any physical contact between the spring and the conductor. For example, in some embodiments, the spring is disposed substantially about the first conductor. "Substantially surrounding" means, for example, that the spring may surround or surround some (but not necessarily all) of the conductor. This is illustrated in the illustrative embodiment shown in Figure 2(a). For example, if the spring includes a coil spring, the conductor can be located within the coil of the spring. In some embodiments, the conductor can be disposed within the spring (e.g., embedded in the spring) such that the spring can comprise both the conductor (or more than one conductor) and an insulating material. The insulating material electrically energizes the conductors within the spring such that a plurality of conductive paths are provided by the spring (i.e., via the embedded conductors). This allows multiple signals 160384.doc -24· 201234069 from the first temple to be transmitted to the lens housing, allowing transmission of the signal and power H (d) to the spring (four) to the first conductor. That is, the spring can be attached to or disposed on the conductor. Each of the springs and/or the conductors may comprise a portion of the electrically conductive path. In some implementations, the elastomer is placed along the side of the first conductor. "Along the side" means that the elastomer and the conductor are substantially parallel and spaced no more than 3 cm apart at any given point. Preferably, the spring is spaced from the conductor by no more than 丨cm so that the spring mechanism can have a small profile (i.e., for aesthetic reasons). Again, embodiments are not limited thereto, and the conductors can be located in any suitable location. Therefore, in some real states, the first conductive path or a portion thereof may be provided by the first conductor. In some embodiments, in the first device as described above, the first conductive path further includes a magazine pin (p〇g. (4). The "spring pin" may include a built-in between the two components. A (usually temporary) connected device is illustrated in Figures 3 through 10 using an embodiment of a pogo pin. The pogo pin can be disposed within the first temple, but embodiments are not limited thereto, and the pogo pins can be Located in its location, such as on the first temple, on (or embedded in) the lens housing, and/or coupled to the first spring mechanism. In some embodiments, the first The device further includes a second spring mechanism that presses the spring pins against the electrical contacts on the lens housing for a plurality of positions of the first temple. Use of the second spring mechanism An ability to hold a conductive path between the first temple and the lens housing for a position of the first temple relative to the lens housing may be provided. That is, as the lens housing contains electricity The part of the joint with the first 160384.doc •25 · 201234069 The distance between the temples increases (that is, as the angle HM decreases), the second spring reduces the length of the material circuit (material, (four) spring pin extension) in order to maintain t contact (and borrow This maintains a conductive path. The lens housing and/or the first temple can apply a force to the second magazine mechanism to increase the angle to cause the second spring mechanism (4) (ie, The needle is retracted, but such that the electrical contact is maintained. By providing a force on the spring needle so that some, but not all, of the position of the temple is pressed against the electrical contacts of the lens housing ( Or equivalently pressed against the first temple), embodiments may provide the ability to selectively provide a conductive path between the first temple and the lens housing. In some embodiments, as described above In the first device, the first spring mechanism can include a spring hinge. That is, the spring mechanism can include a fixed portion (ie, a hinge) coupled to both the lens housing and the first temple. 'It allows relative movement between the two components in order to change the angle 1〇4 The spring may be coupled to either or both of the lens housing and the first temple, and may provide for moving the first temple to one of a plurality of positions and/or A mirror foot is pressed against the force of the wearer's head. In some embodiments, 'in the first device as described above, an electronic device module is further provided. The electronic device module can, for example, comprise a power source At least one of a controller and a sensing module. In some embodiments, the use of an electronic device module provides the ability to make electro-optical glasses more easily because the electronic device can be fabricated separately and inserted into a plurality of In the frame design, the electronic device module can be coupled to the first temple or in another suitable location (please note that some embodiments may be used to secure the electronic device module or its components). 201234069 Placed on, for example, the lens housing, for example, the electronics module can be embedded in or substantially embodied in the first mirror (as exemplified below with reference to Figures 3-10) The example is described). In some embodiments, the first conductive path can be electrically connected to the electronic device module. That is, a conductive path from the electronic device module to the lens housing can be provided, and the conductive path can include a plurality of components such as the first spring mechanism or components thereof. In some embodiments, in the first device as described above, the first conductive path conducts electricity from the first temple to the lens housing when the first leg is in the -first position. The first conductive path does not conduct electricity from the first temple to the lens housing when the first temple is in the -second position. As described above, the first position and the first position may correspond to a relative position between the first temple and the lens housing. The first position (in which the conductive path conducts electricity) may correspond to a position of the first temple when the first device is in use (eg, when the first device is worn) And the second position may correspond to a position of the first temple when the device is not in use (ie, when the device is not worn). As mentioned above, the electrically conductive path can be provided by any of the components of the first device, such as the first spring mechanism, the lens housing, the first temple, and the like. Embodiments that selectively (ie, in some instances, but not all) provide the conductive path from the lens housing to the first temple may provide some or all of the advantages described above, such advantages Included that some or all of the electronic components of the first device are not operational when the first device is not in use (eg, any electronic device disposed on the lens housing will not be electrically connected to the first temple) The electronic components related to power saving and efficiency 160384.doc • 27- 201234069 rate. In some embodiments, the first conductive path conducts electricity from the first temple to the lens housing when the first conductive path is in a first position and the first conductive path is at the first mirror Where the foot is in a second position without conducting electricity from the first temple to the lens housing, the lens housing includes a first electrical contact and the first spring mechanism is in the first position The first electrical contact forms an electrical connection. In some embodiments, the first spring mechanism does not form an electrical connection with the first electrical contact in the second position. That is, in the embodiment where the first conductive path or a portion thereof includes the spring mechanism (or one of the spring mechanisms), the spring mechanism can be directly connected (ie, physically contacted) to the lens housing. The electrical contacts on the top. In this manner, the conductive path provided at least in part by the spring mechanism can be selectively provided by contacting and not contacting the electrical contacts on the lens housing. In some embodiments, in the first device as described above, the first spring mechanism is surfaced to the first lens. This can be the case, for example, when the first device > contains a frameless lens frame. The spring mechanism can provide some of the same functionality as in the frame or semi-frameless embodiment, such as by applying a pressure to the wearer's head, such as by a frameless implementation. In the example (such as when the screw or hinge button is used. II =), the bullet mechanism can also (4) to the lens housing. In some"

= The lens includes a - first electrical contact, and the first - magazine (10) is framed at the 笫 _ your banshan I. When the middle is set, an electric current is formed with the first electrical contact: that is, the elastic mechanism can form a part of the conductive path, and the electrical path drives the current from the first temple to the The lens (and can power and/or control any of the electronics in the lens). As mentioned above, in some embodiments, the spring mechanism can be directly coupled to the lens and thereby also form a direct electrical connection with one of the electrical contacts disposed on the lens. The spring mechanism itself may comprise a conductive component (including a conductive spring in some embodiments) that can form a connection. In such embodiments, the spring mechanism can be snapped into the lens' but the conductive components of the spring mechanism selectively contact the electrical contacts of the lens. In some embodiments, the first spring means is housed in the first temple in the first device as described above. As used herein, the term "accommodated in" may mean that when the first spring mechanism is coupled to the first temple such that a portion of the first spring mechanism (such as a spring or a conductor) is in the The time inside the structure of a temple. However, the first spring mechanism can have components that are exposed outside of the structure of the first temple, such as for electrical connection to other components such as the lens housing. Embodiments including a spring mechanism embedded in the temple can provide aesthetic value (i.e., the electroactive frame can present a more desirable appearance) because it can be covered by the component or contained within the overall structure of the device. To provide a more refined look. In addition, embedding the first spring mechanism in the first temple (or any group #, such as the lens housing) may also provide a more durable or reliable device because the first temple protects the spring mechanism from The lens frame is typically affected by environmental conditions and physical damage experienced by f. In some embodiments, in the first device as described above, the first spring mechanism and the electronic component are electrically connected as defined above, and the electrical connection J60384.doc •29·201234069 does not need to be touched. Direct physical contact. There may be any number of conductors located between the two components of the electrical contact. The spring mechanism can be disposed between the electronic device module and an electronic component controlled by the module and/or powered by the module, and thus, in some embodiments, the spring mechanism is electrically connected to the electronic device module This connection can be made for efficiency regardless of the position of the first temple, particularly in embodiments where the first spring mechanism is disposed on the first temple. In some embodiments, the first spring mechanism is in direct electrical contact with the electronic device module. That is, no other conductors are placed in it. Between the electronic device module and the electrical connector. Some exemplary embodiments are illustrated in Figures 3 through 1A. In some embodiments, the first conductive path conducts electricity from the first temple to the lens housing when the first mirror is in the first position and the conductive circuit is at the first temple The first spring mechanism is maintained with the electronic device mode in both the first position and the second position without conducting electricity from the first temple to the lens housing in a second position. Group electrical contact. This may be the case, for example, for an embodiment in which the spring mechanism is disposed on the first temple. The first spring mechanism is moved to the second position from the first position (eg, by the spring mechanism) from the first position in which the spring mechanism is electrically connectable to the lens housing Electrical contact with the lens housing can be severed (eg, the spring mechanism and the lens housing may no longer be physically coupled). This may provide the selective conductive path discussed above. The embodiment may provide an electronic device that may only need to connect/disconnect an electrical contact (ie, only one electrical switch) to activate and deactivate the lens housing. The advantages. 160384.doc -30·201234069 In some embodiments, in the first device as described above, the ejector mechanism is in a first position when the first temple is in a first position; And the condition of the second mechanism under the condition that the first temple is in a second position" means any characteristic of the spring mechanism (including the position, size, shape or length of the spring mechanism, and/or spring) The conductivity of the mechanism can vary. In some embodiments, this change in conditions can provide a change in conductivity. For example, the shape of the first spring mechanism can be varied to provide (or not provide) physical contact between the spring mechanism (or assembly thereof) and the lens housing. In some embodiments, the spring mechanism can maintain electrical contact with the lens housing and the first temple, for example, by varying its length or shape (eg, as the distance between the first temple and the lens housing increases) The length of the spring mechanism can be increased to maintain contact). In this regard, the first spring mechanism can have a first length when the first temple is in a first position and a second length when the first temple is in a second position. The first length is different from the second length. "Length" means the dimension of the electrical connector that is substantially parallel to the largest dimension of the temple (preferably when the first device is worn). In some embodiments, in the first device as described above, electricity is conducted from the first temple to the lens housing when the first conductive path is in a first position at the first temple. And the first conductive path is in an open position when the first mirror is not in conduction to the lens peripheral when the first temple is in a second position. "Open position" means that the first temple is in a position substantially perpendicular to the first lens and the second lens, such as when the frame is positioned on the wearer's head. However, the vertical 160384.doc -31·201234069 does not have to be exactly vertical, as in some cases there may be embodiments where the angle between the temple and the lens is less than 90 degrees. This angle is shown in Figure 1 by the angle 1〇4. The angle 1〇4 can be varied based on both the shape and size of the wearer's head and the size and shape of the frame. For example, in some embodiments, the first position can include the first temple and the lens housing positioned such that an angle 104 therebetween is between 60 and 110 degrees. Preferably, the angle 1 〇 4 between the temple and the lens housing in the first position is between 8 and 9 degrees. This typically corresponds to the angle 1〇4 when the first device is being worn, and thereby the electronics of the first device can be used. In some embodiments, in the first device as described above, electricity is conducted from the first temple to the lens housing when the first conductive path is in a first position at the first temple and The second conductive path is a closed position in the case where the first conductive path does not conduct electricity from the first temple to the lens housing when the first temple is in a second position. "Closed position" means that the temple and the lens form an angle 显4 that is significantly less than 9 degrees. This angle may correspond to, for example, the situation where the device is not in one of the positions on the wearer's head, and thus it may not be necessary to activate any of the frame electronics. In some embodiments, the second position comprises the first temple and the lens housing being positioned such that there is an angle 1〇4 between 0 and 60 degrees therebetween. Preferably, the second position comprises an angle 104 between the first temple and the lens housing between a twist and a degree of 45 degrees. Again, this equal angle may correspond to when the first device is not in use. Figures 2(a) and 2(b) illustrate two exemplary embodiments of a spring mechanism that can be used in a first device. First, referring to Fig. 2(a), a spring 202 disposed between the lens 160384.doc • 32·201234069 and the first temple 2〇1 is provided. In this exemplary embodiment, a portion of the 'spring 2' is shown embedded in the first temple 201. The spring 2〇2 is illustrated as a coil spring and the conductor 2〇3 is shown disposed within the magazine 202 (ie, the spring substantially surrounds the conductor). In some embodiments, the conductors and springs can comprise a spring mechanism. Hinge 204 is shown coupled to both lens housing 200 and first temple 2〇1. The hinge 204 permits movement of the first temple relative to the lens housing 200. A conductive path is shown by dotted lines 2〇5 (within the spring mechanism), 206 (within lens housing 200) and 207 (within the first temple). The conductive path may comprise an embedded conductor (eg, a wire or embedded conductive material) within the component or the conductive path may represent the component itself (eg, lens housing 200, spring mechanism (ie, spring 2〇2) And/or conductor 203) and/or first temple 201 may comprise a conductive material). However, embodiments are not limited thereto, and the conductive path does not have to be provided by the spring mechanism or a component thereof. The spring 202 applies a force to the first temple 2〇1 such that the first temple 201 applies pressure to the wearer's head. Another exemplary spring mechanism for use in an electrical action frame is provided with reference to Figure 2(b)'. The spring 212 is not a coil spring but may comprise an elastic material such that when the first temple 211 moves closer to the lens housing 21, the spring 212 is depressed. Due to the nature of the material of the spring 212, the spring provides the opposing force when the spring is compressed (i.e., the spring is displaced toward the lens housing 210). This force can separate the lens housing 210 from the first temple and/or, for example, apply a force to hold the first device tightly on the wearer's head. A hinge 213 (which is shown to include a conductive material) is coupled to the lens housing 21 and the first temple 211 such that the lens housing and the first temple are movable relative to each other. A conductive 160384.doc -33· 201234069 path is extended by dotted line 214 (within the lens housing) and 21 5 (within the first temple). When the first temple 211 is positioned proximate to the lens housing 210 (e.g., when the spring 212 is sufficiently compressed), the conductive paths 2 14 and 215 can be connected (and thereby form a single conductive path). Although the conductive path is provided via conductive hinge 213 as illustrated, embodiments are not limited thereto. That is, a portion of the conductive path (eg, between conductive paths 214 and 215) may be by any suitable component (such as, Provided via spring 212). For example, the lens housing 210 and the first temple 211 can include electrical contacts at the interface of each of the contactable springs 212. When the spring is compressed, an electrical contact can be formed between the lens housing 210, the spring 212 and the first temple 211. In some embodiments, the conductive path 214 can be directly connected to the spring 212 (e.g., the spring itself can comprise a conductive material) such that only electrical contact (optionally) with the conductive path 215 in the first mirror 211 is required. For example, when the first temple is moved to contact 212, but before the lens 212 is fully compressed to contact the lens housing 210, an electrical path from the first temple 211 to the lens housing 2 10 can be established. This exemplary embodiment can provide the ability to make the conductive path at an angle 216 of less than 90 degrees (this can be beneficial, for example, to prevent when the electrical action frame is worn and the pressure exerted by the spring causes an angle of less than 9 degrees. Connection problem). It should be understood that in some embodiments, a spring can be located on the first temple and the principles discussed herein are equally applicable. Referring to Figures 3 through 10, an exemplary embodiment of a first device is provided for illustrative purposes only. The components of the exemplary embodiment of FIGS. 3-10 include: a first temple 300; an electrical connector 3〇1 for connection to a pogo pin; a spring 302 and a conductive portion 303 (eg, a stainless steel cable) Spring needle; 160384.doc •34· 201234069 push bone 3 04; end and right weight 3〇5, spring cover 306; electronic component module 307; the first mirror t is used to accommodate the electronic device The cavity 308 of the module and the electrical connector 3 10 to the electronics module. It should be noted that 'this is only for the purpose of the month and is provided to demonstrate an exemplary embodiment in which a spring pin embedded or attached to the first leg 300 can be used throughout the first leg 3 〇〇 and the lens housing. The plurality of positions (i.e., angles) maintain electrical contact with the lens housing. The pogo pins can be used with or without the spring mechanism, but when combined with the use of a spring mechanism, embodiments can provide the benefit of forming a gap between the lens housing and the first temple when the electromechanical frame is worn. The conductive path is maintained at an angle of less than 90 degrees. 3 shows an exploded view of a component including an exemplary device in accordance with an embodiment provided herein. The device includes an electronics module 307 that is incorporated into the cavity 308 of the first temple 3. The electronics module is electrically coupled to a pogo pin comprising a spring 3〇2 and a conductor 303. The pogo pins can be used to maintain a connection as the distance (and/or relative position) between the two electrical contacts is increased or decreased because the spring 302 applies a force to maintain electrical contact with the conductor 3〇3. Thus, for example, embodiments may provide that as the first temple 3〇〇 moves relative to the lens housing, the spring pins maintain electrical contact with the lens housing and thereby provide a first to third lens 300 to the lens housing One of the conductive paths. The vertebral 3 〇 4 allows the first temple 300 to move relative to the lens housing 'while covering the spring pin end segments 305 can include a hinge to allow the first temple 3 〇〇 and the lens housing to be transferred together , but can move relative to each other. The spring box 306 covers and protects the pogo pins and/or provides aesthetic value, giving the frame an elegant appearance. I60384.doc 35-201234069 Figure 4 shows the same components described above with reference to Figure 3 from an alternative perspective. It should be noted that the end segment 305 'spring cover 306 and electronics module 307 can be joined to the first temple 300 by a suitable method (such as an adhesive, double-sided tape, screws, etc.). Figure 5 shows a close up view of the first temple 3 (10) of the inferior device. The bullet pin (and, in particular, the end of the pin containing the spring 3〇2) can be electrically connected to the electrical connector. The electrical connector 3〇1 is intended to be inserted into the cavity in the first temple 300. A connector 310 that can be electrically connected to the connector and the electronics module 〇7 is also shown. Thus, the electrical connectors 3〇1 and 31〇 form a conductive path from the latching needle to the electronics module (not shown) in the cavity. In some embodiments, connectors 301 and 31A can comprise a single electrical conductor. Figure 6 shows the assembly described above coupled to the first temple 300 (or within the first temple 300). As shown, the vertebral body 3〇4 covers a portion of the conductor 303 of the pogo pin. The electrical connector 3〇1 is shown in physical contact with the spring pin and the spring pins are substantially embedded within the first temple 3〇〇. Figure 7 shows an isolation diagram of the connections formed between the electronics module 3〇7 and the pogo pins. As shown, the electrical connector 3.1 is coupled to the electronics module 3〇7 and is in physical (and electrical) contact with the portion 302 of the pogo pin. In this manner, a conductive path from the electronics module 307 to the pogo pin is provided. The pogo pin (via conductor 303) can further form an electrical connection with a portion of the lens housing. In this case, a conductive path from the first temple 300 (e.g., from the electronics module 307) to the lens housing can be provided. In this manner, the electronics module 160384.doc • 36 - 201234069 307 can provide, for example, power signals and/or control signals to electronics housed in the lens housing and/or in the lens. Moreover, as noted above, the use of a bullet needle can be beneficial (eg, by using a spring mechanism) because the pogo pins can continue to be directed to a plurality of positions of the first temple 300 relative to the lens housing (eg, 'formed in between A plurality of corners, as described above, provide a portion of a conductive path between the electronics module 307 and the lens housing. 8 and 9 show views of the first temple 300 with each of the identified components coupled together as appropriate. The illustrative embodiments may provide an exquisite appearance (which may be aesthetically pleasing) because each of the internal components (such as pogo pins, electrical connectors, and even electronic device modules) A mirrored foot is relatively concealed or obscured. Figure 10 shows a close up view of the end section 305 of the exemplary device. As shown, the spring pin conductor 3G3 is partially exposed to enable an electrical connection to the lens housing. The vertebral body 304 covers a portion of the pogo pins and also provides the first temple 300 with the ability to hold (four) to the lens housing: the ability to move relative to the lens housing.

example. For example, . Some of the advantages of the JL include the implementation of the electromechanical frame. The use of a spring mechanism provides the wearer with a better fit and provides the first conductive from the first temple to the lens housing. The path may allow embodiments to utilize electronic components located on either or both of the lens housing (and/or lens) and the temples. In addition, some embodiments may also provide the advantage that by providing a conductive path from the temple to the lens housing for some position of the temple relative to the lens housing, the conductive path is not provided in one or more other locations. Power Saving (and/or Saving Life of Electronic Devices) 例 Exemplary Embodiments Containing Separate Conductive Paths Some embodiments disclosed herein may provide for electrical isolation from each other! The electrical action frame of a conductive path. Since a wide variety of complex electronic devices are provided on the electrical action frame, it is necessary to provide (4) each external electrical connection between the various components to function properly, and such electrical connections (and conductive paths providing telecommunication performance and current) It must be separated (ie, electrically isolated) to properly control the components (or, if it is necessary to supply power signals and control signals to the electrical components), this may also require multiple paths of electrical isolation. The electrical components are often located in the temples of the active frame (through (4) where there may be more space to place these components in a ^^ acceptable manner). The electronic, and the valley (four) temples may be required between the mirror housings of the @ mirror housing (which may include reading 浐 too 1, 仟 耦 coupling to permeable, including the lens itself) between any electrical components The electrical connection embodiment can provide: providing electrical power for the frame of the self-powering frame to the lens housing by means of an electro-mechanical frame member, "frame element, etc., as shown in the present invention. Components in the middle, such as electrical complex: two frames itself) wires, conductors (such as metal) or I60384.doc • 3S· 201234069 electric rubber. Therefore, your frame components can include temples, bridges, and lenses. Set (for example, with a gripper, a frame frame of a king frame or a semi-frameless frame, a hinge connecting the mirror housing and the temple, a chain, and/or other lens housings such as screws, nylon filaments Fiber, etc.) package. The frame element does not contain an external component attached to the frame, such as a line extending along the outer surface (_). In this way, it is provided in one or more frame elements. ^电路#, the electrical action frame can be made by not making loose cords or other connections It is aesthetically pleasing to traverse the frame or where it may be seen. Electrically acting frames and, in particular, the electrical frames with electrical components in the two lenses often contain multiple electronic components, such as Drive components and control components (eg, drive components and control components of a mother lens). This can result in expensive devices with repeating components. The inventors have discovered that, for example, by using frame elements to provide multiple isolated electrical paths, It is possible to reduce the number of repetitive electrical components and to significantly reduce the cost of such devices (eg, by controlling only a single electronic device module for both lenses). That is, electronic components (such as power supplies, controllers) Components such as microprocessors and sensor mechanisms (such as switches for bootable devices) are often the most expensive (or at least relatively expensive compared to some of the other components of the frame). By reducing each The number of components in the device, the inventors have provided the cost associated with the production of materials and reduced manufacturing complexity and time benefits In addition, the frame design may be lighter and more structurally durable because fewer components are placed on the frame. The following description includes the mirror-to-lens housing from the device provided by one or more frame elements (or components thereof) Illustrative Embodiments of Devices for Conducting Paths I60384.doc -39 - 201234069 Examples The embodiments described below are for illustrative purposes only and are therefore not intended to be limiting. After reading the present invention, those skilled in the art are generally familiar with It will be apparent that the various components described below may be combined or omitted in a particular embodiment while still practicing the principles described. A first device is provided that includes a frame. The frame further includes: an adaptation to support a first lens And a lens housing of the second lens, a first temple connected to the lens housing, and a first temple coupled to the lens housing. The first device further includes a first conductive path from the first mirror to the lens housing provided by one or more frame members and a first temple provided by one or more frame members a second conductive path to the lens housing. That is, by using two conductive paths, the first device can be long: for example, between two devices (eg, one connection providing power and another connection providing control input) or a plurality of devices (eg, A plurality of electrical connections between a signal or current is provided to a control module or power supply of two different components, such as two electroactive lenses. In this regard, the first conductive path is electrically isolated from the second conductive path. Embodiments may thereby provide the ability to transmit individual signals (e.g., electrical and control signals) from electronics housed in the temples to electronics located on the lens housing. It should be noted that the electrical components need not be located on the lens housing (e.g., the electrical components can be located in the lens of the device). In some embodiments, the device need only provide a conductive path from the temple (i.e., the temple or any portion of the components thereon) to the lens housing. The conductive path may extend further to the lens or another component disposed thereon (or the conductive path may even extend through the lens housing and extend to another temple). 160384.doc •40· 201234069 Electrical components are often required (and/or required) to be placed or placed on the lens housing to perform the intended use of the electrical components. For example, if an electronic component displays an image to a viewer, changes the refractive index of the lens, or otherwise provides a function related to the wearer's vision, such components may need to be on (or near) the lens. However, as mentioned above, the lens housing (or the lens itself) often does not have the need to activate and/or utilize electronic components (such as power supplies, controllers or sensing modules) located on the lens housing or lens. Sufficient space for additional electrical components. If such components are placed on the lens housing (or the lens itself), such components may be aesthetically unpleasant and noticeable. Thus, in some embodiments it may be desirable to make such additional: some or all of the components are located on the temples of the frame (or the internal temples typically have available space) additional electronic components can be placed and/or hidden in the space Or masking to maintain aesthetic appeal. However, as mentioned above, it may be necessary to provide a conductive path between the components of the temple in the lens housing (or on the lens). For example, the component itself or a conductor embedded in the component, the inventors have developed an embodiment of a device that supplies the necessary conductive circuitry to the lens housing while maintaining the aesthetics of the device. Furthermore, by electrical isolation The components provide a separate conductive path, and the inventors have opened an embodiment of a device that provides an input and connection to an electrical component that can be consuming to the lens housing. In some embodiments, 'as described above The first device further comprises at least one electrical insulator disposed between the first conductive path and at least a portion of the second conductive path. "At least one state eight a*" It is said that the main insulators do not have to be placed along the entire first or second conductive path (or along the entire interface of the two paths). Embodiments can provide electrical isolation of the two The circuit can be used in a different manner, which can, for example, combine insulators with other components or 2 (such as '# provides a gap between the _ conductive paths in the region) and/or can utilize multiple insulating materials. The electrical insulator can be made of any suitable material, and in some embodiments (such as embodiments where the conductor is embedded in the frame member), the electrical insulator can (= include a portion of the frame member (such as 'when the frame member contains plastic material By way of example, t, in some embodiments, the electrically insulating material may comprise a plastic material that may be injection molded or otherwise formed. In some embodiments, the 'electrically insulating material includes a time. The frame member may be electrically conductive. Electrically insulating germanium is utilized in some embodiments of the material, and thereby the two electrical paths may form the two conductive paths using an insulating material (although as described below, the frame element may also be Other methods are used to isolate the two conductive paths when the device comprises a conductive material - such as by using an air gap to separate the paths. Additional exemplary embodiments relating to similar embodiments are shown in Figures u through 12. Additionally, implementation Examples may include a plurality of electrical insulators (eg, multiple pieces of the same material or different materials) and 'the edge material may be positioned along different portions of the electrical path (eg, one portion of the insulating material may be located in the temples and another of the insulating materials) A portion may be located in the lens housing. In this regard, in some embodiments, the first device further includes a first hinge that is coupled to the 帛I foot and the lens housing. The foot is coupled to the outer casing and allows the temple to move relative to the outer casing. The electrical insulator can be located at least within the first hinge. For example, in some embodiments 160384.doc -42. 201234069, one of the electrical paths can be included More keys (ie, the hinge may comprise a conductive material or a conductive material may be embedded in the hinge). In some embodiments, the chain may include a portion of the conductive paths 'because the hinge is coupled to the lens housing (or includes a portion of the lens housing) and both of the temples, and thereby provides between the two frame elements a conductive path. An example of a hinge containing a portion of a conductive path is shown in Figure 2(a) (e.g., path 2〇5_2〇6) and Figure 2(b) (e.g., path 214-215). The hinge can, for example, comprise a conductive material, and the insulator can be placed over the hinge 10 to define two electrically isolated conductive paths. However, as mentioned above, the electrical insulator can be located in any suitable location or locations as desired. For example, in some embodiments the 'electrical insulator is located at least within the first temple. In some embodiments, the electrical insulator is located at least within the lens housing. This may be preferred in embodiments such as a semi-frameless frame in which a portion of the frame edges (which may be used to shield or hide the embedded conductor) are present only on one portion of the lens (e.g., the top or bottom of the lens). The two conductive paths can be located in a portion of the frame side and an electrical insulator can be used to separate the two paths. In some embodiments, the first device further includes an electronic device module coupled to the first temple of the frame. As mentioned above, the electronic time module and other components may be preferably located on the temples for practical and aesthetic reasons. The electronics module can include, for example, a controller, a power supply, and/or a sensing mechanism. Some or all of these components can be used to operate the electrical group # located on the lens housing, which may therefore require electrical contact between the 4 electronic device module and the component. In this regard, the first conductive path and the second conductive path can be electrically connected to the electronic device 160384.doc -43- 201234069 device module. In this manner, the electronic device module (or components thereof) can be electrically connected to components that are attached to the lens housing (such as the components of the first device that are located in the lens). In some embodiments, in addition to immersing the electronic device module in the first temple, the frame member is used to provide a portion of the conductive path that results in a device that appears to the observer as a normal (non-electrically acting) frame. . Further, in some embodiments, the electronic components (eg, connected to the embedded electronics module) and the conductive path (including one or more of the frame components) may be unaffected by the natural environment' and may, for example, be reduced Small possibility of short circuit due to external charge or force. In some embodiments, the first device step as described above includes a first lens having a first electrical contact and a second lens having a second electrical contact. That is, some embodiments of the first device may include an electrical mirror (such as a lens that performs different functions when current is supplied to the lens or components thereof). In order to provide current to the electroactive lens or components thereof, the lenses may comprise ~ one electrical contact. In some embodiments, the first conductive path is electrically coupled to the first electrical contact of the first lens and the second conductive path is electrically coupled to the second electrical contact of the second lens. That is, a first conductive path can be electrically connected to the first lens and the second conductive path can be electrically connected to the second lens. In this manner, for example, an embodiment may provide that a single-electrical component (or an electronic device module) that is coupled to both the first conductive path and the second conductive path may provide signals and/or currents to the The first lens and the second lens of the device. For example, the embodiment may provide that the conductive path of the electrical isolation is separately controlled by the (four) first lens and the second lens. The first lens and the second lens may be individually controlled by a separate electrical component 160384.doc • 44- 201234069 (ie, the first conductive path and the second conductive path may (but need not be) electrically connected to a single component)' Instead of using a single electrical component (or electronics module). In some embodiments, the first device (including a first lens having a first electrical contact electrically connected to the first conductive path and a second electrical contact) The second lens connected to the second conductive path may include a first electrical contact and the second lens may further include a first electrical contact. That is, the first lens and the second lens can each include a first electrical contact and a second electrical contact such that each can receive a plurality of signals or currents from one or more electrical components. In some embodiments, the first conductive path can be electrically connected to the first electrical contact of the second lens and the second conductive path can be electrically connected to the second electrical contact of the first lens. In this regard, the first lens and the second lens can each be electrically connected to both the first conductive path and the second conductive path. Such embodiments may, but need not, provide for simultaneous control of both the first lens and the second lens using a single electronic device module or other component. Embodiments may thereby utilize, for example, a single electronic device module that is electrically coupled to both the first lens and the second lens. As described above, a single electronic device module and/or electrical component, such as the electrical components of the first temple that are attached to the device, are used to control a plurality of electrical components (eg, coupled to The lens housing and/or the components of the electro-optical lens of the first device can provide several benefits. This includes, for example, removing redundant electrical components and thereby reducing the manufacturing cost and complexity of the first device without sacrificing functionality. These embodiments may also eliminate the need to synchronize the first lens with the second lens of 160384.doc -45 - 201234069. That is, for example, if the first lens and the # second lens are electrically actuated lenses and are controlled using two different electronic device modules (or components thereof), each of the operations may be _other (four) (Otherwise, the wearer may misinterpret or receive conflicting functionality from the lens). Synchronizing the lens may require additional electrical components and further increase the cost and complexity of the first device. In fact, in some embodiments, the second temple or the second lens does not include an electronic device module that is attached thereto. In this manner, the electrical action frame can include a single electronic device module (or a component thereof) that is electrically coupled to both the first lens and the second lens (or to other components of the lens housing) Less redundant features. In some embodiments, the use of two electrical connections (ie, 'via the first conductive path and the second conductive path) may be located in a lens housing or an electroactive lens (eg, the first lens and the first lens) The minimum number of electrical contacts required for the correct functioning of the electrical component. In some embodiments, in the first device as described above, the lens housing comprises a non-conductive material and provides the first conductive path The frame member (or a portion thereof) includes a conductive material embedded in the lens housing. That is, the conductive path can comprise a material embedded in the lens housing. This may provide the benefit that the lens housing material itself may electrically isolate the first conductive circuit 彳i from other components, such as the second conductive path. Also, the use of a non-conductive material (rather than a conductive material) for the lens housing prevents a malfunction of the electronic component or a false signal generated by an external source such as by static electricity. In some embodiments, the frame is provided with the second conductive path (or a portion) 160384.doc - 46 - 201234069 The component comprises a conductive material embedded in the lens housing. In these embodiments, the frame elements that provide the first conductive path and the portions of the second conductive path may be immersed in the lens housing such that a sufficient amount of non-conductive material (eg, including The material of the lens housing is disposed between the two conductive circuit shuttles such that the two conductive paths remain electrically isolated. In some embodiments, additional electrical insulation may be provided and it may also be embedded within the lens housing. In some embodiments, the lens housing comprises acetate. Acetate is one of the more common materials included in the lens frame. The acetate is not electrically conductive and it is therefore preferred to use this material for some of the embodiments described above that utilize non-conductive materials. In some embodiments, in the first device as described above, wherein the first component includes a first lens and a second lens having a first electrical contact and a second electrical contact, wherein the first conductive path Electrically connected to the first lens and the first contact of the second lens, and wherein the second conductive path is electrically connected to the second lens and the second contact of the second lens, the lens housing may comprise conductive material. A first portion of the lens housing provides at least a portion of the first conductive circuit therefrom. That is, a portion of the outer lens of the lens comprising a conductive material may form an electrical connection between the first electrical connection point of each of the first lens and the second lens. Exemplary embodiments & amps are shown in Figures u and 12 and will be described in detail below. In some embodiments, at least a portion of the second electrically conductive path is provided by a second portion of the lens housing. That is, for example, the lens housing can be divided into a plurality of electrically isolated portions. This separation can be performed in any manner, such as by having two separate conductive blocks that are suitably shaped (eg, molded into a lens housing portion of the mold 160384.doc -47·201234069, such that when coupled to the first The first portion and the second portion can support the lens when a device is coupled to the first device (such as by coupling the portions to the hinge or temple) such that the remaining portion Physically separated (ie, electrically isolated). In this manner, some embodiments may provide some advantages over other designs for providing electrically isolated conductive paths, such as (by way of example) providing a less complex manufacturing process. That is, for embodiments in which the lens housing itself comprises a conductive material, it may not be necessary to provide a conductive material that is embedded within the lens housing (this can be a complex process, particularly when attempting to define multiple electrically isolated conductive paths). Using a more macroscopic approach, such as physically separating the large conductive components of the frame to form a conductive path (eg, the top portion 1101 and the bottom portion separated by an air gap or insulator at the ends 1104 and 1105 and at the center 11〇3) 1102, where the ends can be coupled to the temples (or hinges) of the first device, embodiments can provide an easily achievable and commercially viable design for providing electrically isolated conductive paths. In an exemplary embodiment, the first device includes a first lens and a second lens having a first electrical contact and a second electrical contact, wherein the first conductive path is electrically connected to the first lens and the second lens The first contact, wherein the second conductive path is electrically connected to the second lens and the second contact of the second lens, wherein the lens housing comprises a conductive material Wherein the first portion of the lens housing provides at least a portion of the first conductive path and wherein at least a portion of the second conductive path is provided by a second portion of the lens housing, the first portion of the lens housing The second portion of the lens housing may be separated by at least one of an air gap or an insulating material, 160384.doc -48 - 201234069. This may be illustrated again with reference to the illustrative embodiments of FIGS. 11 and 12, wherein The electrical isolation between a conductive path 1101 and the second conductive path 1102 is an air gap at the bridge 1103. Other points of electrical isolation are provided at the edges 1104 and 1105 of the lens periphery 'at the edges, the lens housing The first portion 1101 and the first portion 1102 are coupled to the temples at different locations. In some embodiments, electrical insulation may be used instead of the air gap at the bridge 3. This may provide an advantage over the air gap embodiment. The advantage is that the parts 1101 and 1102 above and below the air gap are likely to be deformed at a certain point, so that the electrical isolation can be damaged by the moon (especially when considering the abuse that the lens may be subjected to In contrast, if an insulator is used at 1103, even if some of the turns and 丨丨〇2 change shape, there may be an insulator disposed between the two portions, thereby potentially maintaining electricity. Isolation. As mentioned above, in some embodiments, the nose bridge 1103 includes a first portion n〇1 and a second portion 1102 of a lens housing (or portion thereof) and an air gap can be formed at the bridge. In some embodiments The air gap has a maximum distance of at least about 10 mm. This distance of the air gap provides sufficient separation between the first portion 1101 and the second portion 1102 such that the air gap is less likely to be damaged during daily use. In some embodiments, the first portion of the lens peripheral and the second portion of the lens housing comprise a metal. Further continuing the embodiments, in some embodiments, the electrical insulator is further included in the first device further comprising at least one electrical insulator disposed between the first conductive path and at least a portion of the second conductive path A first component and a second component can be included. The first component of the electrical insulator disposed between the first conductive path and the second conductive path includes the 160384.doc -49 - 201234069 first lens and the second lens. That is, referring again to the first portion of the U's insulator for illustrative purposes only may refer to the separation provided by the first lens 1106 and the second lens 1107. That is, in some embodiments the lens is not made of a conductive material (or comprises an embedded conductive material) such that current can flow from the first portion of the lens housing! i 〇 i to the second portion i ^ . In some embodiments, the second component of the electrical insulator disposed between the first conductive path and the second conductive path comprises at least one of an air gap and an electrically insulating material. That is, referring again to Figure 11, the second portion of the insulation can refer to the separation provided at the nose frame U03. In some embodiments, the second component of the electrical insulator is disposed between the first lens and the second lens. In this manner, the second portion of the insulator prevents current from flowing between the two components and thereby jeopardizing the electrical isolation of the first portion of the lens housing from the second portion. In one embodiment, and as mentioned above, the electrically insulating material of the second portion of the lens housing and the second lens housing is electrically isolated: 13 T is formed into a plastic material that is shaped or formed in a similar manner. This material = better because it is capable of molding its shape to the particular area it is limited to. In addition, since the material can be injection molded, it can be easier to handle. The material is applied to the portion of the arbor frame, such as embedded in the lens housing or nose truss region. In some embodiments, the electrically insulating material comprises nylon. In some embodiments, the first device as described above can comprise a half benefit frame = a sheet frame. As defined above, in some embodiments, a semi-frameless lens frame typically has a portion of the frame border surrounding the first lens and the second lens to provide a wrap. In this part of the semi-frameless lens frame I60384.doc • 50- 201234069 = conductive path and second conductive path may be preferred, because (9) as and can be used on the remaining sections of the lens to hold the lens in In the proper position of nylon, fiber or other materials, the frame side is usually a thicker π knife of the lens housing (that is, this part can better hide the electrical components, and can also better protect the electricity) The connection is not damaged). In this regard, the first conductive path and the second conductive path are each disposed within the lens housing of the semi-rimless glasses. For a semi-frameless frame design embodiment, both electrical conductors including a first conductive path and a second conductive path may be disposed on the top (or bottom) of the lens, depending on the style of the frame and/or the portion of the frame (or lens) Above the thicker part of the casing). The first conductive path and the second conductive path may be separated by an electrically insulating material. That is, for example, a semi-frameless design lens housing may be included in the top of the first lens and the second lens. The portion of the lens peripheral (or any other suitable lens housing assembly) lens portion of the lens can include both the first conductive path and the second conductive path and an insulating material disposed between the conductive paths (such as resistant The first conductive path and the second conductive path are electrically coupled to the first lens and the second lens and are electrically isolated from each other. In some embodiments, in the first device as described, the lens housing comprises a full frame eyeglass frame. The illustrative embodiment is again shown in Figures 丨丨 and Figure 12' but the embodiment is not limited thereto. For example and as described above, the full frame design embodiment can also include a first conductive path and a second conductive path provided by a material embedded in the lens housing. That is, embodiments are not limited to the use of only a lens housing comprising a conductive material. Full frame embodiments may include a lens housing comprising metal or plastic (or some combination thereof). In general, the full-frame design may be preferred from a functional perspective 160384.doc -51- 201234069, as many of these embodiments include a frame edge that provides a supply from the temple to the lens housing and/or from the lens housing to A ready-made means of the first conductive path and the second conductive path of the temple (as described in the above examples). Although embodiments may provide one or more conductive paths from the temple to the lens housing (in some embodiments, the one or more conductive paths may provide one or more of a reduction in the number of components used to electrically actuate the frame) Advantages), but the embodiment is not limited thereto. In fact, the concepts discussed and described above are equally applicable to embodiments including a plurality of electronic device modules and/or other components located on both the first and second temples. In general, such embodiments may present advantages over a single module embodiment, such as by controlling individual components (such as by having individual controls on each of the legs for each (or both) components (such as Greater flexibility in terms of electro-optical lenses. Additional exemplary embodiments are provided below: Further providing a first device, comprising a frame, the framework further

Electrical path. As mentioned above, the use of the second temple to the fourth guide frame element of the lens housing provides a better than possible benefit of 160384. Doc •52- 201234069 Many advantages of systems that use exposed wires or other methods for establishing the path between the temples of the frame and the lens housing. In the first device, each of the first conductive path, the second conductive path, the third conductive path, and the two conductive paths are electrically isolated from each other. As mentioned above, it is often beneficial to provide multiple electrically isolated conductive paths for controlling multiple electronic components and/or providing additional functionality, such as by providing power paths and signal paths to such components. In some embodiments, the first device as described above provides the following advantages. A plurality of electronic device modules and/or electronic components can be disposed on either or both of the temples of the electrical action frame. This may, for example, allow for more functionality than a single module embodiment, based on, for example, providing additional electronics included on the first device. Moreover, by providing an electronics module on both temples, embodiments can provide the advantage of not having to utilize conductive paths that span the bridge from the frame to the power/control electronics on either side of the lens housing. In some embodiments, this reduces the complexity of fabricating the portion of the electro-optic lens frame. Additionally, in some embodiments, the electrically conductive path across the bridge can be the location where electrical isolation between the various electrically conductive paths is more likely to be compromised. Some embodiments may also provide a more robust electrical action frame (and/or lens system) in which potential backup systems and redundancy are provided for electronic components on each of the temples. In some embodiments, in the first device as provided above, the first conductive path is electrically isolated from the second conductive path by an electrical insulator, and the third conductive path is coupled by an electrical insulator The fourth conductive path is electrically isolated. The insulator may comprise any suitable material and may be located in any suitable location, such as at least in a temple, hinge or lens housing, as described above. Doc -53- 201234069 stated. In some embodiments, the first device further includes a first electronic device module disposed on the first temple and a second electronic device module disposed on the second mirror. As mentioned above, such embodiments may provide for individually controlling a plurality of components (such as an electro-acting lens) or providing a redundant system such that the electro-acting lens may function after one of the electronic device modules fails. advantage. In some embodiments, the first device further includes a first lens having a first electrical contact and a second electrical contact, and a second having a first electrical contact and a second electrical contact lens. In some embodiments, the first conductive path can be electrically connected to the first electrical contact of the first lens, and the second conductive circuit can be electrically connected to the second electrical contact of the first lens. The third conductive circuit is electrically connectable to the first electrical contact of the second lens and the fourth conductive circuit is electrically connectable to the second electrical contact of the second lens. In some embodiments, the first conductive path and the second conductive path are electrically connected to the first electronic device module, and the third conductive path and the fourth conductive path are electrically connected to the second electronic device module. That is, in some embodiments, the situation may be that the conductive path provided from the first temple to the lens housing is provided in both position and function from the second temple to the lens housing. The conductive paths are separated (however, embodiments are not limited thereto). For example, in some embodiments including an electro-acting lens, the first conductive path and the second conductive path can be electrically connected to the first lens and the third conductive path and the fourth conductive path can be electrically connected to The second lens. In some embodiments, the first conductive path and the first conductive circuit t are not lightly connected to the second lens. Similarly, in some implementations 160384. Doc -54· 201234069 In the example, the first conductive path and the fourth conductive path are not electrically coupled to the first lens. In this regard, the first electrical path and the second electrical path can be electrically isolated from the third conductive circuit and the fourth conductive path based primarily on the fact that the power ▲ or the cover does not overlap. For example, the first conductive path and the second conductive path may be on a first side of the first lens, and the third conductive path and the fourth conductive path may be in one of the through (four) shells There is a second side of the second lens. As mentioned above, in some embodiments, it may not be necessary to have a conductive path across the bridge. However, embodiments are not limited thereto, and any or all of the conductive paths may span the bridge of the electro-active frame. Referring to Figures 11 through 13, an exemplary embodiment of a first device including a plurality of electrically isolated conductive paths disposed on an electro-acting eyeglass frame is provided. Referring to Figure 11, an illustrative embodiment of a device including an electro-mechanical lens housed within an electro-active frame is provided. As described above, one or both of the activatable lenses 1106 and 1107 or one or more of the electronics modules can be positioned within either or both of the temples of the electro-acting eyeglass frame. As shown in Figure 11, a full frame of electro-acting eyeglass frames is provided. Moreover, as shown, Figure 11 is an illustration of an illustrative embodiment in which the lens housing can comprise a conductive material. As described above, the embodiment is not limited thereto. The exemplary device of Figure 11 includes an upper frame portion 1101 (i.e., a first portion of the lens housing) that can include a portion of a first conductive path. In some embodiments, the upper frame portion 1101 can be made of metal, but is not limited thereto. The first conductive path can provide an electronic device module and one or two electro-active lenses or any other electronic device group that can be located on the lens housing. Doc •55· 201234069 A first-link (ie, an electrical connection) between a first electronic contact or terminal (not shown). Continuing with the description of the illustrative embodiment shown in FIG. η, an exemplary electro-acting eyeglass frame includes a lower frame portion 11〇2 (ie, a second portion of the lens housing) that may include a second conductive path— section. The lower frame can also be made of metal 'but not limited to this, and any conductive material can meet the needs. The second conductive path can provide between the electronic device module and one or two electrically active lenses or a second electronic contact or terminal (not shown) of any other electronic component on the lens housing. Two links (ie, electrical connections). By providing the upper frame portion 1101 and the lower frame portion 11A2, embodiments can provide separate conductive paths to both of the electro-optical lenses 1106 and 1107. Thus, in some embodiments and as described above, the electro-optical lens (or any other component on the lens housing) may be a single electronic device module positioned on the right or left temple portion of the electro-active frame Group control / power supply. However, embodiments are not limited thereto and a plurality of electronic device modules located on either or both of the temples may be provided. As shown in Fig. 11, the upper frame portion 丨101 and the lower frame portion 丨1〇2, which may include the first conductive path and the second conductive path, respectively, may together form a bridge 1103 of the electro-acting eyeglass frame. The nose frame 1103 of the electro-acting eyeglass frame can be formed without the upper frame portion 1 i 碰 contacting the lower frame portion 1102 (ie, 'physical or electrical contact) to ensure a separate conductive circuit from (ie, The first conductive path and the second conductive path are maintained electrically isolated from each other). In addition, the upper frame portion 11 〇 1 and the lower frame portion 丨丨〇 2 are at 160384. Doc -56- 201234069 The ends 11 04 and 1105 are physically and electrically separated to maintain electrical isolation from the other. Upper frame portion 1101 and lower frame portion 11〇2 can be coupled to hinges, temples or other frame assemblies at ends 11〇4 and 1105 (but at different locations to maintain electrical isolation from one another). The frame portions can also be electrically connected to the first conductive path and other portions of the second conductive path at the ends 11〇4 and 1105. Referring to Figure 12, an illustrative illustration of an aesthetic component (e.g., designing a mask) is provided. The design mask can include an upper snap element 12〇1 and a lower snap element 1202. The upper snap element 12〇1 and the lower snap element 12〇2 may be positioned on top of the upper frame portion 1101 and the lower frame portion 11〇2, respectively. Upper locking element 1201 and lower locking element 1202 may comprise, but are not limited to, a non-conductive material (e.g., plastic). The upper snap element 12〇1 and the lower snap element 1202 can be used to modify the style or design of the electro-acting eyewear. Referring to Fig. 13', an exemplary mirror foot 119301 can be shown that can include a portion of an electro-acting eyepiece frame. One or more electronic components, such as an electronics module, can be coupled to the temples 1301. Embodiments Including Flexible Conductive Elements Previously, the inventors developed novel electro-acting spectacle lenses that can be fabricated as semi-finished lens blanks that can be processed by surface and edge processing using methods known to those skilled in the art. (For example) a finished spectacle lens that corrects the patient's vision (or k for other beneficial functionalities, such as staining, polarizing, filtering, etc.) and is mounted within the eyeglass frame. The inventors have also developed a variety of new designs that can operate electro-acting eyeglass lenses and/or other electronic components and/or function with electro-acting eyeglass lenses and/or other electronic components. Doc • 57· 201234069 Electro-acting eyeglass frames, including, for example, the exemplary embodiments disclosed above, as described herein with reference to exemplary lens design and fabrication, in some embodiments, may be used by those skilled in the art Known methods and apparatus process a semi-finished lens blank into a finished lens. In this regard, a member for forming an electrical connection between the frame and the lens that is consistent with some or all of the methods and apparatus may also be beneficial. In other examples (or consistently), an electrical connection that provides flexibility, adjustability, durability, and/or more reliable electrical contact between various components disposed on or within the electrical action frame can be benefit. As will be described in more detail below, a means for forming such electrical connections (e.g., in a manner consistent with the lens processing methods and/or frame designs currently in use) is provided. As described herein, the means for providing an electrical connection between components of an electro-active frame, such as a connection from a lens to a frame, can comprise a flexible conductive element. In this manner, embodiments may allow for a conventional stress experienced by the lens (such as when worn and removed, dropped, worn, bumped into objects, praised by children, etc.) A solid and tolerant connection. In addition: the flexible conductive element of the power supply connection ... "The embodiment of the W including the electric isolator element can be used, whereby the lens frame accommodates some of the electronic components, and most of the lens must be used by electricity. 彳 knife or all, pieces. #的电动动和或启动起-- or a plurality of groups as used herein, "a flexible conductive element that is flexible and shrinkable. That is, for example, an entity that can be referred to as a conductive material. . Doc -58- 201234069 Physically extensible (for example, can be $, 丨, VL #.  Approximately ν >α is a surface deformed but still conductive ':: such that the material may comprise a portion of a conductive portion. The conductive member may comprise, by way of example only, a conductive rubber. The conductive rubber may comprise, but is limited to, an elastomeric hydrocarbon polymer. Specific non-limiting examples of materials that may comprise flexible conductive elements include metal-added metal-doped polyoxyxides. The flexible conductive member is preferably extrudable or molded in a square shape to be adjacent to any one of the lens housing and the lens (or both). The shape of the file is read and formed. The distance between the lens and the lens housing is 1 胄 (for example, an electrically conductive bridge). The flexible conductive element can also be used to form a secret between the other parts of the sump and/or other electrical components. Electrical connection. Remember that some or all of the above may provide a first device. The first device may include a lens comprising at least one first electrical contact. That is, for example, the first lens may comprise a snow Your field 3 electric action lens, so that the lens can provide H-force, characteristics or properties when supplying current or voltage, and may not provide _power (4), characteristics or properties without supplying current or electric material mirror ( Or the functionality may vary based on the current supplied or the amount of (d), etc. An example of such a lens is provided above. The electrical contact of the first lens may be used to electrically draw the lens (or a portion thereof) to Provide this voltage or current (for example, as a control letter) Other electronic components (such as 'a controller or power supply') in the form of a power supply or the like. The first device may also include a lens housing that holds the lens. The lens housing may include at least a second electrical contact ^ That is, for example, the lens housing (such as the lens housing defined above) or a component thereof may include a portion of a conductive circuit k and the second electrical contact may be used to electrically connect the conductive path to 160384. Doc • 59· 201234069 is connected to another conductive element (which may also be embedded in the lens housing, coupled to the lens housing or may comprise any other part of the first device or a component thereof, such as a lens). The first device may further include a flexible conductive member disposed between the first electrical contact and the second electrical contact, the flexible conductive member electrically connecting the first electrical contact with Mm 'The flexible conductive element may be arranged to provide a current between the first electrical contact and the second electrical contact (in this illustrative case, between the lens and the lens housing), in an embodiment, the embodiment may be via a lens housing A current (eg, power or a control signal) is supplied to the lens from a component coupled to the other portion of the first member (eg, on the first temple of the electro-active photo frame). As mentioned above, in some implementations, the use of flexible conductive elements can provide advantages over previously fabricated conductors and other components of the components in the electrical-arms (especially when formed into electricity) When the lens is connected,). For example, the use of a flexible conductive element (as described above) can result in a better electrical connection to the surface of the joint (especially a shaped surface, such as a slanted edge) because the flexible conductive element can be used to Some or all of the isoforms in the surface. In this way, the interface between the electrical contacts (e.g., the area of the connection) may be large, providing an increased conductivity between the two. In addition, the use of flexible conductive elements provides a relatively stable electrical connection that can withstand external forces more effectively than previously used conductors. The electrical connection between the flexible conductive element and the electrical contact may comprise a larger region, so if it is applied to the device or a portion thereof, 160384. Doc -60- 201234069 The force of the electrical connection between the flexible conductive element and one of the electrical contacts is partially separated (ie, no longer directly electrically connected), and may still be in other parts of the interface There are sufficient contacts that permit sufficient current transfer between the components to cause minimal or no interruption in the functionality of the device. In addition, in some embodiments, a flexible conductive element can conform to and/or adapt to a change in the placement of a first electrical contact relative to a second electrical contact (the flexible conductive element is disposed between the contacts) (For example, in the exemplary devices described above, a flexible conductive element can accommodate changes in the placement of the lens housing relative to the lens). For example, if the separation between the lens and the lens housing is increased at a location where a flexible conductive element is used to make electrical contact between the two components, in some embodiments, the flexible conductive element can Expanding in the location to maintain the electrical contact. Similarly, in some embodiments, if the force applied between the lens housing and the lens is increased (eg, an external force is applied to the lens housing such that it is deformed or displaced in the direction of the lens), then the flexible conductive The component may be compressed at the location where the force is applied between the components (this may include a temporary displacement, such as when the electrically conductive flexible component is compressed and then expanded to absorb some or all of the applied force). Thereby, in some embodiments, the flexible conductive element can absorb the stress applied to the first device and maintain an electrical connection between the components. Furthermore, by absorbing some or all of the forces applied thereto, a flexible conductive element can prevent or limit damage to any of the components including the first electrical contact and the second electrical contact in some embodiments. . For example, if a force that causes the lens to be in direct contact with the lens periphery is applied to the typical device above, 160384. Doc -61 - 201234069 The lens can become fragmented at the interface' which can compromise the integrity of the lens, the ability of the lens housing to hold the lens, and/or affect the electrical contact between the two components. The electrically conductive flexible material between the portions can reduce or prevent this direct contact and can be used to absorb such forces and limit damage. In some embodiments, the use of a flexible conductive element in a first device also provides advantages during the manufacturing process. For example, as mentioned above, many lenses are shaped and edge processed prior to coupling to one of the lens housings of an electrically active frame. This can result in minor differences between each lens that is subsequently coupled or housed within a lens housing. In embodiments in which electrical contacts are formed between such components, the use of features that are adaptable to or conform to any of the surfaces disposed on the electrical contacts and the relative placement between the two components is used! • Raw conductive components reduce manufacturing costs and defects and provide a more reliable and suitable device. It should be noted that these advantages are provided as examples of the advantages that some embodiments may provide, and thus the embodiments disclosed herein do not necessarily have some or all of the advantages described above. In some embodiments, the first device (which includes a lens having a first contact, a lens housing having a second contact, and a medium interposed therebetween and electrically connecting the first device) In the contact and the flexible conductive member 70 of the second contact, the flexible conductive member comprises a conductive rubber. That is, the conductive rubber is - an example of a material that may comprise a flexible conductive element. Conductive rubbers can have some of the properties, physical extensibility, and also have sufficient electrical conductivity to provide some or all of the above-mentioned benefits in some embodiments. 160384. Doc-62-201234069 In some embodiments, the first device (including a lens having a first contact, a lens housing having a second contact, and a housing therebetween) In the flexible conductive member electrically connecting the first contact and the second contact, the flexible conductive member can be disposed substantially between the lens housing and the lens. That is, as mentioned above, in some embodiments, the flexible conductive element can be disposed between some or all of the louver lens and portion 1 of the lens housing. In some embodiments, where the flexible conductive element is disposed between the lens and substantially all portions of the lens housing, embodiments can include the flexible conductive element disposed directly opposite a surface of the lens housing The entire outer surface of the lens (or only the portion of the outer surface of the lens directly opposite the lens housing surface). In some embodiments, the flexible conductive element can be disposed between the lens that does not form an electrical connection and a portion of the lens housing (eg, the lens that does not include an electrical contact and a portion of the lens housing). Some of the benefits detailed above include reducing damage caused by physical contact between the lens and the relatively hard surface of the lens housing (even in regions where electrical connections are not made). In some embodiments, the flexible conductive element is disposed only between the lens that includes the electrical contact and a portion of the lens housing. The reduction in the amount of flexible conductive elements thus reduces manufacturing costs. An illustrative embodiment is shown in FIG. In addition, in such embodiments, the lens housing can be fabricated to include different portions corresponding to the sections in which the flexible conductive elements are disposed and the sections in which the flexible conductive elements are not disposed. Thereby, the first device can utilize a more efficient lens housing design to accommodate the placement of a flexible conductive material between the lens housing and the segments of the lens. Exemplary implementation 160384. Doc-63-201234069 Examples are disclosed in Figures 21-25. In some embodiments, in the first device as described above, the flexible conductive element has a shape comprising any one or a combination of the following: a triangle, - square, - "number 8 Shape, one print' — a circle or a rectangle. As used herein, a "shape" of a flexible conductive element can refer to a cross section of a flexible conductive element that is taken perpendicular to the plane of the longest dimension of the flexible conductive element. For example, in some embodiments in which the flexible conductive element is extruded, the shape generally corresponds to the aperture through which the flexible conductive element is extruded. Examples of the shape of the flexible conductive member are shown in Figures 20(a)-(c). In some embodiments, the shape of the flexible conductive element comprising a "digital 8" shape may be preferred because, for example, the flexible conductive element may provide structural support 1 auxiliary coupling lens and lens housing. The "number 8" shape may refer to a flexible conductive member having a shape including two end segments and a central segment disposed between the two end segments. The two end segments are thicker than the central segment. The two end segments do not have to have the same thickness or the same length. In some implementations, the (four) electrical component may comprise a square or rectangular shape rather than a triangular shape (especially when the lens has a slanted edge), since the square or rectangular shape may be shaped by more than the surface of the lens. It provides a larger electrical connection area. In some embodiments, this is due to the "triangular" shape causing the edges of the lens to compress the flexible conductive material against one of the opposing surfaces of the lens housing without permitting the flexible conductive element to cover the lower portion of the lens surface. It should be noted that in some embodiments, the shape of the flexible conductive element may not be refined. Doc -64· 201234069 Exactly corresponds to the shape (eg, rectangular, square, etc.) at the surface of the flexible conductive element. That is, the shape of the flexible conductive element may be slightly modified at the surface of at least a portion of the conductive flexible member as the conductive flexible member is in contact with its physical lens or the opposite surface of the lens housing. Thus, the "shape" of the flexible conductive element can refer to the shape of the flexible conductive element when disposed between the first electrical contact and the second electrical contact, or the unconformed shape of the flexible conductive element (ie, flexible conductive) The shape of the component before it is between the first electrical contact and the second electrical contact or before the surface is stressed. In addition, it should be understood that in some embodiments, the flexible conductive element may not comprise any shape, or the flexible conductive element may comprise other shapes than those explicitly mentioned 'including irregular shapes and along the length of the flexible conductive element. The shape of the change (i.e., the flexible conductive element may not have a single shape) but the shape may be the location of a particular portion of the flexible conductive element: in some embodiments t, in the first device as described above, the flexibility The conductive member includes a first end having a -th thickness, a second end having a second thickness, and a central portion having a third thickness, the central portion being disposed to (4) the first end and the second end And the first end of the first end and the second thickness of the second end are each greater than the third thickness of the central portion. The embodiment is shown in Figure 2(a). That is, the embodiment so described may refer to a conductive element having a shape corresponding to "Digital 8", which may have the above-mentioned advantages. Of some or all. In some embodiments, as described above of the first device, the flexible 160,384. Doc •65- 201234069 Conductive components may include voided extruded materials formed by the use of “extruded” materials/materials or other flexible conductive elements. In some embodiments, it may be beneficial for the body to be used, for example, to extrude some or all of the components, because the flexible outer casing is disposed between the mirror housing and the other two components. An efficient way. When the shape is transparent, the cavity can be extruded (especially when the material can be shaped with the cavity, the cavity λ conductor is formed into the correct size and shape and the conductor is inserted outside the m, and the flexible conductive element is coated onto the For example, the m-ten feature may be closer to the portion of the lens housing than the other embodiment of the use of the extrusion may provide the advantage that the flexible electrical component can be placed between a plurality of differently designed lenses and the lens housing. It is not necessary to design a particular component or components for each combination. In some embodiments, in the first device described above, the lens includes a first surface and the lens housing includes a first surface. The flexible conductive element is substantially isoform with at least a portion of the first surface of the lens and at least a portion of the first surface of the lens housing. As described above, the flexible conductive element can have a flexible conductive element based thereon The physical properties of the interface applied to its surface and adapted to the interface of the components (the flexible conductive elements are placed between the components), therefore, in some embodiments The conductive flexible member is disposed in the lens housing or a cavity thereof (or on one surface of the lens), and when the lens and the lens housing are subsequently coupled, a force can be applied to the opposite of the lens and the lens housing. Surface 160384. Flexible conductive elements between doc -66 - 201234069 so that the shape can appear. Embodiments may thereby provide some of the benefits described above, including the ability to provide better electrical contact between electrical contacts, and to maintain their contact regardless of changes in the relative position of the surface. In some embodiments, the first device is further configured to include a first temple coupled to the lens housing and an electronics module coupled to the first mirror. The flexible conductive element is electrically connected to the electronic device module. As defined above, electrical coupling does not require direct physical contact of the two components. Accordingly, embodiments may provide that the first device includes a conductive path from the electronic device module to the flexible conductive material. The conductive path may include, for example, a conductor coupled to the electronic device module, a portion of the mirror body (or a conductor embedded in the temple), a portion of the lens housing itself (or an embedded a conductor in the lens housing) and the second electrical contact. As noted above, because, for example, the extra space provided (as compared to the lens and lens housing) and the hiding or shielding of their electronic components are relatively unobservable to the viewer (or at least not as obvious as the lens housing or frame) The ability to locate, so from the standpoint of structure and aesthetics, it can be beneficial to have electronic components located in the temples of the electrical action frame. In some embodiments, in the first device (which includes a first-mirror pin that is attached to the lens housing and an electronic device module that is lightly connected to the first-mirror), the first device A device further includes a conductor that is substantially embedded within the temple and/or the lens housing. The conductor can electrically connect the electronic module to the flexible conductive element. The conductor may comprise any suitable material, including metals. Although the conductor may be substantially embedded in some embodiments 160384. Doc-67·201234069 is within the lens housing and/or the first temple, but the conductor may have exposed portions to make electrical contact with other components. As described above, a conductive path can include a plurality of electrically connected components, and thus a conductor embedded in the temple and/or the housing can be used to efficiently establish a module from the electronic device. The means of conducting the conductive path of the flexible conductive element. The flexible conductive element can then be electrically coupled to another electronic component (such as an electroactive lens P in this manner, embodiments can provide a conductive path to source current (eg, control signals and/or power) from the temple Conducted to the flexible conductive material (and then, for example, to an electro-acting lens). As mentioned above, in some embodiments, the Up portion of the conductor can be exposed and electrically connected to the flexible module. a conductive element. That is, as used herein, the first portion of the conductor can be "exposed" if it is not surrounded by the lens housing along at least a portion of the conductor such that a flexible conductive element can be formed Electrical connection. In some embodiments, the first device (including a first mirror coupled to the lens housing and an electronic component coupled to the first mirror, And a conductor substantially embedded in the temple and/or the lens housing, the lens housing comprising an acetate. As mentioned above, acetate is a common material used in the manufacture of a lens frame. And in general, it is not electrically conductive. Therefore, in some embodiments, in order to provide a conductive path of the electronic device module that is coupled to the first temple, a conductor may be embedded in a lens housing including a non-conductive material. It may generally be preferred to embed a conductor in a frame member such that the frame member (or a portion thereof) isolates a conductive path (or a portion thereof) from an external force, such as 160384. Doc -68- 201234069 Possible Short Circuit and/or Overvoltage Some embodiments of conductive material may comprise one of the conductive paths of a flexible conductive element. . In contrast, in the lens housing including one, the lens housing itself (or a portion thereof) is electrically connected to the electronic module to the first device as described above in some embodiments Frameless, frameless or fully framed eyeglass frames. Some exemplary embodiments of such eyeglass frames will be described below with reference to the drawings. In the embodiment t', the first device as described above (which includes a lens having a first contact, a lens housing having a second contact, and a female interposed therebetween and electrically connecting the first In the flexible conductive element of the contact and the second contact, the lens comprises a first recess #, the lens housing comprises a first cavity, and the flexible conductive element comprises a first portion and a second portion. The first portion of the flexible conductive element can be disposed substantially within the first recess of the lens. This is shown, for example, in Figures 19 and 23 to 24. As used herein, "disposed within" may refer to a portion of a portion of a flexible conductive element that is positioned such that a cavity of the lens housing or a recess of the lens substantially surrounds a portion of the portion of the flexible conductive element. The second portion of the flexible conductive member can be disposed substantially within the first cavity of the lens housing. In this manner, the flexible conductive element can support the coupling of the lens to the lens housing while completing the electrical connection to the electrical contacts on the surface of each of the lens and lens housing. In some embodiments, in the first device as described above, the first portion and the second portion of the flexible conductive member are connected by a bridge. "Nose bridge" refers to the flexible conductive material 160384 in this context. Doc -69- 201234069 The material between the first part and the second part. Referring to, for example, Figure 20, the first portions 2002 and 2003 are connected to the second portions 2〇〇5 and 2006, respectively, by a "nose bridge". In these exemplary embodiments, the bridge is adapted to comprise the same material as the first portion and the second portion. However, the nose bridge can comprise any shape and any suitable material. In some embodiments, in the first device as described above, wherein the first portion of the flexible conductive element is disposed substantially within the first recess of the lens and the second portion of the flexible conductive element Formed substantially in the first cavity of the lens housing, the first portion of the flexible conductive element having a first shape comprising any one of: a triangle, a square, a circle, and A rectangle. In some embodiments, the second portion of the flexible conductive 7G member has a second shape comprising any of: a triangle, a square, a circle, and a rectangle. In general, it is more expensive to select the shape and size of the portion of the flexible electrical component to maximize the electrical contact that the material can make on the surface of the lens and/or lens housing. In this regard, the choice of maximizing the shape of the interface of the surface region when the conductive flexible member is compressed (it often, - the shape corresponding to the shape of the lens housing cavity or lens recess) may be i. "The embodiment is not limited thereto. Examples of shapes are provided in Figures 20(a) through 20 (illusion. In some embodiments, the lens has - a first surface located within the first groove and a flexible conductive element At least a portion of the first portion is substantially equal to the first surface of the first groove. The "first surface" may include the outermost surface of the groove of the lens to: >, the mouth P knife again, Typically a surface that forms part of the conductive path with the flexible conductive material. In this regard, in some embodiments, 160384. Doc •70· 201234069 The first surface of the mirror is coated with a conductive varnish to not only contact the flexible conductive material, but also to provide an easier and better connection to the components of the electro-optical lens. In some embodiments, in the first device as described above, wherein the first portion of the flexible conductive element is disposed substantially within the first recess of the lens and the second portion of the flexible conductive element The first recess is disposed in the first cavity of the lens housing, and the first recess of the lens has a height of approximately 0. 4 mm to 1. Width in the range of 0 mm and an approx. 〇 4 mm to 1. Depth in the range of 0 mm. In some embodiments, the groove of the first lens has a height of about 0. Width of 7 mm and an approx. A depth of 6 mm. The particular dimensions of the components, depending on the functionality of the lens and lens housing, as described below. However, in general, it is desirable to make the relative dimensions between the width and height of the cavity, recess and flexible conductive element relatively similar. This may permit the flexible conductive element to function structurally (on the side of the coupling lens and the lens housing) and as a protective layer between the lens and at least a portion of the lens assembly. The dimensions of these components will be discussed with reference to Figures 2A and 23. In some embodiments, in the first device as described above, wherein the first portion of the flexible conductive element is disposed substantially within the first recess of the lens, and the second portion of the flexible conductive element A portion is disposed substantially within the first cavity of the lens housing, the lens housing having a first surface located within the first cavity. The "first surface" may comprise at least a portion of the outermost surface of the cavity of the lens housing. A portion of the second portion of the flexible conductive element can be substantially contoured to the first surface of the first cavity. Similar to the connection of the flexible conductive material to the surface of the lens, flexibility 160384. Doc -71 - 201234069 pieces also form contact with parts of the lens housing. "In the 4 = Xia, not all" embodiment, the contact with the lens housing is: :: the exposed portion of the embedded conductor 'and thus, although beneficial, the flexible conductive material may not have to be like the surface of the lens Equally shaped as the surface of the lens housing. In the second embodiment, 'in the first device as described above, wherein the first portion of the flexible conductive 7G member is substantially disposed in the lens a recessed portion, and the second portion of the flexible conductive member is disposed substantially in the first cavity of the lens housing, the flexible conductive member having the first portion of the first recess of the lens The uncompressed height of the distance between the surface and the first surface of the first cavity of the lens housing. The "uncompressed height" of the flexible conductive 7L member is the flexibility when the material is not subjected to external stress = electrical S The height. The "height" of a flexible conductive element can refer to the dimensions of the element that are substantially perpendicular to the lens housing and lens. An example illustrating the uncompressed height is shown in Figure 23(d). In some embodiments, the uncompressed height of the flexible conductive element is at least 0 75 mm. In some embodiments, the uncompressedness of the flexible conductive element is at least 1. 45 mm. However, as mentioned above, the size of the components can vary based on other dimensions of the device. In general, the greater the uncompressed height, the more surface the flexible conductive element covers when placed between the lens and the lens housing (and the electrical connections that can be formed are integrated). In this regard, in some embodiments, the first surface of the lens housing and the first surface of the lens compress at least a portion of the flexible conductive element when the lens housing is coupled to the lens. In this way, the flexible conductive elements can form an electrical connection while also providing an auxiliary benefit to the device, such as 160384. Doc •72· 201234069 Protects hard components from direct contact with each other. In some embodiments, in the first device described above, the lens includes a first surface. The lens housing includes a first cavity, and the flexible conductive member includes a first surface. The flexible conductive element is disposed substantially within the first cavity of the lens housing, and the first surface of the flexible conductive element is substantially contoured to the first surface of the lens. In some embodiments, the first surface of the lens includes a first sloped edge and a second angled edge. "Slanted edge" can refer to the inclination of a corner (including an angle equal to 90 degrees) that is cut into the lens. In embodiments that include a full frame frame (rather than a semi-frameless frame), the lens typically includes a beveled edge (rather than a groove), wherein the lens can be coupled based on a portion of the lens disposed within the cavity of the lens housing To the lens housing. In some embodiments, the first cavity has a first width and the flexible conductive element has an uncompressed width that is greater than a first width of the cavity. "Uncompressed width" may refer to the width of the flexible conductive member when the rubber is not subjected to external stress. This description is illustrated in Figure 23(e) and described below. In some embodiments, in the first device as described above, wherein the flexible conductive element is disposed substantially within a first cavity of the lens housing, and wherein the first surface of the flexible conductive element is substantially The cavity is contoured with a first surface of the lens. The cavity of the lens housing has a top surface. A portion of the lens extends into the first cavity of the lens housing. The flexible conductive member has an uncompressed height that is approximately equal to or greater than a distance from the top surface of the cavity of the lens housing to a portion of the lens that extends into the first cavity. This concept is illustrated in Figure 23(d). In general, the flexible conductive member preferably has a height such that when the lens is disposed outside the lens 160384. Doc • 73- 201234069 When the cavity is in the cavity, one of the lenses is partially in contact and thereby compresses the flexible conductive element. As mentioned above, it is generally beneficial to have a height substantially greater than this minimum distance to provide a more stable electrical connection. "The top surface may refer to the surface of the lens housing opposite the lens. In some embodiments, in the first device described above, the flexible conductive element comprises a metal-added elastomer. In some embodiments, The metal comprises silver and aluminum (AG-A1). However, any material having the physical properties described above with reference to the flexible conductive material can be used. In some embodiments, in the first device as described above, The flexible conductive element has a volume resistivity of less than 10 Ω-cm. In some embodiments, in the first device as described above, the flexible conductive element has a volume resistivity of less than 1 Ω-cm. The volume resistivity can be referred to as electrical resistivity, resistive or resistive. In general, a conductor has a lower volume resistance 纟 than 纟 because there may be less loss associated with resistance β which may be particularly important in some embodiments because the flexible conductive element may be reduced by I, which may increase Density and the resistivity of the _& Thus, in some embodiments, it may be desirable to select a material that has a low electrical resistivity (even when uncompressed to reduce the volume of the material). _ In some embodiments, in the first device as described above, the flexible conductive member has a hardness of greater than 5 Å on a Xiao's standard hardness tester. In some embodiments, the flexible conductive element has a hardness of greater than 65 on a Xiao's standard hardness tester. The hardness of a component refers to its (4) (four) cardiac ability' and the overall ductility of the material. As mentioned above, in some real 160384. Doc • 74- 201234069 In the example “in order to form the best connection, the Shinto # is shaped like a conductive element and the shape of the lens and/or the surface of the lens housing. In some embodiments, the μ flexible conductive element has a hardness on the Xiao's standard hardness tester that is approximately equal to 7 硬度 and a thickness of about 0. 0008 Ω-cm volume resistivity. Although described above with respect to lenses and lens housings, embodiments are not limited thereto and any two electrical contacts that may be disposed on any one or more components that may be disposed on a first device (eg, an electrical active frame) may be provided. Flexible conductive elements are used between them. It will be understood that after reading the invention provided herein, it will be understood by those skilled in the art that the various combinations of the devices described above may be formed such that some or all of the features described with respect to the various devices may be Combined with some or all of the features of another device. DESCRIPTION OF THE RELATED EMBODIMENT OF FLEXIBLE CONDUCTIVE ELEMENTS AND ILLUSTRATIVE EMBODIMENTS The following provides a more detailed description of some of the figures relating to flexible conductive elements included herein, and the description of the disclosed exemplary embodiments as These exemplary devices are mentioned for illustrative purposes and are not intended to be limiting. Referring to Figure 14, an exemplary electrical action frame 14A for use with an electro-acting lens and/or other electronic components is shown. The exemplary electrical action frame 14A can include a lens housing 1404 (such as a frame side) that includes any material such as, but not limited to, a plastic (e.g., acetate). In some embodiments, the electro-active frame 1400 can be formed by a mold or other technique, such as injection molding. Additionally, some embodiments may provide that the electrical action frame 14A may be made from one or more separately formed or fabricated segments that are placed together 160384. Doc -75- 201234069 (ie, coupled) to form a complete electrical pivot. In some embodiments, a flexible conductive element 1401, such as a conductive rubber, can be used to conduct an electronic signal from one side of the electrical action frame 14A or the lens housing 1404 (or one of its components) to the electrical action frame 14. The other side of the haptic or lens housing 1404 (or another component thereon, including the lens 14 〇 5). In some embodiments, the flexible conductive member 4 can be encapsulated (e.g., substantially surrounded by or embedded within the insulator), such as a lens housing 1404 comprising a plastic material. In some embodiments, the flexible conductive element 1401 can be positioned (eg, disposed) (eg, disposed) in the electro-active frame 1400 (or lens housing 1404) when the electro-active frame 14 is fabricated, such as during a forming process or an injection molding process. internal. In some embodiments, the flexible conductive element 1401 can also be positioned inside the cavity of the lens housing 1404 after the lens housing 404 has been fabricated. This will be described in more detail below with reference to Figs. 18 through 25. In some embodiments, the flexible conductive element 14〇1 can be positioned between two frame halves (or between a plurality of portions of the electro-optical lens frame) that will be placed together and sealed. In some embodiments, the flexible conductive element 14〇1 can be positioned in or near the nose bridge 1403 to provide a first side of the self-energizing frame 14〇〇 (and/or the lens housing 1404) to the electrical action frame 14〇〇 (and/or the connectivity of the second side of one of the lens housings. The use of this material in the nose bridge 14〇3 permits a relatively small bridge of the nose in these embodiments, which provides a more aesthetically pleasing appearance. Pivot profile. Such embodiments may also be combined, for example, with a single electronic device module that provides electronic signals and/or current to both the first lens and the second lens 1405 on one of the temples ( That is, the conductive soft 160384. Doc • 76· 201234069 The material 1401 can provide a conductive path from a first portion of the lens housing 1404 including the first lens 1405 to a second portion of the lens housing 1404 including the second lens 1405. In some embodiments, the flexible conductive element 1401 can be positioned on the back side of the electro-active frame 1400 (and/or the lens housing 1404) (eg, on the side facing the wearer's head) or embedded (eg, embedded in Within the electrical action frame 1400 (and/or lens housing 1404). Continuing to refer to Fig. 14' at the hinge 1402 of the electrical frame 1400, the flexible conductive element 1401 can be in one or more electrical contacts with the temples of the electrical frame 14 (and/or the components disposed on the temples). That is, the flexible conductive material 1401 can be electrically connected to the conductor disposed on the temple of the electrical action pivot 1400 (or to the temple of the electrical action frame 14) at or near the hinge 1402. Forming a portion of a conductive path. In some embodiments, the hinge 1402 itself can comprise a conductive material and can be electrically connected to the flexible conductive element 1401 and a conductor coupled to the temple. In some embodiments, the hinge 14〇2 can comprise the same material as the flexible conductive element 14〇1. Referring to Figure 15, an assembled exemplary electrically powered frame 14A is shown that includes a flexible conductive π member 1401 disposed within lens housing 14A4. The flexible conductive f element _ does not have to be visible when positioned within (10) such as 'S placed in the electrical action frame 14' (and as shown in 'the lens housing H04) (eg, at least a portion of the flexible conductive member 1401 can be Placed in or positioned in a lens housing that is completely framed or semi-frameless (eg, in the frame side). In fact, in some embodiments, 'flexible conductive element blue' may be preferred for aesthetic reasons. In addition, embodiments including flexible conductive elements partially or wholly embedded in the frame or more may be provided. Doc •77· 201234069 Power Connections' also results in better protection of the resulting conductive path to prevent external forces and stresses (eg, components can be less susceptible to short circuits and/or external voltages and currents). 14 and 15 disclose an exemplary embodiment whereby the flexible conductive element 1401 includes four separate conductive paths (ie, two conductive paths on the left side of the lens housing 14〇4 and the right side of the lens housing 1404) Two conductive paths). This provides two separate conductive paths (and two electrical contacts) to each of the lenses 1405. In this manner, embodiments may provide the necessary electrical connections for providing power signals and or control signals to the electrical application lens 14A5 or other components disposed on the lens housing 14A4. Additionally, in embodiments where the flexible conductive element 1401 (or other conductor) is also located in the bridge 14 〇 3, the lens housing 1404 can include two conductive paths: an electrical connection to the mother of the lens 14 〇 5 a first conductive path of an electrical contact and a second conductive path electrically isolated from the first conductive path and electrically coupled to a second electrical contact of each of the lenses 14〇5. Similar embodiments will be discussed with reference to the single electronic device module embodiments disclosed above. 16 and 17 illustrate the assembly of a portion of the electro-mechanical frame. In some embodiments, the frame may comprise an exemplary assembly that may include, for example, a core of steel wire 16 〇 1 ^ similar to the components discussed with reference to Figures 3 through 1 . In particular, the components shown for the exemplary electrical action frame include: the core member 1601, which may include a conductive material in the embodiment, and is stalkable to the temple 1602 or disposed within the temple 16G2 for providing - One part of the conductive path from one component to another. As shown, the core element (10) can be provided, for example, from the end of the mirror (which can include, for example, a power source) to the electronics module 160384. Doc •78· 201234069 Group 1605 conductive path. The housing module 16〇3 is shown, which can house the electrical module 丨6〇5 and can be coupled to the temple 16〇2. In some embodiments, the housing module can include portions of the temples (10) 2. A switch 16A (such as a valley or "cap" switch) can be coupled to the electronics module 1605 and/or the housing module 1603 to provide a switch or control for the electronics module For example, and as shown in FIG. 16, the housing module 1603 can have an opening that allows the wearer to interact with the switch 1604 to turn a function on or off or otherwise alter the functionality provided by the electro-acting eyewear. The electronics module 16〇5, the switch 16〇4, and the housing module 16〇3 can be coupled using any suitable means including one or more screws (as shown in Figure 16) and/or double-sided tape. One or more conductors 16A can be included to provide one or more electrical contacts (eg, conductive paths) from the electronics module 1605 to the lens housing. The conductors 1606 can be electrically connected, for example, to FIGS. 14 and 15 The flexible conductive element 1401 is shown to provide one or more conductive paths. Also shown is a hinge 1607' that can be coupled to the temple 1602 or a component thereof (such as the housing module 1603) and also coupled to the lens housing. The hinge 16〇7 can be used in such components Each provides the ability to move relative to the other while remaining coupled. In some embodiments, the hinge 16〇7 may comprise one or more conductors, or may itself comprise a conductive material to form a conductive path or Figure 17 illustrates the assembly shown in Figure 16 that is lightly joined together in an exemplary embodiment. As can be seen, 'core element 1601 is no longer visible because it is embedded in temple 1602.' Similarly, the electronics module The set 1605 is housed in the housing module 1603 and is covered on one side by a switch 1604 (and possibly coupled to the switch 1604). The hinge 1607 is coupled to the housing module 1603. The conductor 1606 can be substantially 160384. The doc-79-201234069 is embedded in the portion of the 1 chain 1607 and/or the housing module 丨6〇3 to form a portion of the conductive path between the electronics module 1605 and the lens housing. Referring to Figures 18 and 19, an illustrative embodiment of a semi-frameless eyeglass frame design will be described. It should be noted that although many of these concepts will be described in the context of a semi-frameless framework, many of the features and principles can be used with other frameworks, such as full-frame and frameless frameworks. (or applicable to it). Moreover, these embodiments are for illustrative purposes and thus are not intended to be limiting. FIGS. 18(a) and 18(b) illustrate a typical exemplary semi-frameless frame 18A. Fig. 18(a) shows a front view of the semi-frameless lens, and Fig. 18(b) shows a cross section of the point X to X' of the self-acting frame 1800. As shown, the lens 18〇3 is supported along its upper edge by a hard portion 18〇2 of the frame (eg, the frame side, which may comprise a material such as metal) and is connected to the hard upper portion of the lens housing along its lower edge Part of the 丨802 is supported by a section of transparent plastic filamentary fiber 丨8〇4 (usually nylon). Filamentous fibers 18〇4 are shown disposed within grooves 18〇7 in the edges of lens 1803. The length of the filamentary fibers 18〇4 is such that when the lens 1803 is mounted in the frame, the filamentary fibers are tensioned and thereby the lens can be held in place. Referring to Figure 18(b)', a cross-sectional view of the cross-section χ_χ of Figure 18(a) is shown to better illustrate the exemplary components by which the lens can be secured in a semi-frameless frame. As shown in such an exemplary embodiment, the frame edge 18〇2 may contain a cavity 1805' that secures a semi-rigid plastic 1801 (usually nylon) having a "digital 8-" cross-section - part of the extrusion - part . The extruded member has the remaining portion disposed in the groove 1806 of the lens and prevents the lens 18〇3 from moving back and forth 160384. Doc -80 - 201234069 Move. In a portion of the outer surface of the lens 1803 that is not in contact with the "digital 8" shaped extrusion 1801 (eg, along the groove 1807), the nylon filamentary fiber 1804 can substantially replace this illustrative embodiment. The extruded piece 1801 is shown. Since the filiform fibers 1 804 can be colorless and can be completely (or substantially) disposed within the lens recess 1807, the filiform fibers can be barely visible except for rigorous inspection. It should be noted that the construction of the semi-frameless frame design with electrical capability is disclosed by the inventor in U.S. Patent Publication No. 2, 〇 〇 177 277 A1. The embodiment of the frame disclosed in this case can be similar in appearance to the exemplary embodiment of the frame shown in Figure 18(b). Some of the differences in the electrical functionalities that may be allowed to implement the framework disclosed in this context may be related to the particular details of how the framework is constructed and the use of other novel conductive structures, such as in US Patent Publication No. 2010/0177277 This is described in detail in the A1, which is hereby incorporated by reference in its entirety. Figures 19(a) and 19(b) illustrate a comparison between an exemplary semi-frameless frame of non-electrical action and an exemplary embodiment of an electrical action frame comprising an electro-acting lens 1913. That is, Fig. 19(a) shows a cross section of a conventional semi-frameless frame, and Fig. 19(b) illustrates a cross section of a frame substantially corresponding to the electro-active counterpart of the frame shown in Fig. 19(a). In both Figures 19(a) and 9(b), filamentary fibers 1904 are used along the lower portion of the lens (1903 or 1913) disposed within the recess 1907 to hold the lens (19〇3 or 1913) tightly. Built into the frame. In some embodiments of the electromechanical frame shown in Figure 19(b), the frame edge 19〇2 can be made of a conductive material. However, this need not be the case, as any suitable method can be used (such as by embedding a conductor in a non-conductive material) at 160384. Doc -81 · 201234069 A conductive path is established in the frame edge 1902 (and/or other components of the lens housing). During the manufacturing process 'in the embodiment of the frame side (four) containing conductive material, it can be considered to ensure that no coating or finish is applied to the inside of the frame edge 〇9〇2 so that the conductive surface is maintained (eg In the cavity MM). Referring to Fig. 19(b), in some embodiments (and for illustrative purposes only), the electroactive lens may comprise an interface 19〇8 between the two substrates containing internal electrodes for actuating the lens 1913. This has been previously described by the inventor, for example, in U.S. Patent Publication No. 2010/0177277 A1, which is incorporated herein by reference. However, as mentioned above, embodiments are not limited thereto and the methods, devices and components disclosed herein are applicable to any electrical frame and/or components thereof (e.g., any type of electroactive lens). During an exemplary fabrication process including edge processing of an exemplary electro-active lens 丨 913, the recess 1906 can be placed such that it spans this interface ι 9 〇 8 (the interface can for example comprise one between two electrodes Liquid crystal layer). Continuing with the exemplary manufacturing process, the lens 1913 can be edge machined and grooved, and one or more conductive inks or lacquers 1909 can be applied to the location where the electrodes within the recess 1906 are exposed. Ink or lacquer may be used to provide a conductive path to the electrodes of lens 1913 without substantially damaging the visual properties of lens 1913 or being viewed by an observer. In some embodiments, the width of the groove 1906 can be between 0. 4 mm and 1. Between 0 mm (ie, the horizontal distance shown in Figure 19(b)) and the depth is between 0. 4 mm and 1. Between 0 mm (ie, the vertical distance in Figure 19(b)). The inventors have found that, in some embodiments, preferably, the recess 1906 can be approximately 〇. 7 mm wide and 0. 6 mm deep. In general, the groove should be 160384. Doc •82· 201234069 An extruded or other material 1911 (or a portion thereof) can be placed in the recess and assist in coupling the lens to the lens housing. However, too large a groove is generally not preferred because the groove can become visible and affect the aesthetics of the device. In some embodiments including an electro-acting lens, in order to provide a properly functioning lens 1913, the inner surface of the frame edge 1902 and the conductive lacquer 19 〇 9 applied to the recess 1906 of the lens 1913 (ie, including the recess) A conductive path is formed between the surfaces of the lenses 1913 of 19〇6. This can be achieved by means of a flexible conductive member 1911. The flexible conductive element can be a physically flexible and electrically conductive material 'in some embodiments' that can be extruded into a shape that is substantially disposed within the frame edge 1902 and the recess 19 〇 6 of the lens 1913. The design may provide some or all of the advantages detailed above, including providing a conductive path between the lens housing and the lens, providing structural support to the device, preventing or minimizing damage to the hard surface of lens 1913 and lens housing 1902, and the like. As described above, the flexible conductive element can take any shape and have any suitable size. In this regard, Figure 2(&) shows a cross section of an exemplary conventional extrusion (i.e., non-conductive) 2000 and its exemplary dimensions (in units of melon claws), and Figure 20(b) Figure 20 (c) shows the cross-section and dimensions (in mm) of two exemplary flexible conductive elements 2〇1〇 that can be used, for example, in a semi-frameless electrical action frame. Fig. 2(a) shows a typical "digital 8" shape of the non-conductive element 2, while Fig. 20(b) and Fig. 2(c) reveal a shape slightly different from the non-conductive member. The upper portions (i.e., the first portions) 2001, 2002, and 2003 of each of these elements are similar because the upper portions can each be designed, for example, to be mounted to the same lens frame assembly (e.g., , inside the frame). As depicted, each of the flexible conductive elements 2〇1〇 has 160384. Doc -83 · 201234069 A lower portion (i.e., the second portion) having a shape different from the shape of the lower portion 2004 of the non-conductive extruded member is 2005 and 2006. This can be attributed to the fact that the flexible conductive element 2010 can be designed to contact the areas of the lens recess that are coated with conductive paint and form electrical connections to the areas. As can also be seen in Figures 20(a), 20(b) and 20(c), as depicted, the total vertical dimension of the conductive flexure element 2010 is greater than the conventional non-conductive "digital name" shaped extrusion 2000. This design can be made in some embodiments to ensure that when the lens is mounted in the frame (ie, mounted within the cavity of the frame), the bottom of the lens groove contacts the bottom of the flexible conductive element (ie, the second portion) 2005 and 2006, so that the lens can compress the flexible conductive element in a subtle manner. Since the flexible conductive element 2〇1〇 is compressed, it is possible to substantially maintain the entity (and thus the electrical) connection between the lens, the flexible conductive element 2〇1〇 and the frame edge, and (4) when the frame is worn and When changing the glasses during the period of changing the glasses. The important dimension to ensure compression of the conductive flexible member - the second portion of the conductive flexible member is illustrated by way of example, for the flexible conductive member 2010 - the height is shown as 0. 75 mm β shows the total height of this exemplary flexible conductive element as 1. 45 mm (〇. 75 mm+〇7 is called. As mentioned, flexible conductive elements 201 of different heights can be obtained (U, for example, adapted to changes in lens processing (lens size and groove depth). To the flexible conductive element 2〇1〇 in Figure 20(c) The design will likely act to form an electrical contact with a portion of the surface of the lens (based on the height Η width (horizontal dimension) as shown, which is shown to be not optimal for the exemplary width of the groove of the lens' 1 Therefore, the conductive performance of the conductive element may not be, 160384. Doc -84- 201234069 I want to. That is, the width of the bottom portion 2〇〇6 shown in Fig. 20(c) is not as wide as the groove in the lens. In contrast, the flexible conductive element 2010 of Figure 20(b) is depicted as having an optimized width (i.e., the width is greater), thereby making the configuration more likely to form a more stable electrical contact. . It should be noted that in some embodiments, the flexible conductive element 2〇1 is designed to be completely "digital 8" shaped by the non-conductive extruded part: the same = the least desirable design, because the conductive flexible element 2 may not be guaranteed The 〇 will be pressed against the edge of the lens and thus provide a secure electrical connection. It should be understood that the dimensions provided in Figures 20(a) through 20(c) are provided for illustration only and are in no way limiting. In practice, the dimensions of such components may vary based on the dimensions of the lens (and lens recess) and the lens housing (and any cavities disposed therein). In general, an electro-acting semi-frameless frame design may be particularly useful from an aesthetic point of view. For example, the basic semi-frameless frame shown in the use of decals, fa9ades, and various lens shapes, for example, in US Patent Publication No. 2〇1〇/〇177277 A1, can have many different styles ( Style) outside the table 'while maintaining its electrical function. Illustrative Embodiments Related to Full Frame Spectacle Frame Design A typical full frame plastic frame known to those skilled in the art (also known as celluloid (zyl) or acetate) is shown in Figure 21, wherein lens 21 〇1 It is supported by a rigid plastic frame 2102 along its entire circumference. Although a plastic frame having electrical capability is discussed with reference to Figures 14 through 17, an additional embodiment is shown with reference to Figure 22. As shown in Fig. 22, a physically continuous conductive path (e.g., an 'embedded conductor' such as a line) is used to apply a driving voltage (e.g., 'waveform') to 160384. Doc-85-201234069 is added to the lens and the synchronization signal master module 2207 is delivered to the controlled module 2208. That is, for example, as shown in Fig. 22, the embedded conductor 22A1 can provide a conductive path from the autonomous control electronics module 22〇7 of the lens housing to the controlled electronic device module 2208. As mentioned above, embodiments using a single electronic device can also be used. In addition, FIG. 22 also shows openings in metal sleeves 2206 that hold modules or other components that allow the electronics modules 22〇7 and 2208 to be inductively charged. This can be beneficial because these embodiments can provide power without the use of a battery (or can supplement the use of the battery to provide a longer life). With continued reference to the embodiment illustrated in Figure 22, the top conductor 22〇1 is shown embedded in a lens housing (which may include, for example, acetate) and can carry a drive electronic signal from the right lens to the left lens . Additionally, in some embodiments, the embedded conductor 2201 can also carry a power signal between the two lenses to synchronize the functionality between the two lenses. The embedded conductor 22A2 can carry a reference electronic signal to a lens (e.g., ground). Figure 22 also specifies the location 22〇3 that may be present in a particular square (or any other suitable shape) that is tilted into the lens housing (e.g., into the front of the acetate frame) to (1) expose the embedded conductor 22〇1 And a portion of 2202; (2) embedding a flexible conductive material; and/or (3) allowing electrical connections between the exposed portions of the embedded conductors 22〇1 and 22〇2 to the flexible conductive elements, ie, in an illustrative embodiment The portions designated by 2203 can be locations where the electrically conductive flexible material can be disposed within the lens housing and can form a conductive path from the lens housing to the lens. Figure 22 also indicates where the conductor 2204 (such as a pogo pin) can be used to provide 160384 from the temple to the lens housing (e.g., to the embedded conductors 22〇1 and 22〇2). Doc • 86 - 201234069 Conductive path. Figure 22 also shows an exemplary location of the hinge 2205 for coupling the temple to the lens housing. Initially referring to Figure 21, Figure 23 shows a conventional full frame design (Figure 23(a)) and an exemplary electrical function comprising a flexible conductive element. Cross-sectional view of section XX, and YY of the full frame design (Fig. 23(b) to Fig. 23(e)). As mentioned, 'Fig. 23(a) shows a cross-section χ_χι of a conventional full-frame (i.e., 'non-conductive) plastic frame having a lens 2302 that is located (i.e., placed on) the frame side 2301. Tilted edges in the sloped area. That is, the lens 2302 is designed to have a top surface that substantially matches the bottom surface of the lens housing (i.e., the eyelid). This is one way in which a conventional lens design couples the lens to the lens housing. Figure 23(b) shows the cross-section of the plastic frame with electrical capability in areas where electrical contact is not required. In addition to the presence of embedded conductive vias 2304 (eg, metal lines or the like), the basic construction is similar to the construction of conventional frame designs because the conductive vias 23〇4 are completely enclosed within the insulating material of the frame side 2301 at this location. Therefore, there is no electrical contact (or conductive path 23 04 embedded therein) between the lens 23〇2 and the lens housing 23. Figure 23 (c) shows a section YY of a plastic frame having electrical capability in a region where electrical contact between the lens housing 23〇1 and the lens 23〇2 is required, in which the square cavity 2305 is processed. To the frame edge 23 〇 1 command, it exposes the embedded conductive via 2304 (eg, a metal line or the like). The cavity 2305 can also be a flexible conductive element 2307 that can be extruded or otherwise configured into a rectangular shape in some embodiments. As also shown in Figure 23(c), the top surface of lens 2302 can be configured to also be disposed within a portion of cavity 2305. 160384. Doc -87- 201234069 Figure 23(d) shows in detail the cavity 23〇5 and the flexible conductive element 23〇7❶ as a semi-frameless electrical frame, which may require the conductive paint to be applied to the edge of the coated lens 2302 The remaining portion (i.e., the top surface) that is in physical contact with the flexible conductive member 23A and at the periphery of the lens 2302 is attached to the frame side. The slanted cross-section (e.g., in the circle 21, in the defined cross-section, in which no electrical contact is made) compresses the flexible conductive element prior to contact (as shown by the compressed region 2308). As described above, in the case where the flexible conductive member 23〇7 is compressed (i.e., based on the surface applied to the surface of the cavity 2305 of the lens housing 23〇1 and the top surface of the lens 2302), it will maintain the lens ^ We, the physical (and therefore electrically) connection between the flexible conductive element 2307 and the conductive path 2304 (even when the frame flexes during wearing and undressing). The size of the flexible conductive element 23 07 is typically determined by the dimensions of the cavity 23 〇 5 and the position of the cavity 2305 relative to the conventional lens ramp. The minimum extent (Hmin) of the flexible conductive element 2307 can be the distance between the apex of the conventional lens ramp 2306 and the bottom of the cavity 2305, as shown in Figure 23(d). Generally. The electrical connection between the flexible conductive element 2307, the lens 2302, and the lens housing 2301 (and/or the embedded conductive path 2304) is relatively stable when the value of the S uncompressed (Hunc()mpressed) is increased above fjmin. The maximum height Η can be determined empirically based on the degree to which the flexible conductive element material is compressible such that the lens 2302 (or a portion thereof) can still be mounted into the lens housing 2301 using methods known in the art. That is, the maximum height may be such that the flexible conductive element 2307 will still be sufficiently compressed such that the lens 2302 is properly disposed within the cavity 2305 and thereby coupled to the height of the lens housing 2301. Referring to Fig. 23(e), the width of the conductive flexible member 2307 is preferably wider than the width of the groove by 160384. Doc 88 - 201234069 Degree w is a small amount (δ) so that the flexible conductive element 2307 remains in place when the lens 2302 is mounted after being inserted into the cavity 2305 without the need for an adhesive. The inventors have found that at about 1 mm to 0. A value of δ in the range of 5 mm is preferred and works well for this purpose. In an exemplary embodiment, at about 0. In the case of a δ value of 1 mm (100 μιη), approximately 2. 1 mm wide (for 2. 0 mm wide cavity) and 1. A rectangular flexible conductive element of 2 mm height allows for a secure electrical connection between lens 23 02 and the lens housing. Illustrative Embodiments Included Full Frame Metal Eyeglass Frame Design As mentioned above, the specific embodiments discussed herein are merely illustrative and other embodiments that utilize the same or similar principles may exist. By way of example, in some embodiments, it may be desirable to have an electrically capable frame having a complete metal frame made of a conductive material. A cross section of this frame is shown in Figure 24. In this exemplary embodiment, the frame side 24'' contains a square cavity 2402'. Preferably, no coating or finish is applied to the square cavity so that the conductive surface of the frame edge 2402 material is easily contacted. Another electrically conductive flexible material 2403 can be mounted into the cavity 24〇2 (eg, disposed within the cavity 24〇2) that can form an electrical connection between the lens 2404 and the frame (eg, the lens housing 2401) . In the region where it is not necessary to form an electrical connection, the flexible conductive member 2403 can be omitted and the edge of the square cavity 2402 in the frame side 2401 supports the slope of the electro-acting lens 24〇4. In other embodiments, the electrically conductive flexible member 2403 can be mounted in all portions of the frame side cavity 2402 (i.e., disposed in all portions of the frame side cavity 24〇2) and coated only with a conductive paint lens. The 2404's other areas form electrical contacts. The shape of the electrically conductive flexible element can be any shape, including a rectangle (similar to the above for example 160384. Doc-89-201234069 An exemplary embodiment of an exemplary full-frame plastic side description, or an embodiment may have a slight bevel. The conductive flexible member 2405 shown in Fig. 24 as having a slight bevel can also be applied to the full frame plastic frame in other embodiments. As with the frame design previously described, it is preferred that the edge of the conductive lacquer coated lens is in physical contact with the flexible conductive material and that the conductive material is compressed before the remainder of the periphery of the lens contacts the remainder of the frame edge. As described above, 'because the flexible conductive element is compressed, it will maintain the entity between the lens, the flexible conductive element, and the lens housing and thus electrically connect (eg, 'conductive path), especially when the frame is worn and undressed When flexing. Figure 25 illustrates an illustrative embodiment of a conductive flexible member 2501 that includes a conductive path from a lens housing 25A to an electro-optical lens 25A. The illustration on the left of Figure 25 shows a close up view of an exemplary electrical action frame. The frame comprises a lens housing 2500 that can, for example, comprise a non-conductive material such as a plastic (e.g., acetate). Conductor 2503 is embedded within lens housing 2500. As shown in the exemplary embodiment, conductor 2503 is electrically coupled to the temple at 2506, which may, for example, comprise another conductor, such as a pogo pin. Conductor 25〇3 is also coupled to flexible conductive element 25〇1 in cavity 2502 (eg, conductor 25〇3 may be exposed along portions of cavity 2502 as shown, and conductive flexible material 2501 is located within one portion of cavity 2502 A second conductive path is also shown that includes a second embedded conductor 2504 that is also coupled to the flexible conductive element 2501 disposed within the cavity 2502 in the lens housing 2500. The second embedded conductor 2504 is electrically connected at point 2506. To the temples. Thus, as shown, Figure 25 illustrates the inclusion of two 160384 from the temple to the lens 2507 via the flexible conductive element 2501. Doc -90- 201234069 Electrical action frame for individual conductive paths. In a portion of the lens housing 2500 (without the conductive flexible element 2501 being located therein), the lens housing 2500 includes a cavity 2508 that can have a conventional shape (eg, non-square), and a portion of the lens 2507 (eg, a 'sloped edge) can be disposed on Inside the cavity. A hinge 2505 that couples the temple to the lens housing 2500 is also shown. A close-up view of the cross-section shown as A-A and B-B on the left side of Figure 25 is shown on the right side of Figure 25. As shown, in section A_A, an electrical connection is formed between conductor 2503, flexible conductive element 25〇1, and lens 25〇7. Cavity 25 02 is shown to include a rectangular shape, and flexible conductive element 2501 is shown to have dimensions (dimensions in mm) that are disposed substantially within cavity 25〇1. At the location B_B, no electrical contact is made because the electrical frame does not contain the flexible conductive element 25〇1 in this location. The cavity 25〇8 is shown in this cross section and the lens housing 25 is shown as encapsulating the conductor 2503 such that no contact with the lens is formed at this location. Finally, a cross section of the overlap of sections A-A and B-B is shown, wherein the difference between the cavities 2508 and 2502 (including the conductive elements 25〇1) can be seen. Material Composition of Two Conductive Flexible Element and Ink As discussed above, regardless of the frame design, the conductive flexible element can, for example, comprise - physically flexible and electrically conductive material, otherwise molded into a frame and lens -... The shape of the iso-shape is used for the -conducting path between the shape/frame (ie, the bridge of the nose). Although the material of the category is not suitable, the inventors have already had less than the kind of m. And = the resistivity of the metal-added polycondensate body obtained a good set, Ό 禾 ' and the better result is that you use a volume resistivity of less than 1 Ω-cm to obtain 160384. Doc 201234069 Yes. It has also been found that a material having a value greater than 5 Å on a Shore A standard hardness tester is suitable, but a value greater than 65 is preferred. The inventor has utilized 0. The volume resistivity of 008 Ω-cm and the extrusion of the Shore A hardness of 70. Silver and Ming (Ag-Ai) polyxene oxide elastomers achieved good results. However, embodiments are not limited thereto. While such materials are typically fabricated into a final shape prior to assembly into an electro-active frame, in certain embodiments it is also possible to apply an uncured material in liquid or gel form immediately prior to assembly of the spectacle frame so that After curing the material, the material is simultaneously shaped with both the lens and the frame (eg, the lens housing) and thus forms a conductive path (eg, a bridge) in this manner. This may be preferred in one embodiment because the flexible conductive material may thereby contact the largest number of surfaces of both the lens and the lens housing and thereby maximize electrical connection on the surface. In some embodiments comprising an electro-acting lens, the conductive lacquer or ink applied to the edge of the lens to establish an electrical connection may be determined by the conductive material used to form the internal electrodes of the lens itself. Since these electrodes are usually in the line of sight of both the wearer and the viewer of the lens, they preferably have a transparent conductive material, such as (illustrated by way of example only) available from Sumit〇m〇Metal Mining. ITO ink mixture X-806CN27S. For lenses made with this ink formulation, an additional amount of χ 806CN27S can be applied to the edges of the lens and cured after edge processing and grooving. To create a more robust electrical connection, a second conductive ink or lacquer can be applied over the cured X-806CN27S. Although many conductive metallic inks (based on silver and/or nickel) are available, conductive carbon-based inks are more than 160384 for decorative reasons. Doc •92- 201234069 Good. Carbon-based conductive inks are preferred because they do not oxidize (i.e., discolor) over time and do not look as bright as metal-based inks. Just by example, such as from Creative Matedais

A conductive carbon ink of the mixture 丨22_49 commercially available from Incorporated may be preferred. Electronic Frames Containing Enclosure Modules When designing and fabricating eyeglasses containing one or more electronic components, the manner in which such components are combined with such eyeglass frames may also be considered. In some examples, the electronic components can be inserted or coupled to the frame of the electronic glasses (eg, in a cavity of the temple or lens housing or the electronic components can be inserted or fabricated during fabrication) Included, for example, in some embodiments in which the frame comprises a plastic material, such as acetate, the frame can be molded around the electronic benefit during fabrication, such as during molding or injection molding of the plastic. However, this may limit access to the electronics and may hinder repair or replacement. In addition, the plastic material may expand and contract during the manufacturing process, which may result in variations in the size and/or shape of the frame assembly. Molding the frame, such as around an electronics module, can result in a non-uniform eyeglass frame that has defects surrounding the electronic component, is structurally unreasonable, does not provide access to components in the frame, etc. In some embodiments, an empty The cavity may be formed in one of the components of the frame (such as one of the temples) during the manufacturing process, wherein Or an electronic device is disposed thereafter. Examples of such embodiments are illustrated in Figures 3 to 1 , wherein the electronics module 3〇7 is shown inserted into the cavity 3〇8 (or placed in the cavity) And a fastener (such as a screw, adhesive, etc.) is coupled thereto. Other examples are shown in Figures 16 through 17, wherein the electrical 160384.doc -93 · 201234069 sub-frame includes a housing module 1603, Attached to one of the temples and housing the electronics module 1605 (ie, the electronics module is disposed in the housing module). Figures 16 and 17 will be described in more detail below. In the example, when the frame (or a component thereof) comprises a plastic material (such as acetate), as mentioned above, the plastic material can expand and contract due to heat, thereby the electronic device in the cavity. Producing pressure and/or causing portions of the frame to deform around the components. Accordingly, in some embodiments it may be desirable to utilize (or couple) a structural element (such as a frame or lens housing) that can be used to support the frame. To the electronic device and/or Components of a sub-device module (eg, a housing module). In this regard, in some embodiments, the housing modules can be used to couple (eg, attach) electronic devices to an electronic frame, and to maintain an electronic frame. The shape and structural integrity of one or a component thereof (and thereby maintaining aesthetics). In some implementations, the electronic eyeglass frame provided herein may include a housing module that can be surfaced to the electronic frame - structural components (eg, attached to and/or disposed within the structural component. p. As used herein, a "shell module" may refer to an electronic device (and/or - an electronic device module) that can house electronic glasses. (eg, an electronic device containing electronic glasses (and/or an electronic device molded), a component that substantially contains it, surrounds it, surrounds it, surrounds it, etc.) It should be noted that in some embodiments The housing module does not have to completely enclose the electronics or electronics module. That is, there may be an area where the housing module does not cover the electronic device module. Such openings or apertures may allow interaction with the electronics module, such as by allowing the wearer (eg, 'via-capacitor or membrane switch) to "turn on" and "off 160384.doc •94·201234069 closed" electrical action lens ( Or other electronic components placed on the frame of the glasses). In some embodiments, the opening in the housing module allows the electronics module to be selectively placed into (and/or removed from) the housing module. For example, in some embodiments, the electronic device module can be pressed to fit into the π-opening (eg, "sliding" or otherwise placed in the opening) and lightly connected To the enclosure module. The shape, size and material of the housing module can vary based on the particular purpose of the assembly and based on other factors such as the size, shape and material of the other components of the frame and/or electronics module. For example, the housing module can comprise a conductive material (e.g., - metal) or a non-conductive material (e.g., plastic, carbon fiber, or nylon) and can be shaped to fit a particular style of frame. In general, it is preferred to 'select the material and size of the housing module such that during normal use the 'electric + device module can be unintentionally decoupled from the shell module' - the inventors have discovered that it can be applied The unintentional voltage or current to the electronic components disposed in an electronic device module can cause their electronic components or any electronic components that can be electrically coupled to their electronic components (such as being supplied from a module disposed in the electronic device) Unpredictable and/or undesirable behavior of the components of the electrical and/or control signals of the electronic components. In this regard, the use of conductive materials coupled to electronic devices (or electronic device modules containing electronic components) can cause such electrical conductivity problems, including component shorting and/or capacitive problems (e.g., charge storage and consumption). This can, for example, cause the electronic component to start when it is not desired to start, or it can cause electrical damage to the electronic component (e.g., if excessive current is inadvertently supplied). Thus, in some embodiments, it may be preferred to house 160384.doc • 95· 201234069 in which electronic components within the electronic device module are substantially electrically isolated from the electronic frame and/or external environment. That is, for example, in some embodiments, the insulating material can be disposed (or substantially disposed) between the electronic components disposed within an electronic device module and the frame of the electronic lens and the external environment of the housing. However, one or more conductive paths may still exist between the electrical components disposed on the frame and/or one or more of the electro-active lenses, such that the electronic components can transmit power and/or Or control signals are provided to these components. For example, in some embodiments, a housing module can include a conductive component, such as a metal m, which may be preferred because the materials may have an aesthetic shape and shape that maintains the truss. At the same time, the deformation of the frame is prevented or suppressed and thereby used to accommodate and protect the structural properties of the electronic component (and the electronic device module). However, the electrical conductivity of the outer casing module can cause the electronic component to be inadvertently grounded or may not be required or When additional power is required to generate an electric charge, "put this charge to one or more of the electrical components. In this example, in some embodiments it may be desirable to include an insulating material between the outer casing module and the electronic component so that Prevent or reduce the risk of this short circuit problem and/or stray charges from external sources. In some embodiments, the insulating material may comprise a portion of an electronic device module (such as a layer material disposed on an outer surface of the electronic device module, or the electronic device module itself may include an insulating material) such that The electronics module can substantially electrically insulate the electronic components disposed therein and the conductive housing module (and/or other conductive components, such as the shelf-partially - the housing module can comprise any suitable material, including Non-conductive 160384.doc • 96- 201234069 Material (eg, - insulating material). Therefore, in some embodiments, the electronic device module may comprise a conductive material, but may be formed by including a non-conductive material. The group is electrically insulated (or substantially electrically insulated) from the frame and/or the external environment. In fact, the inventors have discovered that in some embodiments, the use of a non-conductive material for the housing module can reduce the electronics module. Unintentional charge loss, and thereby increasing the effectiveness of the electro-acting lens (and/or reducing malfunction or misbehavior) in some examples. Additionally, a sensing mechanism can be included '-capacitive touch switch' - in some embodiments, the use of an insulating material (eg, a layer) prevents charge storage caused by interaction with the user, which prevents or reduces an erroneous indication of the user's The second charge of the second interaction occurs. In some embodiments, the insulating material can be disposed within the housing module and can be located between the housing module and the electronics module (or a portion thereof). For example, & The outer casing module and the electronic component module can both contain __conductive material, but can be electrically insulated by a material disposed therebetween. However, as used herein, a portion of the electronic device module is not included (including a layer placed on an outer surface = but any insulating material or layer disposed between the outer casing module and the electronics module (or a knife thereof) can be considered as part of the outer casing module. 'The insulating material may comprise any suitable electrical insulator, including plastic and/or rubber' or any other material or composition having a suitable high electrical resistivity. In some embodiments 'preferably, the insulator is selected for the needle ^ A voltage of at least about 5 volts (but in some embodiments, preferably about 2 G volts) is effectively isolated - a relatively short distance of ten electronic groups 160384.doc • 97 · 201234069 pieces, these voltages It may correspond to a typical amount of external (and internal) voltage applied to the frame. In some embodiments, the thickness of the insulator may be less than about 10 匪 (and in some embodiments preferably less than about 5 _). The thickness of the insulator is as small as possible (because the available space within the electronic frame can be limited) while still providing sufficient electrical insulation. Therefore, in some embodiments 'the thickness of the insulating material can be less than - may be preferred. As mentioned above, the housing module can be located in any suitable location on the electronic frame (or caked to the electronic frame). For example, the housing module can be located on (or within or attached to) the lens housing Or on or both of the temples (or within or attached to). That is, for example, in some embodiments, the housing module can be inserted into one of the components of the lens frame (such as in one of the cavities within the assembly) and provide support to maintain the shape and aesthetics of the frame, while also providing < The electronic components are lightly connected to the components of the electric + eyeglass frame. In some embodiments, the housing module can include a separate section of the frame. That is, for example, in some embodiments, the housing module can be disposed between one of the frame legs and the lens housing such that the housing module is coupled to both the lens housing and the temple. An example of this is shown in Figures 16 and 17, and will be described in detail below. In such embodiments, the lens housing can use any suitable member such as an adhesive, one or more fasteners (such as a screw coupled to the temple, and/or the two components can be designed to cause the housing mold One portion of the set can be inserted into the temple and/or lens housing (or otherwise structurally attached to the temple and/or lens housing to or coupled to the temple and/or lens housing) (or And vice versa) In some embodiments, the lens housing and the temples may share similar structural components (such as 'like a core, such as the core 1601 shown in Figures 16 and 17 I60384.doc-98 - 201234069). In an embodiment, the lens housing or the temple and the electronics module can be connected by using one or more hinges. Embodiments can thereby provide a containment, enveloping, encapsulation, coupling, or otherwise accommodating one or more a housing module of an electronic component (or a portion thereof) and/or an electronics module comprising one or more electronic components of the electronic eyeglass frame. As mentioned above, in some embodiments, the housing module can be Framework (or a component thereof) Structural support that prevents or reduces deformation of the frame during the manufacturing process or during subsequent use of the frame, or the outer casing module itself may provide a portion of the frame that conforms to the aesthetic style of the frame. In some embodiments, it may be desirable to provide The electronic eyeglass frame selectively couples (eg, attaches) or decouples (eg, removes) the capabilities of the housing module and/or the electronics (or electronics module). For example, it may be desirable to mold the housing The set is selectively coupled to the frame such that the outer casing module can be fabricated during separation from other portions of the electronic frame. That is, for example, in some embodiments, an electronic frame having a cavity can be fabricated, the electronic housing The module can be inserted into the cavity after the electronic eyeglass frame or part thereof is inserted into the cavity, and then the housing module can be placed into the cavity, and an electronic device module can be connected to the outer casing module. In some embodiments, the electronic device module can be inserted into the cavity before the housing module is inserted into the cavity (4) to the outer casing module. In some embodiments, the outer casing module can be used. The frame (or,,, and) provides support to prevent or reduce deformation of the frame (eg, if the frame contains a plastic material such as acetic acid vinegar or resistant). Similarly, it is also possible to: electronic devices (eg, electronic device modules) Group) selectively rotates the module and/or from the outer casing module (eg, removable). This may permit the absence of 160384.doc -99-201234069 trapped, stale or exhausted components (such as old Or replacement of frequently used power supplies. In addition, the ability to selectively insert and remove electronic components or electronic modules can provide the ability to customize the use of electronic eyeglass frames. For example, the same electronic eyeglass frame (or Its components can be used for different purposes, but can be manufactured in the same way (thus allowing for cheaper fabrication). Customization can be coupled to different electronic components and the same or similar standards by coupling (which can be included, for example, in a separate electronic module) The framework (and thereby utilizing different electronic components) is provided. Although as mentioned above, the outer casing module can be fastened to the frame in any suitable manner, such as by the use of adhesives, screws, etc., in some embodiments, providing the outer casing module and/or electronics can be readily The manner of miscellaneous to the frame (and/or decoupling) may be preferred. The inventors have discovered that an example of a relatively efficient manner can be to shape the housing module (or the electronics module) for a friction fit. That is, for example, the outer casing module can be weighed to the frame by "snap" the outer casing module into position. In this regard, the components are shaped and/or sized such that if a force is applied in the t-direction of the outer casing module (or electronics = group), the assembly can contract in that direction. The field is not applied in this direction and the assembly is expandable. If the housing assembly (10) 2 electronic frame or cavity therein is designed to accept expansion of the housing module, the housing module can be inserted into position and easily attached to it: or, with similar force applied Was consumed and removed). Similarly, the electronics module can be designed to be press fit into the housing module. It is easy to consume the electronic frame (or decoupling) by inserting or removing the structure of the housing module or the electronic device module (for example, a tool such as a screwdriver is not required) .doc -100· 201234069 As mentioned above, the inventors have discovered that in some embodiments, a housing module or electronics module with a press fit may be preferred. In some embodiments, the electronic eyeglass frame A lens can be included that has an open σ at the end i that allows the housing module or the electronics module (or both) to be inserted into the opening and thereby placed within the temple (eg, an empty An example of this design is shown in Figure 27 and will be described in detail below. In this manner, in some embodiments, pressure can be applied in a vertical direction (usually deforming the assembly to reduce Cross-sectional area) and inserting the outer casing module or the electronic component module/self-receiving component to remove the outer casing module or the electronic isi module and to 'one phase Dong + right % Xuan-々 +』 & Way to shell module and / or electronic device Group to the frame surface / plane to go. In some embodiments, the housing

The module may include a frame γ γ γ + B , · (ie, as described above with reference to FIG. 6 , the housing module may be lightly attached to the temple and/or the lens housing, but may not be placed on the temple or Inside the lens housing, and the electronics module can be inserted into one of the ends of the housing module and press fit thereto. Including pressure fits = parts - some implementations provide good advantages, and the - (iv) sub-t includes an increase in the ease of providing splicable and light-to-light components. When one or more electronic components are selected for use in an electronic frame, the two electronic devices can be placed in an electronic device module that can be inserted into the end of the housing module, for example, in a truss assembly (for example, By compressing the electronic module in size). In some embodiments, the electronics module can be "sneaked" on the device (eg, inserted into the opening and borrowed from the group, and shouted in the core group). The housing module (and/or the frame) The temples can be configured to have a region, cavity or opening that allows the electronic device:: 160384.doc 201234069 to expand into it and thereby the module can be coupled thereto. An example of this is shown in Figure 27. Additionally, in some embodiments, the inventors have discovered that the size of the compression electronics module is perpendicular to the direction in which it is inserted into the housing module (ie, 'to reduce the electronics module in a perpendicular to the mirror The axis of the foot (eg, the dimension in the direction in which the largest dimension of the temple is normally located) may be more efficient, as in some instances, this may not affect the conductive path or electronic components. In some embodiments, It may be preferred to compress the electronics module parallel to the axis in which the temples extend, as such embodiments may compress the electronic components and/or conductive paths, which may require additional components to maintain such conductive paths. / or a specific material (such as conductive rubber) is required to include some of these components, and in some embodiments may also increase the risk of potential failure of electrical contact. For example, the electronic device module may be in some embodiments Including electronic components (such as power supplies) that are not easily compressible. Additionally, in some embodiments, having the opening in the end of the temple (or housing module) may provide an advantage over using an opening in another location (such as along a mirror) Advantages of the body of the foot, such as increasing the durability of the electronic eyeglass when in use (which is typically when maximum force is applied to the frame), as the opening may be blocked by other components of the electronic eyeglass (eg, hinge or lens housing) / or protection. This prevents the electronic device module (and / or the housing module) from being inadvertently removed from the device. Again, an illustrative description of such embodiments is shown in Figure 27 and described below. It is mentioned that some embodiments may provide advantages over electronic glasses that do not include a housing module in which the electronics and/or electronics modules may be located. In other words, some embodiments including a housing module may provide additional structure to the frame 160384.doc • 102- 201234069 or a piece thereof (eg, a plastic frame that may additionally deform around a component contained in one of the cavities) The housing module provides a removable access to an electronics module because the frame is molded directly around the electronic component & non-single: 3⁄4 φ. Some embodiments may also provide benefits in the manufacturing process. For example, the housing module and/or the electronics module can be fabricated in a single manufacturing process (and can include different materials) and later assembled with other components of the frame. In some implementations In an example, an optional (4) _ (four) rack component and/or (4) and/or a sub-module module and/or a housing module may be provided by allowing multiple purposes of the single-base frame (eg, 'by coupling as needed and / or decoupling multiple or different electronic devices to increase the flexibility and utility of the electronic eyeglass frame, and can further provide a more robust design (because, for example, defective or used components can be more easily replaced). Moreover, in some embodiments, the use of a Lili mating component permits rapid coupling and decoupling of components without the risk of tools and components that can damage the components. Illustrative Embodiments of an Electronic Eyeglass Frame Included with a Housing Module Other exemplary embodiments of an electronic frame are provided below. These examples are provided for illustrative purposes only. In addition, it will be understood by those skilled in the art after reading this disclosure that various combinations of the components discussed above or below may be made. In this regard, embodiments can provide an electronic frame that includes a housing module for an electronic device (and/or electronics module) in an electronic eyewear. Some embodiments may include the components and features described above in connection with the housing module. For example, some embodiments may also include a spring hinge and an electrical path from a temple to a lens. Some embodiments may also include a conductive flexible material, 160384.doc - 103 · 201234069 which provides portions of the electrical path between two or more components. Some embodiments may also include a single electronic module or multiple electronic device modules. Some embodiments may also include an appearance. In some embodiments, a first device can be provided. The first device can include a frame having a first temple and a second temple. The frame may also include a housing module attached to a structural component. "Structural component" may refer to any portion of the frame' including (by way of example) a lens housing, a temple, a cavity in the temple, a lens itself, and the like. The housing module can be attached (or otherwise) to the structural component in any suitable manner, including the use of one or more fastening devices (such as screws), adhesives, general frame components (such as core components), and the like. In some embodiments, the structural component and the housing module can be configurably configured such that the two consume without using another component or device. For example, the housing module can be configured to "pressure fit" to a cavity in one of the structural components of the frame, and can be used to couple (e.g., attach) the components eight times. One or more connectors or general components. Generally speaking, in the embodiments, the housing module is attached to the structural component and/or the frame of the electronic glasses and/or the aesthetic features of the structural component and/or frame configured to not damage the electronic glasses. May be better. For example, the housing module can be designed to appear as part of the frame, or it can be increased in style and shape. In some embodiments, it is designed or configured to provide support for the structural component and two or more electronic components (or - containing ~ electronic pirate modules). In some embodiments, the outer shell module provides a shield to prevent or reduce - structural components =,: 160384.doc -104- 201234069 Do not include plastic in the structural component (such as acetic acid (five), light or can be shaped in force Where any other material is modified, such as heat or physical force applied during fabrication and/or during typical use, such structural components may thereby be structurally unreinforced (eg, If the electronic device or the f-sub-module will be located in the cavity, it is more susceptible to physical damage. The structural component of the electronic frame can include a shape that can affect the performance of the device and/or the aesthetics of the frame. In some embodiments of the deformed material, including a housing module that provides support may be preferred. However, embodiments are not limited thereto, and the housing module may be attached or lightened to include any suitable material (including, for example, metal) The structural group of conductive materials) (such as temples) may not require additional support to prevent deformation during or after use. Additionally, as described below, the housing mold The set itself may comprise 3 - a separate component such that the separate component may not be disposed within the structural component (and thereby not providing support for the structural component) or the separate component may be face-to-or structural components. An example is shown in Figure 。. In some embodiments, the first device of the frame as described above - the first lens and the second lens, and the sub-device = to the electronic device module Located within (eg, disposed in) the housing module. That is, for example, the electronics module can be positioned such that some or all of its components are contained within the perimeter of the housing module. However, as mentioned above In some embodiments, portions of the electronic device module may not be covered (eg, encapsulated or enclosed) by the housing module. Further, in some embodiments, portions of the electronic device module may be The housing module protrudes or is disposed outside the housing module. One such example provided for illustrative purposes may be a touch sensitive switch such as a capacitive switch or a membrane switch that has been exposed such that it is And use At least a portion of the interaction of the user (such as a user's finger). The electronic device module can further include at least two of: a power source; a controller; and a sensing mechanism (ie, the The electronic device module may include more than one electronic component. For example, the electronic device module may include: - a power supply and - a controller; - a power supply and a sensing mechanism; a controller and a sensing mechanism; or In some embodiments, the first device can be self-sufficient, that is, the first device can include a power source and/or a plurality of electronic components driven by the power source. It is understood that the first device (e.g., an electronic eyeglass frame) can include other electronic components (9) disposed on (or within) different portions of the device, such as being attached to different portions of the frame, such as the temples, The lens housing or the lenses). Each of the electronic components can be electrically connected (via - or a plurality of conductive paths) or each can be electrically isolated from one or more of the other electrical components and/or modules. In some embodiments, in the first device as described above, an insulating layer may be disposed on the - or a plurality of electronic components (which may themselves be disposed within the electronic device module) and the frame of the first device between. The term "placed between" may refer to when a m-edge material (e.g., an insulating layer) is used to electrically isolate one or more of the electronic components from at least a portion of the frame. (d) The edge layer may also isolate some or all of the electronic components from the external environment. Generally speaking, the insulating layer can be designed or configured to electrically isolate an electronic component that can be disposed in the electronic device module from an external current or voltage source. 160384.doc -106· 201234069 as explained above, The electrical contact of an electronic component with an external current and/or voltage source is less likely to affect the performance of the electronic frame or its components by the occurrence of short circuit currents or external charges or voltages. For example, the insulating layer can be utilized in the two embodiments t' such that no unintentional or undesired voltage or current is applied to the electronic modules disposed in the electronic device module (4). For example, in some embodiments in which the electronic device module can include a sensing mechanism, 'if a desired voltage or current is applied to the sensing mechanism (such as by a conductive housing module) or if one is based on a user The charge generated by the "touch" is not effectively dissipated due to the conductive material, the sensing mechanism may not function properly as m, and it should be noted that a conductive path to the components in the outer casing module may still be established. (For example, by using a conductor inserted into one of the openings of the electronic device module, for example, the sensing of the embodiment is placed outside the electronic device module: the group may have - (for example) To a conductive path within the control module of the electronic device module. Alternatively, the power supply or controller can be electrically connected to other components on the electronic frame. In some embodiments, the conductive circuit is pinched. It may also be electrically isolated from the frame or the outer casing module which may comprise - a conductive material. In some embodiments, 'an insulating layer may be disposed on one or more electronic components « or more (four) sub-assemblies may be placed Within the electronic device module In the case of the frame, the housing module may comprise the insulating layer. That is, for example, the outer casing module (or portion thereof) may comprise an insulating material. In an embodiment, the outer casing module can substantially surround and/or face the electric guillotine module, and thereby, if the outer casing module comprises an insulating material, the beta electronic pirate module The majority (and thereby the 160384.doc -107-201234069 disposed within the module is electrically isolated from the frame and/or the external environment. In fact, in the sub-, the electronics module can include - a conductive material, and the basin may be electrically isolated by the housing module (or part of the electronics module; isolated by a = mode). This may permit - some embodiments may include:: electronics of a material such as a metal Device module. This material can provide; the advantages of his type of material (such as with regard to increased manufacturing efficiency), = can include a better protection of placement, such as during manufacturing, assembly, transportation, and/or use of the device. In some embodiments, in the first device as described, an insulating layer can be disposed in a frame that can be disposed in one or more electronic components and electronic glasses within the electronic device module. Between the case, the housing module can Having a conductive material and the insulating layer can be disposed between at least a portion of the outer casing module and the electronic n-piece module, at least in part - generally meaning that at least 25% of the electronic device module can be The housing module is isolated. For example, in some embodiments, the housing module may not be adjacent to (or electrically connected to) the entire surface of the electronic device, and thus the insulating layer may not necessarily have the entire electronic The device module is electrically isolated from the conductive housing module. For example, the housing module can have one or more openings that provide access to the electronics module (or components thereof, such as a sensing mechanism) In some embodiments, the insulating layer may sequester more of the electronics module (such as, for example, at least 50%, or preferably at least 95%), depending on the design and functionality provided by the electronic glasses. In some embodiments, in the first device as described above, the edge layer of a 160384.doc •108-201234069 can be placed in the 15th module of the Kean Group. Frame of multiple electronic components and electronic glasses In some cases, the insulating material may comprise: a portion of the electronic device module. That is, for example, in some embodiments I, the electronic device module may have a placement (eg, attached or deposited) on the outer surface. The insulating material (or the outer surface of the electronic device module or the sleeve may comprise an insulating material)' and thereby the electronic device module may be used to isolate some or all of the electronic components from the frame, the outer casing Group and / or: part environment. Therefore 'as used herein, an electronic device module 3 is made of an insulating material or includes an outer wall of an insulating material (such as an outer wall, a container, a shell, etc.) In an embodiment, the outer wall can be considered as an insulating layer between the electronic component (which is disposed within the electronic device module) and the outer casing. For example, in some embodiments, the outer wall (or the container) of the electronic device module (or an insulating layer disposed on the module) can also be electrically isolated and disposed in the electronic device module. The electronic components are associated with a housing module (or any other component of the electronic glasses, such as a frame) that includes a conductive material. As mentioned above, the inventors have found that in some embodiments, such as when the housing module includes a conductive material, the electronic components and the peripheral modules that are electrically isolated in the housing module may be better. Because, for example, electrical charge may be stored or applied to the housing module (especially where a sensing mechanism can be exposed between portions of the housing module), this may affect the performance of the electronic device. The insulating material that can be used in some embodiments can be any suitable material, such as plastic, nylon, rubber, carbon fiber, and the like. In general, the size of the component and the size of the layer (including the insulating layer), 丨, I At & _ ) is minimized, taking into account the relatively small area that can usually be obtained in the frame of the eyeglasses. This is preferable. That is, for example, in some embodiments, if the portion of the electronic eyeglass frame containing the electronic device is easily viewable (the right components extend out of the frame) m is considered aesthetically pleasing. In some embodiments, the thickness of the insulating layer can be less than 5 mm and preferably less than 2 mm. In a <fragrance", the second embodiment, as described in detail above, the insulating layer can be part of the 3 electronic device module. That is, for example, in some embodiments the insulating layer can comprise an outer wall of the electronics module, or can isolate the current or electrical components that can be applied to (or remain attached to) the electronic device. Something else - other internal components. In some embodiments, the insulating layer can be disposed only between the outer casing module and the electronic component module that is connectable or physically connectable (or electrically connected when no insulating material is disposed therebetween). This reduces the size of the insulating layer while still electrically insulating the electronic components from any improper external charge. In some embodiments, in the first device as described above, the housing module can be removably surfaced to the first temple. That is, the structural member can comprise the legs of the frame. As used herein, "removably removable" may mean that the removal of the module (or component) will need to be changed when the outer casing module (or another component) is not lightly attached to the temple. When the structure of the frame. For example, if the frame is molded around the outer casing module, then in some embodiments, the only way to remove the outer casing module may be to damage or structurally modify the structural components. As mentioned above, the housing module can be attached or lightly attached to the structural component in any suitable manner; however, the housing module is removably attached to provide greater flexibility in the manufacturing process and on site (also That is, the adaptability of daily use may be better. In addition to the above, 160384.doc • 1] 0-201234069 refers to the manufacturing process provided by manufacturing the outer casing module and structural components (such as temples) in a separate process, each of which may contain different materials. In addition to the benefits of increased efficiency, embodiments may also provide the ability to replace defective or obsolete electronic devices with new electronic devices (or to provide different functionality, electronic devices). For example, in some embodiments, the electronics module can be rolled to the housing module such that we only need to couple the housing module to the electronics frame to provide electronic functionality (ie, to connect the electronics to frame). Similarly, the electronics can be removed by removing (i.e., removing) the housing module from the frame. In this regard, in some embodiments, in the first device as described above, the housing module can be removably attached to the first temple to enable the housing module to be adapted from The first temple is removed and re-attached to the first temple. For example, in some embodiments, it may be desirable to be able to remove the housing module, replace or adjust the electronic module set that can be placed in the housing module and then re-attach the housing module to the structural component. By removing the module, the user can provide the user with a tolerance for the electronic device module without removing or (or adjusting) the electronic device module from the outer casing module. The risk of (such as a lens). In some embodiments, as mentioned above, the housing module can be replaced by a replacement module (which may or may not include a new electronics module). In some implementations, in the above-described device, the coughing electronic component module can be removably attached to the outer casing module, so that the outer casing module is removable. Connected to the structural component == Example 'The electronic device module can be removably connected to the housing module to 1603S4.doc -111 _ 201234069 so that the electronic device can be removed, and the housing module can be changed. Groups and / - replacement electronic modules (such as if; sub-structure:: can allow the use of multiple electronic components to fail or do not function as needed) without the need to purchase - new devices. In addition, embodiments may provide a single device (e.g., a single model of electronic glasses or frame) for multiple purposes' such as those described in detail below with respect to various electronic components that the device may include. That is, 'for example', the electronic pirate module may include a component that functions as a fall monitor. The electronic device m can move the new module (4) to the housing module such that the same electronic glasses in the / another example t' can function as a pedometer and timer (or any other suitable function can be provided). In fact, any electronic component can be interfaced or removed in this manner (which can be included in the electronics module 1 and thus tr' in some embodiments, the electronics module can be adapted to be applied from the housing module The group is removed and re-attached to the housing module. In this way, for example, the components placed in the electronics module can be replaced (for example, replacing the power supply, such as 'if the power supply contains used batteries, etc.) without purchasing The entire new electronics module (or otherwise replaces other electronic components that still function properly). The user can remove only the electronics module, replacing an electronic component (eg, a power source, such as one or more batteries) And re-storing the electronics module to the housing module (which may, for example, still be consuming to the frame). In some embodiments, in the first device as described above, the housing module may have a An end, a second end, and a first end of the body disposed between the first end and the third end include an opening 160384.doc 201234069 The electronic module can be configured to be inserted into The opening In some embodiments 'the electronic device module can have a size such that it is smaller than the opening' and thus, once inserted, it can be joined using a fastener such as an adhesive, screw or any other suitable member. To the housing module, in some embodiments, the electronics module can be configured to be compressible in at least one direction (typically in a direction perpendicular to the direction in which the module can be inserted into the housing module). In this regard, the electronic device module (or a portion thereof) can comprise a flexible material that can be deformed by applying a force but can return to the original shape. In some embodiments, the electronic device module can be press-fitted to To the housing module, that is, for example, the electronic device module (or component thereof) can be inflated to a section or a portion of the housing module such that it is locked in place (and can be coupled thereto) To the housing module). In this regard, the housing module can include an opening for receiving the expanded portion of the electronic device module. The same direction can be used in the expanded portion of the electronic device module Apply similar To remove the electronic device module. An example of this embodiment will be described and described herein with reference to FIG. % and FIG. 27. However, the embodiment is not limited to this and in some examples, the electronic device module Can be inserted into the opening σ in the end of the housing module with or without size compression (eg, 'the electronic device module can be inserted into the opening and coupled to the housing module using a fastener) In some embodiments, the electronic device module can be located in the body of the housing module. For example, the electronic device module can be inserted through an opening of the housing module and then disposed inside the housing module and The housing module can be coupled to the frame. The housing module can be used to transfer the electronic device module to 160384.doc • 113- 201234069. The frame provides the electronic device module (and/or components thereof) relative to each other. Outside. p force protection / electrical isolation. In this regard, in some embodiments, the outer casing may comprise a non-conductive material such as nylon or carbon fiber. As mentioned above, 'this prevents or suppresses the external charge from affecting the operation of the electronic device'. In addition, considering that the electronic eyeglass frame may be worn by the user for a long period of time, carbon fiber, plastic, etc. may be used compared to some other materials (such as Some metals are light, this can be another factor to consider. However, embodiments are not limited thereto, and the housing module may comprise a conductive material such as metal, which in some examples may provide greater protection against physical forces, additional support to other structural components, and/or Less affected by deformation or damage. In some embodiments, in the first device as described above, the junction member can include a cavity in the first temple and the housing module can be configured to be selectively placed in the cavity Inside. As used herein, "selectively placed" may refer to when the housing module is provided as a separate component that can be added later by "snap" the housing module into the temples. The temples (and thus the electronics module can also be provided separately and disposed within the housing module). In some embodiments, this may provide the advantage that the outer casing module can be separately designed and/or manufactured and can be placed in the temples of different style frames later. However, "selective placement" may also involve The process by which the housing module is not removably coupled (ie, the housing module can be coupled to the structural component such that the housing module is not undamaged or permanently altered) Was removed.) However, embodiments are not limited thereto, and the housing module can be selectively placed in a cavity for removal therefrom. For example, in some embodiments, 160384.doc • 114· 201234069 the housing module can be coupled to the at least one of a fastening device (such as a screw) or an adhesive (such as a double-sided tape). The first temple. In some embodiments, the housing module can be selectively removed. However, any suitable means of coupling the housing module to the cavity in the temple can be used. In some embodiments, the housing module is press fit to the cavity in the first temple. As used herein, "pressure fit" may refer to, for example, when: the shell module is snapped into the cavity. That is, the housing module can include a portion that can be reduced in size after insertion, but can be expanded into the portion of the cavity of the temple such that it cannot be moved by a similar size reduction. except. In this way, the shell module can be coupled in a time-shiftable manner such that it can then be engaged and released by applying a similar force (ie, (iv) and decoupling) - some embodiments (where the shell mold The placement of the set in one of the temples provides some advantages. For example, in some embodiments, the temples can comprise a plastic knee or nylon material. If the electronic device module is directly inserted into the working chamber, the material including the temple can be deformed to shape the shape of the electronic device module. By utilizing a housing module, an embodiment can provide an additional branch to the cavity to prevent deformation of the cavity. In one implementation: in the case where the temple comprises a conductive material (such as a metal), the outer module can be inserted into the cavity to: the electronic device module::: or all The temples are electrically isolated. That is, for example, the housing mold, and an insulating material, to limit the amount of current that can flow from the temple to the electronics module, the current can be molded into the components. ~ 效能 效能 效能 效能 384 384 384 384 384 384 384 384 384 384 384 384 384 384 384 384 384 384 384 384 384 384 384 384 384 384 384 384 384 384 384 384 384 384 384 384 384 384 384 115 115 115 115 115 115 115 That is, for example, the first device can include a conductive path from the electronic device module to (d) to the lens of the lens housing. As mentioned above, the housing module (and thereby the electronics module housed therein) can be attached to any structural component of the device (eg, 'mirror, lens housing, etc.') at the lens In embodiments in which the housing is attached to the temples, the conductive path may comprise an enemy conductor (such as a conductive flexible material) and/or a conductive path through the hinge to the lens housing. The lens may comprise any additional electronic components required to provide a given functionality, such as changing the focal length of the electro-acting lens, varying the hue of the lens, and the like. In some embodiments, in the first device 10 as described above, wherein the first lens is electrically connected to the electronic device module, the electronic device module can include: configured to generate a A controller that supplies a change number to the first lens. Also, for example, in some embodiments, supplying an AC signal to the electronic components - or more may be preferred. This can, for example, produce a large peak-to-peak voltage (e.g., 2 volts) which, when coupled to an electroactive lens, provides increased clarity (and possibly increases power consumption and cost). In some embodiments, the sensing mechanism can be configured to provide an input to the controller for determining when to supply the time varying signal to the first lens. That is, for example, the sensing module can be configured to receive an input (eg, from a user, such as by tilting the head or touching L. The input can then be used to trigger the controller to supply the signal (such as , "On" _ "Off" switch) or adjust the signal (for example, adjust 160384.doc • 116 - 201234069 full voltage, etc.). In some embodiments + 'The power supply contains a battery. Generally speaking 'considered The structural component (such as within the temple) and/or the relatively small area obtained within the housing module may be preferred for use with a simple power supply. However, it should be understood that any lightning adjustment may be used. ^ 』 Source In some embodiments, the controller may include a firmware. Although in this case, the firmware may be better in the sinus

It may reduce the number of workstations required by the controller, but the embodiment is not limited thereto and the controller may include any combination of software (four) bodies to provide __ desired #H in some embodiments, the controller may Includes __ voltage multiplier. The voltage multiplier can be used in conjunction with a simpler (e.g., smaller) power supply to provide - higher voltage while minimizing the space required within the electronics module. However, the embodiment does not have to utilize a voltage multiplier in the case where the voltage (or current) supplied by the power supply is sufficient. In some embodiments, the controller is configured to provide at least one of a zero DC bias sine wave or a zero DC bias square wave to the first lens. In some embodiments, in the first device as described above, the housing module can further include an aperture disposed on an outer side of the housing module. "Outside" may refer to one of the outer casing modules not facing the wearer's head in this manner, and as the side of the portion (eg, 'avoiding the side of the wearer's head"), as mentioned above, the outer casing module It is not necessary to completely enclose the entire electronic module. The aperture provides a means by which the wearer can interact with the electronics module disposed in the aperture. For example, in some embodiments, the apertures can have an area in the range of approximately 1 cm 2 to 5 cm 2 . While the size can vary based on the application and use, this area is generally adapted to allow the wearer to manually interact with the sensing mechanism. For example, the sensing mechanism can include a touch sensitive switch that is substantially exposed through the aperture 160638.doc -117 - 201234069. As used herein, "touch sensitive" can include any switch that can be opened or closed by the touch of a wearer. This can include, for example, a capacitive switch or a membrane switch. As used herein, even if a thin insulator layer is placed on the touch sensitive component, the touch switch can be considered "exposed" (as the wearer can interact with the touch sensitive switch) Still exposed). That is, the term "exposure" is used to refer to a configuration in which the touch sensitive switch is not adequately covered so that it can respond to a user's touch. In this regard, in some embodiments, the use of a valley switch typically requires that the charge generated by interaction with the wearer be dissipated. Otherwise, these devices may create a short circuit condition or may erroneously activate the electro-acting lens. Thus, embodiments may require the use of an insulator, particularly when the housing module and/or the structural component of the frame comprises a conductive material. In some embodiments, in the first device as described above, the structural component comprises - the first temple of the electronic eyeglass frame. That is, for example, the housing module can be coupled to (e.g., attached to) the first temple or a portion thereof. This can, for example, include an embodiment in which the housing module can be disposed in a cavity of the first temple, the housing module can be attached to a portion of the temple (eg, as an extension of the temple) Or an embodiment attached to the surface of the temple, the housing module can be transferred to the temple and to the lens housing, as mentioned above, in this embodiment The style of the housing module (eg, or the shape of the gossip) is identical (eg, aesthetic). In some embodiments, the temples may include a first 160384 of the electronic eyeglass frame. Doc -118. 201234069 Part I and Part II. The first portion can be positioned closer to the first lens than the second portion, and the housing module can be attached to the first portion of the first temple. This may be preferred in some embodiments as it may utilize a shorter conductive path from the electronics module to any electronic device (including an electro-optical lens) that may be located on the lens housing. In this embodiment, the housing module can be the first portion of the first temple. That is, for example, and as mentioned above, 'the housing module can be disposed between the lens housing and the portion of the temple' but may not be disposed in the temple (or in one of the temples) ). The lens housing can be coupled to the temple in any suitable manner, including, for example, using a fastener (such as a screw) or an adhesive. Additionally, in some embodiments, each of the lens housing and the temples can include one or more structural components such that the two components can be interconnected. Some embodiments may provide advantages such as, for example, allowing the fabrication of the electronics module to be separated from the temple and/or the lens housing (because the housing module can be subsequently attached to such components). It is permitted to make the temples without forming a cavity (or other components for placing the housing module and/or electronics module in its ten), which can result in higher structural stability of the frame assembly. In some embodiments, in the first device as described above, the housing module may comprise a conductive material such as a metal or a flexible conductive material. As mentioned above, When the module comprises a conductive material, the first device may further comprise an insulating material disposed between the outer casing module and the electronic device module. As mentioned above, "placed between" May refer to - configuration 'where the insulating layer electrically isolates the housing from the module and the electronic device module (and/or the electronic components disposed within the electronics module). Mentioned, in some real In the example, when the outer casing module comprises a conductive material, there may be an increase in the short circuit to the electronic components. In addition, a sensing mechanism such as a touch switch (for example, a capacitive switch) may be used. In some embodiments, if the outer casing module comprises a conductive material, the user may generate an undissipable electric charge when the switch is activated (for example, the electric charge may be stored on the outer casing module). The test module (or other component) receives a signal that the wearer does not wish to modify the functionality of the electronic component of the device. In some embodiments, in the first device as described above, the housing module can include A non-conductive material. For example, the housing module may comprise a plastic (such as acetate) or nylon. This may be preferred in some embodiments because it may not require the electronic module and the housing mold. In the embodiment between the groups, the structural component may also comprise a non-conductive material. That is, for example, both the outer casing module and the structural component may comprise a non-conductive material. Some embodiments may be preferred because one or more conductive paths electrically isolated from the electronic device module to one or more other electronic components disposed on the frame of the electronic glasses may be more easily achieved in a ☆ embodiment The structural component may comprise either a plastic or a combination of resistance or a combination. In some embodiments, the structural component comprises acetic acid vinegar. Acetic acid vinegar may be preferred in some embodiments because it is a manufacturing Ordinary materials used. However, as mentioned above, the insertion of the electronic device into the vinegar frame without additional support provided by a housing module can result in deformation of the structural component. It should be understood that any suitable Non-conductive 160384.doc 201234069 The material is used for the structural component and or the outer casing module. In some embodiments, in the above-described first device (: module may comprise - non-conductive material), the structure The component may comprise a guide module, that is, the outer casing module may comprise a material such as a plastic (e.g., acetic acid >, etc. material) that is attached to the outer casing module, such as a metal material.The housing module can be configured or positioned to electrically isolate the electronic device module (and/or disposed within the electronics module, electronic components) from the structural component (and the frame). That is, for example, the housing mold can be disposed within the cavity of the structural component, and the electronic device X module can be disposed within the housing module. The housing module can be substantially detachable from the handle or the electronic device module (or at least the portion of the electronic device module that can be electrically connected to the structural component or another part of the frame) to be electrically isolated from each other, the two components . In some embodiments, the housing module and/or the structural member can have one or more apertures for the wearer to interact with the electronic device module (eg, via a sensing mechanism such as a touch sensitive switch). In some embodiments, the housing module may not be disposed within the structural component, but may, for example, be coupled thereto (e.g., coupled to a portion of the structural component). The electronics module can be disposed within the housing module such that it is electrically isolated from the structural component by a housing module that includes a non-conductive material. In this manner, embodiments can reduce the risk of short circuit problems with the electronic device module and potentially increase the performance and responsiveness of the electronic device module (including, for example, a touch sensitive switch that can generate a charge to be dissipated) Example). In some embodiments, in the first device as described above (wherein the housing module can comprise a non-conductive material), the electronic device module can comprise 160384.doc • 121 · 201234069 a conductive material. As mentioned above, in some embodiments, it may be beneficial to use a conductive material for the electronic device module for manufacturing and/or durability purposes. However, embodiments are not limited thereto, and in some examples, the housing module and the electronics module may each comprise a non-conductive material (such as an insulating material). In some embodiments, in the first device (wherein the housing module includes a non-conductive material) as described above, the first device may further include a first lens having a first electrical contact, and a An electrically conductive path in electrical contact (e.g., electrically coupled) to the first electrical contact of the first lens. The electronics module can also have a first electrical contact. The conductive path can be electrically coupled to the first electrical contact of the electronic device module. In this manner, embodiments can provide a conductive path between the electronic device module and an electroactive lens. The electronics module can include and be controlled by the sensing module (eg, by making (10) some of the functionality of the lens (eg, by changing focal length, hue, providing light valve effect, etc.) The touch of the wearer or the wearer's = skew, etc.). In some embodiments, the electrical path may include at least: a spring pin. Even if, for example, the temple does not form a right angle with the housing, or other factors that increase the size of the conductive path between the lens housing and the electronic (four) module, the spring pin can also be used to maintain the electrical path. . In some embodiments, the conductive path can include a spring hinge. Spring hinges may be used in some embodiments to make it possible to hold the electronic frame tightly against the wearer. By using a guide circuit that passes through a spring hinge, the embodiment provides an L-guide for the gate of a conductive circuit regardless of the angle of change between the lens housing and the temple. In a second embodiment, the conductive path may include a flexible conductive element of 160384.doc •122·201234069. As mentioned above, the flexible conductive element can be used to form a stable electrical connection with an electroactive lens. In addition, the flexible conductive member can be easily applied to a small area as needed and has a prefabricated design. In some embodiments, in the first device as described above, the housing module can have a thickness less than or equal to about 〇7 mm. As used herein, the "thickness" of the outer casing module can refer to the dimension of one of the sides of the outer casing module in a direction perpendicular to the electronics module. The inventors have discovered that, in general, the effectiveness of many sensing mechanisms, such as touch switches, begins to degrade when the thickness of the housing module is greater than 〇.7 ram. By way of example, the thickness of the capacitive switch can be based in part on the thickness of the lens housing because it can protrude beyond the housing module for the wearer to tap. In addition, the smaller the thickness of the housing module, the greater the area potentially available for the electronics module. This may allow for the provision of more advanced electronics, and/or more electronic components (eg, a larger electronics housing module), however, reducing the thickness may weaken the structural support and/or subtraction of the housing module. Small insulating properties (when the outer casing module does not contain a conductive material). The inventors have found that in some embodiments, the outer casing module can have a thickness of less than or equal to about 0.5 mm. In some implementations. In an embodiment, the housing module can have a thickness of less than or equal to about 0.3 mm. In some embodiments, a first method of manufacturing the device can also be provided. The method can include making or fabricating a frame having a first temple, a temple, and a casing module. The casing module includes a first end, a:::, a body disposed between the first end and the second end. a cavity placed in the body. That is, for example, the method can be applied to 160384.doc -123- 201234069 to include-with-region (the electronic device module can be located) (eg, '-cavity) Electronic glasses for the outer casing module. One of these embodiments An example is shown in Figure 16. The first end can include an opening. The first method can be improved by inserting an electronic device module (or a plurality of electronic components) into the opening of the housing module to cause the electronic The device module can be disposed in the cavity of the outer casing module. As mentioned above, the device is fabricated by inserting the electronic device module through an opening in the end of the * outer casing module. The method can be such that the electronic device module is disposed in the housing module (and thereby consuming the electronic device to the frame) and can also be used to protect the electronic device because, for example, less electronics The device module can be exposed to direct physical forces (especially when the frame is in use, as the opening may be covered by other components, such as the lens housing). In some embodiments, the first method can be as described above. Further including removing the electronic component module (ie, 'the first electronic component module'' and the electronic device module from the cavity through the opening of the outer casing module (and/or the temple) That is, 'two electrons The module is inserted into the opening of the housing module such that the second housing module is disposed in the cavity of the housing module. In this manner, in some embodiments, the electronic module The set can be removed and replaced with a 胄 electronic device module that can provide different functionality (providing increased flexibility for the same electronic frame.) Defective or depleted electronics (such as when a power supply is exhausted). In this regard, in some embodiments, the first electronic device module and the second electronic device module can be different electronic components. The example is not limited to this and in the examples 160384.doc -124-201234069, the first electronic device module and the second electronic device module can be the same electronic device module (for example, the modules are the same Modules or modules contain the same components). As mentioned above, some embodiments may provide the advantage of being able to replace components within an electronic device module without having to replace the entire module. In addition, by using - removing and inserting a module through the end of the housing module, in contrast to embodiments in which an adhesive and/or fastener may be applied to an electronic device module, Embodiments can provide a quick and easy way to access electronic components and make electronic components changeable. A method of providing a device having a frame of a first temple and a second temple is provided. The first temple foot can include a first end, a second end, a body disposed between the first end and the second end, and a cavity disposed within the body. The first end can include an opening. The first method may further comprise the steps of: inserting an electronic device module into a housing module and inserting the housing module into the opening of the mirror foot such that the housing module is disposed in the housing The first mirror talks about this cavity. Inserting the housing module into the (4) through the through-opening as described above may couple the housing module and/or the electronic device module to the structural material (in this case, the mirror foot) An efficient way, especially when the outer casing module can be stressed: when it is inserted into the end of the temple, it does not necessarily require a fastener (such as a screw) or an adhesive to be attached to the appropriate position. : Cao Li to the advantages of the temple (which allows the removal of the housing module and / / easier to achieve). In addition, it may be more effective to slide the outer casing module through one end into the money chat (rather than directly sliding into the body). 160384.doc -125- 201234069 rate 'because it allows the outer casing module and/or the electronics The device module is compressed in a vertical direction (ie, 'the direction perpendicular to the body of the temple'), and the housing module is inserted into one end of the structural component to provide replacement in an electronic eyeglass frame. An efficient manner of the housing module (and/or an electronics module that can be placed within the housing module). In some embodiments, the first method as described above may further include: removing the outer casing module from the first cavity via the opening of the temple, and inserting a second outer casing module into the The opening of the temple is such that the housing module is disposed in the cavity of the first temple. Removing the housing module provides easy access to the electronics modules disposed therein. It also provides an efficient replacement of components. In some embodiments, the housing module and the second housing module are the same housing module. That is, as mentioned above, in some embodiments, the method can be used to replace only some of the electronics components that can include the electronics module or to replace the electronics module itself. The housing module can thereby be replaced without being replaced and reattached to the structural component (e.g., a temple or cavity therein) and includes a new or modified electronics module located therein. Therefore, in some embodiments, a second electronic device module (or a plurality of electronic components) can be associated with the electronic device module (or multiple electronic components) and the external device module. Two outer casing modules are cooperatively inserted into the cavity. However, the embodiment is not limited thereto, and thereby, in some implementations, the housing module and the second housing may be different housing modules. This exemplary method may be in some cases (where the housing module may need to be replaced (eg, if the housing module is damaged or defective) or (eg, when the electronics module and the housing module are It is used when its 160384.doc -126· 201234069 may not be easily coupled and recoupled and the electronic device module is to be replaced. In this regard, in some embodiments, the electronic device module (or plurality of electronic components) can be removed with the housing module. In some embodiments, the first method as described above can further include removing the housing module from the first cavity via the opening of the temple without removing the electronics module. That is, for example, the electronic device module can be disposed (e.g., within) the housing module, but need not be coupled thereto. The housing module provides structural support for portions of structural components located in or around the electronics module. The housing module can be removed and replaced, for example, in the event of damage. In some instances, the housing module can be removed and replaced for aesthetic areas (eg, the wearer makes the frame style and/or Or other components of the framework change). In some embodiments, in the first method as described above, the step of inserting the electronic device module into the housing module can include coupling the housing module to the electronic device module. In some embodiments, in the first method as described above, the housing module can be inserted into the opening of the temple before the electronic module is inserted into the housing module. An electronic device module can then be inserted into the housing module. In this way, each component can be manufactured and assembled in different stages. Although described above, Figures 6 and 7 will now be described in greater detail. Figure 16 illustrates an illustrative embodiment of an electronic frame including housing modules 16A3. A core element 1601 can be provided, which in some embodiments can include a conductive material (such as steel) and can be coupled to the temple 16 〇 2 or disposed within the temple 16 〇 2 to provide a component from one component to another One of the conductive paths and/or is 160384.doc -127- 201234069 This temple provides a structural branch #. As shown, u#i6Q is supplied from the end of the temple (which may include, for example, a power supply) to the electronic device (4). The display housing module can accommodate (e.g., contain) an electronics module 1605 and can be coupled to the temples 16〇2. In the embodiment, the outer casing module 1603 may comprise a conductive material (10) such as metal: as mentioned above, in some examples, the inventors have found that using a conductive material for the outer casing module may affect (or interference) (eg, in the benefit module 1605) Ray | / ^) electronics, and and/or a sensing component or mechanism (such as: off 1604, which may include a -capacitor switch) The role. Because of &, in some embodiments, the insulating material can be disposed between the housing module (4) and any electronic component of the electronic frame (e.g., 'electronic device module 16〇5). In addition, in some embodiments, the insulating material may be disposed between the housing module 16〇3 and the sensing component (10), such as a capacitive touch switch, to dissipate any charge that may be generated and/or stored (or Insulate the electronic device from the charge in other ways). This prevents charge from affecting the electronic device, which can result in unpredictable behavior (e.g., startup/deactivation of the electronic device when it is not desired or not) or damage to the component. In some embodiments, the housing module 1603 can include a knife 1602, i.e., as shown in Figure 16, the housing module can be disposed between a portion of the foot 1602 and the lens housing. This may be preferred in some embodiments because it allows each component to be fabricated in a separate process and then assembled at a later point in time. The outer casing module 丨6〇3 and the other knives of the temples (e.g., the end portions of the 'footers 16〇2') and/or the lens housing can be attached in any suitable manner. As shown in the exemplary embodiment of FIG. 16, the core 6〇i 160384.d〇i-128-201234069 may be shared by at least a portion of the temple 1602 and the housing module 丨6〇3 for face-to-face connection. Component. Additionally, in some embodiments, a switch 1604 (such as a capacitive or "cap" switch) can be shown that can be lightly coupled to the electronics module 1605 and/or the electronics module housing 16〇3 to provide an electronic Switching or control of device module 1605. For example, and as shown in FIG. 16, 'electronic device module housing 16〇3 can have an opening that allows the wearer to interact with switch 1604 to turn a function on or off or otherwise change the one provided by the electronic glasses. Features. The electronics module 1605, switch 1 604, and electronics module housing 丨6〇3 can be spliced using any suitable means, including one or more of the screws shown in FIG. As noted above, and other methods, such as one or more components of the press fit as described below with reference to Figures 26 and Figures, may be used. One or more conductors 1606 can also be included to provide one or more electrical contacts (e.g., conductive paths) from the electronics module 16〇5 to the lens housing. Conductor 16A can be electrically connected, for example, to one or more conductive paths provided by flexible conductive element 14A1 as shown in Figures 14 and 15. Also shown is a hinge 1607 that can be coupled to the temple 丨6〇2 or a group thereof (such as the housing module 1603) and also to the lens housing. The hinges 16〇7 provide the ability for each of these components to move relative to the other while maintaining the face (4). In some embodiments, the hinges 16A7 may comprise one or more conductors or may themselves comprise an electrical material to form a conductive path or portion thereof. Figure 17 illustrates the components shown in Figure 16 that are lightly coupled together in an exemplary embodiment. As can be seen, the conductive flexible member 16〇1 is no longer visible because it is embedded within the temple 1602. Similarly, the electronics module 16〇5 is housed in the outer casing 160384.doc -129- 201234069, and is covered by the switch 16〇4 on the -side (and may be connected to the switch 16〇4) . In this regard, the enclosure module can be considered to include the switch even if the switch T can be included in the module itself. The key 16〇7 is coupled to the electronic device module housing 1603. The conductors 16A can be substantially embedded within the shackle and/or portions of the electronics module housing (10) 3 to form a portion of the conductive path between the electronics module 1604 and the lens housing. Referring to FIG. 26, one embodiment of a touch switch is shown in accordance with some embodiments. As shown, the touch switch 2600 can include a raised or raised relative to the remaining structure of the touch switch 2602. Extend one or more sections (260丨 and 2603). These portions 26" and 26" can be extended to the housing module towel - or a plurality of apertures so that the wearer can interact with the touch switch to send a control signal to the electronics in the housing module. As mentioned above, in some embodiments, the thickness of the housing module can preferably be less than 0.7 mm thick, such that the touch switch can protrude beyond the aperture and still effectively provide for a tap by the wearer's finger. The signal produces a response. In some embodiments, the touch switch can include portions labeled 26〇1 and 26〇3, and the electronic device module can include a portion 26G2 (ie, the touch switch can form one or more of the electronic device modules). Surface, or directly coupled to the electronics module). Additionally, in some embodiments, the touch switch 2600 can form a pressure that can be inserted into the housing module (eg, through one of the ends - the opening) by being compressed in one or more dimensions Cooperate with one part of the electronic device module. When the electronic device module is subsequently inserted for placement in the housing module, the ink is inflated. The portions of the device module can expand X "snap" to the appropriate position (ie, the portions are structurally coupled to the housing module). 160384.doc 201234069 For example, when an electronics module including touch switch 2600 is inserted into a housing module, portions 2601 and/or 2603 can extend into one or more of the apertures of the housing module. Once this occurs, the electronics module can be coupled to the housing module such that an inward force is applied to portions 2601 and 2603 prior to removal of the electronics module. Referring to Figure 27, an exemplary housing module 270 1 is shown that includes an electronics module disposed therein. The exemplary housing module 27〇1 is shown with an opening 27〇2 in one end into which an electronics module can be selectively inserted. That is, for example, the electronics module can be inserted into the opening 27〇2 and slid into the housing module 2701 for placement in the body of the housing module 27〇1 (e.g., within a cavity). In some embodiments, the electronics module can be press-fitted such that when the electronics module is inserted into the opening 27〇2 and fully disposed within the housing module 27〇1, portions of the electronics module The 2703 can be extended into the aperture of the outer casing module 27〇1 and snapped into place. In some embodiments, portion 27〇3 of the electronics module can include a touch sensitive switch (such as a valley or membrane switch), although embodiments are not limited thereto. For example, portion 2703 can include any portion of an electronics module. Additionally, optional screws 2704 or other fasteners can be used to couple the housing module 27〇1 to another structural component of the electronic eyeglass frame (e.g., to a temple). In a second embodiment, a fastener (such as a screw 27〇4) can be used to attach the electronic device module to the housing module 27G1 (ie, for example, the blade of the electronic device module can be extended to the housing module 270 丨 so that the screws 27〇4 can couple the two pieces together). In some embodiments, 'in addition to the pressure-fit component', a fastener can be used (although a fastener is used when the electronics module is not pressure-fitted with 160384.doc-131-201234069 in order to prevent the electronic device module from being inadvertently The removal from the outer casing module 2 701 may be preferred. FIG. 27 shows an embodiment in which the hinge 2705 is bolted to the outer casing module 2701, which may be used to couple the outer casing module (1) to another structure of the frame. A component (such as a lens housing). In some embodiments, a housing module as defined above may be used to cover or encapsulate portions of an electronics module. Some embodiments may serve several purposes, including, for example, electrical isolation. The electronics module and the electronic frame, the electrically isolating electronics module and external components and forces, or both. Additionally, in some embodiments, the housing module can secure the electronics module to the electronic eyeglass frame. Embodiments may also provide for allowing the electronic device module to be selectively placed (ie, attached or coupled) to one of the structural components of an electronic eyeglass frame, such as the temple of the frame, and selected The advantages of being physically removed from the structural component. In this manner, embodiments can provide the ability to quickly and efficiently vary electronic device modules. Examples of Appearances Applicable herein - term "appearance (fa <?ade)" may refer to an element of an electronic frame that can be attached to any portion of the frame, but is preferably attached to the "front" of the frame facing the wearer's gaze direction (eg, a lens) shell). That is, the appearance can be generally located on the frame to become the component furthest from the wearer's face. The appearance is typically designed to not serve any structural or functional purpose (e.g., the appearance itself does not accommodate a lens), but is provided for aesthetic reasons. The appearance can be uniform, and can obscure or hide the electronic glasses - such as - such as one or more conductive paths between electronic components ... in general - the lens housing can contain a less than or equal to the appearance 160384.doc •132· 201234069 The design of the frame that provides the exterior shape may be better. That is, for example, in some embodiments, a full frame frame design may be presented on frameless or semi-frameless glasses. The appearance may provide a semi-frameless shape for the rimless eyewear. However, embodiments are not limited to this and can be used on any type of lens housing. The eyeglass frame can provide both the functional and aesthetic value to the wearer. As mentioned above, eyeglass frames are often styled and often require such eyeglass frames to have a shape that the wearer deems appropriate. In this regard, in some instances, the electronic components of the electronic frog mirror may be generally attractive and/or additional structural components may be added to the iim to the external observer while maintaining the aesthetics and functionality of the electronic glasses. It may be better to conceal or otherwise hide such components. In some examples, this can be accomplished by utilizing structural components of the lens (eg, # by embedding the component into the temple of the frame); however, this is not always possible and/or for other parts of the frame (such as for a lens) Components on the outer λΛ may not be suitable. These methods may also increase the cost and complexity of fabricating the electronic frame and, in some instances, may affect the structural integrity of the frame (eg, structural components may be unstable and may not be able to withstand the same amount of force as the normal frame without breaking Embedding electronic components into a frame can make access and/or maintenance of such components difficult. In some instances, a single electronic frame may be required for multiple functions, and electronic components may have to be changed or used with other components. Replacement does not require extensive fabrication or damage to the electronic frame. In some embodiments, an appearance can be provided that can be used to provide aesthetic value and/or hide or conceal aesthetically unpleasant components, such as with electricity 160384.doc -133- 201234069 A component associated with a subassembly. Additionally, in some embodiments, the appearance may be a separate component attachable to a structural component, such as a lens housing or temple, and thereby may be different Manufactured in the process of other components of the electronic framework. In some examples, a single style or type of appearance can be used for multiple types of electronics Rack, which can thereby reduce manufacturing costs. Further, in some embodiments and as described in more detail below, the appearance can be detachable (and/or reattachable) such that one appearance can be used with another electronic frame. An appearance replacement. In this manner, for example, the user can change the shape of the electronic frame without changing (or damaging) the base frame or components therein. This can essentially provide the user with an attachment to the lens by only replacing it. The ability of the outer casing or other structural component to have different styles of frames (or different styles of outer frame). Moreover, in some examples, the use of appearance can reduce the cost and complexity of manufacturing an electronic eyeglass frame, and in some embodiments The complexity and fabrication of the electrical connections formed to the electrical lens (or other electronic component) can be reduced. For example, in some embodiments, 'self-electronic components (such as, for example, can be placed in an electronic device module) The conductive circuit t of one of the power supply, the controller, and/or other components may be partially exposed after fabrication. The appearance may be used to conceal this portion of the conductive path And can also be used to protect the path and isolate it from external forces. In this way, in some embodiments, the conductive path (or a portion thereof) does not have to be directly embedded or fabricated into the electronic eyeglass frame. Such connections (especially in frameless or semi-frameless frame designs) may be simpler for style purposes, and the wearer may need half frameless or full frame 4 respectively. The appearance may be used in these examples to provide different Style frame 160384.doc - 134 · 201234069 The frame shape 'Also allows for an eyeglass frame that provides the functional and/or structural benefits of different style frames. Illustrative embodiments of an electronic eyeglass frame that includes an appearance. Other illustrative examples of electronic frames are provided below. EXAMPLES These examples are provided for illustrative purposes only. It will be appreciated by those skilled in the art that, after reading this disclosure, various combinations of the components discussed above or below may be made. In this regard, embodiments can provide an electronic framework that includes an appearance. A first device including a lens can be provided, wherein the lens can further include a lens housing and a first temple and a second temple coupled to the lens housing. The lens housing can support a first lens and a second lens (or other optical component). The first lens and the second lens may be electro-mechanical lenses, however, the embodiment is not limited thereto. The first device can further include an appearance that covers the lens housing. As used herein, the term "covering" may refer to when the appearance provides aesthetic value while covering at least a portion of the lens housing. However, the appearance does not have to enclose the lens housing or enclose the entire lens housing to "cover" it, but the appearance obscures the lens housing (or portion thereof) so that a viewer cannot see it (usually from the front view) As described above, the appearance may be provided for decorative reasons and it may cover, for example, the front portion of the lens housing (ie, the portion of the lens housing that avoids the wearer); however, embodiments are not limited thereto. Because the appearance can be located on any portion of the frame. An example of an embodiment containing the appearance is shown in Figure 29 and described in detail below. The first device can further include an electronic component and can be provided from The electronic component to the first lens has a conductive path of at least 160384.doc • 135 - 201234069 throughout the portion of the lens housing. As used in this context, the term "through" may refer to a conductor (such as a wire or The conductive rubber) can be disposed within (or coupled to) the lens housing or the lens housing (or component thereof) can be electrically conductive as described above. The subassembly can comprise any electrical device or component thereof, and in some embodiments, the electrical device or component thereof can include an electronics module (as described above). For example, the electronic component can include a power source to enable the A conductive path can drive current or voltage from the electronic component (eg, a battery) to the first lens or any other component. The electronic component can also include any other component of an electronics module, such as a controller And/or a sensor mechanism. The or the electronic components can provide the functionality of the electronic eyeglass frame, and the appearance can provide or enhance the aesthetic value and shape of the same frame. Providing the functionality of the electronic eyepiece 4 having the desired aesthetic appearance. For example, by utilizing an appearance, the implementation 4 can provide a frameless or semi-frameless electronic eyepiece frame that behaves as a semi-frameless or full frame frame. In this way, some _ can provide and have other (four) design aesthetics (such as 'when the frame contains - after the appearance of ^ frameless or frameless design, The appearance can be given to the metal or plastic (such as the zyl style) front of the shape of the frameless or frameless design associated with the advantages (such as 'in some examples' easier to access electronic components or set in the circuit control , production - lens housing f material is less, etc.) In some people: the use - appearance can provide the wearer with the use of the same basic electronic phase H while using different appearance (and thereby giving different frame design outside the shape b That is, 'for example, the wearer can provide the ability to change the frame style and design without having to purchase multiple (and possibly expensive) electronic frames. In some examples, the appearance can be hidden. Or concealing portions of the conductive path. In this manner, less desirable materials (eg, materials having unique and significant colors) may be used, which may be less expensive and/or easier to use in making electronic frames without sacrificing lens Aesthetic value. By hiding & these defective components, the appearance can thereby provide an additional selection of components and locations where such components are located. For example, the conductive path is not required to be fully or substantially embedded within the lens housing (or another structural component), and an embodiment of the appearance may be used to position the components without the appearance of concealing such portions. Originally visible in the location. In this regard, the use of an appearance in some embodiments may permit the use of components that may be less expensive than other preferred components (or may allow the use of smaller amounts of those components) to make portions of the electronic frame (such as the lens housing). At the same time, it still gives the shape of the frame containing the ideal material. It is to be understood that the advantages are merely illustrative and are not intended to be limiting. Referring to Figure 5, the (or such) electronic components of the first device comprising an appearance as described above may be located in any suitable location on the electronic frame. For example, an electronic component (which can be included in an electronics module) can be coupled to the first temple. Having the electronic components on the temples may be advantageous in some embodiments as this may provide a relatively large amount of space to place the components in a location that may not be easily visible to the viewer. In comparison, for example, having the electronic components on the lens housing allows the viewer to see more easily. However, embodiments are not limited thereto, and in some embodiments, the (or the) electronic components can be coupled to the lens housing. In some examples, 160384.doc • 137·201234069 this may provide an advantage' because it may not be necessary to provide a conductive path from the temple to the lens housing (or to the electro-optical lens). In addition, in some instances the appearance may be placed to cover the electronic component or to conceal the electronic component from the viewer' whether the component is on the lens housing or on the temple. In some embodiments, at least one electrically conductive path from the electronic component to the second lens having a portion extending through the lens housing is provided in the first device including an outer appearance as described above. That is, for example, in some embodiments, the '-(or multiple) electronic components can be electrically connected to both the first lens and the first lens (and the first lens and the second lens can be an electro-acting lens) ). In this way, a single-electronic component (such as a power supply, controller, etc.) can provide functionality to both lenses' and thereby reduce the number of electronic components that may be required to be located on the electronic frame. The conductive path may be provided by a lens housing, through a lens housing (e.g., by an embedded conductive element), and/or by a lead-to-lens connection to the lens housing. The appearance can cover some or all of the conductive path provided to the first lens. As mentioned above, in some embodiments, the appearance may cover a portion of the lens housing in the first device as described above. That is to say, the appearance does not necessarily have to cover the electronic frame to illuminate /m 'ifc λα. » j. Hui Zhu's entire lens casing. In some embodiments, the face is attached to the electronic plug & to the cover to cover only the front of the lens housing, which is often the most significant portion of the lens housing to the viewer. The appearance can be lightly attached to the front of the housing using any suitable member (including (by way of example only) an adhesive (eg, double-sided tape), fasteners (such as a screw), or the shovel housing can be structurally grouped State to accommodate and (iv) to the appearance. For example, the lens housing may include a slot or recess and the appearance may include a 160384.doc • 138·201234069 corresponding structural component that can be inserted into the slot or recess and thereby couple the two components ( Or vice versa). However, any suitable component that connects the components can be used. For example, in some embodiments, the appearance (or a component thereof) can be press-fitted for insertion into one of the openings of the lens housing and expanded (ie, '"snap" to the appropriate position) to The devices are coupled together. Moreover, in some embodiments the appearance may cover only the top of the lens housing. The 卩 portion (such as 'if one or more electronic components are located on the top boring of the lens housing' and needs to conceal or cover only those components). In some embodiments (e.g., in a semi-frameless frame embodiment), the appearance may only cover portions of the lens housing that do not include the frame edges, and may thereby impart a full frame to the frame. The term "shape" as used in this context can generally refer to the perception of a component such as "Xuan" that an observer may have when viewing the first device or a portion thereof. Similarly, in some embodiments (such as when the electronic frame includes a frameless design), the appearance can provide a semi-frameless 2 frame = outer shape and can thereby only cover the frameless frame - the corresponding portion Knife. In fact, in general and as mentioned above, in some embodiments, the portion of the lens housing that covers the lens housing that is less noticeable to the viewer, such as the back side of the lens housing, may not be necessary. The embodiment is not limited thereto, and in some examples, in the first device as described above, the appearance covers the entire lens housing. This can be advantageous because the appearance can be provided regardless of the angle at which the viewer views the device - the desired form, however, is intended to cover all or substantially all of the lens housing. The appearance of P can increase the cost and complexity of the appearance, at some 160384.doc

S-139-201234069 includes difficulty in coupling the appearance to the electronic frame and decoupling. In some embodiments, the lens housing can include a frameless or semi-frameless eyeglass frame in the first device that includes an appearance as described above. In this regard, in some embodiments, the lens housing can include at least one of - or a plurality of screws (e.g., a frameless frame design) or a frame edge (e.g., a semi-frameless or full frame design). As noted above, the appearance can provide a frameless frame (eg, a frame that does not include a frame edge or/or has a lens housing that includes one or more screws that couple the lens to the temple) as a semi-frameless or full frame. The shape of the eyeglass frame. Similarly, in some embodiments, the appearance may provide a semi-frameless frame (e.g., a frame containing some, but not all, of the frame edges around the outer edges of the lens) as the outline of the full frame eyeglass frame. This may, for example, provide the wearer with the desired shape while requiring less material to manufacture the electronic frame and may permit the use of materials that are more functional but less suitable for style or aesthetics (because the appearance may cover the components) and the like. In some embodiments, the appearance can even be used to cover a portion of a full frame electronic frame. This may be the case, for example, if the full frame design is aesthetically unpleasant (but may be suitable for use in a U-mirror, such as if the components of the frame contain conductive material). This appearance can be used to cover such unattractive features and is also used to cover electrical telemetries between components. In addition, the use of this appearance allows the style of the full-frame glasses to change without sacrificing the purchase of the new electronic frame or its important parts. Therefore, as mentioned above, although the bran is a ^ ^ θ . . . , slave, the appearance can be used to provide the glasses having a shape of ^ m y, _ 4 which utilizes more frames, but the embodiment is not limited thereto. For example, the appearance of a 'implementation' can provide a full frame frame shape on the lens housing 160384.doc-140. 201234069 which also includes a full frame frame design. In some embodiments, the lens housing can comprise a half-frameless design, and the appearance can also provide a half-frameless design. In some embodiments, the lens housing can include a frameless design and the appearance can provide a frameless eyeglass frame shape. Such embodiments may enable the use of the lens housing to be customized and/or varied while still maintaining the frame design features. That is, for example, the appearance can include a different color, design, material, and/or otherwise provide a different shape. Moreover, the appearance can also be used to conceal or cover one or more conductive paths (or electronic components) that would otherwise be visible (or exposed) in such embodiments. In the actual embodiment, the appearance may obscure a conductive path in the first device including an appearance as described above. The use of the term "shadowing" in this context may refer to when the appearance conceals the obscured object (in this case, the conductive path or a portion thereof) or otherwise makes viewing the obscured object difficult. "Mask" can include, for example, covering all or substantially all of a component (e.g., a portion of a component that includes a conductive path), or only those components that are exposed or can be seen by an observer. As mentioned above, the conductive path may comprise any type of conductive material, including (by way of example) a conductive wire (or other conductive material) coupled to the lens housing or embedded in (or substantially embedded in) the lens housing. , such as a conductive flexible material as described above). The appearance can be positioned to cover exposed or otherwise visible portions of the electrically conductive material. For example, if the conductive path includes a wire attached to the lens housing (eg, on an outer surface), the appearance can be placed such that the conductor is not accessible to the external observer of the electronic frame 160384.doc 201234069 To. In some embodiments, particularly in embodiments comprising a frameless or semi-frameless frame, the electrically conductive path comprising a conductive flexible material (eg, a conductive rubber) may be preferred because the material can be easily disposed, for example, Inside the groove of one of the lens and/or lens housing. However, this material may contain - significant color, shape and/or shape. In some instances, the use of the appearance provides the advantage that the conductive material does not have to be painted, colored, or otherwise altered to be less noticeable, and still permits the material to be positioned on the lens housing without the use of appearance. The observer clearly sees the position. In some embodiments, in the first device including an appearance as described above, the conductive path may also comprise the lens housing itself (or a portion thereof), i.e., the lens housing may comprise a conductive material. The portion of the lens housing that includes the conductive path can be a different material than the other portions of the lens housing, and this difference in material can be noted without additional concealment procedures. The appearance can be used in these embodiments to mask or cover such inhomogeneities such that the electronic frame behaves as a single uniform material and composition. In some embodiments, in the first piece comprising the appearance as described above, and as mentioned above, the appearance is available - the adhesive material is coupled to the lens housing. Generally, the appearance can be used. Any suitable material that is suitably lightly attached to the mirror housing, such as a double-belt or epoxy I. In a four-part embodiment, the material is available in the above-mentioned materials. A face such as 'one or more screws' is attached to the lens housing. Fasteners of this type may be preferred in some embodiments because the jaws may be such that the wearer (or a person or machine that is part of the manufacturing process) is soluble and easy to apply to the lens housing Positive. That is, the screws are located on both the lens housing and the exterior of the 160384.doc • 142-201234069 such that when the screws are properly inserted, the appearance is positioned to cover a desired portion of one of the lens housings. This can reduce human error that can occur when using an adhesive (e.g., 'alignment may not be accurate enough). In some embodiments, the appearance can be removably coupled to the lens housing in the first device that includes an appearance as described above. The term "removably" may refer to embodiments in which the appearance is coupled to the lens housing to permit attachment and detachment of the appearance without affecting the structure and function of the lens housing or other components of the electronic frame. For example, the appearance can be coupled to the lens housing using one or more screws to enable a wearer (or other entity) to remove the appearance from the lens housing by unscrewing (eg, removing) the screw Coupling, and then re-coupling the same-appearance or-different appearance by reinserting the or the screws. However, any suitable member may be utilized. For example, in some embodiments, the appearance and the lens housing can be configured such that the appearance has a structural portion that is coupled (eg, insertable into a recess or cavity) to the lens housing The two components are coupled. The components can be applied by applying a suitable force in a particular direction. For example, the lens housing and the exterior can be configured such that the appearance is press fit to the lens housing. Embodiments of the appearance of the package 3 in a removably coupled manner may provide some advantages. For example, some embodiments may permit different appearances to be used for the same basic electronic framework. This allows for the electronic frame to offer different styles without the need to purchase multiple electronic frames (which can increase the cost). In addition, the appearance of the lens to the lens housing (or other portion of the frame) and the ability to allow access to 160384.doc -143·201234069 are typically one or more components covered by the exterior. For example, if the appearance covers an electronic component and the component needs to be removed, replaced, or otherwise interacted with, a removably coupled appearance can be removed from the electronic frame to provide the proximity In contrast, a device that includes an appearance that is non-removably coupled may not provide convenient access to such devices and may cause damage to the electronic frame if the appearance is removed. In some embodiments, where the appearance is removably coupled to the lens housing, the lens housing can be configured to couple to a plurality of appearances and each of the plurality of appearances can be different . As mentioned above, this may permit different appearances to match different electronic frames and easily allow for variations in the shape and style of the device. In addition, in some embodiments, "different appearance" may comprise the appearance of a single component made of the same material and having the same shape but being a separate component. That is, for example, an appearance can be replaced by an identical appearance (which can be used, for example, if the appearance is broken or otherwise damaged). In general, the appearance and/or the lens housing can comprise any suitable material. For example, in some embodiments, the appearance may include - metal in the first device as described above and the lens housing may comprise - a plastic material such as acetic acid vinegar. Such embodiments may, for example, permit the majority of the use of the framework - such as a cheap material of plastic (in terms of the cost of the material itself or the cost of making a frame using the material), while giving a more expensive or The "frame" (such as a frame made of metal) is shaped outside. However, the embodiment is not limited thereto and in some embodiments, the appearance may comprise a plastic material and the lens housing may comprise a metal. Similarly, in a 160384.doc-144-201234069 implementation, the lens housing and material _ may comprise - a metal material, or the lens housing and the exterior may comprise a plastic material. The appearance can also have any suitable shape or size. In some embodiments, the thickness of the appearance is less than about 5 Å. It may be preferred that the appearance may not be readily identifiable as a component separate from the frame. By making the thickness of the appearance to be relatively thin, this can help to impart a uniform frame shape even when viewed from various viewing angles. However, it may also be desirable for the appearance to be structurally strong enough to withstand the typical forces experienced by the lens housing of the eyeglasses (4). Referring to Figure 28, there is shown a top view and a front view of an exemplary electronic eyeglass "o." including an external appearance 28". The exemplary electronic eyeglass 2_ includes two temples i which are attached to the lens housing 28G3 by a hinge. The outer casing 28〇3 is shown in a semi-frameless design (eg, in this example, having a frame side on the top portion of the lens but containing resistance along the bottom portion of the lens to hold the lens in place). The electronic glasses are also shown as comprising an electronic module module located in the temple 28G1. The appearance 28〇4 is shown in this exemplary embodiment to provide a full frame glasses frame (ie, around the entire The lens frame side of the lens is shaped outward. In fact, as shown, the appearance 2804 covers the front portion of the lens housing 28G3 and has a lens housing portion that can be seen by an observer located in front of the electronic glasses 2800. For example, the appearance Extending to cover both the hinge 2806 and the lens housing 2803. The appearance also includes a portion of the bridge 28 〇 5 extending between the two lenses. Referring to Figure 29, the electronic glasses 280 are shown from a rear perspective. The same exemplary embodiment of 0. As shown, lens housing 2803 (shown as electronic eyeglass frame 160384.doc • 145 - 201234069 darker portion of shelf 2800) is again shown to contain half of the frameless design. Appearance 2804 is shown To cover the lens housing 2803 and also extend between the entire lens and around the entire lens. However, as can be seen, the appearance 2804 does not provide structural support for the lens because the lenses are held by the lens housing 2803 attached to the hinge 2806. In this exemplary embodiment, the 'electronic eyeglass frame 2800 will provide a full-rim eyeglass frame shape (based on the appearance 2804 shape) while including a frameless lens housing 2803. As noted above, the appearance 2804 can include any The materials may be coupled to lens housing 2803 using any suitable means, including those described in detail above. It will be understood that after reading the invention provided herein, it will be understood by those skilled in the art that Forming various combinations of the devices described above such that some or all of the features described with respect to one device may be combined with another Some or all combinations of features of the device. Spectacle lens frame electronics As mentioned above, the electronic glasses and frame may comprise any suitable electronic component "i.e., for example, an exemplary eyeglass frame such as the frame described above or such as Any other electronic of the electronic eyeglasses described in U.S. Patent Application Serial No. 1/684,490, the entire disclosure of which is hereby incorporated by reference in its entirety in its entirety in The glasses may include electronic components to provide a variety of functions, such as control of an electro-optical lens. Additional illustrative functions (and components for implementing such functions) are described below. These components, either alone or in some combination, can be built into or otherwise coupled to the spectacle lens frame or lens and/or 160384.doc • 146-201234069 remotely located and Component communication on the electronic eyeglass frame or lens. Some of these components may be controlled by the wearer. Moreover, each of the components described below can be located on an electronic framework that includes some or all of the features described above. Furthermore, the components provided herein, including the electrical components mentioned, are described as illustrative and may include many variations and combinations of such features. Fall Detector Module: The Fall Detector Module can be used by older people or other individuals to determine if a fall has occurred. These modules may utilize (by way of example) an accelerometer, gyroscope or other motion sensor coupled to the electronic glasses worn by the user. If a fall is detected, the module can trigger an alarm system in the house, an alarm can be sent to a pre-set phone number (eg, ^丨-丨), and/or a message can be sent to one or more Email addresses. In some embodiments, the electrical component on the μ electronic glasses can also be implemented by pressing a finger of the temple or pressing a button (such as a touch opening) located somewhere on the electronic eyeglass. Signal (such as a call to a pre-set 2 phone number or email address). These manual operations can also serve as an indication that the wearer has fallen or encountered other emergencies. In some embodiments, the drop detector module can include a small electronic module that is attached to a frame or lens of the electronic eyeglass or to a frame or lens of the electronic eyeglass. The module can be disposed in any suitable location on the electronic frame and can be contiguous thereto in any suitable manner. For example, the fallback test module can be placed on the electronic glasses in the manner described above with respect to the electronics module. In addition, the components placed in the fall detector module can be electrically connected or operatively connected to one or more components (such as 'power supply or transmission') disposed outside the module. Device). In some embodiments, the fall detector module can include various electrical components. For example, as mentioned above, the module can include a fall sensor (e.g., a micro accelerometer or a microgyrometer) for detecting that a fall has occurred. The module can also include a power source, a controller, and/or a small transmitter. The controller can include a microprocessor that can receive signals from the fall sensor and determine if a fall has occurred. The controller may also include pre-programmed instructions to perform one or more functions to provide an alert or notification service (eg, stored in a memory device) (eg, the controller may be configured to A transmitter sends a signal indicating that a fall has occurred, such as dialing or connecting to a telephone number such as 9 "", sending an email, etc.). In some embodiments, it is present in the house (or at any suitable location) "Star" modified mobile phone or a number of signal relay devices can detect the alarm tungsten number from the -Hui module and will be via an existing network (for example, Internet mobile phone or custom network) Serial emergency information (eg, test messages, emails, phone calls, etc.) sent to an individual or health care facility. In an embodiment, the device can utilize a patterned layer of electroactive lens (or other transparent or translucent material) a transmitter (eg, an antenna); however, embodiments are not limited thereto. For example, a conductive material may be disposed in a frame (eg, within a portion of a temple) or may be used In the module for transmitting signals. Pedometer and timer module: In some implementations, 4 & including pedometer and timer module, (example 160384.doc -148- 201234069) The number of steps that can be counted by the wearer (eg, a walker or jogger) for a given period of time can be used to determine the stride of the wearer in a set period of time (eg, miles per hour) Number or completion of an average of one mile) and 7 or any other relevant information. In some embodiments, this information may be instantaneous via a heads-up display (HUD) in the lens of the electro-acting eyeglass (eg, when the wearer is practicing Displayed to the user. The pedometer and timer module can also include a button (eg, a touch switch) that can reset (eg, with respect to time and distance) such results and/or accommodate Displaying such a knot on a small LCD on a frame or via a HUD. In some embodiments, the components of the module may include motion detection and/or distance m to determine the distance traveled by the wearer may include ( For example) - power, - sensor and / or a control (which may include hardware, software, and/or a lecture) to count the number of steps traveled. The controller may be a simple counter (eg, it may count the steps taken based only on signals received by the sensor) a number) or it may include a calibration technique to adjust the distance measurement for a particular wearer to obtain a more accurate measurement. The sensor may include (by way of example) a microelectromechanical (MEMS) inertial sensor that detects the pace and The software (in some embodiments, the software may form part of the controller's self-motion sensor receiving signal). Examples of such sensors may include, for example, detecting x-axis, 2-axis or 3-axis acceleration A miniature accelerometer and/or a microgyrator. The sensor can also include a m detector that can be used to determine when the step occurs, such as a piezoelectric material that produces a voltage or a simple mechanical sensor. This information can be sent from the sensor to the controller, which can then determine the number of steps traveled by 160384.doc - 149 - 201234069. In some embodiments, the module can also include a time mechanism. The timing mechanism can operate like a stopwatch, which can be initiated by the user in any suitable manner (such as via a sudden movement of the head, or via the use of a button or switch on the electronic frame). The timer can include a portion of the functionality provided by the controller or can be a separate component. As mentioned above, in some embodiments, the module can further include a display system (such as an LCD screen or component of a hud) to communicate relevant information to the wearer. Drowsiness Detector and Alarm Module: In some embodiments, a drowsiness (four) and an alarm module may be included on the electronic glasses. This module can be used, for example, for long-distance drivers or night shifters to determine their vigilance and their ability to safely operate a motor vehicle or other heavy machinery. The module can, for example, detect sudden head movements (or any other motion associated with sleepiness >) and trigger a pre-defined motion-alarm. In one embodiment, the module can include components such as motion sensors, controller alarms, or displays. The sensor can (eg, measure the movement of the abrupt movement (or other movement associated with drowsiness) and feed the care to the controller via a signal. The controller can process the data received from the sensor and determine the name触发This action is triggered if necessary - audio or visual invites. Motion sensors can include (by way of example) a micro gyroscope, accelerometer or: any other suitable motion detector. The controller can include micro processing , hard, soft, and/or object to receive and process information from the sensor and to activate the device when needed. In some embodiments, the alarm may include I60384.doc -150 - 201234069 for electronics In the eyeglass frame or lens, or at the distal end. For example, an external alarm can be located on the wearer's body and can vibrate, or an alarm can include the wearer's car stereo system, etc. In an example, the electronic frame can further include a transmitter to send a signal to the external alarm component to activate the device. As a timer for the medication reminder module: In some embodiments, the electronic glasses can be included as A timer for the drug reminder module (or any other reminder module) that can, for example, use audio (for the wearer to hear) or visual (such as LED or HUD for the wearer or third party to see) signal To instruct the wearer to take the medication (or perform any other task); however, embodiments are not limited thereto and may include timers and alarms that may be set by the user for any purpose. In some embodiments, as a medication reminder The module's timer may contain electronic components such as electronic timers, controllers, visual or audible alarms, and input components. Electronic timers (such as electronic clocks) may include any suitable components to determine time, date, elapsed time, etc. The controller can include a microprocessor, hardware, software, and/or firmware to receive and process information from the timer and activate an alarm if necessary. In some embodiments, the alarm can be included in the electronic glasses In the frame or lens, or at the distal end. For example, an external alarm can be located on the wearer's body and can vibrate, or - the alarm can be packaged Sending a signal to another device (such as sending an email or text message to a mobile phone). The input component allows the wearer to enter time and date information to set up - reminders, and can include (by example (d) m (four) human component ' may need voice recognition of the microphone 160384.doc -151 - 201234069 system, etc. The input component can also be used to utilize the information about the reminder to program the external device of the controller timing device (such as mobile phone, personal A computer, laptop, etc.) receives a signal. This can be done using any suitable method of transmitting dates, including physical interfaces (such as USB input), short-range communications (eg, Bluetooth®), radio or other network interfaces (WiFi, %_

Max, wireless network, etc.) ^ The module may also be able to store multiple dates and timers (eg, multiple different medication reminders) and may provide different indications for each reminder. UV Light Monitor Module: In some embodiments, the electronic eyewear can include a UV (Uhra Violate, UV) light monitor module. This module can be utilized, for example, during outdoor activities to determine the risk to the wearer associated with unwanted U-rays and to alert the wearer of this risk. In some embodiments, the module can include a sensor that detects the UV intensity of the light (which can be placed on a frame or lens). This can include, for example, a photodiode or a photocathode. The module can also include a controller that can include a microprocessor, hardware, software, and/or firmware to receive and process information from the sensor and determine the risk associated with exposure to UV light. level. The module can further include a display to indicate to the wearer or third party the current level of UV light and/or the associated risk to the wearer. The display may include an LED indicator or other display (such as an LCD) or a HUD in the lens of the electronic eyeglass to provide this information to the wearer. For example, a visual or audio indicator (e.g., an LED or an audible siren) can provide a warning signal to the wearer when the UV intensity detected by the sensor exceeds a particular predetermined limit. 160384.doc • 152· 201234069 Emergency Wireless Call Module: In some embodiments, the electronic glasses can include an emergency wireless call module that can be utilized, for example, by an elderly or other individual to alert an emergency situation management agency . The module can transmit signals related to an emergency, for example, using a predetermined telephone number, email address, or other device and any communication medium. The module can include a sensor or input component that can be used to activate the module. For example, the sensor can include a touch switch or other button that can be activated using a finger touch on the temple of the electronic eyeglass. The module may include or be combined with a GPS or other position locator to identify the location of the individual and/or emergency. This location information can be sent with an emergency message to allow for a faster response to an emergency. Embodiments may also provide the ability to communicate (e.g., 'verbally) with an emergency responder or a third party via the module. The emergency wireless call module can include any suitable electronic component such as a sensor, controller, and/or transmitter. The transmitter may include any suitable component for providing a signal processing path for connection to an external network, such as the network described with reference to the fall detector module, or any other suitable component. An antenna that can be placed in a frame (eg, a temple), in a lens, and/or within the module can be included. The controller can include a microprocessor, software, hardware that can receive the message from the sensor, connect to a network, and send an emergency message (or otherwise facilitate communication between the wearer and the third party) And / or Bo body. ° Directional Hearing Aid Module: In some embodiments I60384.doc -153- 201234069 It can be used to enhance the wearer's hearing. The module can include, for example, a hearing aid or other audible aid that is consuming to the electronic frame. As used herein, a hearing aid can refer to a device that is typically disposed in or in the wearer's ear. Any electroacoustic device that the wearer has to amplify and/or modulate the sound. Any suitable hearing aid that can be placed in or removed from the electronic eyewear can be used. The hearing aid can include an internal power source, or the hearing aid can be coupled to a power source disposed on or in the electronic eyewear. In some embodiments, the electronic glasses can include a plurality of hearing aids. Each hearing aid can be powered by a separate power source or by a single power source (e.g., using a conductive path across the lens housing). Pulse and partial oxygen concentration (P〇2) monitor modules: In some embodiments, 'electronic glasses may include a pulse and partial oxygen concentration (P02) monitor module, which may, for example, contain - small An electro-optical sensor or acoustic sensor that can be placed close to the area of the f< bucket or other suitable location to detect heart rate and other vital signs. In one such embodiment, the module can include a receiver that receives signals from a device that can be positioned on the wearer's body (such as a strap across the chest of the wearer), wherein the device or component monitors the pulse rate And this information is sent to a controller that is placed in a module for recording and/or analysis. This information can then be displayed to the wearer (e.g., via a HUD or LCD display). In some embodiments, the module may further comprise an electro-optical sensor (or other similar device) that may be capable of measuring the blood oxygen content of the wearer using, for example, a pulsating oxygen measurement method. This may include an external component that can extend from the electronic eyeglass to the wearer's ear, and can communicate with L or a plurality of components (such as a controller) on the electronic eyeglass frame. That is, for example, a sensor can be placed in a location such that light having a particular wavelength can be sequentially passed through the wearer (eg, the 'wearer's ear) and detected by a light. Receiver. The difference in absorbance of light at different wavelengths can then be measured, allowing for the determination of the absorptivity of arterial blood alone (excluding other factors such as venous blood, skin, bone, muscle, fat, etc.). This information can be sent to a controller or similar device that can then determine the amount of oxygen in the liquid. The pulse and partial oxygen concentration (P02) monitor module may also include components for displaying the results of the measured vital statistics, such as a HUD in an LCD display or lens. The module can also include an alarm' and the controller can be configured to trigger an alarm if an abnormal reading is found. In some embodiments, components for alerting an emergency services or other individuals (such as those described above with respect to the fall detector module) may also be utilized. RFID Monitor Module: In two embodiments, the electronic glasses may include a radio frequency identification (RFID) monitor (or other near field communication device such as a Bluetooth 8 contactless interface, etc.). The module may include, for example, an antenna that can be immersed in other places in the lens or frame: (e.g., in the temple). The module can be lightly attached to: '' such as in one of the frames (which can contain other electronic devices = an electronics module). The RFID monitor module can be used to receive from the original may not be pure to be placed on the glasses

: Electrical: information of components or devices and thus may be utilized in combination with some of the above embodiments. 4 犯W work mode can be passive or the main module may not need its own in some embodiments, the module is "moving. For example, in passive mode, 160384.doc -155- 201234069 The power source can be activated by a magnetic or electric field generated by another device and thereby transmitting or receiving information. The RFID monitor module can include a microprocessor and/or a memory storage device that is consuming to the antenna. The module can be used for any suitable purpose, such as for security (eg, it can include encrypted information that can be used to access a location or file on a computer), for payment (eg, the microprocessor and memory device can include Can be sent to a point-of-sale terminal to complete payment account information for a financial transaction, identify an individual, etc. The module can also be used by a locator (eg, the locator can be scanned by an identifiable device) The personal identification is located at the location where the scanner is located. Flash memory card module: In some embodiments, the electronic glasses may include a flash memory that can be used to transmit information and send information. Modules. For example, a personal computer or other communication device can read or write to, for example, a row contained in an electronic eyeglass (such as within one of the temples). In some embodiments, flashing The memory module: the memory device stored therein can be coupled to the _rfid monitor module or the 2-way kit for sending and receiving, or can exist to the module. That is, for example, in In some embodiments, the information may be transmitted to or from the controller by a physical interface (such as a curry). The flash memory module may also include a power supply and/or a digital watch and alarm module: Mode == In the example, the electronic glasses may include a digital watch and an alarm, and maintain the current time and alert the individual at a specific time. This model 160384.doc -156- 201234069 group may include the above reference as a medication reminder module The components described in the timer are similar components, including the electronic clock, power supply, controller, input device (time for setting the alarm), alarm system (or other visual or audio warning), etc. Contains a display (such as LCD The display or HUD) or even the time can be provided to the wearer's audio indication. For example, the module can include a button or other touch switch that the wearer can interact with to cause a signal to be sent to the module The controller displays the time. Electronic Glasses Repair Kit: In some embodiments, the electronic glasses can include a module that can include tools that can be used for immediate lens repair and maintenance. The module can, for example, store conductive rubber. A component of a conductive adhesive dispenser, a screw, a screwdriver, etc. The electronic eyeglass repair kit can be a physically separable module that can be inserted into a cavity or opening of the lens frame, or can be a coupler An assembly that is coupled to an exterior surface of the electronic frame. In some embodiments, the module can be permanently coupled to the electronic eyewear' and the tools and components can be inserted and removed as needed. Voice Recorder Module: In some embodiments, the electronic eyeglass frame can include a voice recorder module. The voice recorder module can be used, for example, to record audio messages from the wearer, dictate communications and letters to the wearer, or record audio noise (such as recording a speech or a speech) that the wearer is hearing. The voice recorder module can include, for example, a sensor that can initiate a voice recording function (such as a button or touch switch). The module may further include a microphone, a power source, a data storage device, a speaker or audio output (such that the wearer hears the recorded audio material) or a transmitter for transmitting audio data to another device. 160384.doc -157- 201234069 In some embodiments, the voice recorder module (or storage component therein) can be read by a wireless reader and played on a speaker or in any other suitable playback mode. That is, for example, the voice recorder module can be coupled to an RFID monitor module or include similar components (such as a physical interface) for transmitting information stored in the module. Battery Pack: In some embodiments, the electronic glasses can include an additional battery pack. The additional power source can be stored as a backup power source for, for example, a lens drive module or any other electronic component. The battery pack can be stored in an electronic frame (e.g., in a component or module of a temple or lens housing) or can be attached to an exterior surface using any suitable member. Monitoring video or still picture recorder: In some embodiments, the electronic glasses may include a recording device such as a compact video camera (e.g., a pinhole camera) or a still picture recorder (e.g., a camera) and associated devices. The modules and components can be used to record visual images, for example, if the external viewer does not know the recording device. The surveillance video or still picture recorder can be coupled to a power source (e.g., a battery), a controller, a sensor, and/or a data storage device. The controller can be consuming to the sensor such that the wearer can initiate or interact based on interaction with a sensor (eg, a touch switch or a device such as a miniature accelerometer that can detect a sudden movement of the wearer's head) To start the recording device. The sensor can send a signal to the controller, which can then determine if the device is to be started. The data storage device can comprise any suitable component, such as a ram or flash memory. Any of the suitable methods described herein can be used to retrieve this information stored in a storage device from the electronic 160384.doc-158-201234069 glasses. By way of example, in one embodiment, there may be a physical interface to the storage device (which may include a portion of the recording device) or an electronic eyeglass may be used - an antenna, short-range communication, or the like. The data (including time) is transmitted to a receiving device in a wireless manner. Thermometers In some implementations, t-glasses can contain digital thermometers that measure and display the temperature of the surrounding environment (eg, ambient temperature). That is, for example, an 'electronic eyeglass' can include a variable resistor or other device that can have a variable voltage drop based on the temperature of the device (so the variable voltage drop can be monitored to determine the corresponding temperature). However, embodiments are not limited thereto, and any suitable electronic thermometer can be used. The thermometer can be electrically coupled to the display and/or sensor' to enable the wearer to interact with the sensor and thereby request the display to display the current temperature. The display can, for example, comprise an LCD display or a hud. Remote Controls In some embodiments, electronic glasses may include controllers for other devices (e.g., 'garage doors, automobiles, τν, etc.). For example, an electronic eyepiece can include components of a typical remote control II, such as a controller, sensor, storage device, and transmitter (such as an antenna or infrared device). The storage device can be used to initiate or control an instruction, protocol, code, and transmission/reception standard that is not otherwise coupled to the electronic device. The sibling sensor (or other input component) can be configured to receive a command from the wearer and to communicate to the controller to communicate the instruction or information to the remote device. For example, S, a specific predefined finger movement can be used to touch or press a sensor that can be placed on the side of the temple of the eye 160384.doc • 159·201234069 to indicate different desired functionality. It may be very square. The controller can then utilize the predefined functions and corresponding instructions stored in the memory device to identify the instructions to the remote device that correspond to the desired function requested by the wearer. The controller can then use the transmitter to wirelessly transmit this information to the remote device. Data Collection Unit In some embodiments, the electronic glasses can include a data collection unit that can be used by the wearer to record information about the wearer, the wearer's environment, or other suitable information. For example, 'in some embodiments, the collectible data may include a switch angle when manually controlling the lens', a time interval between two sequential battery charges, a wearer's behavior, or a physical state (such as per calorie burn) Rate, instant pulse, skin moisture, exposure per uv, etc. The data collection unit can include one or more sensors, a controller, and/or a storage device for receiving and storing related data, or the data collection unit can be operatively coupled to the module described above. The component of the =. The collected data can be wirelessly and instantly: network computing: the device of the force (for example, using - antenna and connected to the network such as the mobile device = road), or stored in the module after the collection of the data collected Delivery (eg, using an RFID module or a physical delivery device can, for example, use artificial intelligence to analyze a particular application, such as a training software, to reset personalized control parameters, or to provide recommendations for the wearer's daily activities. - In some embodiments, the lens electronics of the data collection unit takes the information in the electronic frame:::: I60384.doc 201234069 For example, the information stored in the ram included in the lens electronic device can be The relay is passed to the remote unit for analysis. The data can be transmitted via a wireless or wired link (including, for example, infrared or radio frequency ice relay.) In an embodiment, the data can be stored in the frame electronics: In the end reservoir and then periodically collected (or transmitted), or as mentioned above, there may be transient data collection in some examples. Embodiments comprising a moisture barrier layer for containing electrons Some embodiments of the frame (the electronic frames may include one that may be disposed on the electronic frame - an electronic component (or components) and a lens that can be attached to the lens housing - or a plurality of electrically actuated lenses Or a plurality of electrical connections, the inventors have discovered that a problem that may arise in some cases is that moisture can affect the conductive path between such components. That is, moisture can affect the electrical components disposed in the electro-acting lens. Electrical contact with an electrical component external to the housing. Moisture can cause inconsistent performance of the electro-optical lens and/or cause one or more failed connections between the components (ie, the electrical path can be severed) Current cannot flow between components. The inventors have found this to be particularly prevalent for electrical connections around the perimeter of a shape-forming mirror. Based, for example, on the manufacturing process (eg, the connection may not be completely sealed to the external environment) Or even due to the degradation of the components during use (which may form gaps between the components or otherwise expose electrical connections between the components), the moisture may be connected The conductive path between the electronic component on the electronic frame and the electronic component disposed in the electrical action lens. In fact, the inventors have discovered that a salt (which can be attached to the lens from the wearer's skin or sweat) 1603S4 .doc • 161- 201234069 The components of the electronic glasses, such as lenses, may be degraded and thereby form openings and/or otherwise expose the conductive paths and degrade them. In some embodiments, a first device may be provided. The first device may include a lens including at least one first electrical contact, a lens peripheral holding the lens (where the lens housing includes at least one second electrical contact), and a first electrical contact disposed on the first electrical contact And a conductive element between the second electrical contact, wherein the conductive element is electrically connected to the first electrical contact and the second electrical contact. The first device may further comprise a barrier layer disposed to cover the At least a portion of the electrically conductive material. The "barrier layer" can be positioned to cover the conductor (or a portion thereof) at or near the periphery of the lens such that the conductor is not exposed. P ring i brother. As mentioned above, the inventors have discovered that the location between the electro-acting lens and the lens housing tends to be where the conductor is exposed to the external environment. The barrier layer may also be moisture resistant such that the barrier layer prevents moisture from contacting the electrical connections. In some embodiments, the barrier layer of the moisture barrier material can comprise a polymeric material. In some embodiments, the barrier layer can be coated or disposed between the two components (such as in the area of the lens housing and the electro-optical lens). In some embodiments, the electronic glasses are The components can be pre-processed: and the barrier layer can be applied in a later procedure (for example, as: a finishing or sealing procedure after the electrical connection has been formed). This may be preferred because For example, the barrier layer can function to prevent the group; the electrical connection at the interface between is exposed to the external environment. In the embodiment, the barrier layer can be limited once it is set; However, embodiments are not limited thereto and the wall layer may be applied at any suitable time. The inventors have discovered that in some embodiments, the barrier layer may comprise a material having a tackiness ( The material may be thin enough that it can be coated or injected into the area between the components of the electronic eyeglass. It may be preferred. As mentioned above, in some embodiments, the barrier layer may be coated to prevent or limit the wetness Contact with gas (eg, water) And because the viscosity of the barrier layer material is comparable to that of water, in this way, the barrier layer can be applied to the same area where the moisture is originally accessible (and thereby placed in the area - In some embodiments, in the case where the barrier layer comprises a polymer material (>, two-component epoxy), after the barrier layer has been applied to the electronic glasses, the barrier layer can be cured. The material is held in place. In general, the barrier layer can be cured using any suitable process, such as visible light curing, ultraviolet curing, and/or thermal curing. In some embodiments, where thermal curing is used, The material of the barrier layer is such that the material can be cured at a sufficiently low temperature, while other components of the electronic eyewear (eg, lens, lens housing, and/or electronics) are not affected by temperature increases. The inventors have also discovered that In some embodiments, preferably, the material comprising the barrier layer should be sufficiently flexible and/or flexible such that the material does not damage (or damage such as a lens when subjected to typical forces used by the sling Other components.] For example, when the barrier layer is disposed in a region between the lens housing and the lens assembly, there may be a force applied to either or both of the components in various directions. If the barrier layer is too stiff, this force can be applied to the lens, which can cause debris or cracking. This can result, for example, in the exposure of the electrical contacts, damage to the lens, and/or one or more components can be decoupled. 160384.doc -163. 201234069 An exemplary embodiment comprising a barrier layer applied to an electronic eyeglass to prevent or limit exposure of the electrical contact between the lens and the lens housing to the external environment (including moisture) is shown in In Fig. 30, the electronic glasses comprise a lens housing 3001, a conductor 3〇〇2 (in this case, shown as a flexible conductive material), forming a portion of one of the electrical paths to one or more of the electrical components of the lens 3004. Conductive paint 3003' and barrier layer 3005. As shown in Fig. 30, in some examples, there may be a space or region between the lens housing 3〇〇1 and the lens 3〇〇4, which is shown as an air gap 3〇〇6. As mentioned above, this air gap can be formed during the manufacturing process (eg, one portion of lens housing 3〇〇1 and lens 3004 is not tightly fitted to seal the components therebetween to prevent exposure to the external environment) and/or It can be expanded by using glasses. On the opposite side of the air gap 3006 shown in Figure 3B is a barrier layer 3005 that has been placed to insulate the conductor 3002 from the external environment. The barrier layer 3〇〇5 is shown as being disposed in a region between the lens housing 3001 and the lens 3004. As mentioned above, the barrier layer 3005 can have been implanted into this region between the components and can be cured to be coupled to the lens housing 3〇〇1 and/or the electro-optical lens 3004. Combinations of Elements While many of the embodiments are described above as including a combination of different features and/or features, one of ordinary skill in the art will understand that, after reading the present invention, in some instances, one of these components or Many may be combined with any of the components or features described above. For example, an embodiment of an electronic frame including a magazine hinge can also include any one or a combination of: (1) a flexible conductive material; (2) an appearance; (3) a coupling 160384.doc • 164· 201234069 Connected to the enclosure module of the electronics module; and/or (4) one or more electronics modules (and/or – from one electronics module to one or two electrical components The conductive path of the lens). Similarly, an embodiment including a flexible conductive material may also include any one or a combination of the following: (1) an appearance '(2) - a housing module coupled to an electronic device module; / or (3) one or an electronic component module (and / or a conductive path from an electronic device module to one or two electro-active lenses). Similarly, an embodiment including an appearance may also include any one of the following: or (1) - a housing module that is consuming to an electronic device module; and/or (2) - or multiple Electronic device module (and/or a conductive path from an electronic device module to one or two electrically active lenses). Similarly, an embodiment including a housing module coupled to an electronic device module can also include one or more electronic device modules (and/or one from one electronic device module to one or two electrically active lenses) Conductive path). In addition, as will be understood by those of ordinary skill in the art after reading this disclosure, the exemplary features and aspects of any of the above embodiments may be utilized in any suitable combination. The above description is illustrative and not limiting. Many variations of the present invention will become apparent to those skilled in the art after reviewing this invention. Therefore, the scope of the invention should not be determined by reference to the above description, but the scope of the claims and the full scope or equivalents thereof. The narrative of "a" or "the" is intended to mean "- or more" unless the contrary is expressly stated. All publications mentioned herein are incorporated herein by reference in their entirety to the extent of the same.

Confirmation of site. The method and/or materials are shown and described, and the content of the present application is not to be construed as an admission of the present invention. In addition, the 麁 is different from the actual publication date, which may require a simple cross-sectional view of the benefits of the embodiments. Figure 1 is an illustration of a spectacle frame. 2(a) and 2(b) are exploded views showing components of a portion of an exemplary device in accordance with a portion of the present invention. Figure 4 shows an exploded view of the components of a portion of an exemplary device that is not according to some embodiments. Figure 5 shows an exploded view of components of one portion of an illustrative device in accordance with some embodiments. Figure 6 shows a portion of an illustrative device in accordance with some embodiments. FIG. 7 shows components of an illustrative device in accordance with some embodiments. FIG. 8 shows an illustrative portion of an illustrative device in which components are coupled. Figure 9 shows an exemplary portion of an illustrative device in which components are coupled from different angles. Figure 10 shows a close up view of an illustrative portion of an illustrative device in which components are coupled. 11 shows an illustrative embodiment of a device in accordance with some embodiments. FIG. 12 shows an exemplary design of a mask in accordance with some embodiments. 160384.doc -166.201234069 Figure 13 shows an exemplary temple of an electronic eyeglass frame in accordance with some embodiments. FIG. 14 shows an illustrative embodiment of a device in accordance with some embodiments. Figure 15 shows an illustrative embodiment of a device in accordance with some embodiments. 16 shows an exploded view of components of an illustrative embodiment that may include a device in accordance with some embodiments. FIG. 17 shows an illustrative embodiment of a device in accordance with some embodiments. 18(a) and 18(b) show an exemplary embodiment of a device in accordance with some embodiments. 19(a) and 19(b) show an exemplary embodiment of a device in accordance with some embodiments. 20(a), 20(b) and 20(c) show an exemplary embodiment of components of a device in accordance with some embodiments. 21 shows an illustrative embodiment of a device in accordance with some embodiments. 22 shows an illustrative embodiment of a device in accordance with some embodiments. 23(a) through 23(e) show an exemplary embodiment of a device in accordance with some embodiments. 24 shows an illustrative embodiment of a device in accordance with some embodiments. FIG. 25 shows an illustrative embodiment of a device in accordance with some embodiments. Figure 26 shows an illustrative embodiment of a sensing mechanism in accordance with some embodiments. Figure 27 shows an illustrative embodiment of an electronic frame including a housing module in accordance with some embodiments. 28 shows a top view and a front view of an illustrative embodiment of an electronic frame including an appearance, in accordance with some embodiments. 160384.doc -167 - 201234069 Figure 29 shows a rear view of an illustrative embodiment of an electronic frame incorporating an appearance, in accordance with some embodiments. Figure 30 shows an exemplary barrier layer coupled to an electronic eyeglass in accordance with some embodiments. [Main component symbol description] 101 First temple 102 Second mirror 103 Lens housing 104 Angle 200 Lens housing 201 First temple 202 Magazine 203 Conductor 204 Hinge 205 Dotted line 206 Dot 207 Dotted line 210 Lens housing 211 One foot 212 Spring 213 Hinge 214 Dotted line / Conductive path 215 Dotted line / Conductive path 216 Angle 160384.doc · 168- 201234069 300 First leg 301 Electrical conductor 302 Spring 303 Conductive part 304 Vertebrae 305 End section 306 Spring Cover 307 Electronics Module 308 Cavity 310 Electronics Module/Conductor 1101 Top Section 1102 Bottom Section 1103 Center/Nose Frame 1104 End 1105 End 1106 First Lens 1107 Second Lens 1201 Upper Clasp Element 1202 Lower Latching Element 1301 Exemplary temples 1400 Exemplary electrical frame 1401 Flexible conductive elements 1402 Hinge 1403 Nose bridge 160384.doc •169- 201234069 1404 Lens housing 1405 Lens 1601 Core/core component 1602 Mirror foot 1603 Shell module / Electronics module housing 1604 Switch / Capacitive Touch Switch 1605 Electronics Group 1606 Conductor 1607 Hinge 1800 Semi-frameless frame / Electrical frame 1801 Semi-rigid plastic extrusion 1802 Hard part of frame 1803 Lens 1804 Filament fiber 1805 Cavity 1806 Lens groove 1807 Groove 1902 Frame edge 1903 Lens 1904 Filamentous fiber 1905 Cavity 1906 Groove 1907 Groove 1908 Interface 160384.doc -170- 201234069 1909 Conductive ink or lacquer 1911 Extruded or other material 1913 Lens 2000 Illustrative conventional extruding/non-conducting element 2001 Upper part (ie, the first part) 2002 Upper part (ie, the first part) 2003 Upper part (ie, the first part) 2004 Lower part (ie, the second part) 2005 Lower part (ie, the second part) 2006 Lower part (ie, second part) 2010 Exemplary flexible conductive element 2101 Lens 2102 Hard plastic frame 2201 Embedded conductor 2202 Embedded conductor 2203 Tilt to a special square in the lens housing Possible location 2204 Conductor 2205 Hinge 2206 Metal sleeve Tube 2207 master control electronics module 2208 Controlled Electronics Module 2301 Frame Side / Lens Housing 2302 Lens 160384.doc -171 - 201234069 2304 Embedded Conductive Path 2305 Cavity 2306 Conductive Paint 2307 Flexible Conductive Element 2308 Compression Area 2401 Frame Side / Lens Housing 2402 Cavity 2403 Conductive Flexible material 2404 lens 2405 conductive flexible element 2500 lens housing 2501 conductive flexible element 2502 cavity 2503 conductor 2504 embedded conductor 2505 hinge 2506 point 2507 electroactive lens 2508 cavity 2600 touch switch 2601 section 2602 remaining structure of touch switch 2603 Section 2701 Example Housing Module • 172· 160384.doc 201234069 2702 Opening 2703 Part of the electronics module 2704 Optional screw 2705 Comparison key 2800 Exemplary electronic glasses 2801 Mirror foot 2802 Electronics module 2803 Lens housing 2804 Appearance 2805 nose bridge 2806 hinge 3001 lens housing 3002 conductor 3003 conductive paint 3004 lens 3005 barrier layer 3006 air gap AA cross section BB cross section H . AAmin flexible conductive element minimum height Huncompressed uncompressed height w groove The width of the X-X 'cross section Y-Y' cross section of the groove width δ is greater than the amount of 160384.doc -173-

Claims (1)

201234069 七 1. 2. Patent application scope: A first device, comprising: a frame connecting a f-mirror and a second temple, wherein the frame is coupled to a casing module of a structural component; The sub-device module is disposed in the outer casing mold 2, and the electronic device module includes at least the following : a power supply; a controller; and a sensing mechanism. One of the insulating layers is disposed between one of the plurality of electronic components and the first device, or one of the first device electronics modules of the first device. 3. The first device of claim 2, layer 0, wherein the outer casing module comprises the insulating device. The first device of claim 3, wherein the electronic device module comprises a conductive material. 5. The first device of claim 2, wherein the outer casing module comprises a conductive material; and wherein the insulating layer is disposed between at least a portion of the outer casing module and the electronic device module. The first device of the Moon Length Item 2, wherein the insulating layer comprises a portion of the electronic device module. 160384.doc 201234069 7. 8. 9. 10 11 12 13. 14. 15. 16. The first device of claim 6, wherein the outer casing module comprises a conductive material such as. The device of claim 1 wherein the electronic device module is detachably attached to the housing module. The first device of item 8 of the following, wherein the electronic device module is adapted to be removed from the housing module and recoupled to the housing module. The first device of claim 1 wherein the housing module includes a first end, a second end, and a body disposed between the first end and the second end; wherein the first end includes a Opening; and wherein the electronics module is configured to be inserted into the opening. The device of claim 10, wherein the electronic device module is pressure-fitted to the housing module. For example, the first component of the item 1G, wherein the electronic device module is located in the body of the outer casing module. For example, the device of claim 1G, wherein the outer casing module comprises a pair or a carbon fiber. The first device of claim 1, wherein the structural component comprises a cavity in the first temple; and wherein the housing module is configured to be selectively placed within the cavity. The first device of claim 14 wherein the housing module is coupled to the first temple using at least one of a screw or a double-sided tape. The first device of claim 14 wherein the housing module is selectively removable. I60384.doc -2 - 201234069 17. The first device of claim 14 wherein the housing module is press-fitted to the cavity in the first temple. 18. The first device of claim 1, wherein the first lens is electrically coupled to the electronic device module; wherein the controller is configured to generate a time varying from the power source for supply to the first lens And wherein the sensing mechanism is configured to provide an input to the controller for determining when to supply the time varying signal to the first lens. 19. The device of claim 1, wherein the power source comprises a battery. 20. As requested by the first device' where the controller contains firmware. 21. The first device of claim 1, wherein the controller comprises a voltage regulator. 22. The first device of the invention, wherein the controller is configured to provide at least one of a zero DC bias sine wave or a zero DC bias square wave to the first lens. 23. The second device of claim 1, wherein the outer casing module further comprises an aperture disposed on an outer side of the outer casing module. The first device of U term 23, wherein the aperture has an area in the range of about 2 to 5 cm2. For example, the first device of claim 23, wherein the sensing mechanism includes a touch sensitive switch that is substantially exposed via the aperture. For example, the first crying touch, Lin ^ device, of the month 2, wherein the touch sensitive switch is a capacitor switch. 27. The first part of claim 1 wherein the structural component comprises the first mirror 160384.doc 201234069. 28. The first device of claim 27, wherein the first temple comprises a first portion and a second portion, wherein the first portion is positioned closer to the first lens than the second portion, and The outer casing module is pure to the first portion of the first temple. The device of claim 27, wherein the first leg includes a first portion and a second portion and wherein the housing module includes the first portion of the first leg. 3. The device of claim 1, wherein the housing module comprises a first component of a conductive material, wherein the housing module comprises a non-material. 32·If 4 items! The first device, wherein the electronic device is a molded material. Q 3 π 33 · The first device of claim 1 wherein the electronic device module comprises a conductive material. 34. The first device of claim 31, wherein the structural component comprises one of plastic or nylon. ^35. The first device of claim 31, wherein the structural component comprises acetic acid vinegar. 36. The device of claim 3, wherein the structural component comprises a conductive material, and wherein the outer casing module electrically isolates the electronic component module component. TV K is the first device of length 36, wherein the structural component comprises a metal. 38. The device of claim 31, further comprising: 160384.doc 201234069 - including a first lens of the first electrical contact; and a first point of electrical contact with the first lens of the first lens The conductive device has a first electrical contact; and the conductive path and the first electrical contact of the electronic device are 41. 39. The first device of claim 38, 4. The first device of claim 39, the electrical component. The first device of claim 1 has a thickness of about 0.7 mm. Wherein the conductive path comprises a pogo pin. Wherein the conductive path comprises a flexible guide, wherein the outer casing module has a method of fabricating a device, wherein the device comprises a frame having a first temple and a second temple; and a casing The module includes: a first end and a second end, wherein the first end includes an opening; and a body disposed between the first end and the second end, wherein the body comprises a cavity; The method includes inserting an electronic device module into the opening of the first end of the housing module such that the electronic device module is disposed in the cavity of the body of the housing module. 43. The first device of claim 42, wherein the method further comprises removing a first electronic device module from the cavity via the opening of the first end of the outer ring module; and 160S84.doc 201234069 The Descartes electronic device module is inserted into the first known C7 of the outer casing module such that the second outer casing module is disposed in the cavity of the louver outer casing module. 44. The first device of claim 43, wherein the first electronic device module and the second electronic device module are the same electronic device module. For example, the first device of claim 43 wherein the first electronic device module and the first electronic device module are different electronic device modules. 46. A method of fabricating a device comprising a frame having a first temple and a second temple, wherein the first temple comprises: a first end; a first end disposed at the first end a body between the second end; and a cavity disposed in the body; wherein the first end includes an opening, and wherein the method comprises: inserting an electronic device module into a housing module; Inserting the outer casing module into the opening of the temple so that the outer casing is disposed in the cavity of the first temple. 47. A first device, comprising: a lens including at least one first electrical contact; a lens housing holding the lens, wherein the lens housing includes at least one second electrical contact; a conductive material between the electrical contact and the second electrical contact, wherein the conductive material electrically connects the first electrical contact with the second electrical contact 160384.doc 201234069; and a barrier layer disposed to cover At least a portion of the electrically conductive material. 160384.doc