TW536643B - System and apparatus for alerting a user - Google Patents

Abstract

In accordance with the present invention, an integrated method and apparatus for communication is provided. In one embodiment, a head-mounted viewable display system for a user is provided. This system includes eyewear and a micro-optical display. The micro-optical display is positioned in the field of vision of the user and is configured to correct a portion of the refractive error of the user. In another embodiment of the present invention an integrated communication system is provided. This communication system contains a head mounted frame, a speaker mounted to the frame, a lens mounted to the frame, a micro-optical display having a micro-character display supported by the frame, a microprocessor supported by the frame, and a wireless communication device mounted on the frame, the wireless communication device in communication with the microprocessor. In still another embodiment of the present invention a method of displaying information to a user is provided. This method includes displaying a first line of characters on a micro-optical display having a micro-character display and using an optical element to project the first line of characters in the field of vision of the user.

Description

536643 A7 B7

V. Description of Invention Patent Application: This patent application requires recognition: U.S. Provisional Patent Application No. 60 / 144,728 dated July 20, 1999; U.S. Provisional Patent Application No. 60 / 150,544, registered on August 25, 1999 ; And the rights of US Provisional Patent Application No. 60 / 164,873, registered on November 12, 1999. All provisional patent applications listed above are hereby incorporated by reference. Scope of the invention The present invention relates to methods and systems for communication. More specifically, the present invention relates to an integrated communication system that can provide visual and audible information to users who are engaged in other activities. BACKGROUND OF THE INVENTION The integration of computers into our everyday lives has actually increased over the past few decades. The main architecture computer, which was once the only source of computing power, has been improved into a desktop unit, a portable unit ^, a Personal Digital Assistant (hereinafter referred to as pDA), and today's wearable computers. At various stages of improvement, computers have become smaller and easier to use. A wearable computer can be a computer that keeps a visual display in the user's field of vision. Known wearable computers include a head receiver that is physically connected to a processing unit. These head receivers provide users with video in the form of full or quarter screen computer monitors. It is conceivable that these existing display units ^ / are somewhat bulky, cumbersome, and bulky, and use open wires to connect to a battery pack and / or processor attached to a person's waist. Some of these sizes are due to the power and data transfer rate required to replicate a quarter of a typical computer monitor—or higher. These high power and data transmission rates

5. Description of the invention (a) Size and cost play a role. , Wireless communication networks have been born because of this, and can be people to the daily life of the group. Wireless networks are connected in a possible way. In the same decades that previously could not be reached to support wearable computers, I have learned that they have decided to connect humans with people who previously thought they were not ^ can now use mobile phones to connect and communicate with each other in a more timely and accurate manner . Mobile phones that transmit and receive information on the Internet today and today continue to provide longer distances and more services, [becoming smaller and more convenient. These known mobile phones are not only used in radiotelephone technology, but also are used in applications. For example, some known mobile phones currently provide Internet use. Although the available services have increased and decreased in size, known mobile phones continue to suffer from the same weaknesses as in the past. For example, in order to see Internet information on a known mobile phone, the user must answer the phone at a considerable distance from the eye's horizon, and must turn their attention to the display on the mobile phone To watch the information displayed. Therefore, when viewing the information displayed on the mobile phone, the user cannot perform other tasks. With the current design paradigm, it will suffer the conceptual loss of today's experience. However, it is foreseeable that the use of wearable computers and wireless phones will continue to increase. SUMMARY OF THE INVENTION According to the present invention, an integrated method and device for communication are provided. In a specific embodiment, a user-mounted visual display system is provided. The system includes glasses and a micro-optical display. The micro-optic display

536643 A7 B7 5. Description of the invention (3) The device is placed in the user's field of vision, and its configuration can correct part of the user's refraction errors. In another embodiment of the present invention, an integrated communication system is provided. The communication system includes a head mount, a speaker mounted on the rack, a lens mounted on the rack, a micro-optical display with a micro-character display supported by the rack, and a support supported by the rack. A microprocessor and a wireless communication device mounted on the rack, the wireless communication device communicates with the microprocessor. In another embodiment of the present invention, a method for displaying information to a user is provided. The method includes displaying a first line of characters on a micro-optical display having a micro-character display, and using a first optical element to project the first line of characters into a user's field of vision. Brief Description of the Drawings Fig. 1 is a side perspective view of glasses worn by a user according to an embodiment of the present invention. FIG. 2.0 is a front perspective view of the glasses of FIG. 1 according to a specific embodiment of the present invention. Fig. 2.1 is an exemplary diagram of a character line when a user looks into a micro-optical display mounted on the glasses shown in Fig. 2.0. Figure 2.2 is a front perspective view of a Processor Communication Control and Storage Unit (PCCSU) according to an alternative embodiment of the present invention. Figure 2.3 is a diagram of an integrated communication system worn by a user according to another alternative embodiment of the present invention. Figure 3 is a full VGA view, four -6- ▼ binding according to another alternative embodiment of the present invention

Line This paper size is applicable to China National Standard (CNS) A4 specification (210X297 mm) A7

It is divided into 4—ηνΓ field of view and the comparison chart of the demonstration micro-optical display field. According to the present invention, the tf shown in the alternative embodiment of the micro-optical display is a single-line text. Figure 4 · 1 shows multiple columns of text of various lengths filled with a micro-optical-perspective view according to another embodiment of the present invention. Fig. 4.2 is a picture shown in a circular view of a micro-optic cheek without a scoop according to another embodiment of the present invention. Figure 4.3 is a graphic showing a rectangular field of view in the low-light smart display according to the present invention, another alternative embodiment of the heat-defining poor month. FIG. 5 is a double-line in-line diagram showing an alternative embodiment according to the present invention. Figure 5. : 1 is a single-line content chart displayed on a low-light-emitting diode display according to another embodiment of the present invention. Figure? This is a double-line content image displayed on a micro-light # display according to another alternative embodiment of the present invention. FIG. 5.3 is a three-line content diagram on a low-light # display according to another alternative embodiment of the present invention. Fig. 6 is a front perspective view of glasses according to another alternative embodiment of the present invention. FIG. 7 is a front perspective view of glasses according to another alternative embodiment of the present invention. FIG. 8 is a front perspective view of glasses according to another alternative embodiment of the present invention. FIG. 9 is a side view of the glasses of FIG. 8. FIG. 10 is a front perspective view of a spectacle according to another alternative embodiment of the present invention. Figure η shows a micro-optic display according to another alternative embodiment of the present invention.

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536643

-8-Zoom in. FIG. 12 is an enlarged view of a rib skeleton structure of the micro-optical display of FIG. 11. Fig. 13 is an enlarged view of the rib frame structure of Fig. 12 showing some components that can be placed in the rib frame structure. Figure 14 is a side view of a micro-optical display according to another alternative embodiment of the present invention. Figure 15.0 is an enlarged perspective view of a micro-optical display located near the eyes of a user according to another alternative embodiment of the present invention. Figure 15.1 is an enlarged view of the axis marks on the micro-optical display of Figure 15. Figure 16 · 0 is an enlarged perspective view of a micro-optical display according to an alternative embodiment of the present invention. FIG. 16.1 is a mirror adjustment diagram of the FIG. 16 micro-optical display according to an alternative embodiment of the present invention. FIG. 1 is an enlarged perspective view of a micro-optical display located near the eyes of a user according to another alternative embodiment of the present invention. Figure 18.0 is a side view of a micro-optical display according to another alternative embodiment of the present invention. Figure 18.1 is a side view of a micro-optical display located near the eyes of a user in accordance with another embodiment of the present invention. Figure 18 · 2 is a side view of a micro-optical display with a foot in accordance with another alternative embodiment of the present invention, located near the eyes of the user. Figure 18.3 is a side view of a micro-optic display according to another alternative embodiment according to Taiyan ~ Benfa. This paper size is suitable for household use (CNS) l ^ i ^ x 297 public love y gutter 5. Description of the invention (6 Figure 1 8 · 4 is a side view according to the device. Another-alternative implementation For example, the microphoton 々, ', Figure 1 δ · 5 is a side view of the device according to the present invention "One shot month ~ another micro-optical display device to replace the specific embodiment = two according to the present invention-alternative to the specific embodiment Low light-device Γ: view: according to the present invention-alternative to the micro-optical display device of the specific embodiment 1 = "according to the invention-alternative to the micro-optical display of the specific embodiment Fig. 0 Fig. 19 is another- Front perspective view of an alternative embodiment of the spectacles FIG. 20 is a front perspective view of the glasses according to another alternative embodiment of the present invention, and 1 is an enlarged view of a frame and a microphoton according to another embodiment of the present invention. FIG. 20.2 is a notched sepal according to another alternative embodiment of the second embodiment of the present invention (not enlarged). FIG. 21 is a side view of glasses according to another alternative embodiment of the month. FIG. 2 2 is based on this in Japanese and Japanese _ .. 柃 朵 and 顾-奕, " Installation of a specific embodiment The micro-first learning on the lens is also a magnified perspective view. Figure 23 is another view according to the present invention. The rear view of the spectacle frame from the example of the sister, 24, is another substitute according to the present invention. Front perspective spectacles running through her glasses) t 0 @ m ^ S) Α4 ^ (21〇 × 297 536643) V. Description of the invention (7 Fig. 25.0 is a view of the invention according to Fig. 24. & An alternative implementation Figure 25.1 of the side of the example is another block diagram according to the present invention. The enlarged cut-away view of the lens of the specific embodiment 26 is the internal view of the example of the eye seen by the user. According to another alternative embodiment of the present invention, Figure 2 7 Fig. 2 is a side perspective view of a specific embodiment according to the present invention. Fig. 28 shows another assisting system according to the present invention. Fig. 29 shows an emergency response of a group of embodiments according to the present invention. ^ A perspective view of the charging data of the August Dougan example link before the early Yuan Dynasty. Detailed description FIG. 1 is an illustration of the head when using the eyeglasses 10 according to the embodiment of the present invention. For the traditional type, it has a frame 14, a lens 18, and a hook 15. If it is visible, here The spectacle j of the embodiment has a micro-optical display 12 on the lens 丨 8 of the spectacles 11. The micro-optical display i 2 of this specific embodiment is positioned in the user's eye 7 and is convenient for the user 10 Therefore, the user 10 can see the information displayed in the micro-optical display 13. By positioning the micro-optic display within the field of view of the user 10, the user 10 can obtain the information from the display when engaged in other activities. Information 13 displayed to the user 10 may include a variety of stock-outcrying bids, and electrical binders with real indications-10- This paper size applies to China National Standard (CNS) A4 specifications (210X 297 mm) 536643 A7 B7 V. Description of the invention (8) Mail, driving directions and other data types. The micro-optical display 12 may be attached to the glasses 11 integrally or separately from the glasses 11. The optical action in the micro-optical display 12 can be designed to project one or more rows of character images into space, so that the characters appear in the user's field of vision. Figure 2 · 0 is a more detailed perspective view of the eye 1¾ of Figure 1. Obviously, the configuration of the spectacles 11 in this specific embodiment makes it look like a pair of conventional spectacles. : As will be discussed below, optionally, the glasses 1 i can also be shaped as sports glasses, safety 1-man eyepieces, and any other type of glasses that can be worn by users. The glasses 11 in this embodiment are part of a multi-purpose communication system. Working with the processor, communication, control and storage unit (pccsu shown in Figure 2.2), the glasses 11 can send and receive wireless calls on a wireless network. In addition, the glasses 11 can also receive data from the wireless network and display the data on the micro-optical display. In use, using the microphone 20 and the speaker 24 mounted on the glasses 11, the user of the glasses 11 will talk to someone on the wireless network. The antenna 23 on the glasses can be used for communication with the PCCSU, or alternatively, can be used for direct communication on a wireless network. As can be seen, the glasses 11 in FIG. 2.0 include a microphone 20, a micro-optical display 12, a solar cell 22, an antenna 23, a speaker 24, a transceiver 25, a microprocessor 26, and a lens 29 A nose bridge 28 and a battery 27. These solar cells 22 located on the hooks 15 of the glasses n can be used to charge the batteries 27, and can also be used to directly power the components of the glasses 11. The microprocessor 26 is one of the ear frames mounted on the glasses 11. The microprocessor 26 can communicate with each component, and can receive the information from the transceiver 25, and then display it ___ -11-This paper size applies the Chinese National Standard (CNS) A4 specification (210 X 297 mm) )

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Line 536643 A7 B7 V. Description of the invention (9) On the micro-optical display 12. The transceiver 25 can perform the transmitting and receiving functions of the glasses 1 1. The transceiver 25 can be used for communication with the PCCSU, and can also be used for direct communication on a wireless network. The lens 29 in this embodiment includes an opening or a notch to allow the micro-optical display 12 to penetrate the lens and extend to the outer surface and the inner surface. Fig. 2.1 is a view diagram of the micro-optical display 12 of Fig. 2.0. As can be seen, the micro-optical display 12 in this embodiment shows a column of text. This column of characters can be displayed by the micro-optical display 12, which can be projected into a 4-inch to wireless space or presented to the user at any distance comfortable to the user. One line of characters is shown in Fig. 2.1, but characters of other lines may be displayed on the micro-optical display 12 as well. Examples of display of these other lines and methods for displaying these various lines are discussed in more detail below. Figure 2.2 is mentioned above? (^ 31; previous perspective.? (: € 81; 220 can be used as a communication link between a wireless network and the transceiver in the glasses. PCCSU 220 can also be used as a wireless phone without using the glasses. PCCSU 220 can be the size of a tape broadcaster and can be worn or supported by the user. Figure 2.2 shows that the PCCSU 220 can have a microphone 221, a high-speed red wire data link 223, a speaker 232, a display 231, A three-dimensional stacked chip processor 230, a radio frequency strip antenna 229, radio frequency transceiver electronic circuit 227, a fuel cell stack 226, permanent memory 225, a recharge input plug 224, an on / off power switch 223, and a display function key 222 For these PCCSU components, the high-speed infrared data link 223 of PCCSU 220 can be used to send data to and receive data from external data transmission units. Speaker 232 can be used to send audible alarms to this paper Standards are applicable to China National Standard (CNS) A4 specifications (210 X 297 mm) 536643 A7 B7 Five invention descriptions (10) Announcements, and all types of voice, conversation, music, etc. And other types of information are provided to the user. The display 23, which can be a liquid crystal display, can be used to provide the status of the PCCSU 220 and other information to the user. The three-dimensional stacked chip processor 230 included in the PCCSU 220 can be used to implement PCCSU. Processing functions of 220. The three-dimensional stacked microprocessor can also control the internal management functions of PCCSU 220. These functions include: power configuration for the display, headphones and microphones; data storage in memory; and sound, video, and electronics Transmission and conversion of data between digital and RF formats. RF strip antenna 229 can be used for communication with glasses and communication on wireless networks. VRA adjustment 228 is used for individual adjustment of sound and background sound effects to enhance the user's hearing Experience. The fuel cell stack 226 can be used to power the PCCSU 229. The permanent memory 225 can be used to hold the required execution software and any other information loaded into the PCCSU 229. The recharge input plug 224 can be used for direct or AC recharge A fuel cell that does not use batteries and provides the required power to operate PCCSU 229. Fuel power The group 226 may be an integral unit stored in the PCCSU 229, or alternatively may be a thin film battery from the Sibu Likou to the surface of the PCCSU 229. The fuel cell stack 226 or any other device that provides power may also be a separate unit, which may be Wear under the user's collar, or belt, or any other position on the body, and connect to PCCSU 229 and glasses with a direct conductive wire. The display function key 222 can be used to control the display on the display 231 and the micro-optical display of the glasses Information. These display function keys may include: a stock bargaining key; a motion score key; a phone book key; a time, temperature or direction key; and a position or global satellite positioning key. Finally, the microphone 22 1 can be used to receive voice driving instructions from the user without the need. -13- This paper size applies the Chinese National Standard (CNS) A4 (210X 297 mm) binding

Line 536643 A7 B7 V. Description of the invention (11) Haptic input from the user. When the PCCSU shown is a separate unit, other configurations and specific embodiments are foreseeable. These other specific embodiments include electrically wiring or integrating the PCCSU function into the glasses. These other specific embodiments may also include eliminating the PCCSU memory storage unit and operating the PCCSU without requiring a large amount of permanent storage. After the memory storage unit is removed, the size and power consumption requirements of the PCCSU can be greatly reduced. Alternatively, instead of using a transceiver placed in the PCCSU to perform a radiotelephone function, the PCCSU can be connected to a wireless communication device that provides the necessary wireless communication function. Furthermore, in other alternative embodiments, the PCCSU can use the user's belt as an antenna, and the PCCSU can be separated from the glasses, allowing the glasses to communicate directly on a wireless network. In addition, when the system's instructions and controls can be used through the touch pad or the buttons on the PCCSU, the PCCSU can also use the voice commands to instruct the hands-free way. Voice commands can be interpreted by voice recognition software built into PCCSU at the time of manufacture, or PCCSU can optionally be "trained" to associate certain user voices with specific commands and functions. The artificial neural network coprocessor can also be used to "train" the system to recognize the user's voice commands, thus simplifying the software. Figure 2.3 is a front view of a user wearing an Integrated Communication System (hereinafter referred to as ICS) consistent with an alternative embodiment of the present invention. In Figure 2.3, the user 336 is shown wearing glasses 332 and PCCSU 330. As can be seen, the eyepiece lens 337 is supported by the user's head, and its shape looks like a pair of traditional glasses. The glasses include a frame 332, a -14- This paper size applies to China National Standard (CNS) A4 specifications (210X297 mm) binding

Line B7 V. Description of the invention (12) The hook 331 and a micro-optical display 333 ^ The pccsu 33〇 is supported by the belt 3 34, but it can be supported by the user's belt or carried in the user's pocket purse or used Supported by any of the other devices, and as discussed above, the PCCSU 330 can feed data into the glasses 337 for display on the micro-optical display 333. The pCCSU 330 feeds this information to the glasses 337 via the wireless link shown by arrow 338. The aforementioned ICS can provide users with various features and services. As an example only: The micro-optical display unit can be configured to provide local time, date, stock price, GPS and user's itinerary, and it can also be configured to display the phonebook information and teleprompting device stored in PCCSU Information, voice mail and broadcaster messages. Furthermore, hearing impaired users can receive translations of the surrounding voice on a micro-optical display, such as the closed captioning system used in public broadcast television. Similarly, I c S can provide a translation feature, where the P C C S U translates the conversation from someone into a language that the user can understand. Once translated, the conversation can be displayed on a micro-optical display. Figure 3 is a comparison view of a full VGA field of view 30; a quarter VGA field of view 3 2; and a micro-optical display field of view 31. As can be seen, in this specific embodiment, the micro-optical display field of view 31 is smaller than the full VGA field of view 30 and the quarter VGA field of view 32. As reminded above, the advantage of the micro-optical display is that the amount of power required for its operation is lower than the amount of power required to drive the larger Q VGA field of view 32 and the full VGA field of view 30. In addition, the data exchange requirements for displaying information on micro-optical displays can be lower than the data exchange requirements of full VGA and QVG displays. The field of view shown in Figure 3 reproduces the 20-inch viewing distance from the user to the monitor. Using this ratio, the visual diameter of a 30-character micro-optical display will be -15- This paper size applies to China National Standard (CNS) A4 (210 X 297 mm) 536643 A7 B7 V. Description of the invention (13) About 6.8 degrees. This display can also be of other sizes, allowing the user to use a larger or smaller field of view. Figures 4.0 to 4.3 show various viewing configurations of the micro-optical display 12 of Figure 1. As can be seen in Figure 4.0, a single column of 30 characters wide can be displayed on a micro-optical display. Optionally, as shown in Figure 4.1, multiple columns of text of various lengths can be displayed on the micro-optical display, or as shown in Figure 4.2. in. Furthermore, as shown in Figure 4.3, an image with a rectangular field of view can also be displayed within the micro-optic display field of view. Obviously, micro-optical displays are a multi-purpose display module that offers a variety of display options. Figures 5.0-5.3 are magnified views of various methods that can be used to display alphanumeric characters on a micro-optical display. In Figure 5.0, the first method is shown, in which the first row of characters 5 12 remains stationary and the second row of characters 5 13 is rolled across from right to left as shown by arrow 5 1 〇 Of people. When the entire second line of characters 5U has been rotated across the display, the second line can be moved up as shown by arrow 5 11 and replace the first line of characters 5 12. Then the stationary line of characters 5 12 can accommodate the first 30 characters of the second line of characters 5 13 and the second line of characters 5 13 can display the next line of text in the scrolling manner discussed above. Although shown in this specific embodiment is a defined 30-character matter, the number of characters in each line can be increased or decreased to the number suitable for the user-1 5-4 5 character range is recognized It is the best character display length of micro-optical display. Alternatively, as can be seen in Figure 5.1, the entire message can be displayed with a single line of characters 514. In Figure 5.1, a single line of characters 5 14 will move from right to left and will contain the entire message. Can be adjusted remotely on PCCSU or on user's glasses -16- This paper size applies to China National Standard (CNS) A4 (210 X 297 mm) binding

Line 536643 A7 ______ B7 V. Description of the invention (14) The rotation speed of these characters. This continuous scrolling format would be useful for displaying real-time data such as stock outcry and other similar real-time information streams. Similarly, as can be seen in Figure 5.2, when the character line is shorter than the display length of the micro-optical display, the character will not need to be scrolled across the screen, but will only be displayed on the column and will have the following characters Was replaced. In Figure 5.2, the character annotation on the first line is 5 3 2 and the character annotation on the second line is 5 3 3. Figure 5 · 3 shows another alternative embodiment. In this embodiment, the three-line display 585 is shown. The bottom line 581 is the user turning from right to left as indicated by arrow 57. Then, when all the data to be scrolled on the bottom row have been displayed, the bottom row 581 replaces the middle row 582, which will sequentially replace the top row 5 83. In other words, the bottom row 581 will be scrolled from right to left in the user's view, and the middle row 582 and the top row 583 will be scrolled above the user's view. In various alternative embodiments, the user can adjust and control the rate of data scrolling across the display and the rate of scrolling above and below the display state through the control on the glasses. The glasses or pccsu can then store the settings selected by the user for later retrieval and use. Furthermore, not only can these settings be stored for one user, but settings can also be stored for several users. As they utilize the present invention, they may select their predetermined preferences. The micro-optical display can also display the content of any language, and can be scrolled from right to left, left to right or vertically according to the language requirements displayed. Furthermore, some languages allow left-to-right or right-to-left reading (for example, Chinese characters can be written in any direction). Under these conditions, users can choose the better spiral scroll -17- x 297 ^ 57 i Paper Size Appropriate Financial Standards (CNS) ^ Specifications 536643 V. Description of Invention (15) A7 B7

According to another alternative embodiment of the present invention, the character size of the characters displayed on the micro-optical display can also be adjusted. In this alternative embodiment, the characters are not displayed on a single display line. The characters are displayed on several display lines, so that fewer individual characters can be displayed at the same time, and those characters displayed can be normal. Size characters are two or three times larger. As with other selected settings discussed above, the user of this alternative embodiment may select this display option as one of their preferred settings. Moreover, the display can also be adjusted so that the speed of the scrolling text matches the speed and pause of the consistent input. In other words, in another alternative embodiment, the microprocessor-controlled display information controlling the information displayed on the micro-optical display is naturally consistent with the audible conversation to be displayed on the micro-optical display. These display options allow the display to provide information to the user in the most comfortable and easy-to-understand manner. FIG. 6 is a perspective front view of an alternative embodiment of the present invention. As seen in FIG. 6, a micro-optical display 62 is a lens 691 mounted within a frame 69 of glasses 693. In addition, a battery 61, a microprocessor 600, a small transmitting and receiving device 67, a speaker 66, and an antenna 65 are all positioned on the hook 692 of the glasses 693. A directional microphone 64 is also mounted on the frame 69 of the glasses 693. The micro-optical display 62 in this alternative embodiment may be placed within the user's clear vision, or, as will be discussed below, selectively placed within the vision of both eyes of the user. In this case, when the information is provided at a glance, the information may be provided to the user in a reference mode; or when the information is provided

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With both eyes, the information can be provided to the user in a two-dimensional mode. The micro-optical head 6 2 has a very small diameter 6 3 (in this embodiment, 6 pen meters), and the micro-optical display 62 should be properly aligned within the user's various viewing angles. Similarly, '4' is used to properly position the low light in the user's line of sight, '' indicator 6 2 ', as shown below. When using two micro-optical displays, the distance between the pupils of the user must be considered (user The distance between the pupils of the eyes). FIG. 7 is a perspective view before another alternative embodiment of the present invention. As can be seen, a memory storage unit 79 has also been placed on the hanger of the glasses 70 of FIG. 7 and a remote line 7 8 of π connects the micro-optical display 74 to a small transmitting receiver 77. FIG. 7 also shows a microphone 76, a battery 71, a microprocessor ”, and an antenna 75. A perspective view before the glasses according to another alternative embodiment of the present invention is shown. In this specific embodiment, The previously shown microphone coupled to the frame of FIG. 7 is now extendable so that it can be placed closer to the user's mouth. As can be seen in FIG. 8, the microphone 815 can be placed on the frame coupled to the frame 825 and extension 820. The button 810 is placed on the transceiver 830, which is placed on the eyelet 840 of the eyelet 840. In use, and when the user needs it, the user will push the button 81 ( ) To extend or retract the microphone 815, 俾 closer or farther away from their mouths. Figure 9 is a side view of the specific embodiment shown in Figure 8. As can be seen, the extended microphone 8 1 5 is It is attached to the extension 82, which is attached to the frame 825. The user's ear 920, the user's eye 925, and the button 8 for controlling the movement of the microphone 8 丨 can also be seen in FIG. 〇.

1200 536643 V. Description of the invention (17 Optionally, 'uncoupled to the frame, the microphone can also be placed in each position of the glasses'. For example, in Figure 10, the microphone 1000 is placed on the hanging 1010. Figure 11 is an enlarged perspective view of a micro-optical display 1100 according to an alternative embodiment of the present invention. The front of the micro-optical display is clearly shown 1130, and there is a back 1140, a smooth skin 1110, and a micro-character display 1150 ' The third optical element 1120, the mark 1180, the diameter 1170, and the length 1160. The diameter 117 and the length 116 can be changed according to the individual application of the micro-optical display 1100. In the specific embodiment shown in FIG. 11, the length 1160 It is 7 mm, and the diameter 1170 is 6 mm. The third optical element n20 in this embodiment may be a lens for correcting astigmatism or other vision impairment of a user. Therefore, when used, micro-optics The image displayed on the display 1100 will correct the user's various vision impairments. Users viewing the front of the micro-optical display i 30 will not need the extra assistance of the corrective lenses of the glasses. It is also very clear in Figure i 0 The mark 11 80 is used to correct the astigmatism axis of the user. The method of using these marks 11⑽ is discussed in more detail below. Figure 12 is a detachable safety skeleton structure as the structural support of the micro-optical display 1100 of Figure η. Perspective view of 1210. The detachable safety framework structure 1210 can be made of metal, plastic or some other hard material. ^ In Figure 12, the safety framework structure mo also has a back 1140, _ front 部 30, and a hard ring 1240. And supporting element 丨 230. The supporting element 123〇 includes an angular notch because the micro-optical display can be placed in the user's glasses -20- _ This paper size applies to China National Standard (CNS) Α4 size (210 X 297 mm) ,thus

At each position close to the user's eye gland + θ, the detachable safety framework structure 121 〇 reduces the risk of damage to the user,,, and σ. As can be seen, the detachable corner is 1200 times and placed on the 1230 tooth supporting element. These corners 1200 provide points of increased stress that can fail during axial impact. When the axial compressive force is applied to the removable safety bone = structure 1210, the support element 123 will fold or y in these gaps 2 and 2. The tendency of the load to collapse when the axial load is reduced is reduced by the structure 1210. The energy that is transported to the user's eyes is due to the fact that part of the energy from the collision will be consumed when the safety framework structure 1210 'is shaped and collapsed. When in use, the micro-optical display is chased towards the user's eyes, and the rib skeleton structure 1210 is compressed like a cushion layer, thus reducing or possibly eliminating the impact of the collision and transferring it to the user's eyes. In some embodiments, the safety bone structure may be made of a material that will elastically deform when impacted. Fig. 13 is a perspective view of the detachable safety frame structure 1210 shown in Fig. 2 of the B element. In FIG. 13, a micro-word display 130 is installed around the security skeleton structure 121o. This micro-character display 1300 produces an image that will eventually be seen by the user. This micro-optical display is different from traditional displays because it does not need to restore many of the resolution lines associated with traditional scanning displays. The micro-character display in this embodiment may be a light-emitting diode (LED) display, a transparent liquid crystal display e (lcd), or any other character generator. The microcharacter display ι300 shown in FIG. 13 according to the specific embodiment communicates with the first optical element 1320, the second optical element 1310, and the third optical element 112o by light. In this other specific embodiment, the first optical element 32 is an elliptical mirror of 2 mm x 3 mm, and the second optical element 1310 is a 20 mm • 21-This paper standard is applicable to the Chinese National Standard (CNS ) A4 size (210X297 mm)

536643 A7 -------- B7_ V. Description of the invention (19) Concave aspheric lens with radius and the third optical element 1120 is a astigmatism correction lens. The three optical elements reflect, focus, and process the image generated by the micro-character display 1300, providing users with a magnification of the image generated by the micro-optical display 1300 and a mostly focused scene. A micro-optical display device that aims light at infinity is designed to correct hyperopia. The simple adjustment of the position of the rearview mirror 13 1 0 corrects the power of the sphere required by the hyperopia and myopia. The optical components noted above can be made of plastic, glass, metal, ceramic, or other suitable materials that will reflect or focus light as required by the particular application. The skin of the micro-optical device may be made of plastic, rubber, fabric or some other elastic material, while the skeleton may be made of metal, ceramic or other hard materials. For the best image contrast, the skin of the micro-optical display should be opaque or reflective outside, and the inner surface of the skin should be dark or black in order to absorb diffuse or stray light. FIG. 14 is a side view of a micro-optical display 1490 according to another alternative embodiment of the present invention. The micro-optical display 1490 in FIG. 14 includes a micro-character display 1440 including an LCD array 1430 itself. In this specific embodiment, the LCD array 1430 is rectangular, and although it may be other sizes, its size is 60 × 800 microns. In this embodiment, the pixel interval of the LCD array 1430 can be between 10 and 12 microns. Therefore, the LCD array 1430 can be placed in a space of 1.5 mm x 1.5 mm. The micro-optical display 1490 also includes a first optical element 1420, which may be a flat elliptical mirror having an oval diameter of 2 mm and 3 mm; and a second optical element 1480, which may have a radius of 20 mm and a diameter of 5 mm Concave surface • 22- This paper size applies to Chinese National Standard (CNS) A4 (210X 297 mm) '---------- V. Description of the invention (2〇) Mirror. In this exemplary embodiment, the micro-optical display 1490 has a diameter 1410 of 60 mm and a length 470 of 7.0 mm. In this specific embodiment, the length 1450 of the micro-character display 1440 is 1.5 mm. The LCD array 1430 uses ambient light to illuminate the image to be displayed to the user. Using ambient light reduces the amount of power required to drive the display. The micro-optical display device in this embodiment does not use a beam splitter, thereby maximizing the available illumination and thus allowing the use of only ambient lighting. The dimensions of the micro-optic display can be modified in various other embodiments. For example, for a micro-character display that uses a 10-micron pixel interval and has up to three columns of characters and 30 characters in each column, where a mirror is used as an optical element in the micro-optical display, the length of the micro-optical display can be 70 mm and upright position 6.06.0 meters. | By comparison, in a micro-optical display using a focusing and magnifying lens as the lens-based design of the optical element, the height of the micro-optical display can be reduced to 4.5 mm and the diameter can be reduced to 4.0 mm. Similarly, if the 稜鏡 and lens are used as optical elements, the length of the micro-optical display can be reduced to 4.5¾ meters and the diameter of the micro-optical display can be reduced to millimeters. In addition, when the 'right micro-character display 1440' is the one discussed above, it is worth noting that the light guide is suitable to accommodate a larger micro-character display if the user wants. The LCD display 1430 can be made of a transmissive LCD and a reflective LCD. When using reflective LC, supplementary lighting is required. For a display using 30 characters in each of the two columns of Nanda, the pixel-to-pixel interval can be reduced to 5 microns, and the length of the micro-optical display can be 4.5 mm. Standard (CNS) A4 specification (210X297 mm) 536643 A7 ____ — — ___ B7 V. Description of invention (21) I] Milliwatt. For the display, the interval will be 10 pico-character display, but the micro-optical ferroelectric LCD is near the pixel. The micro-optic display is 1515 near the rear concave optical display. Astigmatism for this particular user is provided for proper astigmatism 1511. The distance between the same components is for the astigmatism times, and the I micro-optical display is provided. The degree of relaxation is. This paper size applies the Chinese National Standard (CNS) A4 specification (210X297 mm) ---

5. Description of the invention (22) 0.009 pen meters or 9 micrometers. Therefore, for a dioptric cylinder, the relaxation thickness will be 0.090 mm or 90 microns. Figure 16 · 0 is an enlarged view of a micro-optical display 1640 located near the eyes 1612 of a user according to an alternative embodiment of the present invention. As can be seen, the astigmatism corrector lens 1610 with the appropriate astigmatism axis setting 1615 (refractive or diffractive lens 1 is aligned with the user's eye 1612, and the diopter indicator 1630 appears on the microcharacter display 1660 The side of the micro-optical display 1640. In this specific embodiment, when a lens is used to correct the astigmatism of the user, any optical element can be used for positive wall astigmatism. Figure 16 · 1 is a mirror millimeter adjustment that provides various sphere diopter settings. Sphere magnification diagram. As can be seen, when the diopter of the sphere magnification increases from 0 to 10, the mirror is adjusted in the range of 0 mm to 丨 mm. The information provided in this figure is calculated based on a specific embodiment Among them, the micro-optical display has a diameter of 6 mm and a length of 7 mm. This mirror adjustment 165 allows the user to correct the spherical correction of the sphere. Therefore, the appropriate combination of astigmatism correction lens 1610, astigmatism axis setting 1615 and spherical magnification adjustment 165 will Allow the user to clearly see the image of the micro-character display 66. Figure 17 is another alternative embodiment of the present invention. As can be seen, the micro-character display 1700 is placed on top of the micro-optical display 1720. Optionally, the micro-character display 1700 can be placed on many other positions of the micro-optical display 1720 or Figure 18.0 is another alternative embodiment of the present invention, in which the micro-character display 1810 is shown with an unnecessary lighting system 180. In this specific embodiment, as discussed above, the surroundings are not used. Light Illumination Micro Letter ^ 二 ______ -25- This paper size applies to China National Standard (CNS) A4 (210X297 mm) 536643

Device 1810 'unnecessary lighting system 18' provides additional light green to illuminate the micro-character display 4 In this case, the micro-optical display can be used in various light situations, ranging from the complete lack of light using the increased light removed from the light source Low, moderate or bright ambient light. Figures 18 · 1-1 8 · 8 provide various positions and configurations of a micro-optical display according to other alternative embodiments of the present invention. As can be seen in Figure 181, the micro-optical display need not be aligned with the user's eyes in a straight axis. In comparison, as seen in Figure 18 · 2, the micro-optical display can be aligned with the eyes of the user in a straight axis. Therefore, in order to adapt to various relative positions between the user's eyes and the micro-optical display, the micro-optical display may include various optical elements or communicate with it by light. Some of these configurations are shown in Figures 18.3-18.8. In FIG. 18.3, three different optical elements are used: 稜鏡 1830, curved mirror 1832, and flat mirror 1831. These three optical elements process and magnify the images produced by the micro 4 · element display 1 8 3 4 so that users can easily see the images. ·· 'Similarly, in Fig. 18 · 4, the large mirror 1840 is tilted to direct the display image of the micro-optical display to the user's eyes (not shown). In Figure 18 · 5, the two mirrors 1840 and 1870 are tilted and are aligned with the display of the micro-optical display. In Figs. 18 · 6, the large mirror 1 860 is used to guide the alignment of the displayed image to the user's eyes. In Fig. 18 · 7, a flat alignment lens 1 870 is used to align the display, and in Fig. 18 · 8, a focusing element 1 880 is used to align the display with the user's eyes. Obviously, according to various embodiments of the present invention, these and many other optical element configurations may be used inside or outside the micro-optical display. -26-

536643

19 and 20 are perspective views before alternative embodiments of the present invention. The light source directly connected to the micro-character display described in the foregoing specific embodiment is not used. The specific embodiment seen in FIG. 19 uses the light source 1910 light-coupled to the glasses i92_ frame ⑼ $ to illuminate the micro-optical display 1912. As can be seen, in order to achieve this, a light source 1910 can be connected to the micro-optical display using an optical fiber cable 1911. In FIG. 20, an alternative embodiment of FIG. 19, a micro-optical display 2022 may be coupled to a frame 2023, as opposed to the lens-on-mounter in FIG. The light source 2020 M was combined to the lens frame 2023 and sent out light along the optical fiber line, so as to be displayed on the micro-character display in the micro-optical display 2022. In this preferred and specific embodiment, the 胄 diaphragm may be notched or grooved, to create an opening for placing a micro-optical display. FIG. 20.1 is an enlarged view of a lens frame 200 and a micro-optical display 2012 according to a preferred alternative embodiment. As can be seen in this specific embodiment, the low-light, display 2012 can be coupled to and supported by the frame 2011. In this embodiment, a display lens (not shown) will be placed in the frame 201! * Near the micro-optical display. When the micro-optical display 2012 is directly mounted to the frame 2011, a display lens can be alternatively mounted to the frame. In other words, the use of ^ can have the required display lens inserted into the frame 2011, and if the regulations are changed later, the original display lens can be easily removed and the new display lens can be placed in the frame 201 1. As previously noted, the corrective lens power of a micro-optical display can be independent of the presence or absence of lenses. Figure 20.2 is a front view of the display lens 2024 that has a notch to fit near a micro-optical display (not shown). -27 National Paper Standard (CNS) A4 for this paper ^^ Public Love)

Order

Line 536643 A7 ________B7 V. Description of the Invention (25) Figure 21 is a side view of another alternative embodiment of the present invention. As can be seen in FIG. 2i, a microprocessor 2170 and a battery 2160 are coupled to the fishing 2115 of the glasses 2100. The micro-optical display 2140 in Fig. 21 has a micro-character display 2130 coupled thereto. In addition, the micro-optical display 2140 is placed inside the display lens 2 1 10. In this specific embodiment, the micro-optical display 21 and 40 protrude from the rear surface 2181 and the front surface 21 82 of the display lens 2110. Figure 22 is a side view of another alternative embodiment of the present invention, in which the micro-optical display 2211 is completely mounted on the inner surface of the display lens 2210. As can be seen, the micro-optical display device 2211 is coupled to a fulcrum 2212 coupled to a mount 2213. The fulcrum ball 2212 is used as a spherical joint of the micro-optical display 2211, and allows the micro-optical display 2211 to be placed at each aligned position relative to the user's eyes 22-14. The micro-optical display 22 η communicates with a mounting base 22 13 having two mounting bolts 22 16. These mounting bolts 22 16 releasably anchor the mount 2213 to the lens and provide the size and power connection of the micro-optical display 2211. Therefore, when the user needs, the micro-optical display 221 丨 can be repositioned to different positions on the lens by pulling out the mounting seat 22 13 and inserting it into the bolt openings at different positions on the surface of the display lens 22 10. 23 is an inner view of glasses according to another alternative embodiment of the present invention. As can be seen, the slide rails 2320 appear at the frame 23 10 of the glasses 2350. The slide rail 2320 serves as a guide for the micro-optical display 23 30 to slide backward and forward therein. After the slide track 2320 is provided to the micro-optical display 2330, the user can more comfortably align and place the micro-optical display 2330 to facilitate viewing. FIG. 24 is a perspective view before another alternative embodiment of the present invention. Here. _ -28- This paper size applies to China National Standard (CNS) Δ4 size (210X297 mm) binding

Line 536643 A7 B7 V. Description of the Invention (26) Two micro-optical displays 2410 are used in the embodiment. As mentioned earlier, two micro-optical displays are provided to project three-dimensional images into the user's field of vision. These two micro-optical displays 2410 can be firmly connected to the extender 2400, and the extender 2400 can be coupled to the hook 2440 of the glasses 2420. The button 2430 may be an integral part of the transceiver 2460, which may be coupled to the hook 2440 of the eyepiece 2420. These buttons 2430 can be used to control the action of the extender 2400; and thus the position of the micro-optical display 2410 between the lens and the user's eyes. Figure 25.0 is a side view of the embodiment shown in Figure 24. The connection of the extender 2400 to the hook 2440 is clearly seen in this figure. In FIG. 25.0, the extender 2400 is coupled to the hook 2440 of the glasses, and the micro-optical display 24 10 is suspended at the rear of the display lens 2500 closest to the glasses 2501. Alternatively, when the micro-optical display 24 10 shown is between the display lens 2500 and the user, it can also be placed at the front of the lens, so that the viewer will see the micro-optical display 2500 through the glasses display lens 2500. If the user views the micro-optical display 2410 through the display lens 2500, the micro-optical display does not need to correct the refractive lens error of the user. In comparison, as discussed above, if the user wants to directly view the image in the micro-optical display 24 10, the micro-optical display 24 10 will need to correct the user's visual impairment. Therefore, if the micro-optical display is behind or adjacent to the lens and the user does not see and display the lens before the user sees the micro-optical display, the micro-optical display needs to correct the refractive error of the user. Figure 25.1 is another alternative specific embodiment of the present invention. In this specific embodiment, instead of using the micro-optical display discussed above, the organic light-emitting device will be used. -29- This paper size applies Chinese National Standard (CNS) A4 specifications (210X297 mm) 536643 A7 __B7 V. Description of the invention 27) The diode display 25 1 0 is coupled to the display lens 25. The outer surface is 5 ^ This display 2510 communicates with the lens 2512 on the inner surface 2516 of the lens 25U by light. The lens 2512 may include an electroactive layer 2513. The advantage of using the organic light emitting diode in this embodiment is that the display can be transparent before being activated. As desired, the display 2510 in FIG. 25.1 is fixed on the surface 2515 of the lens 251i. This can be accomplished through various adhesive techniques that can be used to attach the display 2510 to those skilled in the art. The electroactive diffractive layer 2513 located on the inner surface 2516 of the lens 2511 may be about the same size as the display 2510 or larger than the display 2510. The display 2510 is composed of a conventional fixed focal length lens 2512 in contact with the diffractive layer 2513. When the diffractive layer is driven by an external voltage, it cooperates with the lens 2512 to magnify and project the image to the user's field of vision. FIG. 26 is a rear view of glasses 2630 according to yet another alternative embodiment of the present invention. In this embodiment, the light detector 2610 and the light source 2600 are placed on the user side of the frame 2620. These light sources 2600 and light detector 2610 work vertically to provide various services to those wearing glasses 2630. In use, the light source 2600 directed at the user's eyes is driven. The detector 2610 detects the light from the light source 2600 reflected by the user's eyes. The amount of light reflected back to the detector 2610 when the user's eyes are clear will be different from the amount when the user's eyes are open. Using this information, the glasses determine when the user's eyes are opened and closed. This information is then compared with < traditional information stored in the glasses' microprocessor. This information takes into account normal flashing, but it should not be tolerated

536643 A7 B7 V. Description of the invention (28) Perhaps the eyes and face may be closed as a precursor to sleep. One foreseeable application of this device is when the user is driving. If the user falls asleep while driving, the microprocessor of the glasses of this embodiment may issue an audible alarm or selectively use the strong light emitted by the light source 2600 to wake up the user. Figures 2 to 7 provide diagrams of another alternative embodiment of the present invention. As can be seen in Figure 27, glasses 2795 similar to sports goggles can also be used in the present invention. In FIG. 27, glasses 2795 include a speaker 2770, a battery board 2730, a camera 2780, a microphone 2790, a micro-optical display 2700, an extendable / retractable arm 2785, and a motor 2710. Figure 28 shows an emergency response system according to another alternative embodiment of the invention. As can be seen, the PCCSU 2830 in this alternative embodiment communicates wirelessly with a remote wireless sensor 28 10 located on the body of the user 2800 (as depicted by arrow 2870). PCCSU 2830 also communicates wirelessly with 911 emergency services 2840 (as depicted by Arrow 2860) and glasses 2850 (as depicted by Arrow 2860). In use, if the remote wireless sensor 28 10 senses that the user has a heart problem or may have fallen down, the PCCSU 2830 will detect an appropriate signal and will then take appropriate steps to resolve the situation. If the PCCSU 2830 detects that the user 2800 has fallen down, by issuing an acoustic signal or flashing on the glasses 2820, the PCCSU 2830 will determine whether the user is still conscious. If no response is detected, PCCSU will contact Emergency Services 2840. Similarly, if the PCCSU 2830 receives a warning signal from the user's heart itch, the PCCSU 2830 will immediately contact the emergency service 2 840 via the wireless network. In this case, the wearer will be connected to emergency services such as 911, even if she is unconscious or falls down and cannot contact emergency services. Here the medical instrument -31-This paper size applies to China National Standard (CNS) A4 (210 X 297 mm) binding

Line 536643 A7 B7 V. PCCSU 2830 according to the embodiment of the invention (29) can have global satellite positioning capability and notify the user of the correct position 9 11. FIG. 29 is a front perspective view of a charging data link unit 2930 according to another alternative embodiment of the present invention. In FIG. 29, a charging unit 2930 with a high-speed infrared data link 2950 is shown to charge the PCCSU 2910, glasses 2940, and an additional frame handle 2960, which includes an additional battery. When the user needs to charge the battery in the glasses, or selectively download data to PCCSU or glasses, the user will place the glasses 2940 and PCCSU 2910 on the charging data link unit 2930. Then, as required, the battery located in the entire pair of glasses or only in the spare hook will be changed. Furthermore, appropriate data can be transmitted to PCCSU and glasses through the high-speed data link 2950. Many other embodiments of the invention are also true. For example, a light source in the glasses can be used to silently signal the arrival of incoming messages and emergencies. This alert can then be received visually through a micro-optic display, or audibly through speakers or headphones. Similarly, ICS can incorporate a variety of sensors to provide piloting or other immediate functions. For example, users can use GPS to find out their location. Furthermore, the ICS can communicate with the user's car, so that directions, speeds, or other vehicle warning lights can be displayed by a micro-optical display. In addition, instead of using ICS to find the user's global location, ICS can also be used to find the user's location in a smaller area. For example, before entering a store, a list of items to be purchased can be entered into the PCCSU memory. Then after entering the store, the PCCSU will begin to communicate with the devices in the store or the store that can communicate with the PCCSU. As a result, the paper size between PCCSU and the store installation is -32- This paper size applies to China National Standard (CNS) A4 (210 X 297 mm) binding

line

The father-in-law communication will guide the user to shop, advance in the aisle or go shopping at the department store in a politicized manner. Stomach; 5 Furthermore, when the user approaches each item on the list, there will be approaching the old σ, S, and the user will be warned to obtain the item. , The earphone device attached to the user's ear is used to help the user hear sound information. In addition, the video camera and the & glasses for video and 'or still images to be taken can be full mouth or re-export. Then some images will be transmitted to pccsu, and then transmitted on wireless, · ’· road. The camera in this embodiment can be placed in the glasses or anywhere on it. While the above < has been said to be controlled manually, the various specific examples of the present invention can also be controlled by voice f commands or by other interactive commands. For example, a series of flickers can be detected using a light detector, and then these flickers can control various features of the present invention. This may include controlling micro-optical displays and PCCSU. Similarly, when specific functions are not needed, some glasses or PCCSU can be turned off to save energy. Furthermore, while the above specific embodiments already include spectacles with full display lenses, the spectacles embodied in the present invention are not so limited, because the spectacles may also include multifocal lenses, half-eye structures, and no lenses The minimum construction and any other configuration, in which the glasses can be mounted on the user's face, so that the micro-optical display can be placed in the user's field of vision. In another specific embodiment, the lens contained in the glasses may be an electroactive power lens, which can actively change power and / or hue electrically. In this alternative embodiment, the user can use voice commands or artificial cut

Order

Line -33-

536643 A7 B7 5. Description of the invention (31) Change the power or color of the starting lens. Therefore, the present invention provides a multi-purpose integrated communication system. The specific embodiments disclosed above are examples of various ways that the present invention can be implemented. Those skilled in the art can implement other specific embodiments without departing from the spirit and scope of the invention. Description of component symbols 10 User 1511 Astigmatism axis 11 Glasses 1512 Eye 12 Optical display 1513 Two axis marks 13 Information 1514 Lens 14 Frame 1515 Micro-optical display 15 Hook 1610 Astigmatism corrector lens 17 User eye 1612 Eye 18 Lens 1615 Astigmatism axis setting 20 Microphone 1630 Diopter mark 22 Solar cell 1640 Micro optical display 23 Antenna 1650 Ball magnification adjustment 24 Speaker 1660 Micro character display 25 Transceiver 1700 Micro character display 26 Microprocessor 1720 Micro optical display 27 Battery 1800 Optical lighting system 28 Nose bridge 1810 Micro-character display 29 Lens 1830 Prism 220 Processor, communication, control and storage unit 1831 Plane mirror 221 Microphone 1832 Curved mirror 222 Display function keys 1840 Large mirror 223 On-off power switch 1870 Plane-aligned mirror -34- Paper Zhang scale is applicable to China National Standard (CNS) A4 (210 X 297 mm) 536643 A7 B7

V. Description of the invention (32) 224 Recharge input plug 1880 Focusing element 225 Permanent memory 1910 Light source 226 Fuel cell stack 1911 Fiber optic cable 227 RF transceiver electronic circuit 1912 Micro-optical display 228 VRA adjustment 1915 Frame 229 Processor, communication, Control and storage unit 920 glasses 230 3D stacked chip processor 2020 light source 231 display 2011 frame 232 speaker 2012 micro-optic display 330 processor, communication, control and storage unit 2021 optical fiber cable 331 hook 2022 micro-optical display 332 frame 2023 frame 333 micro Optical display 2024 lens 334 belt 2100 glasses 336 user 2110 display lens 337 glasses 2115 hook 338 arrow 2130 micro-character display 30 full VGA vision 2140 micro optical display 31 micro optical display vision 2160 battery 32 quarter VGA vision 2170 micro Processor 60 Microprocessor 2181 Rear surface 61 Battery 2182 Front surface 62 Micro-optical display 2210 Display lens 64 Directional microphone 2211 Micro-optical display 65 Antenna 2212 Pivot ball 66 Speaker 2213 Mount 67 Small Transceiver 2214 Eye Clear 69 Frame 2216 Mounting Bolt 692 Hook 2310 Frame -35-

536643 A7 B7 V. Description of the invention (33) 693 Frame 2320 Slide rail 70 Glasses 2330 Micro-optical display 71 Battery 2350 Glasses 73 Microprocessor 2400 Extender 74 Micro-optical display 2410 Micro-optical display 75 Antenna 2420 Glasses 76 Microphone 2430 Press New 77 Small Transceiver 2440 Hook 78 Remote Line 2460 Transceiver 79 Memory Storage Unit 2500 TF Lens 810 Button 2501 Eye 815 Microphone 2510 Display 820 Extension 2511 Lens 825 Frame 2512 Lens 830 Transceiver 2513 Electroactive Diffraction Layer 835 Hook 2515 Outer surface 840 Frame 2516 Inner surface 920 Ear 2600 Light source 925 Eye 2610 Light detector 1000 Microphone 2620 Frame 1010 Hook 2630 Glasses 1110 Micro optical display 2700 Micro optical display 1120 Third optical element 2710 Motor 1130 Front 2730 Battery board 1140 Back 2770 Speaker 1150 Micro-character display 2780 Camera 1160 Length 2785 Extendable / retractable arm 1170 Diameter 2790 Microphone 1180 Mark 2795 Glasses-36- This paper size applies to China National Standard (CNS) A4 specifications (210 X (297 mm) 536643 A7 B7 V. Description of the invention (34) 1200 Angled notch 2800 User 1210 Safety skeleton structure 2810 Remote wireless sensor 1230 Support element 2820 Glasses 1240 Hard ring 2830 Processor, communication, control and storage unit 1300 Micro-character display 2840 Emergency service 1310 Second optical element 2850 Glasses 1320 First optical element 2860 Arrow 1420 First optical element 2910 Processor, communication, control and storage unit 1430 LCD array 2930 Charging data link unit 1440 Micro-character Element display 2940 glasses 1480 second optical element 2950 high-speed infrared data link 1490 micro optical display 2960 with additional frame handle binding

Line -37- This paper size applies to China National Standard (CNS) A4 (210X 297mm)

Claims (1)

536643 VI Scope of patent application A8 B8 C8 D8 I / Spectacles worn by a user with one eye, including: a light source mounted to the glasses; a light detector mounted to the glasses; and a microprocessor connected to the light detector , The microprocessor is adapted to analyze the amount of light from the light source reflected from the user's eyes for the light detection state to determine whether the user's eyes are open or closed, and when the user's eyes have been closed for a predetermined period The microprocessor is also adapted to generate a signal to trigger an alarm. 2. The spectacles according to item 1 of the patent application range, wherein the signal triggers an audible alarm. 3. The spectacles according to the scope of patent application, wherein the signal triggers a visible alarm. 4. A spectacle system with a frame and a lens, comprising: a micro-optical display mounted on S glasses, the micro-optical display device having a removable safety frame. 5. The spectacle system according to item 4 of the patent application, wherein the micro-optical display is mounted to the frame. 6. The spectacle system according to item 4 of the patent application, wherein the micro-optical display is mounted to the lens. 7. The spectacles system according to item 4 of the patent application, wherein the micro-optical display comprises a liquid crystal display which can display a series of digital elements. 8. The spectacle system according to item * of the patent application scope, further comprising: a microphone, which is mounted on the spectacles; A first microprocessor, mounted on the glasses and associated with the micro-optic display 536643 A B c D 6. Scope of patent application; and a power source coupled to the micro-optical display and the first microprocessor, the structure of which is to supply power to the micro-optical display and the first microprocessor. 9. If the spectacles system of item 8 of the patent application still includes ... a wearable unit supported by the user's body; a second microprocessor located in the wearable unit, the second microprocessor And the first microprocessor are in wireless communication; and a storage system is located in the wearable unit and is connected to the second microprocessor. 10. The spectacle system according to item 8 of the patent application scope further includes: a reflective light sensor mounted to the frame. 11. An integrated communication system comprising: a head mounting bracket; a speaker mounted to the bracket; a lens mounted to the bracket; a micro-optical display supported by the bracket, the micro-optical display having a micro-character Meta display; a first microprocessor, supported by the head mounting bracket, connected to the micro-optical display; a storage device, connected to the first microprocessor; a wireless communication device, connected to the first A microprocessor; an inaudible warning device coupled to the head mount. 12. If the integrated communication system of the 11th scope of the patent application, the micro-optics _-39 -_._ This paper size applies to China National Standard (CNS) A4 specifications (210X 297 mm) 536643 AB0D The range display includes a removable safety frame. 13. The integrated communication system according to item 11 of the patent application scope, further comprising: a wearable unit supported by the user's body; a second microprocessor located in the wearable unit, and the second microcomputer The processor is in wireless communication with the first microprocessor; and a storage system is located in the wearable unit and is in communication with the second microprocessor. .14. If the integrated communication system of item 13 of the patent application scope further includes a body-mounted sensor connected to the second microprocessor. 15. For example, the integrated communication system of item 13 in the scope of patent application, wherein the structure of the second microprocessor can wirelessly communicate with the emergency support service. 16. An integrated communication system for a user, comprising: glasses with a hook and a frame; a micro-optical display mounted to the glasses; a first wireless transmitter mounted to the user; wherein the first A wireless transmitter is adapted to contact emergency support services, a first wireless receiver is installed to the glasses; a second wireless receiver is installed to the user; a second wireless transmitter is installed to the glasses; a microtone A power source is mounted to the glasses; a power source is mounted to the glasses and is in electrical communication with the first wireless receiver; and a power source is supported by the user and is in electrical communication with the second wireless receiver. _-40 -__ This paper size applies to China National Standard (CNS) A4 (210 X 297 mm)