KR102086855B1 - Melt-Bonding type Touch Device - Google Patents

Abstract

BACKGROUND OF THE INVENTION 1. Field of the Invention The present invention relates to a fusion-type touch device, comprising: a touch device configured to touch N (N≥3) contact points on a touch pad of a designated target device that supports multi-touch, and is made of a conductive material N touch parts having a contact surface larger than an area and a touch part embedded or fixed on one side of the conductive material, and the N fusion module having a fusion face formed on the other side and the touch surface of the target device to which the contact surfaces of the N touch parts are designated. A fixed frame and the fixed frame for fusing the fusion surfaces of the N fusion modules to a designated position so as to form and design a designated geometric structure including a predetermined separation distance relationship and an angular relationship on a secondary coordinate plane corresponding to the pad to be touched And a module configured to be gripped by a user's hand, wherein the design geometry is the N touches. And a combination of a separation distance relationship and an angle relationship between the center points formed by a line segment connecting the center points on each contact surface of the two, wherein the separation distance, the secondary touch to the close touch by each contact surface of two or more touch parts And a distance greater than or equal to a minimum discrimination recognition distance for distinguishing and recognizing different touch points on a coordinate plane, wherein the touched geometry includes a specific program driven by a target device having a touchpad to which the N touch units are touched. It is used as an authentication value to authenticate performance of a specified operation.

Description

Fusion-type touch device {Melt-Bonding type Touch Device}

The present invention provides a touch device that touches N (N≥3) contact points on a touch pad of a designated target device that supports multi-touch, wherein the contact surface is formed of a conductive material and has a contact surface of a predetermined area or more. Second coordinate plane corresponding to the touch pad of the target device in which N welding modules having a fusion surface formed on one side of the touch unit and the conductive material and the fusion surface is formed on the other side, and the contact surfaces of the N touch units are designated A fixed frame for fusion of the fusion planes of the N fusion modules at a specified position so as to form and design a designated geometric structure including a predetermined separation distance relationship and an angular relationship thereon; And a shaping module that is forged, wherein the geometry of the design comprises a center point on each contact surface of the N touch parts. And a combination of a separation distance relationship and an angular relationship between center points formed by the connected line segments, wherein the separation distance includes a close touch by each contact surface of two or more touch units to different touch points on the secondary coordinate plane. And a distance greater than or equal to a minimum discrimination recognition distance for discriminating and recognizing, wherein the touched geometry has an authentication value for authenticating performance of a specified operation of a specific program driven in a target device having a touchpad to which the N touch units are touched. It relates to a fused touch device used as.

Recently, as a smartphone is activated, a capacitive touch input unit is provided in a wireless terminal of a user. The capacitive touch has a feature of providing a precise touch input by a finger touch using static electricity accumulated in a human body without compromising image quality compared to a conventional pressure sensitive touch.

In particular, a capacitive touch input unit mounted on a wireless terminal of a user including a smartphone supports a multi-touch based on a finger touch. Multi-touch is a technology for recognizing two or more touch points at a specific point in time, and provides a variety of intuitive input functions based on sequential multi-touch according to a specified order, change of intervals or movement trajectories of touch points in a multi-touch state.

Meanwhile, the conventional multi-touch is used only for the user's intuitive input function because it operates based on the user's finger touch, and has a problem that cannot be applied to other applications.

An object of the present invention for solving the above problems, in the touch device for touching N (N≥3) contact points on the touch pad of the designated target device that supports multi-touch, the conductive material, N and a fusion module having a contact surface formed of a contact surface having a predetermined area or more and a contact portion of a conductive material is embedded or fixed and a fusion surface is formed on the other side and a contact surface of the N touch portions is designated. A fixed frame for fusing the fusion surfaces of the N fusion modules to a designated position so as to form and design a designated geometric structure including a predesigned separation distance relationship and an angular relationship on a secondary coordinate plane corresponding to the touch pad of the device; A fin module connected to the fixed frame and formed to be gripped by a user's hand, wherein the design geometry is A combination of a distance relationship between the center points and an angle relationship formed by a line segment connecting the center points on each contact surface of the N touch parts, wherein the separation distance is a close touch by each contact surface of the two or more touch parts. Includes a distance greater than or equal to a minimum discrimination recognition distance for distinguishing and identifying different touch points on the secondary coordinate plane, wherein the touched geometry is driven in a target device having a touchpad to which the N touch units are touched. It is to provide a fusion-type touch device that is used as an authentication value for authenticating the execution of a specified operation of a specific program.

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The fusion-type touch device according to the present invention is a touch device that touches N (N≥3) contact points on a touch pad of a designated target device that supports multi-touch, and is made of a conductive material and has a predetermined area. The touch pad of the target device in which the N touch parts having the contact surfaces formed therein and the touch unit are embedded or fixed on one side of the conductive material, and the N welding module having the fusion plane formed on the other side and the contact surfaces of the N touch parts are designated. A fixed frame and the fixed frame for fusing the fusion surfaces of the N fusion modules at a designated position so as to form and design a designated geometric structure including a predetermined separation distance relationship and an angular relationship on a secondary coordinate plane corresponding to And a module configured to be gripped by a user's hand, the design geometry of which comprises: A combination of a separation distance relationship and an angular relationship between center points formed by a line segment connecting a center point on a contact surface, wherein the separation distance includes a close touch by each contact surface of two or more touch units in the secondary coordinate plane. A distance greater than or equal to a minimum discrimination recognition distance for distinguishing and recognizing different touch points on the touch screen, wherein the touched geometry includes a specified operation of a specific program driven in a target device having a touchpad to which the N touch units are touched Characterized in that it is used as an authentication value for authenticating the performance.
In the fusion-sensitive touch device according to the present invention, the contact surface may include a contact area equal to or greater than the minimum touch recognition area recognizable through the target device.
In the fusion-sensitive touch device according to the present invention, the fusion module is characterized in that it is provided with a buried groove in which the touch portion is embedded or a fixing surface to which the touch portion is fixed.
In the fusion-type touch device according to the present invention, the touch unit is characterized in that an electrical circuit is formed by the fin module and a conductive material via the fusion module and the fixing frame.
In the fusion-sensitive touch device according to the present invention, the fusion-touch device according to claim 1, further comprising a push-in implementing unit for implementing a touch feeling in which the N touch units are simultaneously touched by the touch pad.
In the fusion-sensitive touch device according to the present invention, the push-in implementation, the sliding part for sliding the fixed frame and the shock module by a predetermined distance by the force applied to the touch pad or the contact surface in the vertical direction by the shock module and The elastic frame is characterized in that it comprises one or more of the elastic portion for restoring the fixed frame and the shock module to the state before sliding as the force pull is released.
The fusion-type touch device according to the present invention is a fusion-type touch device in which N (N≥2) points are touched on a touch pad of a designated target device that supports multi-touch. N touch parts having a contact surface of at least an area, N welding modules in which the touch part is embedded or fixed on one side of the conductive material, and a fusion surface is formed on the other side, and the contact surfaces of the touch pads are formed on the touch pad. And a fixing frame for fusion welding the fusion surface of each fusion module at a designated position so as to touch and make a designated geometry on the secondary plane, and a 쥠 module connected to the fixing frame and being held by a user's hand.

According to the present invention, the contact surface may include a contact area equal to or larger than a minimum touch recognition area recognizable through the target device, and may have a designated geometry.

According to the present invention, the touch portion may be made of a conductive low elastic material that absorbs the impact amount at the touch point, may be made of a designated geometry corresponding to the contact surface, and has a low elasticity of the conductivity absorbing the impact amount at the touch point. It may be made of a material.

According to the present invention, the fusion module may be made of a material that can be fused to the fixing frame, and may include a recess in which the touch part is embedded or a fixing surface in which the touch part is fixed, and a protrusion for the fusion process. can do.

According to the present invention, the fixing frame may fusion-fix the N fusion modules so that simultaneous touch (Simultaneous Touch) has a specified geometric structure on the second plane of the touch pad and has a predetermined geometry, and soldering Based on the welding or welding (Welding) based fusion can be fixed by welding the N fusion modules. The fixing frame may be fusion-fixed to the N welding modules at a designated position through at least one of a chip mounter, a surface mounter component, and an electronic component device.

According to the present invention, the fusion-type touch device may include the fusion module, the fixed frame and the shock module made of a conductive material, or the fusion module, the fixed frame and the shock module may be coated with a conductive material. Meanwhile, the fusion-type touch device may include at least one of the fusion module, the fixed frame, and the fin module made of a non-conductive material, and may include a charge charging part electrically connected to the touch part of the conductive material in the touch device. . The charge charger may include at least one of a battery and a supercapacitor.

According to the present invention, the fusion-type touch device may further include a housing part surrounding the fixed frame in which the N fusion modules in which the N touch parts are embedded or fixed are fused and fixed.

According to the present invention, the fusion-type touch device may further include a push-in implementing unit for implementing a touch feeling in which N touch units are simultaneously touched by the touch pad by a push force.

According to the present invention, the push-in implementation is formed between the fixed frame and the shock module, and sliding the fixed frame and the shock module by a predetermined distance by a force applied in the vertical direction to the touch pad or the contact surface by the shock module. At least one of a sliding part and an elastic part for restoring the fixed frame and the shock module to a pre-sliding state as the pressing force is released.

According to the present invention, the press-in implementation part is formed between the fixed frame and the housing part when the housing part surrounding the fixed frame in which the N fusion modules in which the N touch parts are embedded or fixed is fusion-fixed is provided, Sliding part for sliding the fixed frame and the housing part by a predetermined distance by a pressing force applied in the direction perpendicular to the touch pad or the contact surface, and elasticity for restoring the fixed frame and the housing part to the state before sliding as the pressing force is released Among them, it may include one or more.

According to the present invention, the press-in implementation is provided between the housing part and the 쥠 module when the housing part surrounding the fixed frame in which the N fusion modules in which the N touch parts are embedded or fixed is fusion-fixed is provided, A sliding part for sliding the housing part and the module by a pressing force applied in a direction perpendicular to the touch pad or the contact surface by a predetermined distance, and restoring the housing part and the module to the state before sliding as the pressing force is released. One or more of the elastic portion to make.

According to the present invention, the stamping implement part is formed on one side of the fixed frame and the shock module, the contraction force is contracted by a predetermined distance by the force applied in the vertical direction to the touch pad or the contact surface by the shock module and the pressure attraction force This release may include an elastic portion that is restored to a state before contraction.

According to the present invention, the fusion-type touch device may include an electronic module that outputs sound data encoded with a dynamically generated authentication code. The electronic module may include a code generation unit for dynamically generating an authentication code having a specified structure according to a specified code generation rule, a code processing unit for encoding the generated authentication code according to a specified sound coding rule, and at a time when the touch device is pressed in. A code output unit may be configured to output sound data encoded with the authentication code. On the other hand, the electronic module may further include a pressure checking unit for checking whether the touch device is pressed, and in this case, the code output unit may output the sound data when the pressure of the touch device is confirmed through the pressure checking unit. The sound data may include at least one of a dual tone multi frequency (DTMF) signal in an audible frequency region corresponding to the authentication code, and a sound code in which the authentication code is encoded in a bit string form in a designated sound.

According to the present invention, the fusion-type touch device may include an electronic module for transmitting a dynamically generated authentication code through proximity wireless communication. The electronic module may include a code generator configured to dynamically generate an authentication code having a specified structure according to a specified code generation rule, and the generated authentication through the proximity wireless communication at a time when the touch device is pressed or the proximity wireless communication is activated. It may be provided with a code sending section for sending the code. On the other hand, the electronic module may further include a pressure checking unit for checking whether the touch device is pressed, and in this case, the code sending unit may transmit the authentication code when the pressure of the touch device is confirmed through the pressure checking unit.

According to the present invention, the fusion-type touch device may include an electronic module for transmitting a unique code stored therein through proximity wireless communication. The electronic module may include a code checking unit for confirming a stored unique code and a code sending unit for transmitting the identified unique code through the proximity wireless communication at a time when the touch device is pressed or the proximity wireless communication is activated. Can be. On the other hand, the electronic module further comprises a stamping confirmation unit for confirming that the touch device is pressed, in this case, the code sending unit may send out the unique code when the stamping of the touch device is confirmed through the stamping confirmation unit.

According to the present invention, a user possessing the target device by providing a designated operation or service through a program of the target device through a touch device that touches a specified number of touch points to a touchpad of the target device with a specified geometry. Has the advantage of initiating or providing a specified service (for example, visiting, moving, purchasing, payment, etc.) at a designated location or place, or to perform various services corresponding thereto.

1 is a diagram illustrating a configuration of a touch device according to an embodiment of the present invention.
2 is a view showing the structure of a fusion module according to an embodiment of the present invention.
3 is a diagram illustrating a stamping of a touch device according to an exemplary embodiment of the present invention.
4A to 4F are diagrams illustrating a design variation of a touch device according to an embodiment of the present invention.
5 is a diagram illustrating a configuration of an electronic module embedded in a touch device of the present invention.
6 is a diagram illustrating a process of outputting sound data encoding a dynamically generated authentication code according to an embodiment of the present invention.
7 is a diagram illustrating a process of transmitting an authentication code through proximity wireless communication according to an embodiment of the present invention.
8 is a diagram illustrating a process of transmitting a unique code through proximity wireless communication according to an embodiment of the present invention.

Hereinafter, with reference to the accompanying drawings and description will be described in detail the operating principle of the preferred embodiment of the present invention. However, the drawings and the following description shown below are for the preferred method among various methods for effectively explaining the features of the present invention, the present invention is not limited only to the drawings and description below.

In addition, in the following description of the present invention, if it is determined that a detailed description of a related known function or configuration may unnecessarily obscure the subject matter of the present invention, the detailed description thereof will be omitted. Terms to be described later are terms defined in consideration of functions in the present invention, which may vary according to intentions or customs of users or operators. Therefore, the definition should be made based on the contents throughout the present invention.

As a result, the technical spirit of the present invention is determined by the claims, and the following examples are one means for efficiently explaining the technical spirit of the present invention to those skilled in the art to which the present invention pertains. It is only.

1 is a diagram illustrating a configuration of a touch device 100 according to an embodiment of the present invention.

In more detail, FIG. 1 illustrates that the touch pad 300 is touched by a designated geometry capable of recognizing N (N≥2) points on a second plane of a touch pad 300 that supports multi-touch. The configuration of the fusion-sensitive touch apparatus 100 for processing a target device having a predetermined geometry to recognize the N points of the specified geometry to perform a specified operation, the general knowledge in the technical field to which the present invention belongs If you have a person, various embodiments of the configuration of the touch device 100 (e.g., some components are omitted and / or replaced and / or separated and / or combined) by referring to and / or modifying the present Figure 1 All embodiments of the present invention can be inferred, but the present invention includes all the implementation methods inferred, and the technical features of the present invention are not limited only to the implementation method shown in FIG. Should you.

The target device includes a touch pad 300 that supports multiple touches, and recognizes N points touched on the touch pad 300 and at the same time recognizes a pattern of its geometry to perform a specified operation. As a generic term, preferably, a wireless terminal such as a smart phone, a mobile phone, a tablet PC, etc. having a touch pad 300 capable of recognizing the touch of the touch device 100, a computer, a laptop, etc. provided with or connected to the touch pad 300. Including a wired terminal, the affiliated terminal, such as a CAT, POS terminal or the like provided with the touch pad 300, any device includes any.

The touch pad 300 is a generic term for an input module supporting multiple touches capable of recognizing N points touched by the touch device 100, and preferably includes a capacitive touch pad 300 supporting multiple touches. do. However, the touch pad 300 is not limited to the capacitive touch pad 300, and if the touch pad 300 recognizes N points touched through the touch device 100 of the present application, any touch pad 300 may be used. It is clear that there is nothing wrong with it. For example, the touch pad 300 of the present invention can be implemented in the form of a pressure-sensitive touch pad 300 according to the intention of those skilled in the art, as well as all kinds of derivation by applying or modifying it in addition to the capacitive / pressure sensitive type. It is clear that it includes a touch input configuration. Hereinafter, for convenience, the touch pad 300 will be described as a capacitive touch pad 300 supporting multiple touch.

According to the exemplary embodiment of the present invention, the target device recognizes at least two different touch points to distinguish two or more different touch points touched on the touch pad 300 as different touch points. The distance can be set. The minimum discrimination recognition distance may be set in units of a length of a designated metrology type or as a coordinate distance on a designated coordinate system set in the touch pad 300. For example, when the minimum distinguished recognition distance of the touch pad 300 is set to 1.5 cm or more, the touch pad 300 does not distinguish between different touch points even if two or more touch inputs are recognized at a distance less than 1 cm. Without a single touch point.

According to the exemplary embodiment of the present invention, the target device may set the maximum number of M (M≥2) multiple touches that can be multi-recognized for a plurality of touch points touched on the touch pad 300. For example, when the maximum number of multiple touches of the touch pad 300 is set to 16 or less, the touch pad 300 may recognize up to 16 multiple touch points through the touch pad 300, The seventeenth multi-touch point may not be recognized.

According to the exemplary embodiment of the present invention, the target device may set a minimum touch recognition area that can be recognized as a valid touch input for one touch point. Preferably, the target device recognizes a valid touch input when the area of the touch point touched on the touch pad 300 is greater than or equal to the minimum touch recognition area. Otherwise, the target device does not need to recognize a valid touch input. . The minimum touch recognition area may be set in an area unit of a designated metrology type or in a coordinate area on a designated coordinate system set in the touch pad 300.

According to an embodiment of the present disclosure, the touch pad 300 may recognize a geometry corresponding to a specified shape or shape, in addition to supporting M multiple touches. In particular, since the capacitive touch pad 300 recognizes a touch by sensing a change in charge by static electricity, it is possible to recognize a capacitive surface touch in addition to the capacitive point touch. When the touch pad 300 supports the capacitive surface touch, the capacitively touched surface may have a geometric structure corresponding to a specified shape or shape. In this case, the target device may recognize not only the geometry formed by the N touch points touched on the touch pad 300 but also the geometry corresponding to the shape or shape of the touch surface by the surface touch recognition. Not only the geometry formed by the touch points but also the geometry of each touch surface may be recognized and used as an authentication value (for example, a contact surface pattern authentication value or an authentication value encoded in a pattern of the contact surface) for performing a specified operation. Meanwhile, when the target device recognizes the geometry of the touch surface touched by the touch pad 300, the number of touch surfaces of the touch device 100 may be one (N = 1), in which case the touch The pad 300 may be older and may not support multiple touches. In particular, when the target device recognizes the geometry of the touch surface touched by the touch pad 300 and the number of touch surfaces of the touch device 100 corresponding thereto is one, the target device recognizes the geometry of the touch surface. It is possible to use as an authentication value (for example, the contact surface pattern authentication value or the authentication value encoded in the pattern of the contact surface) for performing the specified operation, and it is apparent that the present invention also includes such an implementation method. Hereinafter, for convenience, a feature of the present invention will be described based on an implementation method of recognizing the geometry of the N points and using the authentication value. However, only the feature of the present invention recognizes the geometry of the N points. If the target device is able to recognize the geometry of the touch surface touched by the touchpad 300, the method of the present invention naturally includes the geometries of N touch points, It is clear that implementation methods of recognizing geometry together can be applied. In addition, when the target device recognizes the geometry of the touch surface touched by the touch pad 300 as described above, the present invention has one number of touch surfaces touched by the touch pad 300 and only recognizes the geometry of the touch surface. It will be apparent that an implementation method using a value (e.g., a contact surface pattern authentication value or an authentication value encoded in the pattern of the contact surface) may also be applied.

Meanwhile, the target device may include a sound input unit 515 for receiving a sound signal, and have a function of receiving the sound signal and recognizing a code encoded therein. In this case, the touch device 100 may include an electronic module 500 for dynamically generating and encoding encoded authentication codes having a specified structure according to a specified code generation rule. The electronic module 500 of the touch device 100 outputs the encoded sound data in the form of a sound signal to the dynamically generated authentication code at a designated time point, and the target device is the electronic module 500 of the touch device 100. ) Can receive the sound signal output from the) and recognize the code encoded therein. In this case, N points that are touched by the touch pad 300 of the target device through the touch device 100 may have a first authentication value (=) that causes a specific program 540 included in the target device to perform a specified operation. The authentication code encoded in the sound data may perform a function of a second authentication value (= dynamic authentication value) that causes the target apparatus to perform a specified operation.

In addition, the target device is provided with a proximity communication module (for example, NFC module that operates in accordance with Near Field Communication (NFC) based proximity wireless communication standard, etc.) for processing proximity wireless communication, and through the proximity communication module and the device of the near distance; It can handle proximity wireless communication. In this case, the touch device 100 may include an electronic module 500 that dynamically generates an authentication code having a specified structure according to a designated code generation rule and transmits the generated authentication code through the proximity wireless communication. The electronic module 500 of the touch device 100 transmits the dynamically generated authentication code through the proximity wireless communication at a designated time point, and the target device transmits from the electronic module 500 of the touch device 100. Received authentication code. In this case, N points that are touched by the touch pad 300 of the target device through the touch device 100 may have a first authentication value (=) that causes a specific program 540 included in the target device to perform a specified operation. A fixed authentication value), and the authentication code may perform a function of a second authentication value (= dynamic authentication value) for causing the target device to perform a specified operation.

Meanwhile, when the proximity communication module is provided in the target device, the electronic module 500 of the touch device 100 may transmit a unique code stored in an internal memory through the proximity wireless communication. The unique code transmitted from the electronic module 500 of the touch device 100 may be received. At this time, the unique code received through the proximity wireless communication to the target device performs a function of a second authentication value (= unique authentication value) that allows the target device to perform a specified operation, or is provided in the target device Recognizes N points touched by the touch pad 300 among a plurality of programs 540 and drives a specific program 540 to perform a specified operation (eg, runs in a state where the program 540 is installed). Or as a command value for activating (eg, transitioning to an available state while the installed program 540 is running or running in the background).

According to an exemplary embodiment of the present invention, the target device may include both the sound input unit 515 and the proximity communication module. In this case, either one of the sound input unit 515 and the proximity communication module may selectively provide a second authentication value. Can be used to receive input. Alternatively, the sound input unit 515 may be used to receive a second authentication value (eg, a first authentication code encoded in sound data), and the proximity communication module may be received through a third authentication value (eg, through proximity wireless communication). Second authentication code) can be used for input. Alternatively, the proximity communication module is used to receive a second authentication value (eg, a first authentication code received through proximity wireless communication), and the sound input unit 515 is encoded to a third authentication value (eg, sound data). It may be used for the purpose of receiving the first authentication code). Alternatively, the proximity communication module may be used to receive a command value for driving or activating a specific program 540 of the target device, and the sound input unit 515 may include a second authentication value (eg, an authentication code encoded in sound data). ) Can be used to receive input.

Touch device 100 according to the present invention, the N-touch unit 105 made of a conductive material and formed with a contact surface of a predetermined area or more is embedded or fixed to the N fusion module 110 to designate the fixed frame 120 As a fusion-type touch device 100 fabricated by fusion at a position, FIG. 1 illustrates a preferred embodiment of the fusion-type touch device 100. That is, the embodiment of FIG. 1 is just one of the simplest implementations of the embodiments of the numerous fusion-sensitive touch devices 100 that can be variously modified, and those skilled in the art to which the present invention pertains, Various fusion-sensitive touch apparatus 100 may be embodied in the form of a modification of the present invention with reference to FIG. 1, but the present invention includes the various modified embodiments as claimed. Hereinafter, the configuration of the fused touch device 100 of the present invention will be described based on the embodiment shown in FIG.

Referring to FIG. 1, the touch device 100 includes N touch parts 105 made of a conductive material and formed with a contact surface of a predetermined area or more, and the touch part 105 is embedded in one side of the conductive material. N fusion modules 110 fixed to each other and the fusion surface formed on the other side, and the contact surface of each of the touch unit 105, each touched to form a specified geometry on the secondary plane of the touch pad 300 And a fixing frame 120 for welding the fusion surface of the welding module 110 to a designated position, and a shock module 145 connected to the fixing frame 120 and formed to be gripped by a user's hand. If the touch device 100 including the N touch unit 105, the fusion module 110, the fixed frame 120 and the shock module 145, the claims of the fusion-type touch device 100 of the present invention It is obvious that it belongs.

Melt-Bonding of the present invention is a generic term for an adhesive method in which a designated material is melted and preferably includes at least one of soldering based welding and welding based welding. The soldering-based fusion is a method of melting and fusing the solder 115 (= solder, an alloy of lead and tin), and preferably, a method of melting and melting solder balls and a method of melting and soldering solder wires. The fusion module 110 and the fixing frame 120 are preferably made of a conductive metal material that can be fused by the solder 115. The welding-based welding is a method of joining two materials of the same or different types in a melted or half-melted state, preferably by using heat (eg, welding), by using pressure (eg, welding), and It includes a method using all the pressure, for this purpose, the fusion module 110 and the fixed frame 120 is preferably made of a conductive metal material, a conductive plastic material that can be fused by heat and / or pressure. For convenience, the drawing 1 is shown based on soldering based fusion, but the present invention is not limited thereto.

According to an exemplary embodiment of the present invention, a chip mounter and a surface mounter for fusion fixing N welding modules 110 to which N touch units 105 are fixed at a designated position of the fixing frame 120 are fixed. (Surface Mounter-Component), at least one device of the electronic component device may be used, and operates the same as the operation of the chip mounter, surface mounter, electronic component device, etc., but instead of the semiconductor chip, the touch unit 105 A separate mounting device for fusing the fixed fusion module 110 to the fixed frame 120 may be used. Hereinafter, for the sake of convenience, a device used to manufacture the touch device 100 of the present invention will be collectively described as a "mount device".

According to the exemplary embodiment of the present invention, the number 'N' of the touch unit 105 or the fusion module 110 and the N touch units 105 may be formed in order to manufacture the fused touch device 100. The fusion position to fuse the N welding modules 110 to which the touch unit 105 is fixed on the fixed frame 120 is designed (or determined) based on the geometry. Depending on the implementation method, the geometry of each touch unit 105 or contact surface may be further designed (or determined) or the geometry of fusion module 110 or fusion surface may be further designed (or determined).

According to the exemplary embodiment of the present invention, the design for manufacturing the fusion-type touch device 100 includes a contact area of the touch surface of the N touch units 105 that is greater than or equal to the minimum touch recognition area that can be recognized by the target device. Condition, the number 'N' of the touch unit 105 or the fusion module 110 is within a maximum number of multiple touches of the target device, and the N touch units 105 or the fusion modules 110 are the targets. Any drawing that satisfies one or more specified conditions among the conditions spaced over the minimum distinguished recognition distance of the device may be any drawing.

According to the drawing, N touch units 105 are manufactured. Preferably, the N touch units 105 are made of a conductive material, and a contact surface having a minimum touch recognition area is formed on one surface thereof, and a surface to be embedded or fixed to the fusion module 110 is formed on the other surface thereof. do.

N fusion modules 110 are manufactured according to the above drawings. Preferably, the N welding modules 110 are made of a conductive material that can be fused, and a buried groove or fixing surface having a geometric structure for fixing the touch unit 105 is formed at one side. When the groove is provided in the fusion module 110, the touch unit 105 is fixed to the fusion module 110 in the form of being embedded in the groove of the fusion module 110, the fusion module 110 When the fixing surface is provided in the touch unit 105 may be fixed to the fusion module 110 by an adhesive method.

Data of the drawings of the N touch units 105, data of the drawings of the N fusion modules 110, and a design of the fusion module 110 with the touch unit 105 embedded or fixed And the N touch unit 105 or the N fusion module 110 within a specified area of the fixed frame 120 to be spaced apart from each other by a minimum discrimination recognition distance or more and adhered to within the maximum number of multiple touches. Among the data for, data for at least one drawing is input to the mounting apparatus.

The mounting apparatus of the fixing frame 120 through at least one of the soldering method fusion process or the welding method fusion process of the fusion module 110, the embedding or fixing the touch unit 105 according to the input pattern It can be fused at a designated position (e.g., fusion position according to the drawing input to the mounting apparatus).

The fusion module 110 and the fixing frame 120 may be any material as long as the material is fusionable according to a designated fusion method. Even if it is not a conductive material, it is possible (however, in this case, the charge filling unit is provided inside the touch device 100). For example, the fusion module 110 may be a conductive metal material, and the fixing frame 120 may be a PCB.

The touch unit 105 is a generic term for a component that touches the touch pad 300 of the target device. Preferably, the N touch units 105 are simultaneously touched by the touch pad 300 of the target device, as if painting. . Simultaneous touch of the present invention is distinguished from conventional multi-touch in that N touch portions 105 are touched at the same time as if they are painting.

The touch unit 105 is made of a conductive material capable of capacitive touch. The touch unit 105 is generated by the amount of impact at the time of touching the touch pad 300 of the target device (for example, by pressing force pressing the touch device 100 on the touch pad 300 of the target device as if painting). In order to protect the touch pad 300 from the impact amount, it is preferable that the impact amount is made of a flexible, low elastic material that absorbs the impact amount within a predetermined range. For example, the touch unit 105 may be made of a conductive rubber material, a conductive silicon material, a conductive plastic material, and the like, which absorb the impact amount at the touch point.

The number N of the touch units 105 may be within the maximum number of multiple touches of the target device. According to an embodiment, the number N of the touch units 105 may exceed the maximum number of multiple touches. In this case, before or during the touch device 100 is touched by the touch pad 300 of the target device, the number N of the touch units 105 may be selected within a maximum number of multiple touches. 100 may include an adjustment module (not shown) for adjusting the number N of the touch units 105.

N contact surfaces formed by the N touch units 105 form N touch points (for example, a center point of each contact surface) in contact with the touch pad 300 of the target device, and the N contact surfaces Touch points form the specified geometry. For example, the geometry formed by the N touch points may be implemented in the form of an N-angle consisting of N vertices or in the form of a plurality of vector values connecting the N touch points, respectively.

The contact surface of the touch unit 105 preferably includes a contact area that is greater than or equal to the minimum touch recognition area that can be recognized by the target device. In this case, the contact surface may be variously modified, for example, a hemispherical shape or a protrusion formed shape.

According to the embodiment of the present invention, the contact surface of the touch unit 105 may be manufactured in a designated geometry corresponding to a specified shape or shape, preferably the shape or shape of the touch unit 105 is also the contact surface. It can be fabricated with a specified geometry corresponding to. In particular, when the target device is able to recognize the geometry of the touch surface recognized through the touch pad 300, manufacturing the contact surface to the designated geometry may cause the designated device to contact the target device. It may be included in an authentication value (eg, contact surface pattern authentication value) for controlling the operation of the provided program 540. For example, the geometry of the contact surface may include a logo shape or shape of a brand using the touch device 100. Even if the target device cannot recognize the geometric structure of the contact surface and can only recognize the touch surface as a touch point, the touch surface may be manufactured in the same geometry as the logo of a designated brand so that the destination of the touch device 100 may be used. It can also be made known to the user.

Meanwhile, when the target device can recognize the geometry of the touch surface recognized through the touch pad 300, the geometry of the contact surface of the touch unit 105 may be a 1D barcode or a 2D barcode (eg, It can also be made of a geometric pattern of code patterns, such as QR code-based two-dimensional barcode, data matrix-based two-dimensional barcode, maxicode-based two-dimensional barcode, PDF-417-based two-dimensional barcode. In particular, when the geometry of the contact surface of the touch unit 105 is formed of a geometry of a code pattern such as a one-dimensional barcode or a two-dimensional barcode, it is possible to encode a code assigned to the contact surface. The code may be included in an authentication value (eg, an authentication value encoded in a pattern of a contact surface) for controlling the operation of the program 540 included in the target device. If the geometry of the contact surface of the touch unit 105 is a code pattern, the number N of the touch units 105 may be '1', and the present invention is not limited thereto.

The fusion module 110 is a generic term for a configuration in which the fixing frame 120 is fused according to a specified fusion method, and is implemented in a form having a recess and a fusion surface as shown in FIG. As shown in b), the groove and the fusion surface is provided and the protrusion 200 is formed in the fusion surface direction, or as shown in (c) of FIG. 2, the groove and the fusion surface are provided and the vertical direction of the fusion surface The protrusion 200 may be formed, and in this case, the fixing frame 120 may be provided with a recess in which the protrusion 200 in the vertical direction is inserted. Alternatively, as shown in (d) of FIG. 2, the fixing surface and the fusion surface are provided, or as shown in FIG. 2 (e), the fixing surface and the fusion surface are provided, and the protrusion 200 is formed in the fusion surface direction. 2 or (f), the fixing surface and the fusion surface may be provided, and the protrusion 200 may be formed in the vertical direction of the fusion surface. In this case, the fixing frame 120 may include the A groove portion into which the protrusion 200 in the vertical direction may be inserted may be provided.

The fixed frame 120 is a generic term for a frame in which the N welding modules 110 are fused and fixed. Preferably, the N contact surfaces formed by the N touch units 105 correspond to the touch pad 300 of the target device. The N fusion modules 110 in which the N touch units 105 are embedded or fixed are fusion-fixed so as to form a designated geometry on the second plane and simultaneously touch the same. Although FIG. 1 shows that the shape of the fixed frame 120 is made of a flat plate as shown in FIG. 1 (b) or (c), the shape of the fixed frame 120 is not limited thereto.

The module 145 is a generic term for a module held by a user's hand to touch the touchpad 300 of a target device as if the paint device 100 is painted. It may be a shape. For convenience, the embodiment of FIG. 1 illustrates a rectangular parallelepiped shaping module 145, but the shaping module 145 may be variously modified as shown in FIG. 4.

According to the manufacturing method of the first touch device 100 of the present invention, the touch unit 105, the fusion module 110, the fixed frame 120 and the shock module 145 may be made of a conductive material, thereby In the case of holding the 쥠 module 145 by the user's hand, the charge charged in the user's human body is transferred to the touch unit 105 to allow capacitive touch. For example, the touch unit 105 may be made of a conductive rubber material, and the fusion module 110, the fixing frame 120, and the shock module 145 may be made of a conductive metal material or a conductive plastic material.

According to the manufacturing method of the second touch device 100 of the present invention, the touch unit 105, the fusion module 110, the fixing frame 120 and the shock module 145 is a form in which a conductive material is applied, plated or etched In this case, the electric charge charged in the human body of the user is transferred to the touch unit 105 when the user holds the hand module 145 by the user's hand, thereby enabling capacitive touch.

According to the manufacturing method of the third touch device 100 of the present invention, one or more of the fusion module 110, the fixed frame 120 and the shock module 145 may be made of a non-conductive material. In this case, however, the touch device 100 includes a charge charging unit 150 electrically connected to the touch unit 105 of the conductive material, whereby the charge charged in the user's body reaches the touch unit 105. Although not transferred, the charge charged in the charge charging unit 150 is transferred to the touch unit 105 to allow capacitive touch. Preferably, the charge charger 150 may include at least one of various batteries 150 and a supercapacitor 150.

Referring to FIG. 1, the touch device 100 includes N touch parts 105, a fusion module 110, and a housing part 125 surrounding the fixing frame 120. If the touch unit 105 or the fixing frame 120 may not be protected, the housing unit 125 may be omitted.

The housing part 125 is a generic term for a configuration that surrounds and protects the N touch parts 105, the fusion module 110, and the fixed frame 120, and preferably the N touch parts 105 and the fusion module 110. And at least one of the fixing frame 120 from being damaged by an external impact.

According to the exemplary embodiment of the present invention, the housing unit 125 protects the contact surfaces of the N touch units 105 from being contaminated while the touch device 100 is placed on the floor. To this end, the housing unit 125 maintains a state in which the contact surface of the touch unit 105 is not in contact with the floor and floats in the air, unless a force is applied while the touch device 100 is placed on the floor. (See Fig. 1 (c)). Meanwhile, according to the intention of the person skilled in the art, the housing 125 does not have to protect the contact surface of the touch unit 105 from contacting the floor (for example, the touch device 100 together with the touch device 100 may be A dedicated holder (not shown) or a dedicated storage pad (not shown) that can be mounted).

Referring to FIG. 1, the touch device 100 includes a push-in implementation unit 130 for implementing a touch feeling in which the N touch units 105 are simultaneously touched by the touch pad 300 by a pinch force. At least one of the sliding unit 135 for sliding by a predetermined distance as the indentation force is applied, and the elastic unit 140 for restoring the spaced distance as the indentation force is released. It is made, including. If the touch device 100 does not implement a touch feeling stamped, the stamping implement unit 130 may be omitted.

The push-in implementation unit 130 has N touch units 105 by the push-in force when the push-in force is applied to the touch device 100 by a user holding the shock module 145. As a generic term for a configuration that realizes a touch feeling simultaneously touched on, preferably formed between the fixed frame 120 and the shock module 145, or formed between the fixed frame 120 and the housing portion 125, or the housing portion ( It may be formed between the 125 and the shock module 145, or may be formed on one side of the fixed frame 120, the shock module 145, and the housing part 125.

According to the first push-in implementation method of the present invention, the push-in implementation 130 may be formed between the fixed frame 120 and the shock module 145, the sliding portion 135 to the shock module 145 When a pressing force including a vertical component of the touch pad 300 or the contact surface is applied, the fixing frame 120 and the shock absorbing module 145 are separated by a predetermined distance in parallel with the direction of the pressing force. As the sliding force is released, the elastic part 140 may restore the fixed frame 120 and the shock module 145 to a state before sliding.

According to the second stamping implementation method of the present invention, when the housing unit 125 is provided in the touch device 100, the stamping implementing unit 130 is formed between the fixed frame 120 and the housing part 125. The sliding unit 135 may be fixed to the fixed frame 120 by the pinch force when the pinch force including the vertical component of the touchpad 300 or the contact surface is applied by the shock module 145. The housing part 125 is slid by a predetermined distance, and the elastic part 140 may restore the fixed frame 120 and the housing part 125 to a state before sliding as the pressure force is released.

According to the third stamping implementation method of the present invention, when the housing unit 125 is provided in the touch device 100, the stamping implementing unit 130 is formed between the housing unit 125 and the shock module 145. The sliding part 135 may be connected to the housing part 125 by the pushing force when a pushing force including the vertical component of the touch pad 300 or the contact surface is applied by the shock module 145. The 쥠 module 145 is slid by a predetermined distance, and the elastic part 140 may restore the housing part 125 and the 로 module 145 to a pre-sliding state as the pressing force is released.

According to the fourth stamping implementation manner of the present invention, the stamping implement 130 may be formed in the shock module 145, and the elastic part 140 may be touch pad 300 or the touch panel 300 by the shock module 145. When a pressing force including a vertical component of the contact surface is applied, it is contracted by the pressing force in the shock module 145 by a predetermined distance and then restored to its pre-shrink state as the pressing force is released. The sliding part 135 may be implemented in the shock module 145 (eg, when the shock module 145 is composed of two or more spaced apart modules) or may be omitted for the contraction / restoration.

According to the fifth stamping implementation manner of the present invention, the stamping implementation 130 may be formed in the fixed frame 120, and the elastic part 140 may be touch pad 300 or by the shock module 145. When a pressing force including a vertical component of the contact surface is applied, it is contracted by a predetermined distance within the fixed frame 120 by the pressing force, and the pressure is released to restore the state before contraction. The sliding part 135 may be implemented in the fixed frame 120 (eg, when the fixed frame 120 is composed of two or more spaced apart frames) or may be omitted for the contraction / restore.

According to the sixth push-in implementation method of the present invention, when the housing unit 125 is provided in the touch device 100, the push-in implementation 130 may be formed in the housing part 125, and the elastic part 140 is contracted by a predetermined distance within the housing portion 125 by the force pull force when the force module including the vertical component of the touch pad 300 or the contact surface is applied by the shock module 145. May be restored to its pre-shrinkage state as the forcing force is released, and the sliding part 135 may be implemented in the housing part 125 for the contraction / restoration (eg, two or more in which the housing part 125 is spaced apart). Part) or may be omitted.

2 is a view showing the structure of the fusion module 110 according to the embodiment of the present invention.

In more detail, FIG. 2 illustrates a cross-sectional structure of a fusion module 110 in which a recess groove for fixing the touch part 105 or a fixing surface for fixing the touch part 105 is formed and a fusion surface is formed on the other side. Those skilled in the art will be able to infer various implementation methods for the structure of the fusion module 110 by referring to and / or modifying the drawing 2, but the present invention is inferred It is made including all implementation methods, the technical features are not limited only to the implementation method shown in FIG. For example, the planar structure of the fusion module 110 is matched with the geometry of the touch unit 105 that is embedded or fixed to the fusion module 110.

FIG. 2 (a) illustrates a cross-sectional structure in which an embedding groove for embedding the touch unit 105 is formed on one side of the fusion module 110 and a fusion surface is formed on the other side. The cross-sectional structure of the module 110 is implemented in a 'c' shape.

2 (b) is a buried groove for embedding the touch portion 105 is formed on one side of the fusion module 110, the fusion surface is formed on the other side and the protrusion 200 is formed in the fusion surface direction As shown in the cross-sectional structure, the cross-sectional structure of the fusion module 110 by the buried groove is implemented in the form 'ㅠ'.

In FIG. 2 (c), a buried groove for embedding the touch unit 105 is formed at one side of the fusion module 110 and a fusion surface is formed at the other side, and at the same time, the protrusion 200 is perpendicular to the fusion surface. The cross-sectional structure is formed is formed, the cross-sectional structure of the fusion module 110 by the embedding groove is implemented in a 'ㅐ' shape, the fixing frame 120 is a groove in which the projection 200 in the vertical direction is inserted Is provided.

2 (d) shows a cross-sectional structure in which a fixing surface for fixing the touch unit 105 is formed on one side of the fusion module 110 and a fusion surface is formed on the other side, the fusion module 110 The cross-sectional structure of is implemented in the form of 'ㅡ'. Preferably, the fixing surface may fix the touch unit 105 through a conductive adhesive that is cured after adhesion.

2 (e) is a fixing surface for fixing the touch portion 105 is formed on one side of the fusion module 110, the fusion surface is formed on the other side and at the same time the protrusion 200 is formed in the fusion surface direction As shown in the cross-sectional structure, the cross-sectional structure of the fusion module 110 by the buried groove is implemented in a '-' shape. However, Figure 2 (e) is shown to change the height for convenience to distinguish the portion and the protrusion 200 is formed in the fusion surface and the fixed surface, but the present invention is not limited thereby.

2 (f) is a fixing surface for fixing the touch portion 105 is formed on one side of the fusion module 110 and the fusion surface is formed on the other side and at the same time the projection 200 in the vertical direction of the fusion surface The cross-sectional structure is formed is formed, the cross-sectional structure of the fusion module 110 by the embedding groove is implemented in a 'ㅛ' shape, the fixing frame 120 is a groove in which the projection 200 in the vertical direction is inserted Is provided.

3 is a view showing the stamping of the touch device 100 in accordance with an embodiment of the present invention.

In more detail, FIG. 3 illustrates the N touches by the force of the force when the force device including the vertical component of the touch pad 300 or the contact surface is applied to the touch device 100 of FIG. 1. The contact surface of the unit 105 is a configuration in which the touch pad 300 is simultaneously touched, and a person having ordinary skill in the art to which the present invention pertains may refer to and / or modify the drawing 3 and the Although various embodiments of the method in which the touch device 100 is stamped (for example, an implementation method according to the location where the stamping implementer 130 is implemented in the touch device 100) may be inferred, the present invention may infer all the embodiments inferred. It is made, including the method, the technical features are not limited only to the implementation method shown in FIG.

3 (a) illustrates a state in which the contact surfaces of the N touch units 105 included in the touch device 100 are placed on the floor with the contact surfaces facing downward, and the contact of the N touch units 105 is illustrated. The surface is held in the air by the housing part 125 without directly contacting the floor, thereby preventing the contact surface from being contaminated.

FIG. 3B illustrates a sliding part 135 of the pressing unit 130 when a pressing force including a vertical component of the touch pad 300 or the contact surface is applied to the touch device 100. As the housing part 125 is slid, the contact surfaces of the N touch parts 105 provided in the touch device 100 simultaneously touch the touch pad 300, and the pressing force is released. The touch device 100 is restored to the state of FIG. 3 (a) by the elastic unit 140 of the pressing implement unit 130.

4A to 4F illustrate design variations of the touch device 100 according to the embodiment of the present invention.

In more detail, FIGS. 4A to 4F illustrate various designs for manufacturing the touch device 100 illustrated in FIG. 1, and preferably illustrate designs that facilitate the convenience of the Z module 145. will be. Those skilled in the art to which the present invention pertains will be able to infer various appearance implementation methods for manufacturing the touch device 100 by referring to and / or modifying the drawings 4a to 4f. It is manifestly apparent that the invention encompasses all such inferred methods of implementation.

FIG. 4a is a drawing module 145 prepared as a painting handle in comparison with FIG. 1 or FIG. 3, and FIG. 4a illustrates the appearance of the touch device 100 before a pressing force is applied. (B) of FIG. 4A illustrates an external appearance of the touch device 100 in a state where a force is applied, and (c) of FIG. 4A illustrates a cross section of the touch device 100 in a state where a force is applied. will be. Referring to the example of (c) of Figure 4a, the sliding portion 135 and the elastic portion 140 of the stamped implement 130 is implemented between the shock module 145 and the housing portion 125. Persons having ordinary skill in the art to which the present invention pertains will now be able to predict the shape of the stamping implement 130 implemented in FIGS. 4b to 4f with reference to FIGS. 2 and 4 (c), For convenience, cross-sectional examples will be omitted in FIGS. 4B to 4F.

4b is a spherical module 145 is manufactured in a spherical shape instead of expanding the heights of the fixing frame 120 and the housing part 125 as compared to FIG. 1 or 3, and (a) of FIG. The external appearance of the touch device 100 before an attractive force is illustrated, and FIG. 4B (b) illustrates the external appearance of the touch device 100 in a state where a force of force is applied.

FIG. 4C shows that the module 145 is manufactured as a long-term horse of a chess game in comparison with FIG. 1 or FIG. 3, and (a) of FIG. 4C illustrates the external appearance of the touch device 100 before a force is applied. FIG. 4C (b) illustrates the external appearance of the touch device 100 in the state in which a pressing force is applied.

FIG. 4D is a view of the drawing device 1 or 3 and the 쥠 module 145, which is easily gripped. FIG. 4D (a) illustrates the external appearance of the touch device 100 before the force is applied. b) illustrates the appearance of the touch device 100 in a state where a force of force is applied.

FIG. 4E illustrates a configuration in which the 쥠 module 145 is not in close contact with the housing 125 or the fixing frame 120 in comparison with FIG. 1 or FIG. 3. FIG. 4E illustrates an appearance of the touch device 100 before being touched, and FIG. 4E (b) illustrates the appearance of the touch device 100 in a state where a pressing force is applied.

FIG. 4F illustrates a pressing implement unit 130 including a sliding unit 135 and an elastic unit 140 between the module 145 and the housing unit 125 as compared with FIG. 1 or 3. Module 145 also has a separate elastic portion 140 to absorb the amount of impact at the time of touch double (for example, by the flexible material of the touch portion 105 primarily absorbs the amount of impact at the time of the touch point by the force of force And at the same time as an example of the external appearance of the second shock absorbing through the separate elastic portion 140 provided in the module 145, (a) of Figure 4f is the touch device 100 before the pressing force is applied. 4F (b) illustrates the external appearance of the touch device 100 in a state where a force of force is applied.

FIG. 5 is a diagram illustrating a configuration of an electronic module 500 embedded in the touch device 100 of the present invention.

In more detail, FIG. 5 is embedded in the touch device 100 to output sound data encoding an authentication code designated at the time when the touch device 100 is pressed, or the authentication code or uniquely stored unique data through proximity wireless communication. As shown in the configuration of the electronic module 500 for transmitting the code, those skilled in the art to which the present invention pertains, referring to and / or modifying the present figure 5 for the function of the electronic module 500 Various implementation methods may be inferred, but the present invention includes all the implementation methods inferred, and the technical features are not limited to the implementation method shown in FIG. For example, two or more electronic modules 500 (for example, an electronic module 500 for outputting sound data encoded with an authentication code, an electronic module 500 for transmitting an authentication code, and a unique code) may be provided to the touch device 100. The electronic module 500 and the like to be sent out) may be incorporated, and the present invention includes such an implementation method. However, for convenience of the present disclosure, FIG. 5 will be described with reference to an exemplary embodiment in which the electronic module 500 of the present invention is implemented through one electronic module 500.

Referring to FIG. 5, the electronic module 500 includes a control unit 505 and a memory unit 525, and a proximity wireless communication unit that processes proximity wireless communication with a sound output unit 510 that outputs sound data. 520. According to an exemplary embodiment of the present invention, any one or both of the sound output unit 510 and the proximity wireless communication unit 520 may be provided, and the present invention is not limited thereto. The electronic module 500 may include a battery 150 that receives power for operation. When the charge device 150 is provided in the touch device 100, the electronic module 500 includes the charge charger. Power necessary for operation may be supplied from 150. On the other hand, if the electronic module 500 is operable by a radio frequency signal transmitted from the target device, the battery 150 can be omitted, even if the charge module 150 is provided in the electronic module 500 is used It's okay if you don't.

The controller 505 is a generic term for a configuration for controlling the operation of the electronic module 500, and may be implemented through a logic circuit or in a form including at least one processor and an execution memory. For convenience, the controller 505 may include a processor and an execution memory to load and calculate at least one program code into the execution memory, and output the result through the sound output unit 510 or the proximity wireless communication unit 520. The configuration of the electronic module 500 in the form of transmitting through) will be described. Hereinafter, for convenience, a program 540 corresponding to a program code calculated by the processor will be described in the controller 505. However, the implementation method of the electronic module 500 is not limited to the embodiment of FIG. 5, and it is apparent that the configuration illustrated by the configuration of the program 540 in FIG. 5 may be implemented in the form of a logic circuit. It is.

The memory unit 525 is a generic term for a nonvolatile memory included in the electronic module 500. The memory unit 525 may include at least one program code executed through the control unit 505, and at least one data set used by the program code. Save it and keep it. The program code includes a program code corresponding to a program 540 implemented for the operation of the present invention, a system program code and a system data set corresponding to an operating system of the electronic module 500, and the electronic module 500. It includes a communication program code and a communication data set for processing various communication.

According to an embodiment of the present invention, the memory unit 525 may store one or more static seed values to be assigned to a designated code generation algorithm for dynamically generating an authentication code. Preferably, the static seed value is a unique serial code uniquely assigned to the touch device 100, a space identification code for identifying a space (eg, a store, a building, a store, etc.) in which the touch device 100 is used, The touch device 100 may include various identification codes, including a use identification code for identifying a use of the touch device 100.

According to the embodiment of the present invention, the memory unit 525 may store a specified unique code. Preferably, the unique code includes an ID code uniquely assigned to the electronic module 500 or the touch device 100.

The sound output unit 510 includes a sound output unit such as a speaker or a buzzer provided in the electronic module 500, and a driving module for driving the sound output unit 510. The sound output unit 510 is connected to the control unit 505 by a bus and Decoding the sound data corresponding to the calculation result corresponding to the sound output among various calculation results, converts the sound data into a sound signal, and outputs the same through the sound output device.

The proximity wireless communication unit 520 is a generic term for a configuration for processing proximity wireless communication using a radio frequency signal at a distance of about 10 cm using an antenna, and preferably, a Near Field Communication (NFC) standard using a 13.56 Mz frequency band. According to handle bidirectional proximity wireless communication. According to an exemplary embodiment, the proximity wireless communication unit 520 may process half-duplex wireless communication of an RFID standard (for example, proximity wireless communication included in the ISO 18000 series standard or short-range wireless communication within 10 m) which is not included in the NFC standard. have.

Referring to FIG. 5, the electronic module 500 may include a sound input unit 515 for receiving sound data, thereby providing bidirectional sound communication for receiving and recognizing sound data transmitted from the target device.

The sound input unit 515 is composed of a sound input unit such as a microphone provided in the electronic module 500 and a driving module for driving the sound input unit. The sound input unit encodes sound data encoded by a sound signal input through the sound input unit. Transfer to control unit 505.

Referring to FIG. 5, the electronic module 500 may include at least one of a wireless network communication unit 530 connected to a wireless communication network and a short range communication unit 532 connected to a communication network through short-range wireless communication. have.

The wireless network communication unit 530 is a generic term for a communication configuration for connecting the electronic module 500 to a wireless communication network, and includes at least an antenna, an RF module, a baseband module, and a signal processing module for transmitting and receiving radio frequency signals of a specific frequency band. Is configured to include one, connected to the bus by the control unit 505 transmits the calculation result corresponding to the wireless communication of the various calculation results of the control unit 505 through wireless communication, or receives data through wireless communication At the same time as the transfer to the control unit 505, the procedure of connection, registration, communication, handoff of the wireless communication is maintained.

According to an exemplary embodiment of the present invention, the wireless network communication unit 530 performs at least one mobile communication, connection, location registration, call processing, call connection, data communication, and handoff according to the CDMA / WCDMA / LTE standard. Include configuration. Meanwhile, according to the intention of the person skilled in the art, the wireless network communication unit 530 may further include a portable Internet communication configuration for performing at least one of access to the portable Internet, location registration, data communication, and handoff according to the IEEE 802.16 standard. It is apparent that the present invention is not limited by the wireless communication configuration provided by the wireless network communication unit 530. The electronic module 500 may include a USIM reader unit (not shown) for connecting to a wireless communication network, and may detach the USIM for connecting to a wireless communication network.

The short range communication unit 532 is a short range communication module that connects a communication session using a radio frequency signal as a communication medium within a predetermined distance, and may preferably include at least one of Wi-Fi communication, Bluetooth communication, and public wireless communication. . The short range communication unit 532 may access a communication network through an access device (for example, a wireless access point (AP), etc.) located at a short distance (for example, within 10 m).

Referring to FIG. 5, the electronic module 500 may include at least one of a screen output unit 554 for displaying various types of information and a key input unit 536 for receiving a user operation.

The screen output unit 554 includes a screen output unit (for example, a liquid crystal display (LCD), an electronic paper, etc.) provided in the electronic module 500 and a driving module for driving the same. The calculation result corresponding to the screen output is output to the screen output device.

The key input unit 536 includes a key input unit provided in the electronic module 500 and a driving module for driving the same, and receives a command for commanding various operations of the control unit 505, or the control unit 505. Receives the data required for the operation.

Referring to FIG. 5, the electronic module 500 encodes the generated code in accordance with a specified sound encoding rule and a code generator 550 for dynamically generating an authentication code having a specified structure according to a specified code generation rule. And a code output unit 560 for outputting sound data encoded with the authentication code, and at least one static seed value for dynamically generating the authentication code. It may further include an information storage unit 545 for storing, and further includes a stamping confirmation unit 565 for checking whether the touch device 100 is stamped.

The information storage unit 545 stores at least one static seed value in the memory unit 525 to be used to dynamically generate the authentication code. Preferably, the static seed value is a time when the electronic module 500 is manufactured, a time when the electronic module 500 is mounted on the touch device 100, and the electronic module 500 on the touch device 100. The memory module 525 may be stored in the memory unit 525 at at least one of a time point that is initially set to be used in a designated space after being mounted, and a time point where the electronic module 500 is mounted and used in the touch device 100. .

According to the first seed storage method of the present invention, the static seed value is stored in the memory unit 525 at the time when the electronic module 500 is manufactured, and the information storage unit 545 is The static seed value may be stored in the memory unit 525 during the manufacturing process of the electronic module 500.

According to the second seed storage method of the present invention, the static seed value may be stored in the memory unit 525 at the time when the electronic module 500 is mounted on the touch device 100. 545 may determine a static seed value to be stored in the memory unit 525 from the outside through at least one of the proximity wireless communication unit 520, the key input unit 536, the wireless network communication unit 530, and the local area communication unit 532. Received or received, and may store the received or input static seed value in the memory unit 525.

According to the third seed storage method of the present invention, the electronic device 500 is initially mounted after the electronic device 500 is mounted on the touch device 100 or the memory module 525 is used while the electronic module 500 is being used. The static seed value may be stored, and the information storage unit 545 is externally connected to at least one of the proximity wireless communication unit 520, the key input unit 536, the wireless network communication unit 530, and the short range communication unit 532. The static seed value to be stored in the memory unit 525 may be received or input, and the received or input static seed value may be stored in the memory unit 525.

The code generation unit 550 includes a code generation algorithm for dynamically generating the authentication code according to a specified code generation rule, the dynamic seed value dynamically determined with the one or more stored static seed values by a periodic or designated event. At least one seed value is assigned to a designated code generation algorithm (eg, MD4, MD4, SHA, etc.) to dynamically generate an authentication code having a specified structure (eg, code length, digits, code structure, etc.). Preferably, the code generation rule may include at least one code generation rule among a time synchronous code generation rule and a challenge-response code generation rule.

According to the first dynamic seed determination method of the present invention, the code generator 550 checks a time value through a timer (not shown) built in the electronic module 500, and sets the time value (or time value). Value processed in the form of seed value) may be determined as the dynamic seed value.

According to the second dynamic seed determination method of the present invention, the code generator 550 may output sound data output from a target device (or a sound output medium around the touch device 100) through the sound input unit 515. For example, the seed value may be determined as a dynamic seed value by receiving and interpreting sound data encoded in DTMF format and sound data encoded in seed value). Preferably, the seed value determined using the sound data is at least one of a time value, a challenge value, and a dynamic generation value (e.g., a value dynamically generated according to a procedure (or algorithm) specified by the target device or sound output medium). It may include.

According to the third dynamic seed determination method of the present invention, the code generator 550 transmits a seed value transmitted from a target device (or a proximity wireless communication device near the touch device 100, etc.) through the proximity wireless communication unit 520. Can be determined to be a dynamic seed value. Preferably, the seed value determined using the proximity wireless communication is one of a time value, a challenge value, and a dynamic generation value (e.g., a value dynamically generated according to a procedure (or algorithm) specified by the target device or the proximity wireless communication device). It may include at least one.

According to the fourth dynamic seed determination method of the present invention, the code generation unit 550 receives a seed value transmitted from a device or a server designated through the wireless network communication unit 530 or the local area communication unit 532 to generate a dynamic seed value. Can be determined. Preferably, the seed value determined using the wireless network communication unit 530 or the short-range communication unit 532 is dynamic according to a time value, a challenge value, a dynamic generation value (e.g., a procedure (or algorithm) designated by a designated device or server). It may include at least one of).

According to the extended implementation method of the present invention, when the value received from the outside through at least one of the proximity wireless communication unit 520, the wireless network communication unit 530, the short-range communication unit 532 is a dynamic generation value, the code generator ( 550 may generate an authentication code using the received dynamic generation value as a seed, or use the received dynamic generation value as an authentication code as it is or without receiving a separate authentication code, or the received dynamic generation value. Can be processed into a designated structure and used as an authentication code.

The code processor 555 generates sound data encoding the generated authentication code according to a specified sound encoding rule. The sound encoding rule includes at least one of a dual tone multi frequency (DTMF) encoding rule or a sound code encoding rule.

The DTMF encoding rule is a generic term for a rule for encoding '1' to '9', '0', '#', '*' and the like used for a telephone button to a sound signal of an audible frequency band. For example, a combination of sound frequencies of 697 Hz, 770 Hz, 852 Hz, and 941 Hz and sound frequencies of a high frequency range (for example, 1209 Hz, 1336 Hz, 1477 Hz, and 1633 Hz) combines' 1 'to' 9 ',' 0 ','#',and' * 'And so on. If the authentication code is encoded as a DTMF signal, the authentication code generated by the code generator 550 is designated code structure that can be displayed as '1' to '9', '0', '#', '*' and the like. It is preferable to be generated as.

The sound code encoding rule is a generic term for encoding rules for inserting a bit string of specified data into a specified bit string of sound data encoded according to a specified sound encoding rule. Preferably, the sound code encoding rule is specified according to the data encoding rule matching the sound encoding rule. Data is encoded to generate a sound spreading code applicable to the sound encoding rule, and the generated sound spreading code is encoded into sound data according to the sound encoding rule to generate a sound code encoded with the specified data. The sound spreading code is preferably encoded in a pseudo noise region, whereby the sound spreading code cannot be recognized by a sound recognition ability recognized by a normal human.

When the sound data encoded with the authentication code is generated through the code processor 555, the code output unit 560 outputs the generated sound data through the sound output unit 510. The sound data is periodically output, or is output at the time when the touch device 100 is pressed by the touch pad 300 of the target device, and / or is output at the time of the indentation by a specified number of time intervals. Can be repeated. The repetition of the output of the sound data by a designated number of times at a predetermined time interval is for increasing the probability of the target device recognizing the sound data to recognize the authentication code encoded in the sound data.

In order for the code output unit 560 to output sound data at the time when the touch device 100 is pressed, the pin checking unit 565 is pressed by the touch device 100 to the touch pad 300 of the target device. Check if In order to check whether the touch device 100 is pressed by the touch pad 300, the electronic module 500 may include a sensor unit 538 or may be connected to a sensor unit 538 provided in the touch device 100. Can be. The sensor unit 538 may sense charge movement sensing, charge amount change sensing, current change sensing, voltage change sensing, and resistance change sensing at the time when the touch unit 105 of the touch device 100 touches the touch pad 300. Any sensor can sense at least one. According to an embodiment, the sensor unit 538 may employ a sensor capable of detecting an impact amount at a touch point, such as a gyro sensor.

When the electronic module 500 is provided with the stamping confirmation unit 565, the code output unit 560 outputs sound data encoded with the authentication code at the time when the stamping of the touch device 100 is confirmed. The sound data may be output at the time of indentation and then repeatedly output at a specified number of times at a specified time interval.

According to the extended implementation method of the present invention, the information storage unit 545 stores the unique code in the memory unit 525, the code processor 555 checks the unique code stored in the memory unit 525 The sound data obtained by encoding the unique code may be generated, and the code output unit 560 may output the generated sound data. Accordingly, the present invention is not limited thereto.

Referring to FIG. 5, the electronic module 500 transmits the generated authentication code through a code generation unit 550 for dynamically generating an authentication code having a specified structure according to a specified code generation rule and the proximity wireless communication. And a code storage unit 570 for storing the at least one static seed value for dynamically generating the authentication code in the memory unit 525, and the touch device 100. It may further include at least one verification unit of the confirmation confirmation unit 565 for confirming whether is pressed, and the activity confirmation unit 575 for confirming that the proximity wireless communication is activated.

The information storage unit 545 stores a static seed value in the memory unit 525 through at least one or two or more of the first to third seed storage schemes, and the code generator 550 stores the memory seed. Authentication of the specified structure by assigning one or more seed values of the dynamic seed value dynamically determined through at least one or two or more of the static seed value and the first to fourth dynamic seed determination schemes stored in 525 to a specified code generation algorithm. Generate code dynamically.

The code transmitter 570 transmits an authentication code that is always generated through the proximity wireless communication unit 520, and the transmitted authentication code is received by the target device to which the touch device 100 is touched. The authentication code may be periodically transmitted or may be transmitted at a time when proximity wireless communication is activated between the electronic module 500 and the target device, or the touch device 100 may be pressed by the touch pad 300 of the target device. May be sent out at a time point, and / or repeated at a specified time interval after being sent out at the time of stamping.

In order to transmit an authentication code when the proximity wireless communication is activated between the electronic module 500 and the target device, the activity checking unit 575 is a frequency band matching the radio frequency signal of the proximity wireless communication unit 520. Confirm that a wireless field is formed around the electronic module 500 by the radio frequency signal. Preferably, the activity checking unit 575 may recognize whether a radio field is formed around the electronic module 500 by recognizing the magnitude or change of the radio frequency signal received by the antenna of the proximity wireless communication unit 520.

In order for the code transmitter 570 to transmit an authentication code at the time when the touch device 100 is pressed, the press checking unit 565 may press the touch device 100 to the touch pad 300 of the target device. Check if In order to check whether the touch device 100 is pressed by the touch pad 300, the electronic module 500 may include a sensor unit 538 or may be connected to a sensor unit 538 provided in the touch device 100. Can be. The sensor unit 538 may sense charge movement sensing, charge amount change sensing, current change sensing, voltage change sensing, and resistance change sensing at the time when the touch unit 105 of the touch device 100 touches the touch pad 300. Any sensor may be used as long as the sensor can sense at least one, and a sensor capable of detecting an impact amount at the touch point, such as a gyro sensor, may be adopted.

When the electronic module 500 is provided with the coincidence checker 565, the code transmitter 570 transmits the code through the proximity wireless communication unit 520 when the coincidence of the touch device 100 is confirmed. The authentication code may be sent, and the authentication code may be sent out at a specified time interval after the authentication code is sent out at the time of stamping.

Referring to FIG. 5, the electronic module 500 includes a code checking unit 580 for checking a stored unique code, and a code sending unit 570 for transmitting the identified unique code through the proximity wireless communication. And a information storage unit 545 for storing the unique code in the memory unit 525, a confirmation unit 565 for checking whether the touch device 100 is pushed in, and whether the proximity wireless communication is activated. It may further include one or more verification unit of the active confirmation unit 575 to confirm.

The information storage unit 545 stores the unique code to be transmitted through the code transmitter 570 in the memory unit 525. Preferably, the unique code is a point in time when the electronic module 500 is manufactured, a point in time when the electronic module 500 is mounted on the touch device 100, and the electronic module 500 in the touch device 100. The memory unit 525 may be stored in the memory unit 525 at at least one of a time point that is initially set to be used in a designated space after mounting and when the electronic module 500 is mounted and used in the touch device 100.

According to the first unique code storage method of the present invention, the unique code is stored in the memory unit 525 at the time when the electronic module 500 is manufactured, and the information storage unit 545 is The unique code may be stored in the memory unit 525 during the manufacturing process of the electronic module 500.

According to the second unique code storage method of the present invention, the unique code may be stored in the memory unit 525 at the time when the electronic module 500 is mounted on the touch device 100. 545 receives a unique code to be stored in the memory unit 525 from the outside through at least one of the proximity wireless communication unit 520, the key input unit 536, the wireless network communication unit 530, and the local area communication unit 532. Alternatively, the received and inputted unique code may be stored in the memory unit 525.

According to the third unique code storage method of the present invention, the memory unit 525 is initially set after the electronic module 500 is mounted on the touch device 100 or while the electronic module 500 is used. The unique code may be stored therein, and the information storage unit 545 may be externally connected to at least one of the proximity wireless communication unit 520, the key input unit 536, the wireless network communication unit 530, and the local area communication unit 532. The unique code to be stored in the memory unit 525 may be received or input, and the received or input unique code may be stored in the memory unit 525.

The code checking unit 580 checks the unique code stored in the memory unit 525, and the code sending unit 570 transmits the unique code identified through the proximity wireless communication unit 520 at all times. The unique code is received by the target device touched by the touch device 100. The unique code may be periodically transmitted or may be transmitted at a time when proximity wireless communication between the electronic module 500 and the target device is activated, or the touch device 100 may be pressed by the touchpad 300 of the target device. May be sent out at a time point, and / or repeated at a specified time interval after being sent out at the time of stamping.

In order to transmit a unique code at the time when proximity wireless communication is activated between the electronic module 500 and the target device, the activity checking unit 575 is a frequency band matching with the radio frequency signal of the proximity wireless communication unit 520. Confirm that a wireless field is formed around the electronic module 500 by the radio frequency signal. Preferably, the activity checking unit 575 may recognize whether a radio field is formed around the electronic module 500 by recognizing the magnitude or change of the radio frequency signal received by the antenna of the proximity wireless communication unit 520.

In order for the code transmitting unit 570 to transmit a unique code at the time when the touch device 100 is pressed, the press checking unit 565 is pressed by the touch device 100 to the touch pad 300 of the target device. Check if In order to check whether the touch device 100 is pressed by the touch pad 300, the electronic module 500 may include a sensor unit 538 or may be connected to a sensor unit 538 provided in the touch device 100. Can be. The sensor unit 538 may sense charge movement sensing, charge amount change sensing, current change sensing, voltage change sensing, and resistance change sensing at the time when the touch unit 105 of the touch device 100 touches the touch pad 300. Any sensor may be used as long as the sensor can sense at least one, and a sensor capable of detecting an impact amount at the touch point, such as a gyro sensor, may be adopted.

When the electronic module 500 is provided with the coincidence checker 565, the code transmitter 570 transmits the code through the proximity wireless communication unit 520 when the coincidence of the touch device 100 is confirmed. The unique code may be sent, and the unique code may be repeatedly sent out a specified number of times at a designated time interval after the unique code is sent out at the time of stamping.

Referring to FIG. 5, the electronic module 500 may include at least one of the sound input unit 515, the proximity wireless communication unit 520, the wireless network communication unit 530, and the short range communication unit 532. Information management unit 585 for receiving management information related to the operation of the < RTI ID = 0.0 >)< / RTI >

According to the first information management method of the present invention, after the authentication code encoded in the sound data is output through the sound output unit 510, the information management unit 585 is the sound input unit 515, the proximity wireless communication unit ( 520, a result of whether the authentication code encoded in the sound data is recognized by the target device through at least one of the wireless network communication unit 530 and the local area communication unit 532, and the program 540 of the target device is designated. Receiving management information including at least one result of whether or not to perform the operation, and storing the received management information in a designated storage area of the memory unit 525.

According to the second information management method of the present invention, after the authentication code is transmitted through the proximity wireless communication unit 520, the information management unit 585 is the sound input unit 515, proximity wireless communication unit 520, wireless network At least one of a result of whether the authentication code is recognized by the target device through at least one of the communication unit 530 and the short range communication unit 532, and a result of whether the program 540 of the target device has performed a specified operation. The management information including the result is received, and the received management information is stored in the designated storage area of the memory unit 525.

According to the third information management method of the present invention, after the unique code is transmitted through the proximity wireless communication unit 520, the information management unit 585 is the sound input unit 515, proximity wireless communication unit 520, wireless network At least one of a result of whether the unique code is recognized by the target device through at least one of the communication unit 530 and the short range communication unit 532, and a result of whether the program 540 of the target device has performed a specified operation. The management information including the result is received, and the received management information is stored in the designated storage area of the memory unit 525.

The information manager 585 stores, updates, and deletes management information stored in a designated storage area of the memory unit 525 (eg, deletes management information that has elapsed for a predetermined period). 530 and at least one of the short range communication unit 532 may be transmitted to and stored in a designated device or server through the communication unit.

6 is a diagram illustrating a process of outputting sound data obtained by encoding an authentication code dynamically generated according to an exemplary embodiment of the present invention.

In more detail, in FIG. 6, when the touch device 100 is pressed by the touch pad 300 of the target device, the present invention dynamically generates an authentication code having a structure specified by the electronic module 500 embedded in the touch device 100. As a process of encoding and outputting sound data, one of ordinary skill in the art to which the present invention pertains may refer to and / or modify this drawing 6 to implement various methods (for example, the sound data output process). However, some steps may be omitted, or the order of implementation may be changed), but the present invention includes all the implementation methods inferred above, and the technical features are limited only by the implementation method shown in FIG. Not.

Referring to FIG. 6, the electronic module 500 checks whether the touch device 100 is pressed by the touch pad 300 of the target device (600). If the stamping of the touch device 100 is confirmed, the electronic module 500 may store the at least one or two or more of the first to third seed storage methods to dynamically generate an authentication code having a specified structure. Identify or determine 605 one or more seed values of the dynamic seed values that are dynamically determined through at least one or two or more of one or more dynamic seed values and the first through fourth dynamic seed determination schemes, and wherein the identified or determined The authentication code is dynamically generated by assigning one or more seed values to a designated code generation algorithm (610).

The electronic module 500 generates sound data by encoding the generated authentication code according to a specified sound coding rule (615), and specifies the generated sound data at least once through the sound output unit 510. According to the output (620).

7 is a diagram illustrating a process of transmitting an authentication code through proximity wireless communication according to an embodiment of the present invention.

In more detail, in FIG. 7, when the touch device 100 is pushed by the touch pad 300 of the target device, an authentication code having a structure specified by the electronic module 500 embedded in the touch device 100 is dynamically generated. As a process of transmitting through proximity wireless communication, a person having ordinary skill in the art to which the present invention pertains may refer to and / or modify the present drawing 7 to implement various methods of transmitting the authentication code (for example, However, some steps may be omitted, or the order of implementation may be changed), but the present invention includes all the implementation methods inferred above, and the technical features are limited only by the implementation method shown in FIG. Not.

Referring to FIG. 7, the electronic module 500 checks whether the touch device 100 is pressed by the touch pad 300 of the target device (700), or the touch device 100 is in close proximity to the target device. Verify that is activated (705). If the electronic device 500 determines whether the indentation of the touch device 100 or the proximity wireless communication is activated, the electronic module 500 may dynamically generate an authentication code having a designated structure. Identify or determine one or more seed values, one or more dynamic seed values stored in at least one or more ways and a dynamic seed value dynamically determined in at least one or two or more of the first to fourth dynamic seed determination methods, and In operation 710, an authentication code is dynamically generated by substituting the identified or determined seed value into a designated code generation algorithm. The electronic module 500 outputs the generated authentication code through the proximity wireless communication unit 520 at least once according to a specified procedure (720).

8 is a diagram illustrating a process of transmitting a unique code through proximity wireless communication according to an embodiment of the present invention.

In more detail, FIG. 8 illustrates a proximity wireless communication by checking a unique code stored in the electronic module 500 embedded in the touch device 100 when the touch device 100 is pressed by the touch pad 300 of the target device. As a process of transmitting through the present invention, those skilled in the art to which the present invention pertains, various implementation methods (eg, some steps) for the unique code transmission process by referring to and / or modifying the drawing 8 May be omitted or the order may be changed), but the present invention includes all the implementation methods inferred above, and the technical features are not limited to the implementation method shown in FIG.

Referring to FIG. 8, the electronic module 500 checks whether the touch device 100 is pushed to the touch pad 300 of the target device (800), or the touch device 100 is in close proximity to the target device. Verify that is activated (805). If it is confirmed that the indentation of the touch device 100 or the proximity wireless communication is activated, the electronic module 500 may store intrinsic data stored in at least one or two or more of the first to third unique code storage methods. In operation 810, the code is output through the proximity wireless communication unit 520 and the identified unique code is output at least once according to a designated procedure (815).

100: touch device 105: touch unit
110: fusion module 115: solder
120: fixed frame 125: housing portion
130: stamping implement 135: sliding part
140: elastic portion 145: shock module
150: charge charging unit 500: electronic module

Claims (33)

In the touch device that touches N (N≥3) contact points on the touch pad of the designated target device that supports multi-touch,
N touch parts made of a conductive material and having contact surfaces of a predetermined area or more;
N welding modules embedded or fixed to one side of the conductive material and the fusion surface is formed on the other side;
The contact surfaces of the N touch units may be touched to form and design a designated geometric structure including a predetermined separation distance relationship and an angular relationship on a second coordinate plane corresponding to a touch pad of a designated target device. A fixing frame for welding the welding surface to a designated position; And
And a 쥠 module connected to the fixed frame and formed to be gripped by a user's hand.
The geometry of the design includes a combination of a distance relationship and an angular relationship between center points formed by line segments connecting center points on each contact surface of the N touch parts,
The separation distance includes a distance greater than or equal to a minimum discrimination recognition distance for distinguishing and identifying a close touch by each contact surface of two or more touch units as different touch points on the secondary coordinate plane,
And the touched geometry is used as an authentication value for authenticating performance of a specified operation of a specific program driven in a target device having a touch pad to which the N touch units are touched.
The method of claim 1, wherein the contact surface,
A fused touch device comprising a contact area of at least a minimum touch recognition area recognizable by the target device.
delete delete delete delete delete delete The method of claim 1, wherein the fusion module,
A fusion-type touch device, characterized in that it comprises a buried groove in which the touch unit is embedded or a fixed surface to which the touch unit is fixed.
delete delete delete delete The method of claim 1, wherein the touch unit,
A fusion-type touch device, characterized in that an electrical circuit is formed by the fin module and the conductive material via the fusion module and the fixing frame.
delete delete delete delete The method of claim 1,
A fusion-type touch device, characterized in that it further comprises a push-in implementation to implement a touch feeling that the N touch parts are simultaneously touched by the touch pad by the force.
The method of claim 19, wherein the stamping implement unit,
슬라이딩 a sliding portion for sliding the fixed frame and the 이 module by a predetermined distance by a force applied in a direction perpendicular to the touch pad or the contact surface by the module,
A fusion-type touch device, characterized in that it comprises one or more of the elastic portion for restoring the fixed frame and the shock module to the state before sliding as the pressure pull is released.
delete delete delete delete delete delete delete delete delete delete delete delete delete

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