Finger controller

Abstract

The utility model relates to a finger controller which comprises a sleeving part, a fixing part and a touch controller, the sleeving part is connected to one end of the fixing part, the touch controller is arranged on the sleeving part, the sleeving part can twist relative to the fixing part, and the finger controller is arranged on a finger of a human body in a sleeving mode. The human body finger is provided with a fingertip, a first near fingertip part and a second far fingertip part, the fingertip is located at the front end of the first near fingertip part, the second far fingertip part is connected to the rear end of the first near fingertip part, and the human body finger is further provided with a phalanx joint. The phalanx joint is connected between the first near fingertip part and the second far fingertip part, the first near fingertip part is sleeved in the sleeving part, and the second far fingertip part is fixed in the fixing part.

Description

Technical Field

[0001] The utility model relates to a controller, in particular to a controller which is sleeved on a finger of a human body for use. Background Art

[0002] With the development of remote control technology, various remote controls are now widely used in people's lives, such as TV remote controls, air conditioner remote controls and so on.

[0003] The overall size of a traditional remote control is relatively large, which is not suitable for carrying around and cannot be matched with some special usage scenarios.

[0004] like Figure 1 As shown, a small controller is used. In some special usage scenarios, small controller remote controls are widely used by people due to their portability, miniaturization, and ease of use.

[0005] like Figure 1 The small controller shown generally includes a main body 1 and a plurality of control buttons 2. This type of small controller is generally carried around by people for use at any time or fixed in some specific locations for use.

[0006] When in use, the user generates a control signal by pressing the control button 2, and the control signal is transmitted to the terminal device via WIFI, Bluetooth, etc., so as to achieve the purpose of remotely controlling the terminal device.

[0007] The above-mentioned small controller still has many disadvantages when it is used, which are described as follows.

[0008] First, it cannot be worn on the human body and is generally used by holding it in the hand, which makes the user feel unsatisfactory. Secondly, its fixing method is relatively simple and cannot be firmly fixed in a fixed position. Thirdly, when it is used in conjunction with a strength training system, due to the inconvenient operation, the user cannot control the device to be turned off immediately, and there is a high operational risk. As mentioned above, this is the main disadvantage of the prior art. Utility Model Content

[0009] The technical solution adopted by the utility model is: a finger controller, comprising a sleeve part (100), a fixed part (200) and a touch controller (300), wherein the sleeve part (100) is connected to one end of the fixed part (200), the touch controller (300) is arranged on the sleeve part (100), the sleeve part (100) can be twisted relative to the fixed part (200), the finger controller is sleeved on a human finger, and the human finger has a fingertip (10), a first proximal fingertip part (20) and a second proximal fingertip part (20). and a second distal fingertip portion (30), the fingertip (10) being located at the front end of the first proximal fingertip portion (20), the second distal fingertip portion (30) being connected to the rear end of the first proximal fingertip portion (20), the human finger also having a phalangeal joint (40), the phalangeal joint (40) being connected between the first proximal fingertip portion (20) and the second distal fingertip portion (30), the first proximal fingertip portion (20) being sleeved in the sleeved portion (100), and the second distal fingertip portion (30) being fixed in the fixed portion (200).

[0010] A finger controller comprises a sleeved portion (100), a fixed portion (200) and a touch controller (300), wherein the sleeved portion (100) is connected to one end of the fixed portion (200), the touch controller (300) is arranged on the sleeved portion (100), the sleeved portion (100) can be twisted relative to the fixed portion (200), the finger controller is sleeved on a human finger, the human finger comprises a fingertip (10), a first proximal fingertip portion (20) and a second distal fingertip portion (30), the fingertip (10) is located at the front end of the first proximal fingertip portion (20), the second distal fingertip portion (30) is connected to the rear end of the first proximal fingertip portion (20), the human finger also has a phalangeal joint (40), the phalangeal joint (40) is connected between the first proximal fingertip portion (20) and the second distal fingertip portion (30), the first proximal fingertip portion (20) is sleeved in the sleeved portion (100), and the second distal fingertip portion (30) is fixed in the fixed portion (200).

[0011] The finger controller is sleeved on the human finger, and the human finger moves to trigger the touch controller (300) on the sleeved part (100), and the touch controller (300) generates a control signal (S), which is transmitted to a device terminal (P). The control signal (S) controls the working state of the device terminal (P), and an external force (F) acts on the touch controller (300) to trigger the touch controller (300).

[0012] The finger controller also includes a signal processor (400), the control signal (S) generated by the touch controller (300) is transmitted to the signal processor (400), the signal processor (400) transmits the control signal (S) to the device terminal (P), and controls the working state of the device terminal (P) through the control signal (S).

[0013] The finger controller further comprises a twisting portion (500), wherein the twisting portion (500) is connected between the inserting portion (100) and the fixing portion (200).

[0014] The signal processor (400) is an external signal processor, and the signal processor (400) is separately arranged outside the finger controller. The signal processor (400) is connected to the touch controller (300) via a wire (410), and a battery is arranged in the signal processor (400).

[0015] The beneficial effects of the utility model are as follows: the utility model provides a finger controller, which can be firmly sleeved on a human finger and is easy to use.

[0016] The utility model provides a finger controller, comprising a sleeve part, a fixed part and a touch controller, wherein a first proximal fingertip part of a human finger is sleeved in the sleeve part, and a second distal fingertip part of the human finger is fixed in the fixed part. The wearing method is simple and stable.

[0017] The utility model provides a finger controller, which is worn on a human finger. When the human finger moves, it triggers a touch controller on a sleeve part. The touch controller generates a control signal, which is transmitted to a device terminal. The working state of the device terminal is controlled by the control signal. The working method is simple and reliable. BRIEF DESCRIPTION OF THE DRAWINGS

[0018] Figure 1 It is a schematic diagram of the prior art.

[0019] Figure 2 It is a three-dimensional structural schematic diagram of the utility model.

[0020] Figure 3 It is a schematic diagram of a human finger of the utility model.

[0021] Figure 4 This is a schematic diagram of the utility model being mounted on a human finger.

[0022] Figure 5 This is a schematic diagram of the touch controller generating a control signal when an external force acts on the touch controller according to the present invention.

[0023] Figure 6This is a schematic diagram of the movement of human fingers in the first mode of the utility model, and the phalangeal joints are not bent.

[0024] Figure 7 This is a schematic diagram of the movement of human fingers and the bending of phalangeal joints in the second embodiment of the utility model.

[0025] Figure 8 It is a schematic diagram of the signal processor of the utility model working in cooperation with the touch controller.

[0026] Fig. 9 It is a schematic diagram of the action of the twisting part of the utility model.

[0027] Fig.10 It is a schematic diagram of the cross-sectional structure of the utility model.

[0028] Fig.11 It is a schematic diagram of the binding ring sleeve of the utility model.

[0029] Fig.12 This is a schematic diagram of the signal processor of the utility model being connected to the touch controller via wires.

[0030] Fig.13 This is a schematic diagram of the first structural decomposition of the first embodiment of the utility model.

[0031] Fig.14 This is a schematic diagram of the second structural decomposition of the first embodiment of the utility model.

[0032] Fig.15 It is a schematic diagram of the three-dimensional structure of the first embodiment of the utility model.

[0033] Fig.16 This is a schematic structural diagram of a torsion protection spring according to Embodiment 1 of the present utility model.

[0034] Fig.17 This is a schematic diagram of the principle of the second implementation mode of the present utility model.

[0035] Fig.18 Schematic diagram of a user wearing a finger controller and holding a barbell bar. DETAILED DESCRIPTION

[0036] like Figures 2 to 18 As shown, a finger controller comprises an inserting part (100), a fixing part (200) and a touch controller (300).

[0037] like Figure 2 As shown, the inserting portion (100) is connected to one end of the fixing portion (200), the touch controller (300) is arranged on the inserting portion (100), and the inserting portion (100) can be twisted relative to the fixing portion (200).

[0038] The finger controller is sleeved on a human finger.

[0039] like Figure 3 As shown, the human finger comprises a fingertip (10), a first proximal fingertip portion (20) and a second distal fingertip portion (30), wherein the fingertip (10) is located at the front end of the first proximal fingertip portion (20), and the second distal fingertip portion (30) is connected to the rear end of the first proximal fingertip portion (20). The human finger also comprises a phalangeal joint (40), and the phalangeal joint (40) is connected between the first proximal fingertip portion (20) and the second distal fingertip portion (30).

[0040] That is to say, from the fingertip to the palm, the human finger sequentially comprises the fingertip (10), the first proximal fingertip portion (20), the phalangeal joint (40) and the second distal fingertip portion (30), and the above-mentioned human finger can be the thumb (A), index finger (B), middle finger (C), ring finger and little finger of the left or right hand.

[0041] like Figure 4 As shown, the first proximal fingertip portion (20) is sleeved in the sleeved portion (100), and the second distal fingertip portion (30) is fixed in the fixed portion (200).

[0042] like Figure 5 As shown, the finger controller is mounted on the human finger, and the human finger moves to trigger the touch controller (300) on the mounted part (100), and the touch controller (300) generates a control signal (S), which is transmitted to a device terminal (P), and the working state of the device terminal (P) is controlled by the control signal (S).

[0043] During specific implementation, an external force (F) acts on the touch controller (300) to trigger the touch controller (300).

[0044] During specific implementation, the touch controller (300) is triggered by two movement modes of the human finger.

[0045] like Figure 6 As shown, in mode 1, the human finger moves, the phalanx joint (40) does not bend, and the inserted part (100) does not twist relative to the fixed part (200).

[0046] The external force (F) acts on the touch controller (300) to trigger the touch controller (300).

[0047] like Figure 7As shown, in mode 2, the human finger moves, the phalanx joint (40) bends, and the inserted part (100) is twisted relative to the fixed part (200).

[0048] The external force (F) acts on the touch controller (300) to trigger the touch controller (300).

[0049] like Figure 8 As shown, in a specific implementation, the finger controller further includes a signal processor (400).

[0050] The control signal (S) generated by the touch controller (300) is transmitted to the signal processor (400), and the signal processor (400) transmits the control signal (S) to the device terminal (P), and controls the working state of the device terminal (P) through the control signal (S).

[0051] In practice, the control signal (S) generated by the touch controller (300) is transmitted to the signal processor (400) via a wired or wireless method.

[0052] The signal processor (400) transmits the control signal (S) to the device terminal (P) via wired or wireless means.

[0053] like Fig. 9 As shown, in a specific implementation, the finger controller further includes a twisting portion (500), which is connected between the inserting portion (100) and the fixing portion (200), and the twisting portion (500) is made of an elastic material, such as rubber, silicone, etc. In practice, the twisting portion (500), the inserting portion (100) and the fixing portion (200) are connected to form a whole and are made of the same material. The twisting portion (500) can undergo physical deformation, so that the inserting portion (100) is twisted relative to the fixing portion (200).

[0054] like Fig.10 As shown, during the specific implementation, the inserting portion (100) includes a fingertip pressing pocket (110), the touch controller (300) is arranged in the fingertip pressing pocket (110), the first proximal fingertip portion (20) is inserted into the inserting portion (100), the fingertip portion (21) of the first proximal fingertip portion (20) is pressed on the fingertip pressing pocket (110), the touch controller (300) is located below the fingertip portion (21), a sleeve ring (120) is arranged on the fingertip pressing pocket (110), the first proximal fingertip portion (20) is inserted into the inserting portion (100), and the fingertip (10) is inserted into the sleeve ring (120) to fix the first proximal fingertip portion 20 in the inserting portion (100).

[0055] In a specific implementation, the touch controller (300) is a press-type touch controller, which comprises a press sheet (310) and a sensing unit (320).

[0056] like Fig.11 As shown, in a specific implementation, the fixing portion (200) includes a binding loop (210), and the second distal fingertip portion 30 is bound in the binding loop (210). In practice, the binding loop (210) can be made of a strap that can adjust the tightness, such as a Velcro strap, an adjustment strap, etc.

[0057] There are multiple implementations of the signal processor (400) when working in conjunction with the touch controller (300), which are described in detail below.

[0058] like Figures 12 to 16 As shown, in the first embodiment, the signal processor (400) is connected to the touch controller (300) via a wire (410).

[0059] The signal processor (400) comprises a processor circuit board (420) and a box body (430), wherein the box body (430) is fixedly arranged on the fixed part (200), the processor circuit board (420) is arranged in the box body (430), and a plurality of electronic components such as a signal receiving module, a signal transmitting module, and a signal processing module are integrated on the processor circuit board (420), the wire (410) is connected between the processor circuit board (420) and the touch controller (300), and a battery (440) is also arranged in the box body (430), and the battery (440) provides power supply for the signal processor (400) and the touch controller (300).

[0060] During specific implementation, a ring sleeve slot (610) is provided on the box body (430), the top of the binding ring sleeve (210) is arranged in the ring sleeve slot (610), the box body snap-fitting top cover (450) is buckled on the top of the box body (430), and the binding ring sleeve (210) is clamped between the box body snap-fitting top cover (450) and the box body (430).

[0061] The box body (430) comprises a top cover (620), a central frame body (630) and a bottom cover (640), wherein the top cover (620) is covered on the top of the central frame body (630), the bottom cover (640) is covered on the bottom of the central frame body (630), the battery (440) is arranged in the central frame body (630), and the processor circuit board (420) is arranged on the top cover (620) corresponding to the battery (440).

[0062] In practice, the wire (410) is an external wire, which can reduce the difficulty of production.

[0063] At the same time, wire breakage can be avoided.

[0064] A torsion protection spring (510) is arranged outside the torsion portion (500), and the wire (410) is inserted into the torsion protection spring (510). Inserting the wire (410) into the torsion protection spring (510) can, firstly, protect the wire (410), and secondly, shield the wire (410) to enhance the aesthetic effect of the product. In addition, the torsion protection spring (510) can also achieve the effect of applying torsion to the torsion portion (500) by virtue of its own elastic force.

[0065] In a specific implementation, the torsion protection spring (510) comprises two fixed ends (511), an external part (512) and an internal part (513), wherein the two fixed ends (511) are fixed on the box body (430) of the signal processor (400), the external part (512) is located outside the torsion part (500), and the internal part (513) is inserted into the insertion part (100), and the torsion protection spring (510) is annular as a whole.

[0066] like Fig.17 As shown in the second embodiment, the signal processor (400) is an external signal processor, and the signal processor (400) is separately arranged outside the finger controller. The signal processor (400) is connected to the touch controller (300) via a wire (410). An external battery is arranged in the signal processor (400), and the external battery provides power supply for the touch controller (300).

[0067] The touch controller (300) generates a switch control signal (S1), which is transmitted to the signal processor (400) via the wire (410), and the signal processor (400) transmits the switch control signal (S1) to the device terminal (P), and controls the switch working state of the device terminal (P) via the switch control signal (S1).

[0068] The signal processor (400) is provided with a working mode adjustment module, through which a working mode control signal (S2) is generated, and the signal processor (400) transmits the working mode control signal (S2) to the device terminal (P), and controls the working state of the device terminal (P) through the working mode control signal (S2).

[0069] In practice, the signal processor (400) may be a digital watch, and a control APP is provided in the working mode adjustment module.

[0070] Embodiment 3: The signal processor (400) is integrated into the touch controller (300).

[0071] The utility model has many usage scenarios. The following is only an explanation of the use in conjunction with the strength training system. The specific product technology of the strength training system has been recorded in many public documents, such as CN 2023105529186 and CN2023105531858, which will not be repeated here.

[0072] like Fig.18 As shown, when a user wears the finger controller of the first embodiment, the user holds the barbell (G). When the user needs to turn off the strength training system, the user only needs to bend his fingers. At this moment, the external force (F) is generated between the touch controller (300) and the barbell (G). At this moment, the touch controller (300) generates the control signal (S), which is transmitted to the strength training system. The strength training system is turned off or on by the control signal (S).

[0073] When a user wears the finger controller of the second embodiment, the user can first generate the working mode control signal (S2) through the signal processor (400) (digital watch), and the working mode control signal (S2) controls the working state of the strength training system, such as the adjustment of strength, speed, training time, etc.

[0074] Afterwards, the user holds the barbell (G), and when the user needs to turn off the strength training system, he only needs to bend his fingers. At this moment, the external force (F) is generated between the touch controller (300) and the barbell (G). At this moment, the touch controller (300) generates the switch control signal (S1), and the switch control signal (S1) is transmitted to the strength training system. The strength training system is turned off or on through the switch control signal (S1).

Claims

1. A finger controller, characterized in that: The invention comprises a sleeved portion (100), a fixed portion (200) and a touch controller (300), wherein the sleeved portion (100) is connected to one end of the fixed portion (200), the touch controller (300) is arranged on the sleeved portion (100), and the sleeved portion (100) can be twisted relative to the fixed portion (200). The finger controller is sleeved on a human finger. The human finger comprises a fingertip (10), a first proximal fingertip portion (20), and a second distal fingertip portion (30). The fingertip (10) is located at the front end of the first proximal fingertip portion (20), and the second distal fingertip portion (30) is connected to the rear end of the first proximal fingertip portion (20). The human finger further comprises a phalangeal joint (40), and the phalangeal joint (40) is connected between the first proximal fingertip portion (20) and the second distal fingertip portion (30). The first proximal fingertip portion (20) is sleeved in the sleeved portion (100), and the second distal fingertip portion (30) is fixed in the fixed portion (200).

2. A finger controller as claimed in claim 1, characterized in that: The finger controller is sleeved on the human finger, and the human finger moves to trigger the touch controller (300) on the sleeved part (100), and the touch controller (300) generates a control signal (S), which is transmitted to a device terminal (P), and the working state of the device terminal (P) is controlled by the control signal (S), and an external force (F) acts on the touch controller (300) to achieve the triggering of the touch controller (300).

3. A finger controller as claimed in claim 1, characterized in that: The finger controller also includes a signal processor (400); the touch controller (300) generates a control signal (S); the control signal (S) is transmitted to the signal processor (400); the signal processor (400) transmits the control signal (S) to the device terminal (P); and the working state of the device terminal (P) is controlled by the control signal (S).

4. A finger controller as claimed in claim 3, characterized in that: The signal processor (400) is connected to the touch controller (300) via a wire (410), and comprises a processor circuit board (420) and a box body (430), wherein the box body (430) is fixedly arranged on the fixed part (200), the processor circuit board (420) is arranged in the box body (430), the wire (410) is connected between the processor circuit board (420) and the touch controller (300), and a battery (440) is also arranged in the box body (430).

5. A finger controller as claimed in claim 4, characterized in that: The box body (430) comprises a top cover (620), a central frame body (630) and a bottom cover (640), wherein the top cover (620) is covered on the top of the central frame body (630), the bottom cover (640) is covered on the bottom of the central frame body (630), the battery (440) is arranged in the central frame body (630), and the processor circuit board (420) is arranged on the top cover (620) corresponding to the battery (440).

6. A finger controller as claimed in claim 4, characterized in that: The wire (410) is an external wire. The finger controller further comprises a twisting portion (500). The twisting portion (500) is connected between the inserting portion (100) and the fixing portion (200). The twisting portion (500) is made of an elastic material. A torsion protection spring (510) is arranged outside the torsion portion (500), and the wire (410) is inserted into the torsion protection spring (510). The wire (410) is inserted into the torsion protection spring (510).

7. A finger controller as claimed in claim 3, characterized in that: The signal processor (400) is an external signal processor. The signal processor (400) is separately arranged outside the finger controller. The signal processor (400) is connected to the touch controller (300) via a wire (410). An external battery is arranged in the signal processor (400). The external battery provides power supply for the touch controller (300). The touch controller (300) generates a switch control signal (S1), the switch control signal (S1) is transmitted to the signal processor (400) via the wire (410), the signal processor (400) transmits the switch control signal (S1) to the device terminal (P), and the switch operating state of the device terminal (P) is controlled via the switch control signal (S1). The signal processor (400) is provided with a working mode adjustment module, through which a working mode control signal (S2) is generated, and the signal processor (400) transmits the working mode control signal (S2) to the device terminal (P), and controls the working state of the device terminal (P) through the working mode control signal (S2).

8. A finger controller as claimed in claim 1, characterized in that: The finger controller further comprises a torsion portion (500), wherein the torsion portion (500) is connected between the insertion portion (100) and the fixing portion (200), and the torsion portion (500) is made of an elastic material.

9. A finger controller, characterized in that: The invention comprises a sleeved portion (100), a fixed portion (200) and a touch controller (300), wherein the sleeved portion (100) is connected to one end of the fixed portion (200), the touch controller (300) is arranged on the sleeved portion (100), and the sleeved portion (100) can be twisted relative to the fixed portion (200). The finger controller is sleeved on a human finger. The human finger comprises a fingertip (10), a first proximal fingertip portion (20), and a second distal fingertip portion (30). The fingertip (10) is located at the front end of the first proximal fingertip portion (20), and the second distal fingertip portion (30) is connected to the rear end of the first proximal fingertip portion (20). The human finger further comprises a phalangeal joint (40), and the phalangeal joint (40) is connected between the first proximal fingertip portion (20) and the second distal fingertip portion (30). The first proximal fingertip portion (20) is sleeved in the sleeved portion (100), and the second distal fingertip portion (30) is fixed in the fixed portion (200). The finger controller is sleeved on the human finger, and the human finger moves to trigger the touch controller (300) on the sleeved part (100), and the touch controller (300) generates a control signal (S), and the control signal (S) is transmitted to a device terminal (P). The working state of the device terminal (P) is controlled by the control signal (S), and an external force (F) acts on the touch controller (300) to achieve the triggering of the touch controller (300). The finger controller also includes a signal processor (400), the control signal (S) generated by the touch controller (300) is transmitted to the signal processor (400), the signal processor (400) transmits the control signal (S) to the device terminal (P), and controls the working state of the device terminal (P) through the control signal (S). The finger controller also includes a twisting portion (500), wherein the twisting portion (500) is connected between the inserting portion (100) and the fixing portion (200).

10. A finger controller as claimed in claim 9, characterized in that: The signal processor (400) is an external signal processor, the signal processor (400) is separately arranged outside the finger controller, the signal processor (400) is connected to the touch controller (300) via a wire (410), and a battery is arranged in the signal processor (400).

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