TW201635090A - Electronic devices with biological sensing devices - Google Patents

Abstract

An embodiment of the invention provides an electronic device with biological sensing devices. The electronic device comprises a first sensing pad, a second sensing pad, a sensing circuit, a power, a switch device and a processor. The sensing circuit is coupled to the first sensing pad and the second sensing pad. When the first sensing pad and the second sensing pad are shirt, the sensing circuit outputs a first signal. The switch device is coupled to the power to receive the first signal. The processor is coupled to the switch device and when the switch device is turned on due to the first signal, the processor is powered by the power.

Description

Electronic device with biosensing device

The present invention is an electronic device, and more particularly an electronic device having a biosensing device.

At present, peripheral devices such as a mouse, a headphone, a keyboard, etc., can only operate by relying on the connected electronic devices, so that the peripheral devices do not consume the power of the electronic device as long as the peripheral devices are removed. In addition, some peripheral devices have independent power sources and do not consume power from electronic devices. However, if these peripheral devices are not turned off, they still consume power from themselves or electronic devices. If the electronic device is turned off by a physical switch, it is not convenient for the user.

An embodiment of the present invention provides an electronic device having a bio-sensing device, including a first sensing pad, a second sensing pad, a sensing circuit, a power source, a switching device, and a controller. The sensing circuit is coupled to the first sensing pad and the second sensing pad. When the first sensing pad and the second sensing pad are short-circuited, the sensing circuit outputs a first signal. The switching device is coupled to the power source and receives the first signal. The controller is coupled to the switching device, wherein when the switching device receives the first signal and is turned on, the controller is powered by the power source.

Another embodiment of the present invention provides a biosensing device The electronic device includes a first sensing pad, a second sensing pad, a sensing circuit, a first power source, a second power source, a switching device, and a controller. The sensing circuit is coupled to the first power source, the first sensing pad and the second sensing pad, and when the first sensing pad and the second sensing pad are short-circuited, the sensing circuit is powered by the first power source and A first signal is output. The switching device is coupled to the second power source to receive the first signal. The controller is coupled to the switching device, wherein when the switching device receives the first signal and is turned on, the controller is powered by the second power source.

11, 12, 21, 22, 31, 32, 41, 42‧‧‧ Sense pads

13, 23, 33, 43‧‧‧ Induction circuits

14, 24, 34, 44‧‧‧ switchgear

15, 45‧‧‧ power supply

16, 26, 36, 46‧‧ ‧ controller

27, 37‧‧‧ first power supply

25, 35‧‧‧second power supply

47‧‧‧Detection circuit

1 is a schematic diagram of an embodiment of an electronic device having a biosensing device in accordance with the present invention.

2 is a schematic view of another embodiment of an electronic device having a biosensing device in accordance with the present invention.

Figure 3 is a schematic illustration of another embodiment of an electronic device having a biosensing device in accordance with the present invention.

Figure 4 is a schematic illustration of another embodiment of an electronic device having a biosensing device in accordance with the present invention.

Figure 5 is a flow chart of an embodiment of a method of operating an electronic device having a biosensing device in accordance with the present invention.

Figure 6 is a flow chart showing another embodiment of a method of operating an electronic device having a biosensing device in accordance with the present invention.

Figure 7 is a schematic view of a mouse having a biosensing device in accordance with the present invention.

Figure 8 is a schematic illustration of a wireless headset having a biosensing device in accordance with the present invention.

1 is a schematic diagram of an embodiment of an electronic device having a biosensing device in accordance with the present invention. The electronic device includes sensing pads 11 and 12, a sensing circuit 13, a switching device 14, a power source 15, and a controller 16. The sensing pads 11 and 12 are disposed on a housing of the electronic device. The sensing circuit 13 is coupled to the sensing pads 11 and 12, and outputs a first signal S1 when the sensing pads 11 and 12 are short-circuited by a user's touch. The switching device 14 is coupled to the power source 15 and receives the first signal S1. The controller 16 is coupled to the switching device 14. When the switching device 14 is turned on when receiving the first signal S1, the controller 16 is powered by the power source 15.

In another embodiment, when the sensing pads 11 and 12 are short-circuited by a user touch, the logic level of the first signal S1 is pulled up from a logic low level to a logic high level.

When the switching device 14 is turned on because of the first signal S1, the controller 16 starts to receive power from the power source 15 to operate. The controller 16 now monitors the logic state of the first signal S1 in addition to maintaining the operation of the electronic device. When the controller 16 detects that the logic level of the first signal S1 changes and meets a predetermined condition (including but not limited to, the logic level of the first signal has changed for a predetermined time, or the bio-sensing occurs When the electronic device of the device is in an idle state, the controller 16 sends a second control signal S2 to the switching device 14 for turning off the switching device 14.

Specifically, when the controller 16 detects that the logic level of the first signal S1 is pulled from the logic high level to the logic low level, a timer within the controller 16 begins timing. When the controller 16 detects that the logic level of the first signal S1 is maintained When the time of the logic low level has exceeded a predetermined time, the controller 16 issues a second control signal S2 to the switching device 14 for turning off the switching device 14. Since the switching device 14 is turned off, the power source 15 also stops outputting power to the controller 16, and the controller 16 therefore stops operating.

It should be noted that the switching device 14 is controlled by the first signal S1 before being turned on, and is not turned off after being turned on because the logic level of the first signal S1 changes. The switching device 14 is only turned off by the second control signal S2 after being turned on. Therefore, the switching device 14 is controlled by the sensing circuit 13 in the off state, and the switching device 14 is controlled by the controller 16 in the on state.

In the present embodiment, the power of the sensing circuit 13 is provided by the power source 15. However, if the sensing pads 11 and 12 are not short-circuited by the user's touch, the sensing pads 11 and 12, the sensing circuit 13 and the power source 15 do not form a power loop, so the sensing circuit 13 does not consume power. Therefore, through the circuit design of the embodiment, as long as the sensing pads 11 and 12 are not short-circuited by the user's touch, the power consumption of the overall circuit is very low, and the power saving is achieved.

2 is a schematic view of another embodiment of an electronic device having a biosensing device in accordance with the present invention. The electronic device includes the sensing pads 21 and 22, the sensing circuit 23, the first power source 27, the switching device 24, the second power source 25, and the controller 26. The sensing pads 21 and 22 are disposed on a housing of the electronic device. The sensing circuit 23 is coupled to the sensing pads 21 and 22, and outputs a first signal S2 when the sensing pads 21 and 22 are short-circuited by a user touch. In another embodiment, when the sensing pads 21 and 22 are shorted due to a user touch, the logic level of the first signal S2 is pulled up from a logic low level to a logic high level.

When the switching device 24 is turned on because of the first signal S2, the control The device 26 begins to receive power from the second power source 25 to operate. The controller 26 now monitors the logic state of the first signal S2 in addition to maintaining the operation of the electronic device. When the controller 26 detects that the logic level of the first signal S2 is pulled from the logic high level to the logic low level, a timer within the controller 26 begins to time. When the controller 26 detects that the logic level of the first signal S2 is maintained at the logic low level for a predetermined time, the controller 26 sends a second control signal S2 to the switching device 24 for turning off the switching device. twenty four. Since the switching device 24 is turned off, the second power source 25 also stops outputting power to the controller 26, and the controller 26 therefore stops operating.

It should be noted that the switching device 24 is controlled by the first signal S2 before being turned on, and is not turned off after being turned on because the logic level of the first signal S2 changes. The switching device 24 is only turned off by the second control signal S2 after being turned on. Therefore, the switching device 24 is controlled by the sensing circuit 23 in the off state, and the switching device 24 is controlled by the controller 26 in the on state.

In the present embodiment, the power of the sensing circuit 23 is provided by the first power source 27, and other circuit components (including components not shown) are powered by the second power source 25. However, if the sensing pads 21 and 22 are not short-circuited by the user's touch, the sensing pads 21 and 22, the sensing circuit 23 and the first power source 25 do not form a power loop, so the sensing circuit 23 does not consume power. . At the same time, since the switching device 24 is in the off state, the switching device 24, the second power source 25, and the controller 26 also do not form a power circuit, and the second power source 25 does not output power. Therefore, through the circuit design of the embodiment, as long as the sensing pads 21 and 22 are not short-circuited by the user's touch, the power consumption of the overall circuit is very low, and the power saving is achieved.

Figure 3 is a schematic illustration of another embodiment of an electronic device having a biosensing device in accordance with the present invention. Compared with the electronic device shown in FIG. 2, in the present embodiment, the controller 36 is not directly connected to the second power source 35, but is connected to the second power source 35 through the switching device 34. In other words, the controller 36 can only be powered by the second power source 35 through the switching device 34 and cannot be directly powered by the second power source 35.

The electronic device includes sensing pads 31 and 32, a sensing circuit 33, a first power source 37, a switching device 34, a second power source 35, and a controller 36. The sensing pads 31 and 32 are disposed on a housing of the electronic device. The sensing circuit 33 is coupled to the sensing pads 31 and 32, and outputs a first signal S3 when the sensing pads 31 and 32 are short-circuited by a user touch. In another embodiment, when the sensing pads 31 and 32 are short-circuited by the user's touch, the logic level of the first signal S3 is pulled up from the logic low level to a logic high level.

When the switching device 34 is turned on because of the first signal S3, the controller 36 operates by receiving the power transmitted from the second power source 35 through the switching device 34. At this time, the controller 36 monitors the logic state of the first signal S3 in addition to the operation of the electronic device. When the controller 36 detects that the logic level of the first signal S3 is pulled from the logic high level to the logic low level, a timer in the controller 36 starts counting. When the controller 36 detects that the logic level of the first signal S3 is maintained at the logic low level for a predetermined time, the controller 36 sends a second control signal S3 to the switching device 34 for turning off the switching device. 34. Since the switching device 34 is turned off, the second power source 35 also stops outputting power to the controller 36, and the controller 36 therefore ceases to operate.

It should be noted that the switching device 34 is controlled by the first before being turned on. Signal S3, when turned on, will not be turned off due to the logic level change of the first signal S3. The switching device 34 is only turned off by the second control signal S3 after being turned on. Therefore, the switching device 34 is controlled by the sensing circuit 33 in the off state, and the switching device 34 is controlled by the controller 36 in the on state.

In the present embodiment, the power of the sensing circuit 33 is provided by the first power source 37, and other circuit components (including components not shown) are powered by the second power source 35. However, if the sensing pads 31 and 32 are not short-circuited by the user's touch, the sensing pads 31 and 32, the sensing circuit 33 and the first power source 35 do not form a power loop, so the sensing circuit 33 does not consume power. . Meanwhile, since the switching device 34 is in the off state, the switching device 34, the second power source 35, and the controller 36 do not form a power circuit, and the second power source 35 does not output power. Therefore, through the circuit design of the embodiment, as long as the sensing pads 31 and 32 are not short-circuited by the user's touch, the power consumption of the overall circuit is very low, and the power saving is achieved.

Figure 4 is a schematic illustration of an embodiment of an electronic device having a biosensing device in accordance with the present invention. The electronic device includes the sensing pads 41 and 42, the sensing circuit 43, the switching device 44, the power source 45, the controller 46, and the detecting circuit 47. The sensing pads 41 and 42 are disposed on a housing of the electronic device. The sensing circuit 43 is coupled to the sensing pads 41 and 42 and outputs a first signal S4 when the sensing pads 41 and 42 are short-circuited by a user's touch. In another embodiment, when the sensing pads 41 and 42 are shorted due to a user touch, the logic level of the first signal S4 is pulled up from the logic low level to a logic high level.

When the switching device 44 is turned on because of the first signal S4, the controller 46 starts to receive power from the power source 45 to operate. Controller 46 is now except In addition to maintaining the operation of the electronic device, the logic state of the first signal S4 is also monitored. When the controller 46 detects that the logic level of the first signal S4 is pulled from the logic high level to the logic low level, the controller 46 determines whether to turn off the switching device 44 according to the detection result of the detecting circuit 47. In this embodiment, the detecting circuit 47 is configured to detect whether the electronic device is in an idle state. When the controller 46 detects that the logic level of the first signal S4 is pulled from the logic high level to the logic low level and the electronic device is in an idle state, the controller 46 outputs the second control signal S2 to turn off the switching device 44. .

For example, if the electronic device is a mouse, the detecting circuit 47 detects whether the mouse has moved or whether a button is pressed to determine whether the electronic device is in an idle state. If the electronic device is a keyboard, the detecting circuit 47 detects whether a button on the keyboard is pressed to determine whether the electronic device is in an idle state. If the electronic device is a headset, the detection circuit 47 detects whether a sound source signal is transmitted to the earphone, and if not, the electronic device is judged to be in an idle state.

It is to be noted that the switching device 44 is controlled by the first signal S4 before being turned on, and is not turned off after the turn-on after the logic level change of the first signal S4. The switching device 44 is only turned off by the second control signal S2 after being turned on. Therefore, the switching device 44 is controlled by the sensing circuit 43 in the off state, and the switching device 44 is controlled by the controller 46 in the on state.

In the present embodiment, the power of the sensing circuit 43 is provided by the power source 45. However, if the sensing pads 41 and 42 are not short-circuited by the user's touch, the sensing pads 41 and 42, the sensing circuit 43 and the power source 45 do not form a power loop, so the sensing circuit 43 does not consume power. Therefore, through the circuit design of this embodiment As long as the sensing pads 41 and 42 are not short-circuited by the user's touch, the power consumption of the overall circuit is very low, and the purpose of power saving is achieved.

Figure 5 is a flow chart of an embodiment of a method of operating an electronic device having a biosensing device in accordance with the present invention. The electronic device described in this embodiment may be the electronic device shown in FIGS. 1 to 4. In step S51, a sensing circuit detects that the two sensing pads are short-circuited, thus outputting a first signal S1. In step S52, a switching device is turned on because of the first signal S1, so that a controller in the electronic device is powered. In step S53, the controller continuously monitors the logic level of the first signal S1 and determines whether the logic level of the first signal S1 changes. If the logic level of the first signal S1 has not changed, then step S54 is performed and the controller continues to be powered.

If the logic level of the first signal S1 is changed, step S55 is performed. In step S55, a timer in the controller starts timing. When the controller detects that the logic level of the first signal S1 has changed for more than a predetermined time, the controller sends a second control signal S2 to the switching device. In step S56, the switching device receives the second control signal S2 and is turned off, at which time the power supply in the electronic device also stops supplying power to the controller. The electronic device will only operate again until the two sensing pads are shorted again.

Figure 6 is a flow chart showing another embodiment of a method of operating an electronic device having a biosensing device in accordance with the present invention. The electronic device described in this embodiment may be the electronic device shown in FIGS. 1 to 4. In step S61, a sensing circuit detects that the two sensing pads are short-circuited, thus outputting a first signal S1. In step S62, a switching device is turned on because of the first signal S1, so that a controller in the electronic device is powered. In step S63, the controller continuously monitors The logic level of the first signal S1 determines whether the logic level of the first signal S1 changes. If the logic level of the first signal S1 has not changed, then step S64 is performed and the controller continues to be powered.

If the logic level of the first signal S1 is changed, step S65 is performed. In step S65, the controller determines whether to turn off the switching device according to the detection result of the detecting circuit in the electronic device. In this embodiment, the detecting circuit is configured to detect whether the electronic device is in an idle state. When the controller detects that the logic level of the first signal S1 is pulled from the logic high level to the logic low level and the electronic device is in an idle state, the controller outputs a second control signal S2 to turn off the switching device. In step S66, the switching device receives the second control signal S2 and is turned off, at which time the power supply in the electronic device also stops supplying power to the controller. The electronic device will only operate again until the two sensing pads are shorted again.

Figure 7 is a schematic view of a mouse having a biosensing device in accordance with the present invention. In the present embodiment, the mouse has the circuit configuration as shown in Figs. 1 to 4. The mouse has a first button 71 and a second button 72, and the first sensor 73 is disposed on the surface of the first button 71, and the second sensor 74 is disposed on the surface of the second button 72. In an embodiment, the first sensor 73 and the second sensor 74 are a metal electrode piece. In another embodiment, the first sensor 73 and the second sensor 74 are made of a conductive material, such as a conductive rubber. In another embodiment, the first sensor 73 and the second sensor 74 can be respectively located in the regions 75, 76. Areas 75 and 76 are areas where the palm touches the mouse when the user uses the mouse. In another embodiment, the first sensor 73 and the second sensor 74 may be disposed in a matrix on the housing of the mouse.

Figure 8 is a diagram showing the absence of a biosensing device according to one of the present invention. Line headphone schematic. The wireless earphone has a circuit configuration as shown in Figs. 1 to 4. The positions of the first sensor 81 and the second sensor 82 in this embodiment are as shown. In an embodiment, the first sensor 81 and the second sensor 82 are made of a conductive material, such as a conductive rubber.

The above is only the preferred embodiment of the present invention, and the scope of the invention is not limited thereto, that is, the simple equivalent changes and modifications made by the scope of the invention and the description of the invention are All remain within the scope of the invention patent. In addition, any of the objects or advantages or features of the present invention are not required to be achieved by any embodiment or application of the invention. In addition, the abstract sections and headings are only used to assist in the search of patent documents and are not intended to limit the scope of the invention.

11, 12‧‧‧ Sense pads

13‧‧‧Induction circuit

14‧‧‧Switching device

15‧‧‧Power supply

16‧‧‧ Controller

Claims (10)

An electronic device having a bio-sensing device includes: a first sensing pad and a second sensing pad; an inductive circuit coupled to the first sensing pad and the second sensing pad, when the first sensing When the pad and the second sensing pad are short-circuited, the sensing circuit outputs a first signal; a power source; a switching device coupled to the power source to receive the first signal; and a controller coupled to the switching device, wherein When the switching device receives the first signal and is turned on, the controller is powered by the power source. The electronic device with the bio-sensing device of claim 1, wherein the controller monitors whether the logic level of the first signal changes when the controller is powered by the power source, when the first signal is When the logic level changes and meets a predetermined condition, the controller outputs a second signal to turn off the switching device. An electronic device having a biosensing device according to claim 2, wherein the switching device is controlled by the sensing circuit when in the off state, and the switching device is controlled by the controller when in the conducting state. An electronic device having a bio-sensing device according to claim 2, wherein the predetermined condition means that the logic level of the first signal has changed for a predetermined time. An electronic device having a bio-sensing device according to claim 2, wherein the predetermined condition is that the electronic device having the bio-sensing device is in an idle state. An electronic device having a bio-sensing device includes: a first sensing pad and a second sensing pad; a first power source, an inductive circuit coupled to the first power source, the first sensing pad and the second a sensing pad, when the first sensing pad and the second sensing pad are short-circuited, the sensing circuit is powered by the first power source and outputs a first signal; a second power source; a switching device coupled to the first The second power source receives the first signal; and a controller coupled to the switching device, wherein when the switching device receives the first signal and is turned on, the controller is powered by the second power source. The electronic device with a bio-sensing device according to claim 6, wherein the controller monitors whether the logic level of the first signal changes when the controller is powered by the power source, when the first signal is When the logic level changes and meets a predetermined condition, the controller outputs a second signal to turn off the switching device. An electronic device having a biosensing device according to claim 7, wherein the switching device is controlled by the sensing circuit when in the off state, and the switching device is controlled by the controller when in the conducting state. An electronic device having a bio-sensing device according to claim 7, wherein the predetermined condition means that the logic level of the first signal has changed for a predetermined time. An electronic device having a bio-sensing device according to claim 7, wherein the predetermined condition is that the electronic device having the bio-sensing device is in an idle state.