CN114356126A - Multi-coil mouse pad with dynamic adjustment configuration - Google Patents
Multi-coil mouse pad with dynamic adjustment configuration Download PDFInfo
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- CN114356126A CN114356126A CN202011048782.8A CN202011048782A CN114356126A CN 114356126 A CN114356126 A CN 114356126A CN 202011048782 A CN202011048782 A CN 202011048782A CN 114356126 A CN114356126 A CN 114356126A
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- Y—GENERAL TAGGING OF NEW TECHNOLOGICAL DEVELOPMENTS; GENERAL TAGGING OF CROSS-SECTIONAL TECHNOLOGIES SPANNING OVER SEVERAL SECTIONS OF THE IPC; TECHNICAL SUBJECTS COVERED BY FORMER USPC CROSS-REFERENCE ART COLLECTIONS [XRACs] AND DIGESTS
- Y02—TECHNOLOGIES OR APPLICATIONS FOR MITIGATION OR ADAPTATION AGAINST CLIMATE CHANGE
- Y02B—CLIMATE CHANGE MITIGATION TECHNOLOGIES RELATED TO BUILDINGS, e.g. HOUSING, HOUSE APPLIANCES OR RELATED END-USER APPLICATIONS
- Y02B40/00—Technologies aiming at improving the efficiency of home appliances, e.g. induction cooking or efficient technologies for refrigerators, freezers or dish washers
Abstract
The present disclosure claims a multi-coil mouse pad with dynamic configuration adjustment, which is suitable for operating in cooperation with a wireless mouse, the mouse pad comprising: the charging circuit comprises a first charging circuit, a second charging circuit, a control circuit, a power module, a conversion circuit and a body. The first charging circuit, the second charging circuit and the conversion circuit are electrically connected with the control circuit respectively, and the power supply module is electrically connected with the conversion circuit. The first charging circuit and the second charging circuit respectively output electromagnetic energy to the wireless mouse in a wireless mode. When the control circuit receives the load current flowing through the first charging circuit and the load current flowing through the second charging circuit, the control circuit dynamically adjusts the power supply current of the power supply module to the first charging circuit and the second charging circuit.
Description
Technical Field
The present invention relates to a mouse pad, and more particularly, to a mouse pad with a wireless charging function.
Background
The traditional wired mouse or the charging mouse pad needs a wire to be connected to a computer host, and the use space is rather limited. The workshop is not provided with a mouse pad with an electric energy coupling function, and any mouse pad which can be used for solving the problem that a charging wire needs to be built in and the position of the charging wire can be changed to receive electric energy does not appear.
However, how to dynamically adjust the configuration of the plurality of charging coils becomes an urgent technical problem to be solved for saving energy.
Disclosure of Invention
Accordingly, a plurality of coils for charging are built in the mouse pad, and the configuration of each coil is dynamically adjusted. According to an embodiment of the present invention, a mouse pad suitable for operating in cooperation with a wireless mouse is provided, where the mouse pad includes a first charging circuit, a second charging circuit, a control circuit, a power module, a conversion circuit, and a body.
In particular, a first charging circuit and a second charging circuit are configured in the body, the first charging circuit, the second charging circuit and the conversion circuit are respectively electrically connected with the control circuit, and the power module is electrically connected with the conversion circuit.
Particularly, the first charging circuit and the second charging circuit respectively wirelessly output electromagnetic energy to the wireless mouse, and when the control circuit receives a load current flowing through the first charging circuit and a load current flowing through the second charging circuit, and a difference value between the load current flowing through the first charging circuit and the load current flowing through the second charging circuit is greater than a first threshold value, the control circuit is used for preventing the second charging circuit and the power module from being conducted.
When the control circuit receives the load current flowing through the first charging circuit and the load current flowing through the second charging circuit, and the difference value between the load current flowing through the first charging circuit and the load current flowing through the second charging circuit is judged to be smaller than the first threshold value, the first charging circuit and the power module are not conducted through the control circuit, and therefore the power supply current of the power module to the first charging circuit and the second charging circuit is dynamically adjusted.
According to another embodiment of the present invention, a mouse pad suitable for operating in conjunction with a wireless mouse is provided, wherein the mouse pad includes a first charging circuit, a second charging circuit, a third charging circuit, a fourth charging circuit, a control circuit, a power module, a conversion circuit, and a body.
Particularly, the first charging circuit, the second charging circuit, the third charging circuit and the fourth charging circuit are configured in the body, the first charging circuit, the second charging circuit, the third charging circuit, the fourth charging circuit and the converting circuit are respectively and electrically connected with the control circuit, and the power module is electrically connected with the converting circuit.
Particularly, the first charging circuit, the second charging circuit, the third charging circuit and the fourth charging circuit respectively output electromagnetic energy to the wireless mouse in a wireless mode, when the control circuit respectively receives a third load current, a fourth load current, a fifth load current and a sixth load current which flow through the first charging circuit, the second charging circuit, the third charging circuit and the fourth charging circuit, the control circuit enables one of the first charging circuit, the second charging circuit, the third charging circuit and the fourth charging circuit to be conducted with the power module, and enables the rest three of the first charging circuit, the second charging circuit, the third charging circuit and the fourth charging circuit to be not conducted with the power module.
According to another embodiment of the present invention, a mouse pad adapted to operate with a wireless mouse is provided, the mouse pad comprising: the wireless charging device comprises a body, a first wireless charging transmitting circuit, a second wireless charging circuit, a control circuit, a power module and a conversion circuit.
The power module is electrically connected with the first wireless charging transmitting circuit to provide working voltage for the first wireless charging transmitting circuit. The conversion circuit is electrically connected with the power module and the control circuit at the same time.
In particular, the control circuit renders non-conductive between the second wireless charging circuit and the conversion circuit. The power module, the control circuit, the first wireless charging transmitting circuit and the second wireless charging circuit are configured in the body. The first wireless charging transmitting circuit is electrically connected with the control circuit and the power module, the second wireless charging circuit is electrically connected with the control circuit, and the first wireless charging transmitting circuit and the second wireless charging circuit are arranged in a relative staggered mode.
In particular, the second wireless charging circuit wirelessly receives a first electromagnetic energy provided by the first wireless charging transmitting circuit and converts the first electromagnetic energy into an operating electric energy. The second wireless charging circuit starts to operate according to the working electric energy and wirelessly outputs second electromagnetic energy to the wireless mouse, so that corresponding second load current is generated in the second wireless charging circuit. The first wireless charging transmitting circuit wirelessly outputs a third electromagnetic energy to the wireless mouse, so that a corresponding first load current is generated in the first wireless charging transmitting circuit. The control circuit controls the first wireless charging transmitting circuit and the second wireless charging circuit according to the first load current and the second load current.
According to another embodiment of the present invention, a mouse pad suitable for being operated in cooperation with a wireless mouse is provided, wherein the mouse pad includes a body, a plurality of first wireless charging transmitting circuits, a plurality of second wireless charging circuits, a control circuit, and a power module.
The power module is electrically connected with the plurality of first wireless charging transmitting circuits to provide working voltages of the plurality of first wireless charging transmitting circuits.
In particular, the power module, the control circuit, the plurality of first wireless charging transmitting circuits and the plurality of second wireless charging circuits are configured in the body.
Any one of the first wireless charging transmitting circuits is electrically connected with the control circuit and the power supply module respectively, any one of the second wireless charging circuits is electrically connected with the control circuit respectively, and any one of the first wireless charging transmitting circuits and any one of the second wireless charging circuits form relative staggered arrangement.
One of the second wireless charging circuits wirelessly receives a first electromagnetic energy provided by one of the first wireless charging transmitting circuits and converts the first electromagnetic energy into an operating electric energy. One of the second wireless charging circuits starts to operate according to the working electric energy and wirelessly outputs a second electromagnetic energy to the wireless mouse, so that a corresponding second load current is generated in one of the second wireless charging circuits.
One of the first wireless charging transmitting circuits wirelessly outputs a third electromagnetic energy to the wireless mouse, so as to generate a corresponding first load current at one of the first wireless charging transmitting circuits.
In particular, the control circuit controls the plurality of first wireless charging transmission circuits and the plurality of second wireless charging circuits according to the first load current or the second load current.
The mouse pad is internally provided with a plurality of groups of charging circuits, each charging circuit is provided with a coil which can be used for charging, and the energy-saving problem of the large-scale mouse pad can be solved by dynamically adjusting the power supply current on different coils.
For a further understanding of the techniques, methods and technical effects of the invention to achieve the stated objectives, it is believed that the objects, features and characteristics of the invention will be more fully understood from the following detailed description of the invention and the accompanying drawings, which are provided for purposes of illustration and description and are not intended to be limiting.
Drawings
FIG. 1 is a block diagram of a mouse pad with two charging circuits according to an embodiment of the present invention;
FIG. 2 is a block diagram of a mouse pad with four charging circuits according to an embodiment of the present invention;
FIG. 3 is a block diagram of a mouse pad with a wireless charging transmitter circuit and a wireless charging circuit according to an embodiment of the present invention; and
fig. 4 is a block diagram of a mouse pad capable of dynamically adjusting configurations of a wireless charging transmitting circuit and a wireless charging circuit according to an embodiment of the invention.
Detailed Description
The following description is provided for the specific embodiments of the present disclosure related to a "multi-coil mouse pad with dynamic adjustment configuration", and those skilled in the art will understand the advantages and effects of the present disclosure from the disclosure of the present disclosure. The invention is capable of other and different embodiments and its several details are capable of modification and various other changes, which can be made in various details within the specification and without departing from the spirit and scope of the invention. The drawings of the present invention are for illustrative purposes only and are not intended to be drawn to scale. The following embodiments will further explain the related art of the present invention in detail, but the disclosure is not intended to limit the scope of the present invention.
In order to more clearly illustrate the technical solutions in the embodiments of the present invention, the drawings needed to be used in the description of the embodiments are briefly introduced below, and it is obvious that the drawings in the following description are only some embodiments of the present invention, and it is obvious for those skilled in the art to obtain other drawings based on these drawings without undue effort. Wherein:
referring to fig. 1, a block diagram of a mouse pad with two charging circuits according to an embodiment of the invention is shown. A mouse pad 10 is suitable for being operated with a wireless mouse 7, and the mouse pad 10 includes a main body 100, a first charging circuit 1011, a second charging circuit 1012, a control circuit 103, a power module 107, and a conversion circuit 105.
In one embodiment, the first charging circuit 1011 further includes a first resonant circuit 10111 and a first coil 10113; the second charging circuit 1012 further includes a second resonant circuit 10121 and a second coil 10123.
The body 100 may be a one-piece or multi-piece structure, such as a single base material, or a reflective material and a non-slip material, without limitation. The body 100 can accommodate a second charging circuit 1012, a first charging circuit 1011, and other components.
Generally, the first charging circuit 1011 and the second charging circuit 1012 have a transmitting terminal, a receiving terminal, and corresponding coils, inductors, and capacitors. However, those skilled in the art should understand the transmitting end, the receiving end and their electronic components required for wireless charging, and will not be described herein again.
In one embodiment, the first resonant circuit 10111 is electrically connected to the first coil 10113, and the second resonant circuit 10121 is electrically connected to the first coil 10123. The first coil 10113 and the second coil 10123 are both thin coils.
The first resonant circuit 10111, for example, includes at least a first inductor, a first capacitor, and a first resistor. The first inductor, the first capacitor and the first resistor of the first resonant circuit 10111 form a first resonant parameter. In the present embodiment, the inductor, the capacitor, and the resistor of the first resonant circuit 10111 are connected in series in the circuit diagram. However, in other embodiments, the first resonant circuit 10111 may be composed of different electronic components, and the invention is not limited thereto.
Similarly, the second resonant circuit 10121 includes at least a second inductor, a second capacitor, and a second resistor. The second inductor, the second capacitor and the second resistor of the second resonant circuit 10121 form a second resonant parameter. The inductor, capacitor and resistor of the second resonant circuit 10121 are connected in series in the circuit diagram. However, in other embodiments, the first resonant circuit 10121 may be composed of different electronic components, and the invention is not limited thereto.
The control circuit 103 is disposed in the main body 100 and electrically connected to the first charging circuit 1011, the second charging circuit 1012 and the converting circuit 105. Since the control circuit 103 may have various switches, the power supply current of the power module 107 to the first charging circuit 1011 and the second charging circuit 1012 can be dynamically adjusted.
The conversion circuit 105 is electrically connected with the control circuit 103, and the power module 107 is electrically connected with the conversion circuit 105; the conversion circuit 105 can provide the operation power required by the first charging circuit 1011 and the second charging circuit 1012.
After the power module 107 is activated, since the first charging circuit 1011, the control circuit 103 and the power module 107 are electrically connected, and the second charging circuit 1012, the control circuit 103 and the power module 107 are also electrically connected, the first charging circuit 1011 and the second charging circuit 1012 can respectively wirelessly output electromagnetic energy to the wireless mouse 7.
Therefore, if it is determined whether to actively transmit electromagnetic energy, since the first charging circuit 1011 and the power module 107 or the second charging circuit 1012 and the power module 107 are electrically coupled, it can be generally regarded as an active wireless charging circuit to actively transmit wireless power.
However, when the electrical connection between the first charging circuit 1011 and the power module 107 or between the second charging circuit 1012 and the power module 107 is interrupted, the first charging circuit 1011 and the second charging circuit 1012 need to receive the wireless power from the active wireless charging circuit to transmit the wireless power to the wireless mouse 7, and the first charging circuit 1011 and the second charging circuit 1012 are regarded as passive wireless charging circuits.
In one embodiment, the first charging circuit 1011 is configured to couple with the second charging circuit 1012. After the second charging circuit 1012 receives the wireless power from the first charging circuit 1011, the second charging circuit 1012 may transmit the wireless power to a wireless mouse 7.
In detail, the second charging circuit 1012, like a relay station for power transmission, can transmit wireless power to the wireless mouse 7 having matching resonance parameters. The second charging circuit 1012 can receive wireless power from the first charging circuit 1011 through the first charging circuit 1011 and also transmit the wireless power to the wireless mouse 7.
Since the first charging circuit 1011 and the second charging circuit 1012 each include a transmitting terminal and a receiving terminal. In one embodiment, the magnetic field generated by the transmitting coil of the first charging circuit 1011 will pass through the receiving coil of the first charging circuit 1011, and the receiving coil of the first charging circuit 1011 will generate an electric field. Once a load is applied to the receiving coil of the first charging circuit 1011, the first charging circuit 1011 generates a load current. However, in another embodiment, a load may be connected to the receiving coil of the second charging circuit 1012 to generate a load current. The invention is not limited thereto.
In one embodiment, when the control circuit 103 receives the load current flowing through the first charging circuit 1011 and the load current flowing through the second charging circuit 1012, and the difference between the load current flowing through the first charging circuit 1011 and the load current flowing through the second charging circuit 1012 is determined to be greater than a first threshold, it means that the wireless mouse 7 receives more electromagnetic energy from the first charging circuit 1011, and the wireless mouse 7 receives less electromagnetic energy from the second charging circuit 1012, so that the second charging circuit and the power module are not conducted through the control circuit 103. At this time, the first charging circuit 1011 can be regarded as an active wireless charging circuit, and the second charging circuit 1012 can be regarded as a passive wireless charging circuit, so as to dynamically adjust the power supply current of the power module 107 to the first charging circuit 1011 and the second charging circuit 1012.
In an embodiment, when the control circuit 103 receives the load current flowing through the first charging circuit 1011 and the load current flowing through the second charging circuit 1012, and the difference between the load current flowing through the first charging circuit 1011 and the load current flowing through the second charging circuit 1012 is determined to be smaller than the first threshold, it means that the electromagnetic energy received by the wireless mouse 7 from the first charging circuit 1011 is less, and the electromagnetic energy received by the wireless mouse 7 from the second charging circuit 1012 is more, so that the first charging circuit and the power module are not conducted through the control circuit 103. At this time, the first charging circuit 1011 can be regarded as a passive wireless charging circuit, and the second charging circuit 1012 can be regarded as an active wireless charging circuit, so as to dynamically adjust the power supply current of the power module 107 to the first charging circuit 1011 and the second charging circuit 1012.
In one embodiment, the control circuit 103 further includes an auxiliary circuit (not shown) for detecting the load current flowing through the first charging circuit 1011 or the second charging circuit 1012.
Referring to fig. 1 and 2, fig. 2 is a block diagram of a mouse pad with four charging circuits according to an embodiment of the invention. A mouse pad 20 is suitable for being operated with a wireless mouse 7, the mouse pad 20 includes a main body 200, a first charging circuit 1011, a second charging circuit 1012, a third charging circuit 1013, a fourth charging circuit 1014, a control circuit 103, a power module 107, and a conversion circuit 105.
In the embodiment, the first charging circuit 1011, the second charging circuit 1012, the third charging circuit 1013, and the fourth charging circuit 1014 are disposed in the main body 100, the first charging circuit 1011, the second charging circuit 1012, the third charging circuit 1011, the fourth charging circuit 1012, and the converting circuit 105 are respectively electrically connected to the control circuit 103, and the power module 107 is electrically connected to the converting circuit 105.
The first charging circuit 1011, the second charging circuit 1012, the third charging circuit 1013, and the fourth charging circuit 1014 wirelessly output electromagnetic energy to the wireless mouse 7, respectively.
When the control circuit 103 receives a third load current, a fourth load current, a fifth load current and a sixth load current respectively flowing through the first charging circuit 1011, the second charging circuit 1012, the third charging circuit 1013 and the fourth charging circuit 1014, the control circuit 103 makes one of the first charging circuit 1011, the second charging circuit 1012, the third charging circuit 1013 and the fourth charging circuit 1014 and the power module 107 be conducted, and makes the other three of the first charging circuit 1011, the second charging circuit 1012, the third charging circuit 1013 and the fourth charging circuit 1014 and the power module 107 be not conducted.
In one embodiment, the control circuit 103 determines, according to the magnitude relationship among the third load current, the fourth load current, the fifth load current and the sixth load current, one of the third load current, the fourth load current, the fifth load current and the sixth load current, which is the relatively maximum load current, so that the member of the combination of the first charging circuit 1011, the second charging circuit 1012, the third charging circuit 1013 and the fourth charging circuit 1014 corresponding to the relatively maximum load current is conducted with the power module 107, and the remaining three (members without the relatively maximum load current) of the combination of the first charging circuit 1011, the second charging circuit 1012, the third charging circuit 1013 and the fourth charging circuit 1014 are not conducted with the power module 107.
As such, one of the combination of the first charging circuit 1011, the second charging circuit 1012, the third charging circuit 1013, and the fourth charging circuit 1014 can be regarded as an active wireless charging circuit; three of the combination of the first charging circuit 1011, the second charging circuit 1012, the third charging circuit 1013, and the fourth charging circuit 1014 are regarded as passive wireless charging circuits, so as to dynamically adjust the power supply current of the power module 107 to the combination of the first charging circuit 1011, the second charging circuit 1012, the third charging circuit 1013, and the fourth charging circuit 1014.
Referring to fig. 3, a block diagram of a mouse pad with a wireless charging circuit and a wireless charging transmitting circuit according to an embodiment of the invention is shown. A mouse pad 30 is suitable for being matched with a wireless mouse 7 to operate, and the mouse pad 30 comprises a body 300, a first wireless charging transmitting circuit 3011, a second wireless charging circuit 3012, a control circuit 103, a power module 107 and a conversion circuit 105.
The power module 17 is electrically connected to the first wireless charging transmitting circuit 3011 to provide a working voltage for the first wireless charging transmitting circuit 3011.
The conversion circuit 105 is electrically connected to the power module 107 and the control circuit 103, wherein the control circuit 103 can make the second wireless charging circuit 3012 and the conversion circuit 105 be conductive or non-conductive.
The power module 107, the control circuit 103, the first wireless charging transmitting circuit 3011 and the second wireless charging circuit 3012 are all disposed on the main body 300.
Specifically, the first wireless charging transmitting circuit 3011 is electrically connected to the control circuit 103 and the power module 107, the second wireless charging circuit 3012 is electrically connected to the control circuit 103, and the first wireless charging transmitting circuit 3011 and the second wireless charging circuit 3012 are arranged in a staggered manner. In the present embodiment, the mouse pad 30 only includes a set of the first wireless charging transmitting circuit 3011 and a set of the second wireless charging circuit 3012. However, in other embodiments, the mouse pad may include a plurality of first wireless charging transmitting circuits and a plurality of second wireless charging circuits. On a plane, the first wireless charging transmitting circuit and the second wireless charging circuit can form relative staggered arrangement to realize better electric energy coupling effect.
After the power module 107 starts to supply power, the control circuit 103 may make the second wireless charging circuit 3012 and the conversion circuit 105 be non-conductive. The second wireless charging circuit 3012 wirelessly receives a first electromagnetic energy provided by the first wireless charging transmitting circuit 3011 and converts the first electromagnetic energy into an operating power. The second wireless charging circuit 3012 starts operation according to the working power and wirelessly outputs a second electromagnetic energy to the wireless mouse 7, so as to generate a corresponding second load current in the second wireless charging circuit 3012.
The first wireless charging transmitting circuit 3011 wirelessly outputs a third electromagnetic energy to the wireless mouse 7, so as to generate a corresponding first load current in the first wireless charging transmitting circuit 3011.
The control circuit 103 controls the first wireless charging transmission circuit 3011 and the second wireless charging circuit 3012 according to the first load current and the second load current.
In one embodiment, when the control circuit 103 detects that the ratio of the first load current and the second load current is greater than a second threshold, the second wireless charging circuit 3012 and the converting circuit 105 are made non-conductive by the control circuit 103. At this time, the first wireless charging transmitting circuit 3011 can be regarded as an active wireless charging circuit, and the second wireless charging circuit 3012 can be regarded as a passive wireless charging circuit.
In an embodiment, when the control circuit 103 detects that the ratio of the first load current and the second load current is smaller than the second threshold, the second wireless charging circuit 3012 and the conversion circuit 105 are conducted through the control circuit 103. At this time, the first wireless charging transmitting circuit 3011 and the second wireless charging circuit 3012 are both electrically connected to the power module 17, and the first wireless charging transmitting circuit 3011 and the second wireless charging circuit 3012 are both regarded as active wireless charging circuits.
Referring to fig. 3 and 4, fig. 4 is a block diagram of a mouse pad capable of dynamically adjusting configurations of a wireless charging transmitting circuit and a wireless charging circuit according to an embodiment of the present invention. A mouse pad 40 is suitable for being operated in cooperation with a wireless mouse 7, and the mouse pad 40 includes a body 400, a plurality of first wireless charging transmitting circuits (such as the first wireless charging transmitting circuits 3011 and 3013), a plurality of second wireless charging circuits (such as the second wireless charging circuits 3012 and 3014), a control circuit 103, and a power module 107.
The ontology 400 comprises a minimal ontology 400 ', and the minimal ontology 400' is a basic functional unit of the invention shown in fig. 4.
The power module 107 is electrically connected to the first wireless charging transmitting circuits 3011 and 3013 to provide an operating voltage for the first wireless charging transmitting circuits 3011 and 3013.
The power module 107, the control circuit 103, the first wireless charging transmission circuits 3011 and 3013, and the second wireless charging transmission circuits 3012 and 3014 are configured in the minimum body 400'.
Specifically, any one of the first wireless charging transmitting circuits 3011 and 3013 is electrically connected to the control circuit 103 and the power module 107, respectively, and any one of the second wireless charging transmitting circuits 3012 and 3014 is electrically connected to the control circuit 103, respectively.
Either of the first wireless charging transmission circuits 3011 and 3013 and either of the second wireless charging circuits 3012 and 3014 are arranged to be staggered with respect to each other.
One of the second wireless charging circuits 3012 and 3014 wirelessly receives a first electromagnetic energy provided by one of the first wireless charging transmitting circuits 3011 and 3013 and converts the first electromagnetic energy into an operating power.
One of the second wireless charging circuits 3012 and 3014 operates according to the operating power and wirelessly outputs a second electromagnetic energy to the wireless mouse 7, so as to generate a corresponding second load current in one of the second wireless charging circuits 3012 and 3014.
One of the first wireless charging transmitting circuits 3011 and 3013 wirelessly outputs a third electromagnetic energy to the wireless mouse 7, thereby generating a corresponding first load current in one of the first wireless charging transmitting circuits 3011 and 3013.
Specifically, the control circuit 103 controls the first wireless charging transmission circuits 3011 and 3013 and the second wireless charging circuits 3012 and 3014 according to the first load current or the second load current.
In one embodiment, the mouse pad 40 further includes an auxiliary circuit 109 electrically connected to any one of the first wireless charging transmitting circuits 3011 and 3013 and any one of the second wireless charging circuits 3012 and 3014, wherein the auxiliary circuit 109 is coupled to the control circuit 103.
In one embodiment, the mouse pad 40 further includes a conversion circuit 105 electrically connected to both the power module 107 and the control circuit 103.
Specifically, when the auxiliary circuit 109 detects that a load current flowing through one of the second wireless charging circuits 3012 and 3014 is greater than a fourth threshold, one of the second wireless charging circuits 3012 and 3014 is configured as the first wireless charging transmission circuit by the conversion circuit 105, and the rest of the second wireless charging circuits 3012 and 3014 and either of the first wireless charging transmission circuits 3011 and 3013 and the conversion circuit 105 are made non-conductive by the control circuit 103.
In one embodiment, when the auxiliary circuit 109 detects that a load current flowing through one of the first wireless charging transmitting circuits 3011 and 3013 is greater than a third threshold, the control circuit 103 controls the remaining portion of the first wireless charging transmitting circuits 3011 and 3013 and any one of the second wireless charging circuits 3012 and 3014 to be non-conductive with the switching circuit 105, so as to dynamically adjust the supply current of the power module 107 to the first wireless charging transmitting circuits 3011 and 3013.
In one embodiment, the control circuit 103 sends a test current to any one of the second wireless charging circuits 3012 and 3014 in a burst mode (burst mode). When the auxiliary circuit 109 detects that the ratio of the load current flowing through one of the second wireless charging circuits 3012 and 3014 to the load current flowing through the rest of the second wireless charging circuits 3012 and 3014 is greater than a fifth threshold, one of the second wireless charging circuits 3012 and 3014 is configured as a first wireless charging transmission circuit by the conversion circuit 105, and the rest of the second wireless charging circuits 3012 and 3014 and any one of the first wireless charging transmission circuits 3011 and 3013 and the conversion circuit 105 are made non-conductive by the control circuit 103.
In one embodiment, when the auxiliary circuit 109 detects that the amount of the load current flowing through one of the second wireless charging circuits 3012 and 3014 is greater than a sixth threshold value compared to the amount of the load current flowing through the other of the second wireless charging circuits 3012 and 3014, the auxiliary circuit 109 sends a notification signal to the control circuit 103, and the control circuit 103 turns on the switching circuit 105 and one of the second wireless charging circuits 3012 and 3014 according to the notification signal.
In one embodiment, the wireless mouse 7 is separated from the second wireless charging circuit 3012 and 3014 by a unit length of D1 and D2, respectively. In one example, when D1 is smaller than D2, the second wireless charging circuit 3012 transmits more wireless power to the wireless mouse 7 because it is closer to the wireless mouse 7, and the second wireless charging circuit 3014 transmits less wireless power to the wireless mouse 7. The control circuit 103 causes the second wireless charging circuit 3014 to turn off depending on the amount of wireless energy transmitted by the coils of the second wireless charging circuits 3012 and 3014. In another example, when D2 is smaller than D1, the second wireless charging circuit 3014 transmits more wireless power to the wireless mouse 7 because it is closer to the wireless mouse 7, and the second wireless charging circuit 3012 transmits less wireless power to the wireless mouse 7. The control circuit 103 causes the second wireless charging circuit 3012 to turn off depending on the amount of wireless energy transmitted by the coils of the second wireless charging circuits 3012 and 3014.
[ possible technical effects of the embodiment ]
In summary, the mouse pad of the present invention has a plurality of sets of charging circuits, each charging circuit has a coil for charging, and the energy saving problem in the charging process of the large-scale mouse pad can be better solved by dynamically adjusting the power supply current of the power module to different charging circuits.
It should be finally noted that while in the foregoing specification, the present inventive concept has been particularly shown and described with reference to exemplary embodiments thereof, it will be understood by those skilled in the art that various changes in form and details may be made therein without departing from the scope of the present inventive concept as defined by the appended claims.
Claims (12)
1. A mouse pad adapted for operation with a wireless mouse, the mouse pad comprising:
a first charging circuit;
a second charging circuit;
a control circuit;
a power module;
a conversion circuit;
and
a body;
wherein the first charging circuit and the second charging circuit are configured in the body, the first charging circuit, the second charging circuit and the converting circuit are respectively electrically connected with the control circuit, and the power module is electrically connected with the converting circuit;
wherein the first charging circuit and the second charging circuit respectively wirelessly output electromagnetic energy to the wireless mouse,
when the control circuit receives a load current flowing through the first charging circuit and a load current flowing through the second charging circuit, and the difference value of the load current flowing through the first charging circuit and the load current flowing through the second charging circuit is judged to be larger than a first threshold value, the control circuit makes the second charging circuit and the power module not be conducted;
when the control circuit receives the load current flowing through the first charging circuit and the load current flowing through the second charging circuit, and the difference value between the load current flowing through the first charging circuit and the load current flowing through the second charging circuit is judged to be smaller than the first threshold value, the first charging circuit and the power module are not conducted through the control circuit, and therefore the power supply currents of the first charging circuit and the second charging circuit are dynamically adjusted through the power module.
2. The mouse pad of claim 1, wherein the control circuit includes an auxiliary circuit for detecting a load current flowing through the first charging circuit or the second charging circuit.
3. A mouse pad adapted for operation with a wireless mouse, the mouse pad comprising:
a first charging circuit;
a second charging circuit;
a third charging circuit;
a fourth charging circuit;
a control circuit;
a power module;
a conversion circuit;
and
a body;
wherein the first charging circuit, the second charging circuit, the third charging circuit and the fourth charging circuit are configured in the body, the first charging circuit, the second charging circuit, the third charging circuit, the fourth charging circuit and the converting circuit are respectively electrically connected with the control circuit, and the power module is electrically connected with the converting circuit;
when the control circuit receives a third load current, a fourth load current, a fifth load current and a sixth load current flowing through the first charging circuit, the second charging circuit, the third charging circuit and the fourth charging circuit, the control circuit conducts one of the first charging circuit, the second charging circuit, the third charging circuit and the fourth charging circuit with the power module, and the rest of the first charging circuit, the second charging circuit, the third charging circuit and the fourth charging circuit with the power module are not conducted.
4. The mouse pad of claim 3, wherein the control circuit is configured to enable conduction between one of the first charging circuit, the second charging circuit, the third charging circuit, and the fourth charging circuit and the power module, and disable conduction between the remaining three of the first charging circuit, the second charging circuit, the third charging circuit, and the fourth charging circuit and the power module according to a magnitude between the third load current, the fourth load current, the fifth load current, and the sixth load current.
5. A mouse pad adapted for operation with a wireless mouse, the mouse pad comprising:
a body;
a first wireless charging transmitting circuit;
a second wireless charging circuit;
a control circuit;
the power supply module is electrically connected with the first wireless charging transmitting circuit so as to provide working voltage for the first wireless charging transmitting circuit; and
the conversion circuit is electrically connected with the power module and the control circuit at the same time, wherein the control circuit ensures that the second wireless charging circuit is not conducted with the conversion circuit;
wherein the power module, the control circuit, the first wireless charging transmit circuit and the second wireless charging circuit are configured in the body,
wherein the first wireless charging transmitting circuit is electrically connected with the control circuit and the power module, the second wireless charging circuit is electrically connected with the control circuit,
the first wireless charging transmitting circuit and the second wireless charging circuit form relative staggered arrangement;
the second wireless charging circuit wirelessly receives first electromagnetic energy provided by the first wireless charging transmitting circuit and converts the first electromagnetic energy into working electric energy; the second wireless charging circuit starts to operate according to the working electric energy and wirelessly outputs second electromagnetic energy to the wireless mouse, so that corresponding second load current is generated in the second wireless charging circuit;
the first wireless charging transmitting circuit wirelessly outputs third electromagnetic energy to the wireless mouse, so that a corresponding first load current is generated in the first wireless charging transmitting circuit;
wherein the control circuit controls the first wireless charging transmit circuit and the second wireless charging circuit according to the first load current and the second load current.
6. The mouse pad of claim 5, wherein the second wireless charging circuit and the conversion circuit are rendered non-conductive by the control circuit when the control circuit detects that a ratio of the first load current and the second load current is greater than a second threshold;
wherein when the control circuit detects that the ratio of the first load current and the second load current is less than the second threshold, conduction is made between the second wireless charging circuit and the conversion circuit through the control circuit.
7. A mouse pad adapted for operation with a wireless mouse, the mouse pad comprising:
a body;
a plurality of first wireless charging transmit circuits;
a plurality of second wireless charging circuits;
a control circuit;
and
the power supply module is electrically connected with the first wireless charging transmitting circuit so as to provide working voltage for the first wireless charging transmitting circuit;
wherein the power module, the control circuit, the plurality of first wireless charging transmit circuits and the plurality of second wireless charging circuits are configured in the body,
wherein any one of the plurality of first wireless charging transmitting circuits is electrically connected with the control circuit and the power module respectively, any one of the plurality of second wireless charging circuits is electrically connected with the control circuit respectively,
any one of the plurality of first wireless charging transmitting circuits and any one of the plurality of second wireless charging circuits form relative staggered arrangement;
wherein one of the second wireless charging circuits wirelessly receives a first electromagnetic energy provided by one of the first wireless charging transmitting circuits and converts the first electromagnetic energy into an operating electric energy; the one of the plurality of second wireless charging circuits starts to operate according to the working electric energy and wirelessly outputs a second electromagnetic energy to the wireless mouse, so that a corresponding second load current is generated on the one of the plurality of second wireless charging circuits;
wherein one of the first wireless charging transmitting circuits wirelessly outputs a third electromagnetic energy to the wireless mouse, thereby generating a corresponding first load current at the one of the first wireless charging transmitting circuits;
wherein the control circuit controls the plurality of first wireless charging transmit circuits and the plurality of second wireless charging circuits according to the first load current or the second load current.
8. The mouse pad of claim 7, further comprising: an auxiliary circuit electrically connected to any of the plurality of first wireless charging transmit circuits and any of the plurality of second wireless charging circuits, wherein the auxiliary circuit is coupled to the control circuit.
9. The mouse pad of claim 8, further comprising a switching circuit electrically connected to both the power module and the control circuit;
when the auxiliary circuit detects that a load current flowing through one of the second wireless charging circuits is larger than a fourth threshold value, one of the second wireless charging circuits is configured to be the first wireless charging transmitting circuit through the conversion circuit, and the rest of the second wireless charging circuits and any one of the first wireless charging transmitting circuits are not conducted with the conversion circuit through the control circuit.
10. The mouse pad of claim 9, wherein when the auxiliary circuit detects that a load current flowing through one of the plurality of first wireless charging transmitting circuits is greater than a third threshold value, the control circuit is configured to disable conduction between any of the remaining portion of the plurality of first wireless charging transmitting circuits and the converting circuit, thereby dynamically adjusting the supply current of the power module to the plurality of first wireless charging transmitting circuits.
11. The mouse pad of claim 9, wherein the control circuit sends a test current to each of the second wireless charging circuits in a burst mode, when the auxiliary circuit detects that a ratio of a load current flowing through one of the second wireless charging circuits to a load current flowing through the rest of the second wireless charging circuits is greater than a fifth threshold, the conversion circuit configures one of the second wireless charging circuits as a first wireless charging transmitter circuit, and the control circuit disables conduction between the rest of the second wireless charging circuits and the conversion circuit and any of the first wireless charging transmitter circuits.
12. The mouse pad of claim 9, wherein when the auxiliary circuit detects that the amount of load current flowing through one of the plurality of second wireless charging circuits is greater than a sixth threshold value compared to the amount of load current flowing through another one of the plurality of second wireless charging circuits, the auxiliary circuit sends a notification signal to the control circuit, and the control circuit causes conduction between the one of the plurality of second wireless charging circuits and the converting circuit.
Priority Applications (1)
| Application Number | Priority Date | Filing Date | Title |
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| CN202011048782.8A CN114356126B (en) | 2020-09-29 | 2020-09-29 | Multi-coil mouse pad with dynamic adjustment configuration |
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| CN202011048782.8A CN114356126B (en) | 2020-09-29 | 2020-09-29 | Multi-coil mouse pad with dynamic adjustment configuration |
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| CN114356126A true CN114356126A (en) | 2022-04-15 |
| CN114356126B CN114356126B (en) | 2023-09-05 |
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| CN114356126B (en) | 2023-09-05 |
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