Intelligent cup mat with gravity decoding chip

Abstract

The utility model provides an intelligent cup mat with a gravity decoding chip. A gravity sensor generates a gravity analog signal based on the gravity of a water cup. The power supply battery can supply power to the intelligent cup mat and can output a battery voltage signal. The driving board comprises a gravity decoding chip and a data transmission chip, and the gravity decoding chip is connected with the gravity sensor. The gravity decoding chip can perform analog-to-digital conversion operation on the gravity analog signal and can generate a gravity digital signal. The data transmission chip is connected with the gravity decoding chip and the power supply battery, and the data transmission chip can carry out transmission operation on the gravity digital signal and the battery voltage signal. The wireless transmitting circuit board comprises a wireless transmitting chip, the wireless transmitting chip is connected with a data transmission chip, and the wireless transmitting chip can wirelessly transmit the gravity digital signal and the battery voltage signal to an equipment terminal. The equipment terminal displays the water filling amount of the water cup based on the gravity digital signal and displays the electric quantity of the power supply battery based on the battery voltage signal.

Description

Technical Field

[0001] This utility model relates to the field of household goods technology, and in particular to a smart coaster with a gravity decoding chip. Background Technology

[0002] In conference settings, organizers usually provide drinking water for attendees and also arrange for staff to refill the water as needed.

[0003] Since different attendees have different water consumption levels, during the meeting, the staff needs to frequently check the amount of water in each attendee's cup to determine if more water needs to be added. This results in a heavy workload for the staff and may affect the normal environment of the meeting. Therefore, there is a need to provide a smart coaster with a gravity decoding chip to solve the above technical problems. Utility Model Content

[0004] This invention provides a smart coaster with a gravity decoding chip, which effectively solves the technical problem of timely refilling of drinking water in meeting settings.

[0005] This utility model provides a smart coaster, which includes,

[0006] shell;

[0007] A gravity sensor, connected inside the housing, is used to generate a gravity simulation signal based on the weight of the water cup;

[0008] A power supply battery, connected inside the housing, is used to power the smart coaster, and the power supply battery outputs a battery voltage signal;

[0009] A drive board is connected inside the housing. The drive board includes a gravity decoding chip and a data transmission chip. The gravity decoding chip is connected to the gravity sensor and is used to perform analog-to-digital conversion on the gravity analog signal to generate a gravity digital signal. The data transmission chip is connected to the gravity decoding chip and the power supply battery and is used to transmit the gravity digital signal and the battery voltage signal.

[0010] A wireless transmitting circuit board is connected inside the housing. The wireless transmitting circuit board includes a wireless transmitting chip, which is connected to the data transmission chip. The wireless transmitting chip is used to receive the gravity digital signal and the battery voltage signal, and wirelessly transmit the gravity digital signal and the battery voltage signal to the device terminal. The device terminal displays the water level in the cup based on the gravity digital signal, and displays the battery power based on the battery voltage signal.

[0011] Furthermore, the gravity decoding chip includes a gravity decoding input pin and a gravity decoding output pin, the data transmission chip includes a first data input pin, a second data input pin, and a data output pin, and the wireless transmission chip includes a wireless transmission input pin; the gravity decoding input pin is connected to the gravity sensor, the gravity decoding output pin is connected to the first data input pin, the second data input pin is connected to the power supply battery, and the data output pin is connected to the wireless transmission input pin.

[0012] Furthermore, the driver board also includes a battery charging module, which includes a charging chip. The charging chip includes a charging input pin and a charging output pin. The charging input pin is connected to a first external power source, and the charging output pin is connected to a power supply battery. The charging chip is used to perform constant current charging operation on the power supply battery.

[0013] Furthermore, the driver board also includes a display module, which includes a voltage regulator chip and a light-emitting diode (LED). The voltage regulator chip includes a voltage regulation input pin and a voltage regulation output pin. The voltage regulation input pin is connected to the power supply battery, and the voltage regulation output pin is connected to the positive terminal of the LED. The negative terminal of the LED is grounded. The voltage regulator chip is used to regulate the battery voltage signal, and the LED is used to emit light based on the battery voltage signal, thereby indicating that the smart coaster is powered on.

[0014] Furthermore, the driver board includes a first voltage divider resistor and a second voltage divider resistor. One end of the first voltage divider resistor is connected to the power supply battery, and the other end of the first voltage divider resistor is connected to the second data input pin and one end of the second voltage divider resistor. The other end of the second voltage divider resistor is grounded. The first voltage divider resistor and the second voltage divider resistor are used to perform voltage division operation on the battery voltage signal.

[0015] Furthermore, the driver board includes a filter capacitor, one end of which is connected to the power supply battery and the first voltage divider resistor, and the other end of which is grounded. The filter capacitor is used to filter the battery voltage signal.

[0016] Furthermore, the battery charging module also includes a first interface and a second interface. The first interface is a Type-C interface, and the second interface is a Micro USB interface. One end of the first interface is connected to the first external power source, and the other end of the first interface is connected to the charging input pin. One end of the second interface is connected to the first external power source, and the other end of the second interface is connected to the charging input pin.

[0017] Furthermore, the gravity decoding chip includes a gravity decoding power supply pin, the data transmission chip includes a transmission chip power supply pin, the wireless transmission chip includes a transmission chip power supply pin, and the smart coaster includes a chip power supply module. The chip power supply module further includes a third interface and a fourth interface. The third interface is a Type-C interface, and the fourth interface is a Micro USB interface. One end of the third interface is connected to a second external power source, and the other end of the third interface is connected to the gravity decoding power supply pin, the transmission chip power supply pin, and the transmission chip power supply pin. One end of the fourth interface is connected to the second external power source, and the other end of the fourth interface is connected to the gravity decoding power supply pin, the transmission chip power supply pin, and the transmission chip power supply pin.

[0018] Furthermore, the gravity decoding chip is model HX711, and the data transmission chip is model FT61F02F.

[0019] Furthermore, the charging chip is model TP4057.

[0020] Compared to existing technologies, the advantages of this invention are as follows: This invention provides a smart coaster, which includes a gravity sensor, a power supply battery, a driver board, and a wireless transmission circuit board. The gravity sensor generates an analog gravity signal based on the weight of the cup, and the power supply battery outputs a battery voltage signal. A gravity decoding chip in the driver board is connected to the gravity sensor and performs analog-to-digital conversion on the analog gravity signal. The gravity decoding chip generates a digital gravity signal, and a data transmission chip in the driver board transmits the digital gravity signal and the battery voltage signal. The wireless transmission chip in the wireless transmission circuit board wirelessly transmits the digital gravity signal and the battery voltage signal to a device terminal. The device terminal displays the water level in the cup based on the digital gravity signal and the battery power level based on the battery voltage signal.

[0021] Therefore, in meeting settings, waiters can monitor the water level in the cups in real time via the device. If the water level is low, the waiter can refill the cups promptly. Furthermore, the device displays the battery level based on the battery voltage signal. Thus, waiters can monitor the smart coaster's battery level in real time. When the smart coaster's battery is low, the waiter can recharge the device. This allows for effective management of the smart coaster's usage. The smart water cup can maintain a stable working state for extended periods and will not malfunction due to sudden power outages. Attached Figure Description

[0022] To more clearly illustrate the technical solutions in the embodiments of this utility model or the prior art, the drawings used in the embodiments are briefly introduced below. The drawings described below are only the corresponding drawings of some embodiments of this utility model.

[0023] Figure 1 This is a block diagram of one embodiment of the smart coaster of this utility model.

[0024] Figure 2 This is one of the circuit diagrams of the driver board of an embodiment of the smart coaster of this utility model.

[0025] Figure 3 The second circuit diagram is of the driver board of an embodiment of the smart coaster of this utility model.

[0026] Figure 4 This is a circuit diagram of the wireless transmitting circuit board of an embodiment of the smart coaster of this utility model.

[0027] Figure 5 This is a circuit diagram of the battery charging module of an embodiment of the smart coaster of this utility model.

[0028] Figure 6 This is a circuit diagram of the battery charging module of an embodiment of the smart coaster of this utility model.

[0029] Figure 7 The circuit diagram shows the first voltage divider resistor and the second voltage divider resistor in one embodiment of the smart coaster of this utility model.

[0030] Figure 8 This is a circuit diagram of the first interface of an embodiment of the smart coaster of this utility model.

[0031] Figure 9 This is a circuit diagram of the second interface of an embodiment of the smart coaster of this utility model.

[0032] Figure 10 This is a circuit diagram of the third interface of an embodiment of the smart coaster of this utility model.

[0033] Figure 11 This is a circuit diagram of the third interface of an embodiment of the smart coaster of this utility model.

[0034] In the diagram, 10 is the smart coaster; 11 is the gravity sensor; 12 is the power supply battery; 13 is the driver board; 131 is the gravity decoding input pin; 132 is the gravity decoding input pin; 133 is the gravity decoding power supply pin; 134 is the first data input pin; 135 is the second data input pin; 136 is the data output pin; 137 is the power supply pin for the transmission chip; 14 is the wireless transmission circuit board; 141 is the wireless transmission input pin; 142 is the transmission chip power supply pin; 15 is the display module; 16 is the battery charging module; 161 is the charging input pin; 162 is the charging output pin; 17 is the first interface pin; 171 is the second interface pin; 173 is the third interface pin; 174 is the fourth interface pin; and 18 is the device terminal. Detailed Implementation

[0035] The technical solutions of the present utility model will be clearly and completely described below with reference to the accompanying drawings of the embodiments. Obviously, the described embodiments are only some embodiments of the present utility model, and not all embodiments. Based on the embodiments of the present utility model, all other embodiments obtained by those skilled in the art without creative effort are within the protection scope of the present utility model.

[0036] The directional terms mentioned in this utility model, such as "up", "down", "front", "back", "left", "right", "inner", "outer", "side", "top" and "bottom", are only for reference to the orientation of the accompanying drawings. The directional terms used are for the purpose of explaining and understanding this utility model, and are not intended to limit this utility model.

[0037] The terms "first" and "second" in this utility model are used for descriptive purposes only and should not be construed as indicating or implying relative importance, nor as a restriction on the order of events.

[0038] In the diagram, units with similar structures are represented by the same labels.

[0039] Please refer to Figure 1 This invention provides a smart coaster 10, which includes a housing, a gravity sensor 11, a power supply battery 12, a driver board 13, and a wireless transmission circuit board 14. The gravity sensor 11 is connected inside the housing and can generate a gravity simulation signal based on the weight of the cup. The power supply battery 12 is connected inside the housing and is used to power the smart coaster 10; the power supply battery 12 can also output a battery voltage signal.

[0040] Please refer to Figure 1The driver board 13 is connected inside the housing and includes a gravity decoding chip RP1 and a data transmission chip U2. The gravity decoding chip RP1 is connected to the gravity sensor 11 and is used to perform analog-to-digital conversion on the analog gravity signal. The gravity decoding chip RP1 can also generate a digital gravity signal. The data transmission chip U2 is connected to the gravity decoding chip RP1 and the power supply battery 12, and is used to transmit the digital gravity signal and the battery voltage signal.

[0041] Please refer to Figure 1 The wireless transmitting circuit board 14 is connected inside the housing and includes a wireless transmitting chip U3. The wireless transmitting chip U3 is connected to the data transmission chip U2. The wireless transmitting chip U3 receives gravity digital signals and battery voltage signals, and can wirelessly transmit these signals to the device terminal 18. The device terminal 18 displays the water level in the cup based on the gravity digital signals and displays the battery level of the power supply battery 12 based on the battery voltage signals.

[0042] Please refer to Figures 2 to 10 The following is a detailed description of the specific structure of the driver board 13 and the wireless transmission circuit board 14:

[0043] Please refer to Figure 2 , Figure 3 and Figure 4 The gravity decoding chip RP1 is model HX711, and includes a gravity decoding input pin 131 and a gravity decoding output pin 132. The data transmission chip U2 is model FT61F02F, and includes a first data input pin 134, a second data input pin 135, and a data output pin 136. The wireless transmission chip U3 includes a wireless transmission input pin 141. The gravity decoding input pin 131 is connected to the gravity sensor 11, and the gravity decoding output pin 132 is connected to the first data input pin 134. The second data input pin 135 is connected to the power supply battery 12, and the data output pin 136 is connected to the wireless transmission input pin 141.

[0044] Please refer to Figure 5The driver board 13 also includes a battery charging module 16, which includes a charging chip U5. The charging chip U5 is a TP4057 and includes a charging input pin 161 and a charging output pin 162. The charging input pin 161 is connected to a first external power supply, which is a 5V power supply. The charging output pin 162 is connected to the power supply battery 12. The charging chip U5 is used to perform constant current charging on the power supply battery 12. Because the charging chip U5 can perform constant current charging on the power supply battery 12, the charging current of the power supply battery 12 is relatively stable. This effectively avoids a sudden increase in the current output by the first external power supply, which could damage the power supply battery 12.

[0045] Please refer to Figure 6 The driver board 13 also includes a display module 15, which includes a voltage regulator chip U4 and a light-emitting diode (LED). The voltage regulator chip U4 includes a voltage input pin Vin and a voltage output pin Vout. The voltage input pin Vin is connected to the power supply battery 12. The voltage output pin Vout is connected to the positive terminal of the LED D3, and the negative terminal of the LED D3 is grounded. The voltage regulator chip U4 is used to regulate the battery voltage signal. The LED D3 illuminates based on the battery voltage signal, indicating that the smart coaster 10 is powered on. When the LED D3 is lit, the display module 15 indicates that the smart coaster 10 is powered on. When the LED D3 is off, the display module 15 indicates that the smart coaster 10 is powered off. If the smart coaster 10 is powered off, the user can charge it promptly.

[0046] Please refer to Figure 5 and Figure 7 The driver board 13 includes a first voltage divider resistor R16 and a second voltage divider resistor R17. One end of the first voltage divider resistor R16 is connected to the power supply battery 12, and the other end of the first voltage divider resistor R16 is connected to the second data input pin 135 and one end of the second voltage divider resistor R17. The other end of the second voltage divider resistor R17 is grounded. The first voltage divider resistor R16 and the second voltage divider resistor R17 are used to divide the battery voltage signal. Because the first voltage divider resistor R16 and the second voltage divider resistor R17 can divide the battery voltage signal, the signal input to the data transmission chip U2 is a low-voltage battery voltage signal. This avoids damage to the data transmission chip U2 by a high-voltage battery voltage signal, which helps to extend the service life of the data transmission chip U2. The driver board 13 includes a filter capacitor C11. One end of the filter capacitor C11 is connected to the power supply battery 12 and the first voltage divider resistor R16. The other end of the filter capacitor C11 is grounded. The filter capacitor C11 is used to filter the battery voltage signal. The filter capacitor C11 can filter out interference in the battery voltage signal, making the battery voltage signal more stable and accurate, which helps to improve the reliability of the battery voltage signal.

[0047] Please refer to Figure 8 and Figure 9 The battery charging module 16 also includes a first interface J3 and a second interface J5. The first interface J3 is a Type-C interface, and the second interface J5 is a micro USB interface. The first interface J3 includes a first interface pin 17, and the second interface J5 includes a second interface pin 171. One end of the first interface J3 is connected to a first external power source, and the other end of the first interface J3 is connected to a charging input pin 161 via the first interface pin 17. One end of the second interface J5 is connected to the first external power source, and the other end of the second interface J5 is connected to the charging input pin 161 via the second interface pin 171. The battery charging module 16 can provide different power supply interfaces, thus making it compatible with different power supply structures. Therefore, users can use a Type-C or micro USB charging cable to charge the battery 12. This makes using the smart coaster 10 more convenient for users.

[0048] Please refer to Figure 10 and Figure 11 The gravity decoding chip RP1 includes a gravity decoding power supply pin 133, and the data transmission chip U2 includes a data transmission chip power supply pin 137. The wireless transmission chip U3 includes a transmission chip power supply pin 142, and the smart coaster 10 includes a chip power supply module. The chip power supply module also includes a third interface J2 and a fourth interface J4. The third interface J2 is a Type-C interface, and the fourth interface J4 is a micro USB interface. The third interface J2 includes a third interface pin 172, and the fourth interface J4 includes a fourth interface pin 173. One end of the third interface J2 is connected to a second external power supply, which is a 3.3V power supply. The other end of the third interface J2 is connected to the gravity decoding power supply pin 133, the data transmission chip power supply pin 137, and the transmission chip power supply pin 142 via the third interface pin 172. One end of the fourth interface J4 is connected to the second external power supply, and the other end of the fourth interface J4 is connected to the gravity decoding power supply pin 133, the data transmission chip power supply pin 137, and the transmission chip power supply pin 142 via the fourth interface pin 173. The chip-powered battery module offers various power supply interfaces, making it compatible with different power supply structures. Therefore, users can charge the gravity decoding chip RP1, data transmission chip U2, and wireless transmission chip U3 using a Type-C or Micro USB charging cable. This makes using the smart coaster 10 more convenient.

[0049] The working principle of this utility model is as follows: First, the user turns on the smart coaster 10 and places a water cup on it. The power supply battery 12 supplies power to the smart coaster 10 and outputs a battery voltage signal. Next, the LED D3 of the display module 15 lights up, indicating that the smart coaster 10 is powered on. Furthermore, the gravity sensor 11 of the smart coaster 10 generates a gravity analog signal based on the weight of the water cup. Subsequently, the gravity decoding chip RP1 performs analog-to-digital conversion on the gravity analog signal, generating a gravity digital signal. The first voltage divider resistor R16 and the second voltage divider resistor R17 divide the battery voltage signal. Then, the data transmission chip U2 transmits the gravity digital signal and the battery voltage signal. Subsequently, the wireless transmitter chip U3 receives the gravity digital signal and the battery voltage signal, and wirelessly transmits the gravity digital signal and battery voltage signal to the device terminal 18. The device terminal 18 displays the water level in the cup based on the gravity digital signal and displays the power level of the power supply battery 12 based on the battery voltage signal. When the power supply battery 12 is low on power, since the charging chip U5 is connected to the first external power source, the user can charge the power supply battery 12 with a constant current through the charging chip U5.

[0050] This invention provides a smart coaster with a gravity decoding chip. The smart coaster includes a gravity sensor, a power supply battery, a driver board, and a wireless transmission circuit board. The gravity sensor generates an analog gravity signal based on the weight of the cup, and the power supply battery outputs a battery voltage signal. The gravity decoding chip in the driver board is connected to the gravity sensor and performs analog-to-digital conversion on the analog gravity signal. The gravity decoding chip generates a digital gravity signal, and a data transmission chip in the driver board transmits the digital gravity signal and the battery voltage signal. The wireless transmission chip in the wireless transmission circuit board wirelessly transmits the digital gravity signal and the battery voltage signal to a device terminal. The device terminal displays the water level in the cup based on the digital gravity signal and the battery power level based on the battery voltage signal.

[0051] Therefore, in meeting settings, waiters can monitor the water level in the cups in real time via the device. If the water level is low, the waiter can refill the cups promptly. Furthermore, the device displays the battery level based on the battery voltage signal. Thus, waiters can monitor the smart coaster's battery level in real time. When the smart coaster's battery is low, the waiter can recharge the device. This allows for effective management of the smart coaster's usage. The smart water cup can maintain a stable working state for extended periods and will not malfunction due to sudden power outages.

[0052] In summary, although the present invention has been disclosed above with reference to preferred embodiments, the above preferred embodiments are not intended to limit the present invention. Those skilled in the art can make various modifications and refinements without departing from the spirit and scope of the present invention. Therefore, the scope of protection of the present invention shall be determined by the scope defined in the claims.

Claims

1. A smart coaster with a gravity decoding chip, characterized in that, It includes, A shell; A gravity sensor connected to the inside of the shell for generating a gravity analog signal based on the gravity of the cup; A power supply battery connected to the inside of the shell for powering the smart cup pad, and the power supply battery outputs a battery voltage signal; A drive board connected to the inside of the shell, the drive board includes a gravity decoding chip and a data transmission chip, the gravity decoding chip is connected to the gravity sensor, the gravity decoding chip is used for analog-to-digital conversion of the gravity analog signal to generate a gravity digital signal; the data transmission chip is connected to the gravity decoding chip and the power supply battery, and the data transmission chip is used for transmission of the gravity digital signal and the battery voltage signal; A wireless transmission circuit board connected to the inside of the shell, the wireless transmission circuit board includes a wireless transmission chip, the wireless transmission chip is connected to the data transmission chip, the wireless transmission chip is used for receiving the gravity digital signal and the battery voltage signal, and wirelessly transmitting the gravity digital signal and the battery voltage signal to a device terminal, the device terminal displays the water level of the cup based on the gravity digital signal, and the device terminal displays the power of the power supply battery based on the battery voltage signal.

2. The smart cup mat of claim 1, wherein, The gravity decoding chip includes a gravity decoding input pin and a gravity decoding output pin, the data transmission chip includes a first data input pin, a second data input pin, and a data output pin, and the wireless transmission chip includes a wireless transmission input pin; The gravity decoding input pin is connected to the gravity sensor, the gravity decoding output pin is connected to the first data input pin, the second data input pin is connected to the power supply battery, and the data output pin is connected to the wireless transmission input pin.

3. The smart cup mat of claim 1, wherein, The drive board further includes a battery charging module, the battery charging module includes a charging chip, the charging chip includes a charging input pin and a charging output pin, the charging input pin is connected to a first external power supply, and the charging output pin is connected to the power supply battery. The charging chip is used for constant current charging operation of the power supply battery.

4. The smart cup mat of claim 1, wherein, The drive board further includes a display module, the display module includes a voltage stabilizing chip and a light emitting diode, the voltage stabilizing chip includes a voltage stabilizing input pin and a voltage stabilizing output pin, the voltage stabilizing input pin is connected to the power supply battery, the voltage stabilizing output pin is connected to the positive electrode of the light emitting diode, the negative electrode of the light emitting diode is grounded, the voltage stabilizing chip is used for voltage stabilizing operation of the battery voltage signal, and the light emitting diode is used for light emitting operation based on the battery voltage signal, thereby displaying that the smart cup pad is in a powered-on state.

5. The smart cup mat of claim 2, wherein, The drive board includes a first voltage dividing resistor and a second voltage dividing resistor, one end of the first voltage dividing resistor is connected to the power supply battery, the other end of the first voltage dividing resistor is connected to the second data input pin and one end of the second voltage dividing resistor, the other end of the second voltage dividing resistor is grounded, and the first voltage dividing resistor and the second voltage dividing resistor are used for voltage dividing operation of the battery voltage signal.

6. The smart cup mat of claim 5, wherein, The drive plate comprises a filter capacitor, one end of the filter capacitor is connected with the power supply battery and the first voltage dividing resistor, the other end of the filter capacitor is grounded, and the filter capacitor is used for filtering operation on the battery voltage signal.

7. The smart cup mat of claim 3, wherein, The battery charging module further comprises a first interface and a second interface, the first interface is a type-c interface, the second interface is a micro usb interface, one end of the first interface is connected with the first external power supply, the other end of the first interface is connected with the charging input pin, one end of the second interface is connected with the first external power supply, and the other end of the second interface is connected with the charging input pin.

8. The smart cup mat of claim 2, wherein, The gravity decoding chip comprises a gravity decoding power supply pin, the data transmission chip comprises a transmission chip power supply pin, the wireless transmission chip comprises a transmission chip power supply pin, the smart cup mat comprises a chip power supply module, the chip power supply module further comprises a third interface and a fourth interface, the third interface is a type-c interface, the fourth interface is a micro usb interface, one end of the third interface is connected with a second external power supply, the other end of the third interface is connected with the gravity decoding power supply pin, the transmission chip power supply pin and the transmission chip power supply pin, one end of the fourth interface is connected with the second external power supply, and the other end of the fourth interface is connected with the gravity decoding power supply pin, the transmission chip power supply pin and the transmission chip power supply pin.

9. The smart cup mat of claim 2, wherein, The model of the gravity decoding chip is HX711, and the model of the data transmission chip is FT61F02F.

10. The smart cup mat of claim 3, wherein, The model of the charging chip is TP4057.

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