CN110608406B

CN110608406B - Food processor circuit and food processor

Info

Publication number: CN110608406B
Application number: CN201910448225.6A
Authority: CN
Inventors: 彭勇军; 易善文
Original assignee: Zhejiang Shaoxing Supor Domestic Electrical Appliance Co Ltd
Current assignee: Zhejiang Shaoxing Supor Domestic Electrical Appliance Co Ltd
Priority date: 2019-05-27
Filing date: 2019-05-27
Publication date: 2023-10-27
Anticipated expiration: 2039-05-27
Also published as: CN110608406A

Abstract

The application provides a material processing machine circuit and a material processing machine. The processor circuit comprises a light source, a main control module, a solar module and a power receiving circuit. The main control module is connected with the light source and used for controlling the light source to emit light. The solar module is used for receiving light emitted by the light source and converting light energy into electric energy. The power receiving circuit is connected with the solar module and is used for receiving the electric energy of the solar module as the electric energy required by the work of the solar module. The food processor comprises a host, a cup component which can be assembled on the host and a food processor circuit.

Description

Food processor circuit and food processor

Technical Field

The application relates to the field of small household appliances, in particular to a material processing machine circuit and a material processing machine.

Background

With the increasing level of living of people, many different types of food processing machines appear on the market. The functions of the food processor mainly include, but are not limited to, the functions of making soybean milk, squeezing juice, making rice paste, mincing meat, shaving ice, making coffee, and/or preparing a facial mask. Some electric component ware that the cup subassembly of cooking machine was equipped with needs to be supplied power through the power supply circuit in the host computer, and the power supply circuit in the host computer is connected to the coupler on the host computer, and the coupler on the host computer is pegged graft with the coupler electricity of cup subassembly, and the coupler of cup subassembly is connected with the electric component ware that cup subassembly was equipped with to provide the electric component ware of cup subassembly with power supply circuit's electric energy, so power supply circuit is complicated.

Disclosure of Invention

The application provides an improved food processor circuit and a food processor.

One aspect of the present application provides a material handling machine circuit comprising: a light source; the main control module is connected with the light source and used for controlling the light source to emit light; the solar module is used for receiving the light emitted by the light source and converting the light energy into electric energy; and the power receiving circuit is connected with the solar module and used for receiving the electric energy of the solar module as the electric energy required by the work of the solar module.

Another aspect of the present application provides a food processor, comprising: a host; a cup assembly that is attachable to the host; the food processor circuit.

The circuit of the food processor provided by the embodiment of the application comprises the light source and the solar module, and the solar module is used for converting light energy into electric energy to supply power to the power receiving circuit, so that the power supply circuit can be reduced, and the wiring is simplified.

Drawings

FIG. 1 is a schematic diagram showing a structure of an embodiment of a food processor of the present application;

FIG. 2 is a block diagram illustrating one embodiment of a food processor circuit of the present application;

FIG. 3 is a block diagram illustrating another embodiment of a food processor circuit of the present application;

FIG. 4 is a longitudinal cross-sectional view of one embodiment of a food processor of the present application;

fig. 5 is a partial enlarged view of the food processor shown in fig. 4;

FIG. 6 is a schematic diagram of another embodiment of a food processor circuit of the present application;

FIG. 7 is a schematic diagram of another embodiment of a food processor circuit of the present application;

fig. 8 is a schematic diagram of another embodiment of a food processor circuit according to the present application.

Detailed Description

Reference will now be made in detail to exemplary embodiments, examples of which are illustrated in the accompanying drawings. When the following description refers to the accompanying drawings, the same numbers in different drawings refer to the same or similar elements, unless otherwise indicated. The implementations described in the following exemplary examples do not represent all implementations consistent with the application. Rather, they are merely examples of apparatus consistent with aspects of the application as detailed in the accompanying claims.

The terminology used herein is for the purpose of describing particular embodiments only and is not intended to be limiting of the application. Unless defined otherwise, technical or scientific terms used herein should be given the ordinary meaning as understood by one of ordinary skill in the art to which this application belongs. The terms "first," "second," and the like in the description and in the claims, are not used for any order, quantity, or importance, but are used for distinguishing between different elements. Likewise, the terms "a" or "an" and the like do not denote a limitation of quantity, but rather denote the presence of at least one. "plurality" or "plurality" and the like means at least two. The word "comprising" or "comprises", and the like, means that elements or items appearing before "comprising" or "comprising" are encompassed by the element or item recited after "comprising" or "comprising" and equivalents thereof, and that other elements or items are not excluded. The terms "connected" or "connected," and the like, are not limited to physical or mechanical connections, but may include electrical connections, whether direct or indirect. Unless otherwise indicated, the terms "front," "rear," "lower," and/or "upper" and the like are merely for convenience of description and are not limited to one location or one spatial orientation. The term "and/or" as used herein refers to and encompasses any or all possible combinations of one or more of the associated listed items.

The circuit of the food processor provided by the embodiment of the application comprises a light source, a main control module, a solar module and a power receiving circuit. The main control module is connected with the light source and used for controlling the light source to emit light. The solar module is used for receiving light emitted by the light source and converting light energy into electric energy. The power receiving circuit is connected with the solar module and is used for receiving the electric energy of the solar module as the electric energy required by the work of the solar module. The processor circuit comprises a light source and a solar module, the solar module converts light energy into electric energy to supply power to the power receiving circuit, so that a power supply circuit can be reduced, and wiring is simplified.

Fig. 1 is a schematic diagram illustrating a structure of an embodiment of a food processor 10. The food processor 10 includes a main body 11 and a cup assembly 12 that can be assembled to the main body 11. The food processor 10 may be, for example, a broken wall food processor, a soymilk machine, a stirrer, a juice extractor, a complementary food machine, etc. Cup assembly 12 may include a cup assembly 13 and a cap assembly 14 that may be placed over cup assembly 13.

Fig. 2 is a block diagram illustrating one embodiment of a food processor circuit 100. The food processor 10 includes a food processor circuit 100. The food processor circuit 100 comprises a light source 102, a main control module 101, a solar module 103 and a power receiving circuit 104.

The light source 102 may emit visible light. In some embodiments, the light source 102 comprises a light emitting diode. The LED has small power consumption, simple control driving circuit and small volume. In other embodiments, the light source 102 comprises a tungsten lamp. The main control module 101 is connected with the light source 102 and is used for controlling the light source 102 to emit light. The main control module 101 may include a control chip, such as a single chip microcomputer.

The solar module 103 is configured to receive light emitted by the light source 102 and convert the light energy into electrical energy. The solar module 103 comprises a solar panel. The solar module 103 may output direct current. The solar module 103 may be selected to output a desired voltage, for example, 9v,12v,5v voltage, depending on the actual application. In some embodiments, a lens may be placed between the light source 102 and the solar module 103. The light emitted by the light source 102 can pass through the lens to irradiate the solar module 103, and the lens can enhance the light intensity and enlarge the area of the light irradiated to the solar module 103.

The power receiving circuit 104 is connected to the solar module 103, and is configured to receive electric power of the solar module 103 as electric power required for operation thereof. Solar module 103 may power powered circuit 104. The power receiving circuit 104 is a circuit that requires power to operate. The food processor circuit 100 converts light energy into electric energy through the solar module 103 and supplies power to the power receiving circuit 104, so that power supply connection lines can be reduced, and internal lines are simplified.

In some embodiments, with reference to fig. 1, the main control module 101 and the light source 102 are disposed on the host 11, the solar module 103 and the power receiving circuit 104 are disposed on the cup assembly 12, so that the power supply line between the host 11 and the cup assembly 12 can be simplified, the coupler of the host 11 and the coupler of the cup assembly 12 can reduce conductive pins, or the coupler can be omitted. In another embodiment, solar module 103 may be provided on host 11 and may be connected to power receiving circuit 104 through a coupler of host 11 and a coupler of cup assembly 12 to power receiving circuit 104. In some embodiments, solar module 103 may also power circuitry of host 11, such as a display module of host 11.

Fig. 3 is a block diagram illustrating another embodiment of a food processor circuit 200. The food processor circuit 200 is similar to the food processor circuit 100 shown in fig. 2, and compared to the food processor circuit 100 shown in fig. 2, the power receiving circuit 204 of the food processor circuit 200 shown in fig. 3 includes a sub-control module 241 and a detection circuit 242 connected to the sub-control module 241. The food processor circuit 200 includes a first optical communication module 205 connected to the main control module 101, and a second optical communication module 206 connected to the sub-control module 241. The sub-control module 241 is configured to collect a detection signal of the detection circuit 242, and send the detection signal to the main control module 101 through the first optical communication module 205 and the second optical communication module 206.

The solar module 103 is connected with the sub-control module 241, supplies power to the sub-control module 241, and provides electric energy required by the operation of the sub-control module 241. The sub-control module 241 may include a control chip, such as a single chip microcomputer, and the solar module 103 may supply power to the control chip.

In some embodiments, the detection circuit 242 may include a temperature detection module 2421 for detecting the temperature of food material within the food processor cup assembly. The temperature detection module 2421 may include a temperature sensor. In one embodiment, the temperature sensor comprises a thermistor, such as a negative temperature coefficient thermistor (Negative Temperature Coefficient, NTC).

In some embodiments, the detection circuit 242 includes an overflow prevention detection module 2422, the overflow prevention detection module 2422 includes an overflow prevention probe for generating an electrical signal when the liquid level rises to the overflow prevention probe after the food material is heated, and the main control module 101 controls the heating device to stop heating according to the electrical signal, thus preventing the food material from overflowing.

In some embodiments, the detection circuit 242 includes a cup determination detection module 2423 that can be used to detect different types of cup assemblies or lid assemblies. The food processor may include a plurality of cup assemblies that may be interchangeably assembled to the host machine, and/or a plurality of cup cap assemblies that may be interchangeably assembled to the same cup assembly. Different cup components or different cup cover components can be provided with different cup judging detection modules 2423 to generate different electric signals, and the main control module 101 can judge the cup components or the cup cover components according to the different electric signals so as to control the food processor to execute different functions. In other embodiments, the detection circuit 242 may include other detection modules.

The sub-control module 241 collects the detection signal of the detection circuit 242 and sends the detection signal to the second optical communication module 206. The second optical communication module 206 performs optical communication with the first optical communication module 205. The second optical communication module 206 may convert the detection signal into a corresponding optical signal. The first optical communication module 205 receives the optical signal, converts the optical signal into an electrical signal, and sends the electrical signal to the main control module 101, so that the main control module 101 can obtain an electrical signal corresponding to the detection signal, and can generate a control signal, for example, a control signal for controlling the rotation speed of the motor, a control signal for controlling the heating device to heat or stop heating, and the like, according to the electrical signal.

In some embodiments, the second optical communication module 206 includes a transmitter for converting an electrical signal into an optical signal and emitting the optical signal. The first optical communication module 205 includes a receiver corresponding to the transmitter for receiving the optical signal and converting the optical signal into an electrical signal. In other embodiments, the first optical communication module 205 and the second optical communication module 206 may each include a receiver and a transmitter, may transmit optical signals, and may receive optical signals.

In some embodiments, the first optical communication module 205 and the second optical communication module 206 may include infrared communication modules that communicate using infrared signals. In other embodiments, the first optical communication module 205 and the second optical communication module 206 may include a visible light communication module or other optical communication modules that communicate using visible light.

Fig. 4 is a longitudinal cross-sectional view of one embodiment of the food processor 10. Fig. 5 shows an enlarged view of the partial region 15 shown in fig. 4. The food processor 10 includes a food processor circuit 200 shown in fig. 3. Referring to fig. 3 to 5, the host 11 includes an operation panel 16 and a power panel 17. The operation panel 16 may be disposed on the front surface of the host 11 to face the user for operation by the user. The power board 17 may be connected to an external power source, for example, plug-in mains supply, to convert the voltage input by the external power source into a voltage required by the operation of the host 11, and may supply power to the main control module 101. The power panel 17 may include a switching power supply, and may output an operating voltage required by the main control module 101. In some embodiments, the main control module 101 is disposed on the operation panel 16 or the power panel 17.

The detection circuit 242 is provided to the cup assembly 12. In the related art, the detection circuit 242 is connected to the host 11 through a coupler, and an isolated power supply circuit isolated from an external power supply needs to be provided for the safety. In some embodiments of the present application, the detection signal of the detection circuit 242 is transmitted to the main control module 101 through an optical signal, and is not required to be electrically connected with the host 11, so that an isolated power circuit is not required to be provided, the power design is simplified, the area of the power panel 17 can be reduced, and the cost of the power panel 17 is reduced. In one embodiment, the temperature detection module 2421 of the detection circuit 242 is assembled to the cup chassis 18 at the bottom of the cup assembly 13. In one embodiment, spill-proof detection module 2422 of detection circuit 242 may be assembled to cap assembly 14.

The light source 102 may be disposed on top of the host 11, and the light source 102 emits light to the outside of the host 11. The first optical communication module 205 is disposed on the host 11, and may be disposed on top of the host 11. In one embodiment, the first optical communication module 205 is fixed to the light source 102.

In one embodiment, solar module 103 is disposed at the bottom of cup assembly 12. The solar module 103 may be arranged with respect to the light source 102. In some embodiments, a lens 207 may be disposed between the light source 102 and the solar module 103, and the lens 207 may increase the area and intensity of the light emitted by the light source 102. In one embodiment, lens 207 is positioned on cup assembly 12 and may be positioned on the side of the light receiving surface of solar module 103 that receives light. In another embodiment, the lens 207 may be provided on the host 11. In one embodiment, lens 207 may be disposed separately from light source 102. In another embodiment, lens 207 may be assembled with light source 102. In some embodiments, one or more lenses 207 may be provided. In some embodiments, the position of the solar module 103 is biased to one side of the light source 102, and/or the light receiving surface of the solar module 103 is inclined to the optical axis of the light emitted from the light source 102, the lens 207 may change the direction of the light, so that the light emitted from the light source 102 passes through the lens 207 and irradiates the light receiving surface of the solar module 103. So can place solar module 103 according to the structure and the inner space of cup subassembly 12, the design is more nimble, make full use of cup subassembly 12's space, can also set up the solar module 103 of great area as required, produce more electric energy.

In some embodiments, a sub-control module 241 is provided to the cup assembly 12. The sub-control module 241 may be disposed on a side of the solar module 103 facing away from the light receiving surface. In one embodiment, the sub-control module 241 may be provided independently of the solar module 103. In another embodiment, the sub-control module 241 may be integrated within the solar module 103. Solar module 103 may include an integrated circuit and sub-control module 241 may be integrated within the integrated circuit. In some embodiments, the second optical communication module 206 is provided to the cup assembly 12. In one embodiment, the second optical communication module 206 may be disposed on a side of the sub-control module 241 facing away from the solar module 103.

Fig. 6 is a schematic diagram of another embodiment of a food processor circuit 300. The food processor circuit 300 shown in fig. 6 is similar to the food processor circuit 200 shown in fig. 3. In comparison to the food processor circuit 200 shown in fig. 3, the solar module 103 of the food processor circuit 300 shown in fig. 6 includes the output terminals solare+ and solardd for outputting electric energy and connected to the power receiving circuit 204, the food processor circuit 300 includes the energy storage unit 307 connected in parallel to the output terminals solare+ and solardd of the solar module 103, and the energy storage unit 307 is connected between the output terminals solare+ and solardd of the solar module 103 and the power receiving circuit 204. The energy storage unit 307 can store the electric energy output by the solar module 103, and can provide the electric energy to the power receiving circuit 204, so that the power can be continuously supplied to the power receiving circuit 204, the stability of power supply is ensured, and the stable voltage is provided.

In one embodiment, the energy storage unit 307 is connected between the solar module 103 and the sub-control module 241 to power the sub-control module 241. In some embodiments, the energy storage unit 307 comprises an energy storage capacitor C2 connected between the output solare+ of the solar module 103 and solardd. The storage capacitor C2 may be an electrolytic capacitor. When the solar module 103 outputs electric energy, the power receiving circuit 204 can be powered, and the energy storage capacitor C2 can be charged. When the light received by the solar module 103 is weakened, the output voltage is reduced, or no voltage is output, the energy storage capacitor C2 can discharge to supply power to the sub-control module 241, so that stable voltage can be continuously provided to the sub-control module 241. The energy storage capacitor C2 also has a filtering function. In other embodiments, the energy storage unit 307 may also include other components.

The food processing circuit 300 comprises a unidirectional conduction unit 308, wherein the unidirectional conduction unit 308 is connected in series between the solar module 103 and the energy storage unit 307, and the conduction direction is consistent with the current direction of the solar module 103 for supplying power to the power receiving circuit 204. In one embodiment, the unidirectional conducting unit 308 is connected in series between the positive output solare+ of the solar module 103 and the energy storage unit 307, the conducting direction being directed from the solar module 103 to the energy storage unit 307. The current output by the solar module 103 may flow through the unidirectional current conducting unit 308 and into the power receiving circuit 204. The unidirectional conduction unit 308 can prevent the problem of current backflow after voltage reduction caused by light weakening of the solar module 103, and prevent the energy storage unit 307 from discharging to the solar module 103.

In some embodiments, unidirectional conducting unit 308 includes a diode D2, the anode of diode D2 being connected to the positive output solare+ of solar module 103 and the cathode being connected to the receiving circuit 204. In one embodiment, the cathode of diode D2 is connected to sub-control module 241.

In the embodiment shown in fig. 6, the food processor circuit 300 includes a driving transistor Q1 connected with the main control module 101 and the light source 102. The light source 102 may be an LED, and the driving transistor Q1 may be a transistor or a MOS transistor. The main control module 101 controls the on/off state of the light source 102 by controlling the driving transistor Q1. In one embodiment, the driving transistor Q1 is an NPN transistor, with a base connected to the main control module 101, a collector connected to the negative electrode of the LED, and an emitter grounded. A current limiting resistor R3 is connected in series between the base of the driving transistor Q1 and the main control module 101, and the base is grounded through a pull-down resistor R4. The positive pole of LED passes through pull-up resistor R1 and connects DC power supply terminal VCC. When the main control module 101 outputs a high level, the driving transistor Q1 is turned on, and the light source 102 emits light when current passes through. When the main control module 101 outputs a low level, the driving transistor Q1 is turned off, and the light source 102 does not pass current and does not emit light.

Fig. 7 is a schematic diagram of another embodiment of a food processor circuit 400. The food processor circuit 400 shown in fig. 7 is similar to the food processor circuit 200 shown in fig. 3. Compared to the food processor circuit 200 shown in fig. 3, the main control module 101 of the food processor circuit 400 shown in fig. 7 is configured to control the on/off state of the light source 102, so that the solar module 103 generates a corresponding electrical signal to control the power receiving circuit 404. The main control module 101 transmits control information by controlling the on/off of the light source 102, and the solar module 103 is subjected to different illumination to generate different electric signals, and the electric signals embody the control information so as to control the power receiving circuit 404. The change rule of the electric signal generated by the solar module 103 is consistent with the on-off rule of the light source 102. The control of the main control module 101 to the power receiving circuit 404 is realized through the light source 102 and the solar module 103, so that the circuit can be simplified. The power supply and control can be realized through the light source 102 and the solar module 103, so that the circuit can be simplified, and the cost can be saved.

In some embodiments, the power receiving circuit 404 includes a sub-control module 441 and a load 409 connected to the sub-control module 441, the sub-control module 441 includes a signal receiving port Sig, and the sub-control module 441 is connected to the solar module 103 through the signal receiving port Sig, for controlling the load 409 according to an electrical signal generated by the solar module 103. The solar module 103 generates a corresponding electric signal according to the on-off state of the light source 102, and gives the electric signal to the sub-control module 441, and the sub-control module 441 generates a corresponding control signal according to the electric signal of the solar module 103 to control the load 409. This allows control of the load 409.

In one embodiment, the main control module 101 controls the light source 102 to be lighted, representing one of a control signal of a high level and a low level. The main control module 101 controls the light source 102 to be turned off, representing the other control signal of the high level and the low level. The sub-control module 441 may generate a control signal of a corresponding level to control the load 409. Control is thus achieved by turning on and off the light source 102 respectively representing control signals of different levels. The control signal may include several bits, each of which may be represented by a "0" or a "1", a "0" may represent a low level, and a "1" may represent a high level. The light source 102 is on for a time greater than 0 corresponding to a one-bit control signal, and is off for a time ranging from 1ms to 100ms (inclusive).

In another embodiment, after the main control module 101 controls the light source 102 to light up for a first period of time, the main control module extinguishes for a second period of time, which represents one of the high level and the low level, for example, the first period of time may be 1ms, and the second period of time may be 2ms. After the main control module 101 controls the light source 102 to be turned on for a second period of time, the first period of time is extinguished, and the other control signal of the high level and the low level is represented. Thus, different control signals are represented by different combinations of on and off of the light source 102, so that control is realized more accurately. In other examples, the combination of on and off of the light source 102 may be different from the examples described above.

In another embodiment, the main control module 101 controls the light source 102 from on to off, and the change from on to off represents one of a control signal of a high level and a low level. The main control module 101 controls the light source 102 to be turned on and off, and a change in the on and off state indicates another control signal of the high level and the low level. Thus, the control is realized by the different indication of the on-off change of the light source 102.

In other embodiments, control may be achieved by other forms of on-off states of the light source 102, representing control signals.

In the embodiment shown in fig. 7, the load 409 includes an indicator light circuit 491 and an evacuation device 492. The indicator light circuit 491 may be used to indicate the operating status of the food processor, such as, for example, start of food processing, end of food processing, etc. The vacuum assembly 492 may be used to evacuate the cup assembly to preserve the food material and to resist oxidation. The load 409 may be provided to the cup assembly. Indicator light circuit 491 may be provided on the cup assembly and/or the cap assembly. The vacuuming means 492 may be provided to the cap assembly. In other embodiments, the indicator light circuit 491 or the evacuation device 492 may be omitted. In other embodiments, load 409 may comprise other loads.

In some embodiments, the load 409 may be connected to the solar module 103, the solar module 103 powering the load 409.

The detection circuit 442 shown in fig. 7 may be similar to the detection circuit 242 shown in fig. 3, including a cup determination detection module, an overflow prevention detection module, and a temperature detection module (not shown in fig. 7).

Fig. 8 is a schematic diagram of another embodiment of a food processor circuit 500. The food processor circuit 500 shown in fig. 8 is similar to the food processor circuit 400 shown in fig. 7. In contrast to the food processor circuit 400 shown in fig. 7, the load of the food processor circuit 500 shown in fig. 8 includes an indicator light circuit 591, the indicator light circuit 591 including light emitting diodes D101-103. The indicator light circuit 591 may include one or more light emitting diodes D101-103. In one embodiment, the indicator light circuit 591 may include a plurality of differently colored light emitting diodes D101-103. The plurality of light emitting diodes D101-103 may be connected to different ports of the sub-control module 541. The sub-control module 541 controls the on/off of the light emitting diodes D101-103.

In one embodiment, indicator light circuit 591 is connected to solar module 103, and solar module 103 may power indicator light circuit 591. In one embodiment, the cathodes of the light emitting diodes D101-103 are connected to a sub-control module 541, and the anodes are connected to the positive output Solare+ of the solar module 103 through resistors R101-R103. When the sub-control module 541 outputs a low level, the light emitting diodes D101-103 are energized to emit light. When the sub-control module 541 outputs a high level, the light emitting diodes D101 to 103 are turned off and do not emit light.

In the embodiment shown in fig. 8, a capacitor C1 is connected in series between the signal receiving port Sig of the sub-control module 541 and the solar module 103, so that the peak voltage of the voltage output by the solar module 103 can be absorbed, and the voltage output to the signal receiving port Sig of the sub-control module 541 is smoothed, so that the high-low level signal received by the sub-control module 541 is more clear, the probability of misjudging the high-low level signal is reduced, and the control accuracy is improved. The capacitor C1 is connected in series between the positive output solare+ of the solar module 103 and the signal receiving port Sig of the sub-control module 541.

In one embodiment, a current limiting resistor R1 is connected in series with a capacitor C1. The current limiting resistor R1 is connected in series between the signal receiving port Sig of the sub-control module 541 and the solar module 103. Can be used for current limiting to prevent excessive current output by the solar module 103.

In one embodiment, the food processor circuit 500 includes a unidirectional conduction unit 308, and the capacitor C1 is connected between the unidirectional conduction unit 308 and the solar module 103. The current limiting resistor R1 is connected between the unidirectional current conducting unit 308 and the solar module 103. The unidirectional conduction unit 308 can prevent the current from flowing backwards when the voltage of the solar module 103 is low, so that the level detected by the signal receiving port Sig of the sub-control module 541 is abnormal and the control is incorrect.

The foregoing description of the preferred embodiments of the application is not intended to be limiting, but rather to enable any modification, equivalent replacement, improvement or the like to be made within the spirit and principles of the application.

Claims

1. A processor circuit for a processor, the processor comprising a host (11) and a cup assembly (12) that is mountable to the host (11), the processor circuit comprising:

a light source (102);

the main control module (101) is connected with the light source (102) and used for controlling the light source (102) to emit light;

a solar module (103) for receiving light emitted by the light source (102) and converting the light energy into electrical energy; a kind of electronic device with high-pressure air-conditioning system

A power receiving circuit (104) connected with the solar module (103) and used for receiving the electric energy of the solar module (103) as the electric energy required by the work of the solar module;

the main control module (101) is used for controlling the on-off state of the light source (102) to enable the solar module (103) to generate corresponding electric signals so as to control the power receiving circuit (104);

the main control module (101) and the light source (102) are arranged on the host (11), and the solar module (103) and the power receiving circuit (104) are arranged on the cup assembly (12);

the solar module (103) comprises an output end which is used for outputting electric energy and is connected with the power receiving circuit, the processor circuit comprises an energy storage unit (307) which is connected in parallel with the output end of the solar module (103), and the energy storage unit (307) is connected between the output end of the solar module (103) and the power receiving circuit;

the power receiving circuit comprises a sub-control module (241) and a detection circuit (242) connected with the sub-control module (241), the processor circuit comprises a first optical communication module (205) connected with the main control module (101) and a second optical communication module (206) connected with the sub-control module (241), and the sub-control module (241) is used for collecting detection signals of the detection circuit (242) and transmitting the detection signals to the main control module (101) through the first optical communication module (205) and the second optical communication module (206).

2. The food processor circuit of claim 1 wherein: the power receiving circuit comprises a sub-control module and a load (409) connected with the sub-control module, wherein the sub-control module comprises a signal receiving port, and the sub-control module is connected with the solar module (103) through the signal receiving port and is used for controlling the load (409) according to an electric signal generated by the solar module (103).

3. The food processor circuit of claim 2 wherein: the load (409) comprises an indicator light circuit (491) and/or an evacuation device (492).

4. The food processor circuit of claim 2 wherein: a capacitor is connected in series between the signal receiving port of the sub-control module and the solar module (103).

5. The food processor circuit of claim 1 wherein: the processor circuit comprises a unidirectional conduction unit (308), wherein the unidirectional conduction unit (308) is connected in series between the solar module (103) and the energy storage unit (307), and the conduction direction is consistent with the current direction of the solar module (103) for supplying power to the power receiving circuit (104).

6. The food processor circuit of claim 1 wherein: the light source (102) comprises a light emitting diode and/or a tungsten filament lamp.

7. A cooking machine, characterized in that it includes:

a host (11);

a cup assembly (12) which can be assembled to the host (11); a kind of electronic device with high-pressure air-conditioning system

The food processor circuit of any one of claims 1-6.