Power supply mode and structure of household appliance

Abstract

The invention discloses a power supply mode and structure of a household appliance. A main body comprises a driving motor, a labor-saving gear transmission machine, a generator, an electric control assembly and a battery; the driving motor is connected with the labor-saving gear transmission machine and drives a power input gear of the labor-saving gear transmission machine to rotate; according to the labor-saving gear transmission machine, the power input gear is connected with the driving motor, and the power output gear is further connected with the generator to drive the generator to rotate; the electric control assembly is provided with a group of wire groups connected to the driving motor, a group of wire groups connected to the battery, a group of wire groups connected to the generator and an external power line. The electric control assembly is further provided with a starting switch. And the electric control assembly has the functions of rectifying and stabilizing the voltage of the current transmitted by the generator and then distributing the current to each electronic element, and is also provided with a port for transmitting the current to the outside.

Description

Technical Field

[0001] The invention relates to a power supply method and structure for household appliances, in particular to a power supply method and structure for household appliances with built-in generators. Background Art

[0002] Most of the current household appliances are powered by external power supplies, which consume a large amount of external power and cannot work without the external power supply, thus limiting the use of the household appliances. Summary of the invention

[0003] In order to overcome the above-mentioned shortcomings of the prior art, the present invention provides a household appliance power supply method and structure with a built-in generator set, which has the characteristics of strong practicality, high working efficiency and green environmental protection, consumes less external power supply, and can start the household appliances without an external power supply.

[0004] The technical solution adopted by the present invention to solve its technical problem is to provide a household appliance power supply method and structure.

[0005] The technical solution of the present invention is: the main body includes a driving motor, a labor-saving gear transmission mechanism, a generator, an electric control component, and a battery; The driving motor is connected to the labor-saving gear transmission mechanism to drive the power input gear of the labor-saving gear transmission mechanism to rotate; the labor-saving gear transmission mechanism not only has the power input gear connected to the driving motor, but also has the power output gear connected to the generator to drive the generator to rotate; The electric control component has a group of wires connected to the drive motor, a group of wires connected to the battery, a group of wires connected to the generator, a group of wires connected to the main control computer of the home appliance, and an external power line.

[0006] The electric control component is provided with the function of rectifying and stabilizing the current transmitted from the generator and then distributing it to various electronic components, and is also provided with a port for transmitting current to the outside.

[0007] The labor-saving gear transmission machinery mainly comprises a gear box, a power input gear, a transmission gear, a power output gear and a bearing.

[0008] The gear box is a hollow cube without a top surface, and a plurality of bearing holes are arranged on both sides of the gear box.

[0009] The power input gear bearing is installed on the corresponding bearing hole of the gear box.

[0010] The power input gear comprises a main body, a gear shaft, a gear hub and gear teeth; the gear shaft is provided with a front end shaft and a rear end shaft, which are respectively arranged at the center positions of the two end faces of the gear hub; the front end shaft is provided with a power input spline shaft, a bearing mounting shaft body and a large shaft body in sequence, and the diameter of the power input spline shaft is less than the diameter of the bearing mounting shaft body and less than the diameter of the large shaft body; the rear end shaft is provided with a large shaft body and a bearing mounting shaft body in sequence, and the diameter of the large shaft body is larger than the diameter of the bearing mounting shaft body; the gear hub is a cylinder; the gear teeth are arranged on the side of the gear hub; the teeth are similar to rectangular teeth, and the end of the teeth is arc-shaped; the tooth thickness of the gear teeth is less than the tooth groove width in the corresponding tooth groove.

[0011] The transmission gear bearings are mounted on corresponding bearing holes of the gear box.

[0012] The transmission gear is a double-layer gear, and the main body includes a gear shaft, a gear hub, a power input gear layer, and a power output gear layer; the gear shaft is provided with a front end shaft and a rear end shaft, which are respectively arranged at the center positions of the two end faces of the gear hub; the gear shaft is provided with a large shaft body and a bearing mounting shaft body, and the diameter of the large shaft body is larger than the diameter of the bearing mounting shaft body; the gear hub is a cylinder; the tooth layer of the power input gear and the tooth layer of the power output gear are arranged on the side of the gear hub; the teeth of the power input gear layer are a T-shaped tooth similar to a T-shaped tooth, and the end of the tooth is a cylinder; the tooth thickness of the tooth is smaller than the tooth width in the corresponding tooth groove; the number of teeth of the power output tooth layer is consistent with the number of teeth of the power input tooth layer, the tooth is a rectangular tooth, and the end of the tooth is arc-shaped, and the tooth thickness is smaller than the tooth width in the corresponding tooth groove.

[0013] The power output gear bearing is installed on the corresponding bearing hole of the gear box.

[0014] The power output gear body includes a front end shaft, a rear end shaft, a gear hub, and a power input gear layer; the front end shaft and the rear end shaft are respectively arranged at the center positions of the two end faces of the gear hub; the front end shaft is sequentially provided with a bearing mounting shaft body and a large shaft body, and the diameter of the large shaft body is larger than the diameter of the bearing mounting shaft body; the rear end shaft is sequentially provided with a large shaft body, a bearing mounting shaft body, and a power output spline shaft; the gear hub is a cylinder; the power input gear layer is arranged on the side of the gear hub; the teeth of the power input gear layer are a T-shaped teeth similar to a T, and the end of the teeth is a cylinder; the tooth thickness of the teeth in the corresponding tooth groove is smaller than the tooth groove width.

[0015] The number of teeth of the layer of teeth that the power input gear, the transmission gear and the power output gear can mesh with each other is the same.

[0016] The more transmission gears there are, the greater and smoother the output power.

[0017] The power input gear, transmission gear, and power output gear have the same number of teeth in the meshing tooth layers; therefore, the speed of one rotation of the gears is also the same. When the power input gear rotates one axis, the power output gear also rotates one circle.

[0018] The teeth of the power input gear can engage with the power input tooth layer of the transmission gear, and the power output tooth layer of the transmission gear can engage with the teeth of the power output gear.

[0019] The power is input from the power input gear, passes through the transmission gear, and is finally output from the power output gear.

[0020] The beneficial effects of the present invention are strong practicability, high working efficiency and green environmental protection, less external power consumption, and the home appliance can be started without an external power supply. BRIEF DESCRIPTION OF THE DRAWINGS

[0021] Figure 1 It is a simplified schematic diagram of the present invention Figure 2 This is a simplified diagram of the power input gear. Figure 3 This is a schematic diagram of the power input gear power output gear layer and the transmission gear power output gear layer Figure 4 This is a simplified diagram of the transmission gear Figure 5 This is a simplified schematic diagram of the power input gear layer of the transmission gear and the power output gear power input gear layer Figure 6 This is a schematic diagram of the power output gear Figure 7 This is a simplified diagram of power transmission when the power input gear teeth begin to engage the transmission gear. Figure 8 This is a simplified schematic diagram of power transmission when the power input gear teeth and the teeth of the meshing transmission gear are balanced. Fig. 9 This is a simplified diagram of power transmission when the power input gear teeth are about to engage the separation transmission gear. DETAILED DESCRIPTION

[0022] In order to make the technical problems, technical solutions and beneficial effects solved by the present invention more clearly understood, the present invention is further described below in conjunction with the accompanying drawings and embodiments. It should be understood that the embodiments described herein are only used to explain the present invention and are not used to limit the present invention.

[0023] The power supply method and structure of household appliances, the main body includes a drive motor, a labor-saving gear transmission mechanism, a generator, an electronic control component, and a battery pack; The driving motor is connected to the labor-saving gear transmission mechanism to drive the power input gear of the labor-saving gear transmission mechanism to rotate; the labor-saving gear transmission mechanism not only has the power input gear connected to the driving motor, but also has the power output gear connected to the generator to drive the generator to rotate and generate electricity; The drive motor is provided with a fan blade, and the drive motor is air-cooled when the drive motor is working; The electric control component has a group of wires connected to the drive motor, a group of wires connected to the battery, a group of wires connected to the generator, a group of wires connected to the main control computer board of the home appliance, and an external power line.

[0024] The electric control component is provided with the function of rectifying and stabilizing the current transmitted from the generator and then distributing it to various electronic components, and is also provided with a port for transmitting current to the outside.

[0025] The labor-saving gear transmission mechanical body comprises a gear box, a power input gear, a transmission gear, a power output gear and a bearing.

[0026] The gear box is a hollow cube without a top surface, and a plurality of bearing holes are arranged on both sides of the gear box.

[0027] The power input gear bearing is installed on the corresponding bearing hole of the gear box.

[0028] The power input gear comprises a main body, a gear shaft, a gear hub and gear teeth; the gear shaft is provided with a front end shaft and a rear end shaft, which are respectively arranged at the center positions of the two end faces of the gear hub; the front end shaft is provided with a power input spline shaft, a bearing mounting shaft body and a large shaft body in sequence, and the diameter of the power input spline shaft is less than the diameter of the bearing mounting shaft body and less than the diameter of the large shaft body; the rear end shaft is provided with a large shaft body and a bearing mounting shaft body in sequence, and the diameter of the large shaft body is larger than the diameter of the bearing mounting shaft body; the gear hub is a cylinder; the gear teeth are arranged on the side of the gear hub; the teeth are similar to rectangular teeth, and the end of the teeth is arc-shaped; the tooth thickness of the gear teeth is less than the tooth groove width in the corresponding tooth groove.

[0029] The transmission gears are provided with single-layer gears and double-layer gears, and there are three of them, namely double-layer transmission gear 1, double-layer transmission gear 2, and double-layer transmission gear 3, which are installed on the corresponding bearing holes of the gear box with bearings.

[0030] The double-layer transmission gear 1, double-layer transmission gear 2, and double-layer transmission gear 3, the transmission gear is a double-layer gear, the main body includes a gear shaft, a gear hub, a power input gear layer, and a power output gear layer; the gear shaft is provided with a front end shaft and a rear end shaft, which are respectively arranged at the center positions of the two end faces of the gear hub; the gear shaft is provided with a large shaft body and a bearing mounting shaft body, and the diameter of the large shaft body is larger than the diameter of the bearing mounting shaft body; the gear hub is a cylinder; the tooth layer of the power input gear and the tooth layer of the power output gear are arranged on the side of the gear hub; the tooth of the power input tooth layer is a T-shaped tooth similar to a T-shaped tooth, and the end of the tooth is a cylinder; the tooth thickness of the tooth is smaller than the tooth width in the corresponding tooth groove; the number of teeth of the power output tooth layer is consistent with the number of teeth of the power input tooth layer, the tooth is a rectangular tooth, and the end of the tooth is arc-shaped, and the tooth thickness is smaller than the tooth width in the corresponding tooth groove.

[0031] The power output gear bearing is installed on the corresponding bearing hole of the gear box.

[0032] The power output gear body includes a front end shaft, a rear end shaft, a gear hub, and a power input tooth; the front end shaft and the rear end shaft are respectively arranged at the center positions of the two end faces of the gear hub; the front end shaft is sequentially provided with a bearing mounting shaft body and a large shaft body, and the diameter of the large shaft body is larger than the diameter of the bearing mounting shaft body; the rear end shaft is sequentially provided with a large shaft body, a bearing mounting shaft body, and a power output spline shaft; the gear hub is a cylinder; the power input tooth layer is arranged on the side of the gear hub; the tooth of the power input tooth layer is a T-shaped tooth similar to a tooth, and the end of the tooth is a cylinder; the tooth thickness of the tooth is smaller than the tooth width in the corresponding tooth groove.

[0033] The number of teeth of the layer of teeth that the power input gear, the transmission gear and the power output gear can mesh with each other is the same.

[0034] The teeth of the power input gear can engage with the teeth of the first transmission gear, the teeth of the transmission gears can engage with the teeth of adjacent transmission gears in turn, and the last transmission gear can engage with the teeth of the power output gear.

[0035] The power is input from the power input gear, passes through the transmission gear, and is finally output from the power output gear.

[0036] In order to more intuitively reflect the beneficial transmission effect of the present invention, the gears are driven by each other in conjunction with the accompanying drawings.

[0037] In order to more conveniently and intuitively reflect the size and speed of power input and power output, the power transmission of the teeth that mesh with each other, the number of teeth on the power input gear, transmission gear, and power output gear is consistent; As shown Figure 7 in the figure, when a tooth of the power output tooth layer of the power input gear rotates to a position where it can engage with a tooth of the power input tooth layer of the double-layer transmission gear 1, this position is the engagement point, which clearly shows that the torque length of the power input of the power input gear is equal to the torque length of the power output of the power output gear. The length of the resistance arm on the power output tooth layer of the power input gear is equal to the length of the power arm on the power input tooth layer of the double-layer transmission gear 1. The length of the resistance arm on the power output tooth layer of the double-layer transmission gear 1 is less than the length of the power arm on the power input tooth layer of the double-layer transmission gear 2. The length of the resistance arm on the power input tooth layer of the double-layer transmission gear 2 is equal to the length of the power arm on the power input tooth layer of the double-layer transmission gear 3. The length of the resistance arm on the power output tooth layer of the double-layer transmission gear 3 is less than the length of the power arm on the power input tooth layer of the power output gear; Assume that the length of the power arm of the power input gear is A, and the resistance arm is B; the length of the power arm of the double-layer transmission gear 1 is C, and the resistance arm is D; the length of the power arm of the double-layer transmission gear 2 is E, and the resistance arm is F; the length of the power arm of the double-layer transmission gear 3 is G, and the resistance arm is H; the length of the power arm of the power output gear is I, and the resistance arm is J. Then A = J, B = C, D < E, F = G, H < I. The total length of the power arms is A + C + E + G + I, and the total length of the resistance arms is B + D + F + H + J. For the convenience of calculation, the equal power arms and resistance arms are omitted. Since A = J, B = C, F = G, D < E, H < I, so E + I > D + H. In summary, the total length of the power arms is greater than the total length of the resistance arms, so the output power is greater than the input power.

[0038] As shown Figure 8 in the figure, when a tooth of the power output tooth layer of the power input gear and a tooth of the power input tooth layer of the engaged double-layer transmission gear 1 rotate to be parallel, it also reaches the middle of the distance between the engagement point and the separation point of the tooth engagement, which clearly shows that the torque length of the power input of the power input gear is equal to the torque length of the power output of the power output gear. The length of the resistance arm on the power output tooth layer of the power input gear is less than the length of the power arm on the power input tooth layer of the double-layer transmission gear 1. The length of the resistance arm on the power output tooth layer of the double-layer transmission gear 1 is equal to the length of the power arm on the power input tooth layer of the double-layer transmission gear 2. The length of the resistance arm on the power output tooth layer of the double-layer transmission gear 2 is less than the length of the power arm on the power input tooth layer of the double-layer transmission gear 3. The length of the resistance arm on the power output tooth layer of the double-layer transmission gear 3 is equal to the length of the power arm on the power input tooth layer of the power output gear; Hypothesis: The length of the power arm of the power input gear is A1, and the length of the resistance arm is B1; the length of the power arm of the transmission gear 1 is C1, and the length of the resistance arm is D1; the length of the power arm of the transmission gear 2 is E1, and the length of the resistance arm is F1; the length of the power arm of the transmission gear 3 is G1, and the length of the resistance arm is H1; the length of the power arm of the power output gear is I1, and the length of the resistance arm is J1; then A1 = J1, B1 < C1, D1 = E1, F1 < G1, H1 = I1. The total length of the power arm is A1 + C1 + E1 + G1 + I1, and the total length of the resistance arm is B1 + D1 + F1 + H1 + J1. For the convenience of calculation, the equal power arms and resistance arms are omitted. Since A1 = J1, B1 < C1, D1 = E1, F1 < G1, H1 = I1, then B1 + F1 < C1 + G1. In summary, the total length of the power arm is greater than the total length of the resistance arm. Therefore, the output power is greater than the input power.

[0039] As Fig. 9 shown, when a tooth of the power input gear rotates to a position where it can be separated from the tooth of the engaged transmission gear, this position is the separation point, which clearly shows that the torque length of the power input of the power input gear is equal to the torque length of the power output of the power output gear, and the length of the resistance arm on the power output tooth layer of the power input gear is equal to the length of the power arm on the power input tooth layer of the double-layer transmission gear 1. The length of the resistance arm on the power output tooth layer of the double-layer transmission gear 1 is less than the length of the power arm on the power input tooth layer of the double-layer transmission gear 2. The length of the resistance arm on the power output tooth layer of the double-layer transmission gear 2 is equal to the length of the power arm on the power input tooth layer of the double-layer transmission gear 3. The length of the resistance arm on the power output tooth layer of the double-layer transmission gear 3 is less than the length of the power arm on the power input tooth layer of the power output gear; Hypothesis: The length of the power arm of the power input gear is A2, and the length of the resistance arm is B2; The length of the power arm of the double-layer transmission gear 1 is C2, and the length of the resistance arm is D2; the length of the power arm of the double-layer transmission gear 2 is E2, and the length of the resistance arm is F2; the length of the power arm of the double-layer transmission gear 3 is G2, and the length of the resistance arm is H2; the length of the power arm of the power output gear is I2, and the length of the resistance arm is J2; then A2 = J2, B2 = C2, D2 < E2, F2 = G2, H2 < I2. The total length of the power arm is A2 + C2 + E2 + G2 + I2, and the total length of the resistance arm is B2 + D2 + F2 + H2 + J2. For the convenience of calculation, the equal power arms and resistance arms are omitted. Since A2 = J2, B2 = C2, F2 = G2, D2 < E2, H2 < I2, therefore E2 + I2 > D2 + H2. In summary, the total length of the power arm is greater than the total length of the resistance arm. Therefore, the output power is greater than the input power.

[0040] In summary, the more double-layer transmission gears there are, the greater the output power.

[0041] The power input gear, transmission gear, and power output gear have the same number of teeth in the meshing tooth layers; therefore, the speed of one rotation of the gears is also the same. When the power input gear rotates one axis, the power output gear also rotates one circle.

[0042] The important features of the above-mentioned labor-saving gear transmission machinery are: A relatively small power can output a very large power through the above-mentioned labor-saving gear transmission machinery.

[0043] The speed of the power output gear may be no less than the speed of the power input gear.

[0044] According to the two characteristics of the above-mentioned labor-saving gear transmission machinery, a relatively small-power driving motor drives a relatively large-power generator through a labor-saving gear transmission machinery, and the electricity generated by the relatively large-power generator is transmitted to the electronic control component, which rectifies and stabilizes the transmitted current, and then distributes it to various electronic components and external current transmission ports. The electronic control component also has the function of temporarily storing electrical energy; and the driving motor uses the electricity transmitted to the electronic control component by the battery only when it starts to start. After the driving motor starts, when the electronic control component detects that there is current transmitted from the generator, it preferentially uses the current transmitted by the generator to work, not only no longer using the battery power, but also charging the battery when the electronic control component detects that the battery power drops to a set value; when it is not used for a long time, the battery power is lost, or the battery is damaged, and the driving motor cannot be started normally, the external power supply can be connected to the external power supply through the external power supply line on the electronic control component to start the driving motor; when the driving motor or the generator is damaged and the generator cannot transmit current to the electronic control component, the external power supply can be connected to the external power supply through the external power supply line on the electronic control component to provide current for the household appliance so that the household appliance can be used normally.

[0045] The present invention has the characteristics of strong practicability, high working efficiency and environmental protection, consumes less external power supply, can start the household appliances without external power supply, and has a household appliance power supply method and structure with a built-in generator set.

[0046] The above are merely preferred embodiments for illustration, and any modifications, equivalent substitutions and improvements made within the spirit and principles of the present invention shall fall within the protection scope of the present invention.

Claims

1. A method and structure for providing power to household appliances, characterized in that: The main body includes a driving motor, a labor-saving gear transmission mechanism, a generator, an electronic control component, and a battery; The driving motor is connected to the labor-saving gear transmission mechanism to drive the power input gear of the labor-saving gear transmission mechanism to rotate; the labor-saving gear transmission mechanism not only has the power input gear connected to the driving motor, but also has the power output gear connected to the generator to drive the generator to rotate; The electric control assembly has a group of wires connected to the drive motor, a group of wires connected to the battery, a group of wires connected to the generator, a group of wires connected to the main control computer board of the home appliance, and an external power line; The electric control component is also provided with a start switch; The electric control component is provided with the function of rectifying and stabilizing the current transmitted from the generator and then distributing it to various electronic components, and is also provided with a port for transmitting current to the outside.

2. According to claim 1, a household appliance power supply method and structure, characterized in that: A relatively small power can output a very large power through the above-mentioned labor-saving gear transmission machinery, and the speed of the power output gear of the labor-saving gear transmission machinery can be no less than the speed of the power input gear.

3. According to claim 1, a household appliance power supply method and structure, characterized in that: A relatively small-power drive motor drives a relatively large-power generator through a labor-saving gear transmission mechanism. The electricity generated by the relatively large-power generator is transmitted to the electronic control component. The electronic control component rectifies and stabilizes the transmitted current, and then distributes it to various electronic components and external current transmission ports.

4. According to claim 1, a household appliance power supply method and structure, characterized in that: The electronic control components have the function of temporarily storing electrical energy.

5. According to claim 1, a household appliance power supply method and structure, characterized in that: The drive motor uses the electricity supplied by the battery to the electronic control component only when it starts. After the drive motor starts, when the electronic control component detects that the generator is supplying current, it will give priority to using the current supplied by the generator. Not only will it no longer use the battery power, but when the electronic control component detects that the battery power level has dropped to a set value, it will charge the battery.

6. According to claim 1, a household appliance power supply method and structure, characterized in that: When the drive motor cannot be started normally due to long-term non-use, battery loss or battery damage, you can connect an external power source to start the drive motor through the external power cord on the electronic control component.

7. According to claim 1, a household appliance power supply method and structure, characterized in that: When the drive motor or generator is damaged and the generator cannot supply current to the electronic control component, the external power cord on the electronic control component can be used to connect an external power source to provide current for the home appliance so that the home appliance can be used normally.

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