Charging device and power supply assembly

Abstract

The embodiment of the utility model discloses a charging device and a power supply assembly, and the charging device comprises a Type-c plug and a main control board with a control circuit. The control circuit comprises a main control unit, a three-terminal resistor and a first resistor; the Type-c plug comprises an SBU1 pin and an SBU2 pin, a first end of the three-terminal resistor is connected with the SBU1 pin, a second end of the three-terminal resistor is connected with the SBU2 pin, and a third end of the three-terminal resistor is connected with the main control unit through the first resistor, so that when the Type-c plug is connected with a Type-c interface of power equipment, the power equipment obtains a preset trigger signal, and the Type-c plug is connected with the Type-c interface of the power equipment. And the power supply equipment performs charging operation under the triggering of the preset triggering signal, through the mode, an APP and a management background do not need to be customized, the anti-theft cost can be effectively reduced, meanwhile, personal information of consumers does not need to be collected, and personal privacy is effectively protected.

Description

Technical Field

[0001] The utility model relates to the technical field of power charging, in particular to a charging device and a power supply assembly. Background Technique

[0002] The shared power bank device mainly consists of a mobile power supply, a hardware controller and a communication module. Among them, the mobile power supply is the basic device provided for users, the hardware controller is responsible for managing and controlling the states and operations of multiple mobile power supplies, and the communication module realizes data interaction with the cloud server. At present, the anti-theft solutions for shared mobile power supplies on the market generally solve the problem through a software background + electromagnetic lock. The background management system provides a website or application program (APP) for operators to use. Operators can manage and monitor the shared power bank device through this background management system to meet the anti-theft requirements.

[0003] However, the above anti-theft methods have the following disadvantages:

[0004] (1) The customized development cost of the APP + management background is high and the cycle is long;

[0005] (2) The registration of the APP account needs to obtain the personal information of consumers, and personal privacy is not emphasized. Content of the Utility Model

[0006] The embodiment of the utility model provides a charging device and a power supply assembly, which do not need to customize the APP and the management background, can effectively reduce the anti-theft cost, and at the same time do not need to collect the personal information of consumers, effectively protecting personal privacy.

[0007] To achieve the above object, the embodiment of the utility model provides a charging device for a power supply device, including a Type-c plug and a main control board with a control circuit;

[0008] The control circuit includes a main control unit, a three-terminal resistor and a first resistor; the Type-c plug includes an SBU1 pin and an SBU2 pin. The first end of the three-terminal resistor is connected to the SBU1 pin, the second end of the three-terminal resistor is connected to the SBU2 pin, and the third end of the three-terminal resistor is connected to the main control unit through the first resistor, so that when the Type-c plug is connected to the Type-c interface of the power supply device, the power supply device obtains a predetermined trigger signal, and the power supply device performs a charging operation under the trigger of the predetermined trigger signal.

[0009] Further, the predetermined trigger signal is a low-level trigger signal. When the Type-c plug is connected to the Type-c interface of the power device, the SBU1 pin and the SBU2 pin of the Type-c interface of the power device are pulled low to a low level through the action of the three-terminal resistor and the first resistor, so that the power device obtains the predetermined trigger signal.

[0010] Further, the Type-c plug further includes a VBUS pin, a CC1 pin, a CC2 pin, and a GND pin;

[0011] The control circuit further includes an H-MOS transistor, an L-MOS transistor, and a V-MOS transistor. The gate of the H-MOS transistor is connected to the main control unit. The drain of the H-MOS transistor is connected to the input signal. The source of the H-MOS transistor and the drain of the L-MOS transistor are both connected to the drain of the V-MOS transistor. The gate of the L-MOS transistor is connected to the main control unit. The source of the L-MOS transistor is grounded. The gate of the V-MOS transistor is connected to the main control unit. The source of the V-MOS transistor is connected to the VBUS pin of the Type-c plug; the CC1 pin and the CC2 pin are respectively connected to the main control unit, and the GND pin is grounded.

[0012] Further, the resistance value of the three-terminal resistor is 1 KΩ.

[0013] An embodiment of the present invention further provides a power supply assembly, including a power device and a charging device. The power device has a Type-c interface. The charging device includes a Type-c plug and a main control board with a control circuit;

[0014] The control circuit includes a main control unit, a three-terminal resistor, and a first resistor; the Type-c plug includes an SBU1 pin and an SBU2 pin. The first end of the three-terminal resistor is connected to the SBU1 pin, the second end of the three-terminal resistor is connected to the SBU2 pin, and the third end of the three-terminal resistor is connected to the main control unit through the first resistor, so that when the Type-c plug is connected to the Type-c interface of the power device, the power device obtains a predetermined trigger signal, and the power device performs a charging operation under the trigger of the predetermined trigger signal.

[0015] Further, the predetermined trigger signal is a low-level trigger signal. When the Type-c plug is connected to the Type-c interface of the power device, the SBU1 pin and the SBU2 pin of the Type-c interface of the power device are pulled low to a low level through the action of the three-terminal resistor and the first resistor, so that the power device obtains the predetermined trigger signal.

[0016] Beneficial effects: The charging device for a power supply device of the present utility model includes a Type-c plug and a main control board with a control circuit; the control circuit includes a main control unit and a three-terminal resistor; the Type-c plug includes an SBU1 pin and an SBU2 pin, the first end of the three-terminal resistor is connected to the SBU1 pin, the second end of the three-terminal resistor is connected to the SBU2 pin, and the third end of the three-terminal resistor is connected to the main control unit through a first resistor, so that when the Type-c plug is connected to the Type-c interface of the power supply device, the power supply device obtains a predetermined trigger signal, and the power supply device performs a charging operation under the trigger of the predetermined trigger signal. Therefore, the charging device uses the three-terminal resistor and the first resistor for signal triggering, so that the power supply device can only perform a charging operation under the predetermined trigger signal, that is, the power supply device can only perform a charging operation when it is equipped with the above charging device. When the power supply device is a shared power bank, the above charging device can be applied to the charging cabinet of the shared power bank. After the shared power bank is lent out, it can be used normally, but it needs to be sent back to the charging cabinet for charging. Therefore, even if the shared power bank is stolen, the thief cannot charge it, thereby reducing the risk of theft, and thus realizing the anti-theft function of the shared power bank, and at the same time, it is not necessary to collect the personal information of consumers, effectively protecting the privacy of consumers. Description of the Drawings

[0017] The following will clearly show the technical solutions and their beneficial effects of the present utility model by describing the specific embodiments of the present utility model in detail with reference to the drawings.

[0018] Figure 1 is a schematic circuit structure diagram of the charging device of the present utility model;

[0019] Figure 2 is a schematic diagram of the connection between the power supply device and the charging device of the present utility model. Detailed Embodiments

[0020] Please refer to the drawings, where the same component symbols represent the same components. The principle of the present utility model is illustrated by being implemented in a suitable computing environment. The following description is based on the specific embodiments of the present utility model illustrated, and it should not be regarded as limiting other specific embodiments of the present utility model not described in detail herein.

[0021] The charging device for a power supply device of the present utility model can be applied to the charging of a shared power bank, that is, the power supply device can be a mobile power source such as a shared power bank, or other types of batteries, etc. The charging device can be, for example, a Type-c data cable.

[0022] Refer to Figure 1 and Figure 2, the charging device for a power supply device according to an embodiment of the present invention includes a Type-c plug 101 and a main control board 102. The Type-c plug 101 is also the Type-C1 shown in the figure, and the main control board 102 has a control circuit.

[0023] The control circuit includes a main control unit U1, a three-terminal resistor R2, and a first resistor R1. The Type-c plug 101 includes an SBU1 pin and an SBU2 pin. The first end of the three-terminal resistor R2 is connected to the SBU1 pin, the second end of the three-terminal resistor R2 is connected to the SBU2 pin, and the third end of the three-terminal resistor R2 is connected to the main control unit U1 through the first resistor R1, so that when the Type-c plug 101 is connected to the Type-c interface of the power supply device 20, the power supply device 20 obtains a predetermined trigger signal, and the power supply device 20 performs a charging operation under the trigger of the predetermined trigger signal. When the Type-c plug 101 is not inserted into the Type-c interface of the power supply device, the Type-c plug 101 defaults to a high-level mode. When inserted into the power supply device 20, the working mode is recognized as low level, and the encrypted charging of the power supply device 20 is started.

[0024] It can be understood that as Figure 2 shown, when the Type-c plug 101 is connected to the Type-c interface, the SBU1 pin and the SBU2 pin of the Type-c plug 101 are respectively connected to the SBU1 pin and the SBU2 pin of the Type-c interface.

[0025] Therefore, the charging device of the present invention uses the three-terminal resistor R2 and the first resistor R1 for signal triggering, so that the power supply device 20 can perform a charging operation only under a predetermined trigger signal, that is, the power supply device 20 can perform a charging operation only when it is equipped with the above charging device. When the power supply device 20 is a shared power bank, the above charging device can be applied to the charging cabinet of the shared power bank. The shared power bank can be used normally after being lent out, but it needs to be sent back to the charging cabinet for charging. Therefore, even if the shared power bank is stolen, the thief cannot charge it, thereby reducing the risk of theft and realizing the anti-theft function of the shared power bank. At the same time, it is not necessary to collect the personal information of consumers, effectively protecting the privacy of consumers.

[0026] Among them, the three-terminal resistor R2 is a variable resistor.

[0027] Among them, the predetermined trigger signal is a low-level trigger signal. When the Type-c plug 101 is connected to the Type-c interface of the power device 20, the charging device is in the low-level mode. Through the action of the three-terminal resistor R2 and the first resistor R1, the SBU1 pin and the SBU2 pin of the Type-c plug 101 output low levels. As a result, the SBU1 pin and the SBU2 pin of the Type-c interface of the power device 20 are pulled down to low levels, so that the power device 20 obtains the predetermined trigger signal. The SBU1 and SBU2 of the conventional Type-c data cable plug are usually directly connected to the main control unit. Different from the conventional Type-c data cable, the SBU1 pin and the SBU2 pin of the Type-c plug of the present invention are connected with the resistor R1 and the resistor R2 to generate a low-level trigger signal, and the power device 20 can be awakened only when the signals of the SBU1 pin and the SBU2 pin of the Type-c interface are at low levels, and then the charging operation is carried out. Among them, when the power device 20 uses a conventional Type-c data cable or is suspended without a data cable plugged in, the signals of its SBU1 pin and SBU2 pin are at high levels. At this time, the power device 20 cannot be awakened, so the charging operation cannot be carried out. Therefore, using a conventional data cable to charge the power device 20 of the present invention, or using the charging device of the present invention to charge other power devices 20, does not work. Only when the charging device of the present invention and the power device 20 are suitable for matching use can they work, which can reduce the risk of theft.

[0028] Further, the resistance value of the three-terminal resistor R2 is 1KΩ.

[0029] Further, the charging device of the present invention uses an external power switch synchronous buck controller for bucking. Its Type-c plug 101 further includes a VBUS pin, a CC1 pin, a CC2 pin and a GND pin. The control circuit further includes an H-MOS transistor G1, an L-MOS transistor G2 and a V-MOS transistor G3. The gate of the H-MOS transistor G1 is connected to the main control unit U1. The drain of the H-MOS transistor G1 is connected to the input signal. The source of the H-MOS transistor G1 and the drain of the L-MOS transistor G2 are both connected to the drain of the V-MOS transistor G3. The gate of the L-MOS transistor G2 is connected to the main control unit U1. The source of the L-MOS transistor G2 is grounded. The gate of the V-MOS transistor G3 is connected to the main control unit U1. The source of the V-MOS transistor G3 is connected to the VBUS pin of the Type-c plug 101. The CC1 pin and the CC2 pin are respectively connected to the main control unit U1. The GND pin is grounded.

[0030] An embodiment of the present utility model further provides a power supply component, which includes a power supply device and a charging device. The power supply device has a Type-c interface, and the charging device is the charging device described in the above embodiment. Among them, the power supply device can be, for example, a shared power bank, and the charging device can be, for example, a charging data cable.

[0031] The charging device for a power supply device of the present utility model includes a Type-c plug and a main control board with a control circuit; the control circuit includes a main control unit, a three-terminal resistor, and a first resistor; the Type-c plug includes an SBU1 pin and an SBU2 pin. The first end of the three-terminal resistor is connected to the SBU1 pin, the second end of the three-terminal resistor is connected to the SBU2 pin, and the third end of the three-terminal resistor is connected to the main control unit through the first resistor, so that when the Type-c plug is connected to the Type-c interface of the power supply device, the power supply device obtains a predetermined trigger signal, and the power supply device performs a charging operation under the trigger of the predetermined trigger signal. Therefore, the charging device uses the three-terminal resistor and the first resistor for signal triggering, so that the power supply device can only perform a charging operation under the predetermined trigger signal, that is, the power supply device can only perform a charging operation when it is equipped with the above charging device. When the power supply device is a shared power bank, the above charging device can be applied to the charging cabinet of the shared power bank. After the shared power bank is lent out, it can be used normally, but it needs to be sent back to the charging cabinet for charging. Therefore, even if the shared power bank is stolen, the thief cannot charge it, thereby reducing the risk of theft and realizing the anti-theft function of the shared power bank. At the same time, it is not necessary to collect consumers' personal information, effectively protecting consumers' privacy.

[0032] In this article, specific examples are used to elaborate on the principle and implementation manner of the present utility model. The description of the above embodiments is only used to help understand the method and its core idea of the present utility model; at the same time, for those skilled in the art, according to the idea of the present utility model, there will be changes in the specific implementation manner and application scope. In summary, the content of this specification should not be construed as a limitation to the present utility model.

Claims

1. A charging device for a power supply device, characterized in that: Including a Type-c plug and a main control board with a control circuit; The control circuit includes a main control unit, a three-terminal resistor and a first resistor; the Type-c plug includes an SBU1 pin and an SBU2 pin, the first end of the three-terminal resistor is connected to the SBU1 pin, the second end of the three-terminal resistor is connected to the SBU2 pin, and the third end of the three-terminal resistor is connected to the main control unit through the first resistor, so that when the Type-c plug is connected to the Type-c interface of the power supply device, the power supply device obtains a predetermined trigger signal, and the power supply device performs a charging operation under the triggering of the predetermined trigger signal.

2. The charging device according to claim 1, characterized in that: The predetermined trigger signal is a low-level trigger signal. When the Type-c plug is connected to the Type-c interface of the power supply device, the SBU1 pin and the SBU2 pin of the Type-c interface of the power supply device are pulled down to a low level through the action of the three-terminal resistor and the first resistor, so that the power supply device obtains the predetermined trigger signal.

3. The charging device according to claim 2, characterized in that: The Type-c plug also includes a VBUS pin, a CC1 pin, a CC2 pin and a GND pin; The control circuit also includes an H-MOS tube, an L-MOS tube and a V-MOS tube. The gate of the H-MOS tube is connected to the main control unit, the drain of the H-MOS tube is connected to the input signal, the source of the H-MOS tube and the drain of the L-MOS tube are both connected to the drain of the V-MOS tube, the gate of the L-MOS tube is connected to the main control unit, the source of the L-MOS tube is grounded, the gate of the V-MOS tube is connected to the main control unit, and the source of the V-MOS tube is connected to the VBUS pin of the Type-c plug; the CC1 pin and the CC2 pin are respectively connected to the main control unit, and the GND pin is grounded.

4. The charging device according to claim 1, characterized in that: The resistance of the three-terminal resistor is 1KΩ.

5. A power supply assembly, characterized in that: It includes a power supply device and a charging device, wherein the power supply device has a Type-c interface, and the charging device includes a Type-c plug and a main control board with a control circuit; The control circuit includes a main control unit, a three-terminal resistor and a first resistor; the Type-c plug includes an SBU1 pin and an SBU2 pin, the first end of the three-terminal resistor is connected to the SBU1 pin, the second end of the three-terminal resistor is connected to the SBU2 pin, and the third end of the three-terminal resistor is connected to the main control unit through the first resistor, so that when the Type-c plug is connected to the Type-c interface of the power supply device, the power supply device obtains a predetermined trigger signal, and the power supply device performs a charging operation under the triggering of the predetermined trigger signal.

6. The power supply assembly according to claim 5, characterized in that: The predetermined trigger signal is a low-level trigger signal. When the Type-c plug is connected to the Type-c interface of the power supply device, the SBU1 pin and the SBU2 pin of the Type-c interface of the power supply device are pulled down to a low level through the action of the three-terminal resistor and the first resistor, so that the power supply device obtains the predetermined trigger signal.

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