Outdoor rechargeable ultraviolet imager image detection device

Abstract

The utility model discloses an outdoor rechargeable ultraviolet imager image detection device which comprises a three-hole delta-shaped socket, a charging and discharging switching power supply connected with the three-hole delta-shaped socket and a lithium ion battery connected with the charging and discharging switching power supply, and the charging and discharging switching power supply is sequentially connected with a switch, a power consumption display module and a power supply and CAN interface seat. The charging and discharging switching power supply is further connected with the single-chip microcomputer CAN communication module, and the single-chip microcomputer CAN communication module is connected with the key module and the power supply and CAN interface seat. The electric quantity display module is connected with the lithium ion battery; the image display module is connected with the image interface seat; the device is high in integration level, small and exquisite in size, simple in wiring and low in cost, solves the problems that existing equipment is heavy, inconvenient to carry, complex in wiring, time-consuming and labor-consuming, and unfriendly to green operators, and meanwhile avoids the risk of electric shock during outdoor operation.

Description

Technical Field

[0001] The utility model relates to the technical field of ultraviolet imager detection, in particular to an outdoor rechargeable ultraviolet imager image detection device. Background Art

[0002] Ultraviolet imagers are mainly used in forest fire monitoring, high-voltage line leakage and other fields. Currently, when performing imaging function and performance testing of ultraviolet imagers outdoors, PC desktops, keyboards, mice, VGA monitors and other devices are required. The PC desktop needs to be plugged with an image acquisition card to receive image signals, and a 220V inverter power supply is also required. The inverter power supply provides 220V power to the PC desktop and VGA monitor as well as to the ultraviolet imager. There are problems such as the equipment being bulky and inconvenient to carry, the wiring being complicated and time-consuming when connecting multiple devices to each other, the risk of electric shock from the invertered 220V electricity, and it being unfriendly to novice operators. Summary of the invention

[0003] The utility model is mainly intended to solve the problems that the existing ultraviolet imager image detection devices are bulky and inconvenient to carry, the wiring of the equipment is complicated and time-consuming and labor-intensive, and the device is not friendly to novice operators. An outdoor rechargeable ultraviolet imager image detection device is provided, which does not require the use of a PC desktop, keyboard, mouse, VGA display, 220V inverter power supply, image acquisition card, etc., has a small size, light weight, low power consumption, high integration, low cost, and simple wiring. It solves the problems that the PC desktop equipment is bulky and inconvenient to carry, the wiring of multiple devices is complicated and time-consuming and labor-intensive when connecting them to each other, and the device is not friendly to novice operators, and at the same time avoids the risk of electric shock during outdoor operation.

[0004] In order to achieve the above-mentioned purpose, the utility model adopts the following technical solutions.

[0005] An outdoor rechargeable ultraviolet imager image detection device comprises a power supply module, wherein the power supply module comprises a three-hole shaped-in-shaped socket, a charge-discharge switch power supply connected to the three-hole shaped-in-shaped socket, and a lithium-ion battery connected to the charge-discharge switch power supply, wherein the charge-discharge switch power supply is sequentially connected to a switch, a power consumption display module, and a power supply and CAN interface socket, and the charge-discharge switch power supply is also connected to a single-chip microcomputer CAN communication module, and the single-chip microcomputer CAN communication module is respectively connected to a key module and the power supply and CAN interface socket; the power supply module, an image interface socket, and an image display module connected to the image interface socket are also included; the power supply and CAN interface socket and the image interface socket are externally connected to an ultraviolet imager. The utility model provides an outdoor rechargeable ultraviolet imager image detection device. Before performing an outdoor ultraviolet imager image detection activity, the device is charged through a power supply module. When the ultraviolet imager needs to be detected, a cable between the ultraviolet imager and the device is connected, a switch is turned on, and a command can be sent to the ultraviolet imager by pressing a button. The ultraviolet imager outputs an image to an image display module. On the image display module, it can be observed whether the ultraviolet imager responds to the command and whether the output image is normal. The utility model does not need to use a PC desktop, keyboard, mouse, VGA display, and 220V inverter power supply. Only four embedded modules, namely, a single-chip CAN communication module, a 9-grid key module, an image display module, and a power supply module, are used. When in use, only two cables need to be connected between the device and the ultraviolet imager. The utility model has the advantages of small size, light weight, low power consumption, high integration, low cost, and easy use. It solves the problems that PC desktop equipment is bulky and inconvenient to carry, and wiring is complicated, time-consuming, and labor-intensive when connecting multiple devices to each other, and it is unfriendly to novice operators. At the same time, it saves the cost of purchasing PC desktops and image acquisition cards, and avoids the risk of electric shock during outdoor operations. The utility model is particularly suitable for outdoor image detection of ultraviolet imagers.

[0006] Preferably, the three-hole triangle socket is connected to 220V mains electricity externally and is connected to the charging and discharging switching power supply internally to provide input power to the charging and discharging switching power supply.

[0007] Preferably, the first port of the charge-discharge switch power supply is connected to the 220V mains through the three-hole pin socket, the second port of the charge-discharge switch power supply is connected to the lithium-ion battery, to charge the lithium-ion battery or when there is no 220V mains, to convert the lithium-ion battery voltage into a 28V power supply for external power supply, the third port of the charge-discharge switch power supply is connected to the single-chip microcomputer CAN communication module and the switch, power consumption display module and power supply and CAN interface socket in sequence, to power the single-chip microcomputer CAN communication module and the ultraviolet imager. The lithium-ion battery is connected to the charge-discharge switch power supply for storing electricity and discharging it to the outside. The utility model has a built-in lithium-ion battery as a power supply, and there is no need to use a 220V inverter, which solves the problem that traditional batteries and inverter equipment are bulky and inconvenient to carry, and the inverter 220V electricity has the risk of electric shock.

[0008] Preferably, the power supply and CAN interface socket is used as an adapter, which is internally connected to the 28V power supply output by the charge-discharge switch power supply and the single-chip CAN communication module, and is externally connected to the ultraviolet imager through the first sheath line, the first sheath line includes a 28V power signal line and a CAN communication signal line, the charge-discharge switch power supply provides 28V power to the ultraviolet imager through the 28V power signal line, and the single-chip CAN communication module communicates with the ultraviolet imager through the CAN communication signal line. The power supply and CAN interface socket plays the role of connecting the charge-discharge switch power supply, the single-chip CAN communication module and the ultraviolet imager.

[0009] Preferably, the image interface socket serves as an adapter, connected to the image display module internally, and externally connected to the ultraviolet imager through a second sheathed line, the second sheathed line is an image signal line, and the ultraviolet imager outputs the image to the image display module through the image signal line and the image interface socket. The image display module receives the image signal from the ultraviolet imager and displays it. The image interface socket serves to connect the image display module and the ultraviolet imager. The utility model does not need to plug in or out the image acquisition card, and can directly receive the image signal of the ultraviolet imager using only the image display module, saving the cost of purchasing an expensive image acquisition card.

[0010] The utility model has a high degree of integration. When performing UV imager image detection outdoors, only two wires need to be connected, reducing the connection of eight wires, saving wiring time, and not prone to wrong wiring, which is friendly to novice operators. At the same time, it has a small size and can be lifted with one hand, making it easy to carry.

[0011] Preferably, the single-chip microcomputer CAN communication module identifies the pressed key in the key module and sends the instruction corresponding to the key to the ultraviolet imager through the power supply and CAN interface socket. The ultraviolet imager responds to the instruction, outputs the image to the image display module through the image interface socket, and judges whether the image output by the ultraviolet imager is normal through the image displayed by the image display module, thereby realizing image detection of the ultraviolet imager.

[0012] Preferably, the switch connects the charge and discharge switch power supply and the power consumption display module to control the on or off of the 28V power supply output to the ultraviolet imager.

[0013] Preferably, the power consumption display module is connected to the power supply, the CAN interface socket and the switch, and when the ultraviolet imager is working, the current power consumption of the ultraviolet imager is displayed in real time.

[0014] Preferably, the power display module is connected to the lithium-ion battery to display the current power of the lithium-ion battery in real time.

[0015] Preferably, the button module is composed of 9 buttons, each button identifies a corresponding function, and when a button is pressed, the single-chip microcomputer CAN communication module can recognize that the function button is pressed.

[0016] Therefore, the advantages of the utility model are:

[0017] (1) The utility model does not require a PC desktop, keyboard, mouse, or VGA display. It only uses three embedded modules: a single-chip CAN communication module, a 9-grid key module, and an image display module. It is compact, light, low power, highly integrated, and low cost. It solves the problems of heavy and inconvenient PC desktop equipment, complicated and time-consuming wiring when connecting multiple devices to each other, and unfriendly to novice operators. It also saves the cost of purchasing PC desktops.

[0018] (2) The utility model does not need to plug in or out the image acquisition card, and can directly receive the image signal of the ultraviolet imager only by using the image display module, thus saving the cost of purchasing an expensive image acquisition card;

[0019] (3) The utility model has a built-in lithium-ion battery as the power supply, and does not require a 220V inverter, thus solving the problem that traditional batteries and inverter equipment are bulky and inconvenient to carry, and the inverter 220V electricity has the risk of electric shock;

[0020] (4) The utility model has a high degree of integration. When performing UV image detection outdoors, only two wires need to be connected, which reduces the connection of eight wires, saves wiring time, and is not prone to wrong wiring. It is friendly to novice operators; at the same time, it is small in size and can be lifted with one hand, making it easy to carry. BRIEF DESCRIPTION OF THE DRAWINGS

[0021] Figure 1 It is a structural schematic diagram of an outdoor rechargeable ultraviolet imager image detection device in an embodiment of the utility model.

[0022] 1. Three-hole pin socket 2. Power display module 3. Charge and discharge switch power supply 4. Key module 5. MCU CAN communication module 6. Lithium-ion battery 7. Image display module 8. Power supply and CAN interface socket 9. Image interface socket 10. Power consumption display module 11. Switch 12. UV imager. DETAILED DESCRIPTION

[0023] The present invention will be further described below in conjunction with the accompanying drawings and specific implementation methods.

[0024] Embodiment 1.

[0025] An outdoor rechargeable ultraviolet imager image detection device, such as Figure 1 As shown, it includes a power supply module, which includes a three-hole shaped-in-shaped socket 1, a charge-discharge switch power supply 3 connected to the three-hole shaped-in-shaped socket 1, and a lithium-ion battery 6 connected to the charge-discharge switch power supply 3. The charge-discharge switch power supply 3 is connected to a switch 11, a power consumption display module 10, and a power supply and CAN interface socket 8 in sequence. The charge-discharge switch power supply 3 is also connected to a single-chip CAN communication module 5, and the single-chip CAN communication module 5 is respectively connected to a key module 4 and a power supply and CAN interface socket 8; it also includes a power display module 2 connected to the lithium-ion battery 6, an image interface socket 9, and an image display module 7 connected to the image interface socket 9; the power supply and CAN interface socket 8 and the image interface socket 9 are externally connected to a UV imager 12.

[0026] The present embodiment provides an outdoor rechargeable ultraviolet imager image detection device. Before performing an outdoor ultraviolet imager 12 image detection activity, the device is charged through a power supply module. When the ultraviolet imager 12 needs to be detected, the cable between the ultraviolet imager 12 and the device is connected, the switch 11 is turned on, and a command can be sent to the ultraviolet imager 12 by pressing a button. The ultraviolet imager 12 outputs an image to the image display module 7. The image display module 7 can observe whether the ultraviolet imager 12 responds to the command and whether the output image is normal. This embodiment does not require the use of a PC desktop, keyboard, mouse, VGA display, or 220V inverter power supply. Only four embedded modules, namely, a single-chip CAN communication module 5, a 9-grid key module 4, an image display module 7, and a power supply module, are used. When in use, only two cables need to be connected between the device and the ultraviolet imager 12. The device has a small size, light weight, low power consumption, high integration, low cost, and is easy to use. It solves the problems of heavy and inconvenient PC desktop equipment, complex and time-consuming wiring when connecting multiple devices to each other, and unfriendly to novice operators. At the same time, it saves the cost of purchasing a PC desktop and an image acquisition card, and avoids the risk of electric shock during outdoor operation. The device is particularly suitable for outdoor image detection of an ultraviolet imager 12.

[0027] The three-hole shaped socket 1 is connected to the 220V mains electricity externally and the charge-discharge switch power supply 3 is connected internally to provide input power to the charge-discharge switch power supply 3. The first port of the charge-discharge switch power supply 3 is connected to the 220V mains electricity through the three-hole shaped socket 1, and the second port of the charge-discharge switch power supply 3 is connected to the lithium-ion battery 6 to charge the lithium-ion battery 6 or when there is no 220V mains electricity, the voltage of the lithium-ion battery 6 is converted into a 28V power supply for external power supply. The third port of the charge-discharge switch power supply 3 is connected to the single-chip CAN communication module 5 and the switch 11, the power consumption display module 10 and the power supply and CAN interface seat 8 are connected in sequence to supply power to the single-chip CAN communication module 5 and the ultraviolet imager 12. The lithium-ion battery 6 is connected to the charge-discharge switch power supply 3 to store electricity and discharge it externally. In this embodiment, the built-in lithium-ion battery 6 is used as the power supply, and there is no need to use a 220V inverter, which solves the problem that the traditional battery and inverter equipment are bulky and inconvenient to carry, and the inverter 220V electricity has the risk of electric shock.

[0028] The power supply and CAN interface socket 8 is used as an adapter, which is internally connected to the 28V power supply output by the charge-discharge switch power supply 3 and the single-chip CAN communication module 5, and is externally connected to the ultraviolet imager 12 through the first sheath line. The first sheath line includes a 28V power signal line and a CAN communication signal line. The charge-discharge switch power supply 3 provides 28V power to the ultraviolet imager 12 through the 28V power signal line, and the single-chip CAN communication module 5 communicates with the ultraviolet imager 12 through the CAN communication signal line. The power supply and CAN interface socket 8 plays the role of connecting the charge-discharge switch power supply 3, the single-chip CAN communication module 5 and the ultraviolet imager 12.

[0029] The image interface socket 9 is used as an adapter, which is internally connected to the image display module 7 and externally connected to the ultraviolet imager 12 through the second sheathed line. The second sheathed line is an image signal line. The ultraviolet imager 12 outputs the image to the image display module 7 through the image signal line and the image interface socket 9. The image display module 7 receives the image signal from the ultraviolet imager 12 and displays it. The image interface socket 9 serves to connect the image display module 7 and the ultraviolet imager 12. In this embodiment, there is no need to plug in or out the image acquisition card. The image display module 7 can directly receive the image signal of the ultraviolet imager 12, which saves the cost of purchasing an expensive image acquisition card.

[0030] This embodiment has a high degree of integration. When the ultraviolet imager 12 is used for image detection outdoors, only two wires need to be connected, which reduces the connection of eight wires, saves wiring time, is not prone to wrong wiring, and is friendly to novice operators. At the same time, it is small in size and can be lifted with one hand, making it easy to carry.

[0031] The key module 4 is composed of 9 keys, each key identifies a corresponding function. When a key is pressed, the single-chip CAN communication module 5 can recognize that the function key is pressed. The single-chip CAN communication module 5 identifies the key pressed in the key module 4 and sends the instruction corresponding to the key to the ultraviolet imager 12 through the power supply and CAN interface socket 8. The ultraviolet imager 12 responds to the instruction and outputs an image to the image display module 7 through the image interface socket 9. The image displayed by the image display module 7 determines whether the image output by the ultraviolet imager 12 is normal, thereby realizing the image detection of the ultraviolet imager 12.

[0032] The switch 11 connects the charge and discharge switch power supply 3 and the power consumption display module 10 to control the on or off of the 28V power supply output to the ultraviolet imager 12. The power consumption display module 10 connects the power supply and the CAN interface socket 8 and the switch 11. When the ultraviolet imager 12 is working, the current power consumption of the ultraviolet imager 12 is displayed in real time. The power display module 2 is connected to the lithium-ion battery 6 to display the current power of the lithium-ion battery 6 in real time.

[0033] Embodiment 2.

[0034] This embodiment provides an outdoor rechargeable ultraviolet imager image detection device, such as Figure 1 As shown, it includes: a three-hole pin socket 1, a power display module 2, a charge and discharge switch power supply 3, a button module 4, a single-chip CAN communication module 5, a lithium-ion battery 6, an image display module 7, a power supply and CAN interface socket 8, an image interface socket 9, a power consumption display module 10, and a switch 11.

[0035] The image detection device of the ultraviolet imager has a rectangular structure, and the layout of each module is as follows: a three-hole pin-shaped socket 1 and a power display module 2 are located on one side; a power supply and CAN interface socket 8, an image interface socket 9, a power consumption display module 10, and a switch 11 are located on the other side; a charge and discharge switch power supply 3, a single-chip CAN communication module 5, and a lithium-ion battery 6 are installed on the base; a button module 4 and an image display module 7 are located on the upper cover.

[0036] The three-hole triangle socket 1 is connected to the charging and discharging switching power supply 3 through three wires, and the wiring method is 1 live wire, 1 neutral wire, and 1 ground wire, which is used to provide input power to the charging and discharging switching power supply 3.

[0037] The charge-discharge switch power supply 3 has a port connected to the positive and negative electrodes of the lithium-ion battery 6 through a two-core wire, so as to charge the lithium-ion battery 6; at the same time, when there is no 220V AC power, the lithium-ion battery 6 can discharge to the outside through the charge-discharge switch power supply 3; the positive and negative electrodes of the lithium-ion battery 6 are also connected to the power display module 2, which has a liquid crystal display and a built-in analog-to-digital conversion chip. The chip collects the power of the lithium-ion battery 6 in real time, converts the analog signal into a digital signal, and displays it in the form of a percentage. The user can know the current power through the remaining power percentage.

[0038] The charge-discharge switch power supply 3 also has another output port, which is connected to the single-chip CAN communication module 5 and the switch 11 through a 2-core wire to provide a 28V power supply for the single-chip CAN communication module 5 and the switch 11.

[0039] The key module 4 is composed of a key panel, which is embedded in the right side of the upper cover. The 9 keys on the key panel form a matrix key, and the 9 keys are arranged in a 9-square grid. According to the matrix key principle, only 6 signal lines are needed to encode each key, and each key identifies the corresponding function. The key module 4 is connected to the microcontroller CAN communication module 5 through these 6 signal lines. When a key is pressed, the microcontroller CAN communication module 5 can recognize that the function key is pressed.

[0040] The single-chip microcomputer CAN communication module 5 is connected to the power supply and the CAN interface socket 8 through three signal lines. CAN communication is a differential signal, so the three signal lines are CAN positive, CAN negative, and CAN communication ground signals respectively.

[0041] The image display module 7 is embedded in the upper cover of the ultraviolet imager image detection device and connected to the image interface socket 9 to receive the image signal of the ultraviolet imager 12 and display it.

[0042] When the ultraviolet imager 12 needs to be detected, the ultraviolet imager 12 throws out two sheathed wires, one of which contains a 28V power supply and a CAN communication signal line; the other sheathed wire contains an image signal line. After a key is pressed on the key module 4, the microcontroller CAN communication module 5 recognizes that the key is pressed and sends the instruction corresponding to the key to the ultraviolet imager 12. After the ultraviolet imager 12 responds to the instruction, the output image will have corresponding changes and will be displayed on the image display module 7. By observing the image on the image display module 7, it can be known whether the image output of the ultraviolet imager 12 is normal.

[0043] The switch 11 is connected to the power consumption display module 10, which has a built-in liquid crystal display. The power consumption display module 10 is connected to the power supply and the CAN interface socket 8. The switch 11 can control the on and off of the 28V power supply output to the ultraviolet imager 12. The power consumption display module 10 has a built-in voltage and current acquisition chip, which can collect the voltage and current flowing in real time and convert them into digital signals for display. By reading the voltage and current values, it can be known whether the ultraviolet imager 12 is working. For example, if a component of the ultraviolet imager 12 is not working, the current is often smaller than the normal value.

[0044] The above contents are only specific implementation methods of the present application, but the protection scope of the present application is not limited thereto. Any technician familiar with the technical field can easily think of changes or substitutions within the technical scope disclosed in the present application, which should be included in the protection scope of the present application. Therefore, the protection scope of the present application should be based on the protection scope of the claims.

Claims

1. An outdoor rechargeable ultraviolet imager image detection device, characterized in that: It includes a power supply module, which includes a three-hole shaped-in-shaped socket, a charge-discharge switch power supply connected to the three-hole shaped-in-shaped socket, and a lithium-ion battery connected to the charge-discharge switch power supply. The charge-discharge switch power supply is connected to a switch, a power consumption display module, and a power supply and CAN interface socket in sequence. The charge-discharge switch power supply is also connected to a single-chip CAN communication module, and the single-chip CAN communication module is respectively connected to a key module and the power supply and CAN interface socket; it also includes a power display module connected to the lithium-ion battery, an image interface socket, and an image display module connected to the image interface socket; the power supply and CAN interface socket and the image interface socket are externally connected to an ultraviolet imager.

2. The outdoor rechargeable ultraviolet imager image detection device according to claim 1, characterized in that: The three-hole triangle socket is externally connected to the 220V mains power supply and internally connected to the charging and discharging switching power supply to provide input power to the charging and discharging switching power supply.

3. The outdoor rechargeable ultraviolet imager image detection device according to claim 2, characterized in that: The first port of the charge-discharge switch power supply is connected to the 220V mains via the three-hole pin socket, the second port of the charge-discharge switch power supply is connected to the lithium-ion battery to charge the lithium-ion battery or, when there is no 220V mains, convert the lithium-ion battery voltage into a 28V power supply for external power supply, the third port of the charge-discharge switch power supply is connected to the single-chip microcomputer CAN communication module and the switch, power consumption display module and power supply and CAN interface socket in sequence to power the single-chip microcomputer CAN communication module and the ultraviolet imager.

4. The outdoor rechargeable ultraviolet imager image detection device according to claim 3, characterized in that: The power supply and CAN interface socket serve as an adapter, internally connecting the 28V power supply output by the charge and discharge switching power supply and the single-chip CAN communication module, and externally connecting to the ultraviolet imager through a first sheathed line. The first sheathed line includes a 28V power signal line and a CAN communication signal line. The charge and discharge switching power supply provides 28V power to the ultraviolet imager through the 28V power signal line, and the single-chip CAN communication module communicates with the ultraviolet imager through the CAN communication signal line.

5. The outdoor rechargeable ultraviolet imager image detection device according to claim 1, characterized in that: The image interface socket is used as an adapter, connected to the image display module internally, and connected to the ultraviolet imager externally through a second sheathed line. The second sheathed line is an image signal line. The ultraviolet imager outputs the image to the image display module through the image signal line and the image interface socket.

6. The outdoor rechargeable ultraviolet imager image detection device according to claim 5, characterized in that: The single-chip microcomputer CAN communication module identifies the pressed key in the key module and sends the instruction corresponding to the key to the ultraviolet imager through the power supply and CAN interface socket. The ultraviolet imager responds to the instruction, outputs the image to the image display module through the image interface socket, and judges whether the image output by the ultraviolet imager is normal through the image displayed by the image display module.

7. An outdoor rechargeable ultraviolet imager image detection device according to claim 3 or 4, characterized in that: The switch controls the on or off of the 28V power supply output to the ultraviolet imager.

8. The outdoor rechargeable ultraviolet imager image detection device according to claim 1, characterized in that: The power consumption display module is connected to the power supply, the CAN interface socket and the switch to display the current power consumption of the ultraviolet imager in real time.

9. An outdoor rechargeable ultraviolet imager image detection device according to claim 1, 3 or 4, characterized in that: The power display module is connected to the lithium-ion battery and displays the current power of the lithium-ion battery in real time.

10. An outdoor rechargeable ultraviolet imager image detection device according to claim 1 or 6, characterized in that: The button module consists of 9 buttons, each of which identifies a corresponding function.

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