Portable comprehensive protection device debugging platform
Through the portable comprehensive protection device debugging platform, the contacts on the external bakery board and the internal bakery board are directly connected to the comprehensive protection device, which solves the risk of line damage and electric shock caused by artificial short circuits, and achieves safe and efficient debugging and testing, improving work efficiency.
Patent Information
- Application Number
- CN202421515010.4
- Authority / Receiving Office
- CN · China
- Patent Type
- Utility models(China)
- Current Assignee / Owner
- Filing Date
- 2024-06-28
- Publication Date
- 2025-08-12
- Estimated Expiration
- 2034-06-28
AI Technical Summary
In the prior art, the on-site installation and commissioning of comprehensive guaranteed devices requires manual short circuits, resulting in damage to the internal circuits of the device and high risk of electric shock from the operators, and low working efficiency.
A portable comprehensive protection device debugging platform is designed, including external bakery boards and internal bakery boards, equipped with transformers, rectifiers, signal lights and switch groups, and is directly connected to the comprehensive protection device through contacts to achieve safe and fast debugging and testing.
It realizes safe and fast debugging of comprehensive guaranteed devices, avoids line damage and electric shock accidents, improves work efficiency, saves 4-6 hours of working time per high-voltage cabinet, and reduces maintenance costs.
Smart Images

Figure CN223217586U_ABST
Abstract
Description
Technical Field
[0001] The utility model belongs to the technical field of comprehensive protection devices, and in particular relates to a portable comprehensive protection device debugging platform. Background Art
[0002] Integrated protection devices offer superior protection, control, and diagnostic capabilities. They can collect and process a wealth of data in a timely manner. This data not only enables comprehensive analysis of the power system but also identifies potential hazards, enabling preventive measures and improving automation. The overall device's safety, speed, sensitivity, and selectivity are crucial to the power system.
[0003] The normal service life of the integrated protection device is 6 years. When the substation replaces the integrated protection device, we need to establish channels and debug the integrated protection device to ensure that the device can work properly. When the substation repairs the high-voltage equipment, we need to conduct simulation tests on the integrated protection device to ensure that the equipment functions normally. At present, the operating method for the test is manual short-circuit test, which is extremely harmful and can easily damage the internal structure and circuit of the device. In serious cases, it may even cause personal electric shock safety accidents. Moreover, each work can only be carried out after the wiring installation personnel complete the work and the device is powered on. We can then carry out communication wiring, import templates, databases, associate points, and work on the points. This seriously affects the power supply time of the equipment and makes work efficiency low. Utility Model Content
[0004] The utility model provides a portable comprehensive protection device debugging platform to solve the current problem that the device needs to be installed and debugged on site and can only be used after manual short-circuiting of the circuit for testing, which may easily cause damage to the internal circuit of the device and electric shock to the operator.
[0005] The technical solution of the utility model is: a portable comprehensive protection device debugging platform, characterized in that: it mainly includes an outer bakelite board and an inner bakelite board, the outer bakelite board is equipped with a transformer, a rectifier, a closing signal light, an opening signal light and a switch group, and the inner bakelite board is provided with a plurality of contacts;
[0006] The rectifier is connected to an AC power supply, and the DC positive pole of the rectifier is connected in parallel with a first contact, a third contact, a fourth contact, a fifth contact, a sixth contact, a seventh contact, a ninth contact, and an eleventh contact; the DC negative pole of the rectifier is connected in parallel with a second contact, an eighth contact, a tenth contact, a twelfth contact, and a seventeenth contact;
[0007] The switch group consists of switch 1, switch 2, switch 3, switch 4, and switch 5. Switch 1 is connected to the third contact, switch 2 is connected to the fourth contact, switch 3 is connected to the fifth contact, switch 4 is connected to the sixth contact, and switch 5 is connected to the seventh contact.
[0008] The tenth contact is also connected to a closing signal light, and the twelfth contact is also connected to an opening signal light to confirm whether the circuit is connected and working normally;
[0009] The fifteenth contact is connected to an adjustable resistor;
[0010] The transformer is connected to the input AC power supply, the output L terminal of the transformer is connected in parallel with the thirteenth contact and the fifteenth contact; the output N terminal of the transformer is connected in parallel with the fourteenth contact and the sixteenth contact;
[0011] As a further improvement of the utility model, it also includes a corner bracket, and the outer bakelite board and the inner bakelite board are installed on the corner bracket.
[0012] As a further improvement of the present invention, a positioning pin is provided on the corner bracket to facilitate the fixation and installation of the comprehensive protection device.
[0013] The beneficial effects of the present invention are as follows: the present invention designs a debugging platform that can be directly connected to the comprehensive protection device through contacts, eliminating a lot of time spent on plugging and unplugging wires, allowing for safe and rapid point alignment and measurement work, and effectively avoiding power outages and electric shocks caused by accidental contact between the line and the secondary circuit due to manual debugging. The present invention can operate in parallel with other work groups while wiring is being carried out, performing the debugging, construction, and testing required for the device. On average, each high-voltage cabinet can save 4-6 hours of working time, significantly improving maintenance efficiency and saving a lot of maintenance labor costs. BRIEF DESCRIPTION OF THE DRAWINGS
[0014] Figure 1 This is a schematic diagram of the three-dimensional structure of the utility model;
[0015] Figure 2 This is a schematic diagram of the circuit connection of the utility model.
[0016] In the figure: 1- comprehensive protection device, 101- power supply P board, 102- signal S board, 103- control K board, 104- measurement M board, 2- contact, 201- first contact, 202- second contact, 203- third contact, 204- fourth contact, 205- fifth contact, 206- sixth contact, 207- seventh contact, 208- eighth contact, 209- ninth contact, 210- tenth contact, 211- eleventh contact, 212- twelfth contact, 21 3-13th contact, 214-14th contact, 215-15th contact, 216-16th contact, 217-17th contact, 8-closing signal light, 9-opening signal light, 10-power adjustable resistor, 11-rectifier, 12-transformer, 13-AC power supply, 14-angle bracket, 15-external bakelite board, 16-inner bakelite board, 17-switch, 171-switch 1, 172-switch 2, 173-switch 3, 174-switch 4, 175-switch 5. DETAILED DESCRIPTION
[0017] The present invention will be described in further detail below with reference to the accompanying drawings and specific implementations.
[0018] like Figure 1 — Figure 2 As shown, a portable comprehensive protection device debugging platform is characterized by: mainly comprising an outer bakelite board 15 and an inner bakelite board 16, the outer bakelite board 15 is mounted with a transformer 12, a rectifier 11, a closing signal light 8, an opening signal light 9 and a switch group 17, and the inner bakelite board 16 is provided with a plurality of contacts 2, which are conductive telescopic spring pins;
[0019] The rectifier 11 is connected to the AC power source 13. The DC positive pole of the rectifier 11 is connected in parallel with the first contact 201, the third contact 203, the fourth contact 204, the fifth contact 205, the sixth contact 206, the seventh contact 207, the ninth contact 209, and the eleventh contact 211. The DC negative pole of the rectifier 11 is connected in parallel with the second contact 202, the eighth contact 208, the tenth contact 210, the twelfth contact 212, and the seventeenth contact 217.
[0020] The switch group 17 consists of switch 1 171 , switch 2 172 , switch 3 173 , switch 4 174 , and switch 5 175 . Switch 1 171 is connected to the third contact 203 , switch 2 172 is connected to the fourth contact 204 , switch 3 173 is connected to the fifth contact 205 , switch 4 174 is connected to the sixth contact 206 , and switch 5 175 is connected to the seventh contact 207 .
[0021] The tenth contact 210 is also connected to a closing signal light 8, and the twelfth contact 212 is also connected to an opening signal light 9 to confirm whether the circuit is properly connected and working properly;
[0022] The fifteenth contact 215 is connected to the adjustable resistor 10;
[0023] The input end of the transformer 12 is connected to the AC power source 13. The positive output terminal of the transformer 12 is connected in parallel with the thirteenth contact 213 and the fifteenth contact 215. The negative output terminal of the transformer 12 is connected in parallel with the fourteenth contact 214 and the sixteenth contact 216.
[0024] It also includes a corner frame 14, on which an outer bakelite board 15 and an inner bakelite board 16 are mounted.
[0025] Positioning pins are provided on the angle bracket 14 to facilitate the positioning and installation of the comprehensive protection device 1.
[0026] When in use, it is necessary to first place the comprehensive protection device 1 into the angle bracket 14 of the device, push the comprehensive protection device 1 so that the contact 2 rests against the contacts on the control board and signal board of the comprehensive protection device, check whether it can be used normally, and after confirming that the connection is completed, use the positioning pin to lock the comprehensive protection device 1 to prevent the comprehensive protection device 1 from moving in the angle bracket 14 and causing unstable connection. Connect the AC power supply 13, rectify the 220V AC power into 220V DC power through the rectifier 11, and input it into the comprehensive protection device 1. The power supply P board 101 of the comprehensive protection device 1 supplies power to the device through the first contact 201 and the second contact 202; the control K board 103 of the comprehensive protection device 1 incorporates a negative current through the seventeenth contact 217. After the control K board is turned on, the closing signal light 8 is connected to the tenth contact 210, and the opening signal light 9 is connected to the twelfth contact 212. The ninth contact 209, the tenth contact 210, the eleventh contact 211, and the twelfth contact 212 are respectively pressed against the KT3.1, KT3.2, KT1.1, and KT1.2 interfaces of the comprehensive protection device 1 to display the signal indication change; SI1-SI5 on the signal S board 102 of the comprehensive protection device 1 are respectively connected to the third contact 203, the fourth contact 204, the fifth contact 205, and the sixth contact 206. 6. The seventh contact 207 performs a simulation test of the comprehensive protection device by switching on and off in sequence. Switch 1 171 is used to test the circuit breaker closing test, switch 2 172 is used to test the circuit breaker opening test, switch 3 173 is used to test the trolley working position test, switch 4 174 is used to test the trolley test position test, and switch 5 175 is used to test the spring energy storage test. The thirteenth contact 213 and the fourteenth contact 214 are connected to the M16-TVUA and M18-TVUB of the device measurement M board 104 of the comprehensive protection device 1 to give a test voltage value. A power adjustable resistor 10 is connected to the interface M09-TVJA through the fifteenth contact 215. A secondary current of 1A is provided to the M09-TVJA+ interface of the comprehensive protection device 1 through the power adjustable resistor 10. During the test, the current value can be adjusted between 0-1A through the power adjustable resistor 10 for testing.
Claims
1. A portable comprehensive security device debugging platform, characterized by: It mainly includes an outer bakelite board (15) and an inner bakelite board (16), wherein a transformer (12), a rectifier (11), a closing signal light (8), an opening signal light (9) and a switch group (17) are installed on the outer bakelite board (15), and a plurality of contacts (2) are provided on the inner bakelite board (16); The rectifier (11) is connected to an AC power source (13); a first contact (201), a third contact (203), a fourth contact (204), a fifth contact (205), a sixth contact (206), a seventh contact (207), a ninth contact (209), and an eleventh contact (211) are connected in parallel to the DC positive pole of the rectifier (11); a second contact (202), an eighth contact (208), a tenth contact (210), a twelfth contact (212), and a seventeenth contact (217) are connected in parallel to the DC negative pole of the rectifier (11); The switch group (17) is composed of switch 1 (171), switch 2 (172), switch 3 (173), switch 4 (174), and switch 5 (175), wherein switch 1 (171) is connected to the third contact (203), switch 2 (172) is connected to the fourth contact (204), switch 3 (173) is connected to the fifth contact (205), switch 4 (174) is connected to the sixth contact (206), and switch 5 (175) is connected to the seventh contact (207); The tenth contact (210) is also connected to a closing signal light (8), and the twelfth contact (212) is also connected to an opening signal light (9); The input end of the transformer (12) is connected to the AC power supply (13); the output L end of the transformer (12) is connected in parallel with a thirteenth contact (213) and a fifteenth contact (215); the output N end of the transformer (12) is connected in parallel with a fourteenth contact (214) and a sixteenth contact (216); The fifteenth contact (215) is connected to an adjustable resistor (10).
2. A portable comprehensive security device debugging platform according to claim 1, characterized in that: It also includes a corner frame (14), on which an outer bakelite board (15) and an inner bakelite board (16) are mounted.
3. A portable comprehensive security device debugging platform according to claim 2, characterized in that: A positioning pin (3) is provided on the corner bracket (14).