An integrated circuit operating unit detection kit

Abstract

The utility model discloses a kind of integrated circuit operation unit detection tool box, it is related to chip detection technical field;It aims at solving the problem of single function of existing detection tool, inconvenient operation, lack of effective fixed protection and temperature detection means;The tool box includes box, box is equipped with L type frame and sealing end cover, built-in support box and plug-in mechanism, for supporting positioning processor and realizing electrical connection;Positioning mechanism passes through pressing assembly and elastic docking framework, ensure that processor stable contact;Gooseneck pipe and temperature detection function of temperature sensor integration;Water injection catheter can be added coolant, realize heat dissipation;The utility model can stably fix processor, avoid detection break, integrated temperature measurement and heat dissipation function, guarantee detection accuracy, suitable for the detection of integrated circuit operation unit.

Description

Technical Field

[0001] This utility model relates to the field of chip testing technology, and in particular to an integrated circuit computing unit testing toolbox. Background Technology

[0002] In the research, development, production, and maintenance of integrated circuit computing units, accurate and efficient testing of computing units (such as processors) is a crucial step. Accurate testing can promptly detect performance defects, electrical faults, and other problems in computing units, ensuring product quality and reliability, and ultimately guaranteeing the stable operation of the entire electronic system.

[0003] Currently, while some tools and equipment exist for testing integrated circuit computing units, most suffer from limitations such as limited functionality and inconvenient operation. For example, common testing methods often simply connect the computing unit to external testing equipment for data reading and functional testing, lacking effective measures to secure and protect the computing unit during the testing process. During testing, the computing unit is prone to shaking or displacement due to external interference or improper operation, leading to unstable connections between it and the testing equipment. This can result in inaccurate test data, test interruptions, or even damage to the computing unit.

[0004] Furthermore, existing testing tools lack effective means for temperature monitoring of computing units. When computing units operate for extended periods or under high loads, they generate significant internal heat. Failure to monitor temperature changes promptly and accurately can lead to serious consequences such as performance degradation, shortened lifespan, or even damage due to overheating. Existing temperature monitoring methods typically require additional complex equipment and cumbersome procedures, making them difficult to integrate effectively with conventional testing processes, thus increasing the difficulty and cost of testing.

[0005] Meanwhile, for some computing units that require long-term testing or have specific environmental requirements, existing testing tools often fail to provide adequate heat dissipation and protection. During testing, the heat generated by the computing unit cannot be dissipated in time, leading to an increase in the ambient temperature and further affecting the performance of the computing unit and the accuracy of the test results. Moreover, the lack of effective protection measures makes the computing unit susceptible to external contaminants such as dust and moisture during testing, reducing its reliability and lifespan. To address the aforementioned problems, this technical solution proposes an integrated circuit computing unit testing toolbox. Utility Model Content

[0006] The purpose of this invention is to solve the problems of existing testing tools having limited functionality, inconvenient operation, lack of effective fixation and protection, and lack of temperature detection methods, and to propose an integrated circuit computing unit testing toolbox.

[0007] To achieve the above objectives, the present invention adopts the following technical solution: An integrated circuit computing unit testing toolbox includes a box body, the box body including an L-shaped frame and a sealed end cover rotatably connected to the L-shaped frame, a support box fixed on the bottom inner wall of the L-shaped frame, and a placement hole provided on the top inner wall of the support box; The insertion mechanism includes a docking cover fixedly installed on the inner wall of the top of the support box. The docking cover is connected to the placement hole. The bottom inner wall of the docking cover is provided with a plurality of insertion slots. The bottom inner wall of each insertion slot is provided with an electrical connection piece. The pins at the bottom of the processor to be tested can be inserted into the insertion slot and electrically connected to the electrical connection piece. The positioning mechanism includes a mounting positioning shaft rotatably connected to the top of the support box and a pressing component mounted on the mounting positioning shaft. The pressing component can be flipped relative to the support box to press and fix the processor inside the docking cover, so that the pins maintain stable electrical contact with the electrical connection piece.

[0008] In one possible design, the pressing assembly includes two rotating wall plates symmetrically fixedly sleeved on the mounting positioning shaft and a U-shaped clamping frame fixedly installed between the two rotating wall plates, the U-shaped clamping frame being used to press the top of the processor.

[0009] In one possible design, the positioning mechanism further includes a mounting plate fixedly installed on the top of the support box and an elastic docking frame located on one side of the mounting plate. A locking shaft is fixedly installed on the side of the two rotating wall panels that are close to each other. When the U-shaped clamping frame presses the processor, the locking shaft engages with the elastic docking frame.

[0010] In one possible design, a display screen is mounted on one side of the support box, and multiple electrical connection pieces are electrically connected to the display screen via wires, allowing the processor's detection data to be transmitted to the display screen for display.

[0011] In one possible design, a gooseneck tube is fixedly installed on one inner wall of the L-shaped frame. The gooseneck tube is a flexible and shapeable tubular component. A temperature sensor is installed at one end of the gooseneck tube. The temperature sensor is electrically connected to the display screen and is used to detect and display the temperature of the processor.

[0012] In one possible design, a water injection pipe is fixed through the bottom of one side of the support box. The water injection pipe is used to inject coolant into the support box so that the docking cover is immersed in the coolant to dissipate heat from the processor.

[0013] In one possible design, the water injection conduit is fitted with a sealing plug inside the sealing clip.

[0014] In one possible design, the bottom inner wall of the docking cover has multiple insertion slots at equal intervals.

[0015] In one possible design, the sealing end cap and the L-shaped frame are rotatably connected via a pivot.

[0016] In this application, when using the integrated circuit computing unit testing toolbox, the sealed end cover is first rotated open, and the processor to be tested is placed inside the docking cover on the inner wall of the top of the support box. Multiple pins at the bottom of the processor are inserted into corresponding insertion slots on the inner wall of the bottom of the docking cover, with the bottom ends of the pins making electrical contact with the electrical connection pieces on the inner wall of the insertion slots. At this point, the processor and the electrical connection pieces are electrically connected. Test data can be transmitted to a display screen mounted on one side of the support box via wires connected to the multiple electrical connection pieces, facilitating the viewing of the processor's test data. Next, the two rotating wall plates are flipped, moving the same U-shaped clamping frame fixed to the two rotating wall plates to a position for pressing the processor. Simultaneously, the same clamping shaft fixed to one side of the two rotating wall plates engages with the elastic docking frame fixed to one side of the mounting plate on the top of the support box, thereby stably positioning and braking the processor, ensuring that the pins are in contact with the electrical connection pieces. The electrical connectors ensure stable contact, preventing open circuits during testing. Then, based on testing requirements, the position of the temperature sensor fixed to one end of the gooseneck tube on the inner wall of the L-shaped frame is adjusted. Utilizing the bendable and malleable nature of the gooseneck tube, the temperature sensor is moved to a suitable position to accurately detect the heat generated by the processor during testing. The detected temperature data is transmitted to the display screen. If the testing time is long or the processor generates significant heat, the sealing plug inside the water injection pipe fixedly installed through the bottom of one side of the support box can be opened. Coolant is then added to the support box through the water injection pipe. The heat generated by the processor is transferred to the docking cover, which is immersed in the coolant. This utilizes the principle of heat exchange to cool and dissipate heat from the processor, ensuring stable processor performance and accurate test data during testing. After testing, the processor is removed by reversing the steps, and the sealing end cap is closed.

[0017] Beneficial effects: In this utility model, the integrated circuit computing unit testing toolbox, through the plug-in mechanism, allows multiple pins to be inserted into the corresponding plug-in slots when the processor is placed inside the docking cover, thereby supporting and positioning the processor and facilitating processor testing; In this utility model, the integrated circuit computing unit testing toolbox, through the positioning mechanism, can, after the processor is placed inside the docking cover, use the flipping pressing component to clamp and limit the processor, and at the same time, can clamp the pressing component with the elastic docking frame, thereby limiting the pressing component and thus stably limiting the processor. This invention addresses the shortcomings of existing tools, such as limited functionality and inconvenient operation. It provides a stable and secure processor, preventing circuit breaks during testing; integrates temperature measurement for real-time monitoring; and features a heat dissipation structure that allows for coolant cooling, ensuring stable processor performance and improving testing accuracy. Attached Figure Description

[0018] Figure 1 This is a three-dimensional schematic diagram of the toolbox closing structure of an integrated circuit computing unit testing toolbox proposed in this utility model; Figure 2 This is a three-dimensional schematic diagram of the toolbox opening structure of an integrated circuit computing unit testing toolbox proposed in this utility model; Figure 3 This is a three-dimensional schematic diagram of the docking cover and processor separation structure of an integrated circuit computing unit testing toolbox proposed in this utility model. Figure 4 This is a cross-sectional view of the support box of an integrated circuit computing unit testing toolbox proposed in this utility model.

[0019] In the diagram: 1. L-shaped frame; 2. Sealed end cap; 3. Gooseneck tube; 4. Temperature sensor; 5. Support box; 6. Docking cover; 7. Insertion slot; 8. Electrical connection piece; 9. Processor; 10. Pin; 11. Rotating wall panel; 12. Clip shaft; 13. U-shaped clamping frame; 14. Mounting plate; 15. Flexible docking frame; 16. Water injection conduit; 17. Sealing plug; 18. Mounting positioning shaft; 19. Display screen. Detailed Implementation

[0020] The technical solutions of the present utility model will be clearly and completely described below with reference to the accompanying drawings of the embodiments of the present utility model. Obviously, the described embodiments are only some embodiments of the present utility model, and not all embodiments.

[0021] In one embodiment: Refer to Figure 1-4 A toolbox includes a toolbox body, which consists of an L-shaped frame 1 and a sealed end cap 2, which are rotatably connected by a pivot. A support box 5 is bolted to the bottom inner wall of the L-shaped frame 1. A placement hole is opened on the top inner wall of the support box 5, and a plug-in mechanism communicating with the placement hole is installed thereon. This plug-in mechanism is electrically connected to a processor 9.

[0022] The specific structure of the insertion mechanism is as follows: A docking cover 6 is fixed to the inner top wall of the support box 5 by welding, and the docking cover 6 is connected to the placement hole. Multiple insertion slots 7 are machined at equal intervals on the inner bottom wall of the docking cover 6. Multiple pins 10 are evenly spaced on the bottom of the processor 9, with the bottom ends of the pins 10 extending into the corresponding insertion slots 7 and electrically connecting to the inner wall of the insertion slots 7. When the processor 9 is placed inside the docking cover 6, the multiple pins 10 insert into the corresponding insertion slots 7, achieving both support and positioning of the processor 9 and facilitating subsequent testing operations. Electrical connecting pieces 8 are fixed to the inner bottom wall of the insertion slots 7 by adhesive bonding, with the bottom ends of the pins 10 making electrical contact with the electrical connecting pieces 8. Multiple electrical connecting pieces 8 are externally connected to a display screen 19 via wires, and the display screen 19 is mounted on one side of the support box 5. After pin 10 is inserted into the connector slot 7 to electrically connect the processor 9 to the electrical connector 8, the test data of the processor 9 can be transmitted to the display screen 19 when the processor 9 is tested. The display screen 19 is embedded with a data processing chip, which can organize the data of the processor 9 itself during the test and then transmit it to the display screen 19 for easy viewing of the test results.

[0023] The toolbox is also equipped with a positioning mechanism, installed on the top of the support box 5, for clamping and positioning the processor 9, ensuring a stable connection between the processor 9 and the insertion mechanism, and preventing open circuit problems during testing. The specific structure of the positioning mechanism is as follows: A bearing is used to rotate the mounting positioning shaft 18 at the top of the support box 5. The mounting positioning shaft 18 is connected to a pressing assembly, which is used to press and limit the processor 9, ensuring stable contact between the pin 10 and the electrical connection piece 8. A mounting plate 14 is fixed to the top of the support box 5 using bolts. One side of the mounting plate 14 is fixed with a flexible docking frame 15 welded on, and the pressing assembly is movably engaged with the flexible docking frame 15. After placing the processor 9 inside the docking cover 6, flipping the pressing assembly clamps and limits the processor 9, simultaneously engaging the pressing assembly with the flexible docking frame 15, thus limiting the pressing assembly and stabilizing the processor 9.

[0024] This application can be used in the field of chip testing technology, or in other fields applicable to this application.

[0025] In another embodiment: Reference Figure 3Based on the above embodiments, an improvement is made to an integrated circuit computing unit testing toolbox, which is applied to the field of chip testing technology. The pressing component is configured as follows: Two rotating wall plates 11 are symmetrically fixed on the mounting and positioning shaft 18. The two rotating wall plates 11 are fixed to the same U-shaped clamping frame 13 by welding. The U-shaped clamping frame 13 is used to press and limit the processor 9. On the side of the two rotating wall plates 11 that are close to each other, the same locking shaft 12 is fixed by welding. The locking shaft 12 is movably engaged with the elastic docking frame 15. After the processor 9 is placed in the docking cover 6, the two rotating wall plates 11 are flipped, which moves the U-shaped clamping frame 13 to the position of pressing the processor 9, and the locking shaft 12 engages with the elastic docking frame 15 to achieve stable positioning and braking of the processor 9.

[0026] On one inner wall of the L-shaped frame 1, a gooseneck tube 3 is fixed with bolts. The gooseneck tube 3 can be bent and shaped. One end of the gooseneck tube 3 is connected to a temperature sensor 4 via a thread. The temperature sensor 4 is used to detect the temperature of the processor 9 during the detection process and is electrically connected to the display screen 19. When the processor 9 is being tested, the gooseneck tube 3 is bent and adjusted to move the temperature sensor 4 to a suitable position. The heat emitted by the processor 9 during testing can be detected by the temperature sensor 4, and the detected temperature data is transmitted to the display screen 19 to realize the temperature detection of the processor 9.

[0027] A water injection conduit 16 is welded through and fixed to one side of the bottom of the support box 5. A sealing plug 17 is installed inside the water injection conduit 16. Coolant can be added into the support box 5 through the water injection conduit 16. During the testing of the processor 9, the heat generated by the processor 9 is transferred to the docking cover 6. The docking cover 6 is immersed in the coolant, and the processor 9 is cooled and dissipated by heat exchange.

[0028] However, as is well known to those skilled in the art, the working principle and wiring method of the temperature sensor 4 and the display screen 19 are conventional means or common knowledge, and will not be described in detail here. Those skilled in the art can make any selections according to their needs or convenience.

[0029] The above description is only a preferred embodiment of the present utility model, but the protection scope of the present utility model is not limited thereto. Any equivalent substitutions or changes made by those skilled in the art within the technical scope disclosed in the present utility model, based on the technical solution and the inventive concept of the present utility model, should be included within the protection scope of the present utility model.

Claims

1. An integrated circuit computing unit testing toolbox, comprising a housing, the housing including an L-shaped frame (1) and a sealed end cap (2) rotatably connected to the L-shaped frame (1), characterized in that, A support box (5) is fixed on the bottom inner wall of the L-shaped frame (1), and a placement hole is provided on the top inner wall of the support box (5). The insertion mechanism includes a docking cover (6) fixedly installed on the inner wall of the top of the support box (5). The docking cover (6) is connected to the placement hole. The bottom inner wall of the docking cover (6) is provided with a plurality of insertion slots (7). The bottom inner wall of each insertion slot (7) is provided with an electrical connection piece (8). The pins (10) at the bottom of the processor (9) to be tested can be inserted into the insertion slot (7) and electrically connected to the electrical connection piece (8). The positioning mechanism includes a mounting positioning shaft (18) rotatably connected to the top of the support box (5) and a pressing assembly mounted on the mounting positioning shaft (18). The pressing assembly can be flipped relative to the support box (5) to press and fix the processor (9) inside the docking cover (6) so that the pin (10) and the electrical connection piece (8) maintain stable electrical contact. The pressing assembly includes two rotating wall plates (11) symmetrically fixedly sleeved on the mounting positioning shaft (18) and a U-shaped clamping frame (13) fixedly installed between the two rotating wall plates (11), the U-shaped clamping frame (13) being used to press the top of the processor (9).

2. The integrated circuit computing unit testing toolbox according to claim 1, characterized in that, The positioning mechanism also includes a mounting plate (14) fixedly installed on the top of the support box (5) and an elastic docking frame (15) provided on one side of the mounting plate (14). A locking shaft (12) is fixedly installed on the side of the two rotating wall plates (11) that are close to each other. When the U-shaped clamping frame (13) presses the processor (9), the locking shaft (12) engages with the elastic docking frame (15).

3. The integrated circuit computing unit testing toolbox according to claim 1, characterized in that, A display screen (19) is installed on one side of the support box (5). Multiple electrical connection pieces (8) are electrically connected to the display screen (19) through wires. The detection data of the processor (9) can be transmitted to the display screen (19) for display.

4. The integrated circuit computing unit testing toolbox according to claim 3, characterized in that, A gooseneck tube (3) is fixedly installed on one inner wall of the L-shaped frame (1). The gooseneck tube (3) is a flexible and shapeable tubular component. A temperature sensor (4) is installed at one end of the gooseneck tube (3). The temperature sensor (4) is electrically connected to the display screen (19) and is used to detect and display the temperature of the processor (9).

5. The integrated circuit computing unit testing toolbox according to claim 1, characterized in that, A water injection pipe (16) is fixed through one side bottom of the support box (5). The water injection pipe (16) is used to inject coolant into the support box (5) so that the docking cover (6) is immersed in the coolant to dissipate heat from the processor (9).

6. The integrated circuit computing unit testing toolbox according to claim 5, characterized in that, The water injection conduit (16) is fitted with a sealing plug (17).

7. The integrated circuit computing unit testing toolbox according to any one of claims 1 to 6, characterized in that, The bottom inner wall of the docking cover (6) is provided with a plurality of insertion slots (7) at equal intervals.

8. The integrated circuit computing unit testing toolbox according to any one of claims 1 to 6, characterized in that, The sealing end cap (2) and the L-shaped frame (1) are rotatably connected by a rotating shaft.

Images