Detection device and detection equipment

Abstract

The utility model discloses a detection device and detection equipment. The detection device comprises a bearing frame and a connecting assembly, the bearing frame comprises a support and a plurality of bearing parts, the bearing parts are stacked in the first direction and arranged on the support at intervals, each bearing part comprises a bearing part and an extending part which are connected, the bearing part bears an induction part, the connecting assembly comprises a plurality of first pipelines and a plurality of second pipelines, the first pipelines are arranged on the support, and the second pipelines are arranged on the extending part. The plurality of first pipelines are communicated with the sensing part, each second pipeline is respectively connected with the to-be-tested part and the sensing part, the second pipeline is arranged between every two stacked bearing parts, each first pipeline is provided with an interface, the interface can be used for connecting a supply part so as to allow a medium provided by the supply part to pass through, and the sensing part is used for detecting the medium so as to measure the performance of the to-be-tested part. The medium is introduced into the joint, so that each sensing piece can test the performance of one piece to be tested, namely, a plurality of sensing pieces can test a plurality of pieces to be tested at the same time.

Description

TECHNICAL FIELD

[0001] The application belongs to the technical field of detection devices, and particularly relates to a detection device and a detection equipment. BACKGROUND

[0002] When testing liquid cooling equipment, the air pressure or liquid pressure of the liquid cooling equipment is usually tested to detect the air tightness of the liquid cooling equipment. In the related art, it is difficult to test multiple liquid cooling equipment at the same time, and the detection efficiency is low. CONTENT OF THE UTILITY MODEL

[0003] In view of the above situation, it is necessary to provide a detection device and a detection equipment capable of testing multiple to-be-tested members at the same time.

[0004] Embodiments of the application provide a detection device, which comprises a bearing frame and a connecting assembly. The bearing frame comprises a support and multiple bearing members, the multiple bearing members are stacked and spaced apart along a first direction on the support, the bearing member comprises a bearing part and an extension part connected with each other, the bearing part bears a sensing member, the extension part extends along a second direction and corresponds to a to-be-tested member. The connecting assembly comprises multiple first pipes and multiple second pipes, the first pipe extends along the first direction and is arranged on the support, the multiple first pipes are all communicated with the sensing member, each second pipe is connected with the to-be-tested member and the sensing member respectively, the second pipe is arranged between every two bearing members arranged in a stack, and each to-be-tested member and each sensing member form a loop through the second pipe; the first pipe is provided with an interface, the interface is used for connecting a supply member to accommodate a medium provided by the supply member, the sensing member is used for detecting the medium to measure the performance of the to-be-tested member.

[0005] In the above detection device, the supply member passes the medium into one first pipe through the interface of the first pipe, the medium enters the sensing member, so that the sensing member detects the value of the medium for the first time; each sensing member can form a closed loop with one to-be-tested member, so that the medium entering the sensing member enters the to-be-tested member through one second pipe, and then enters the sensing member again through another second pipe, so that the sensing member detects the value of the medium for the second time, and the medium finally returns to the supply member or is discharged through another first pipe. In this way, the sensing member measures the value of the medium twice, the first time is the value before entering the to-be-tested member, and the second time is the value after entering the to-be-tested member. According to the values of the medium measured twice, the performance of the to-be-tested member can be measured. The multiple bearing members can bear multiple sensing members and correspond to multiple to-be-tested members. Each to-be-tested member can be connected through two second pipes arranged between two bearing members arranged in a stack, so that each sensing member can form a closed loop with one to-be-tested member. By passing the medium into the joint, each sensing member can measure the performance of one to-be-tested member, that is, multiple sensing members can test multiple to-be-tested members at the same time.

[0006] In some embodiments, each carrier comprises two extension parts connected to opposite ends of the carrier part along the third direction, so as to form an avoiding slot for accommodating the to-be-tested member.

[0007] The avoiding slot is formed by the two extension parts and the carrier part, so as to leave a mounting position of the to-be-tested member, and the second pipeline arranged between every two carrier parts can be connected to the to-be-tested member.

[0008] In some embodiments, the support frame is provided with a plurality of fixing frames on the side close to the extension part, the fixing frames are arranged at intervals along the first direction, and one fixing frame is arranged between every two extension parts, and the fixing frame is provided with a clamping groove for clamping the second pipeline.

[0009] The plurality of fixing frames can arrange the free ends of the plurality of second pipelines at one end of the support frame close to the extension part and at intervals along the first direction, so as to facilitate the insertion of the second pipeline into the to-be-tested member in the corresponding avoiding slot.

[0010] In some embodiments, the support frame is provided with an extension part on the side close to the extension part, and the extension part is used to extend to stop the to-be-tested member from moving away from the carrier part along the second direction when the avoiding slot accommodates the to-be-tested member.

[0011] The extension part is used to extend to stop the to-be-tested member from moving away from the carrier part along the second direction, so as to stabilize the to-be-tested member in the avoiding slot and prevent the to-be-tested member from moving away from the avoiding slot along the second direction.

[0012] In some embodiments, the support frame is provided with a positioning sensor for sensing whether the to-be-tested member is in the avoiding slot.

[0013] The positioning sensor is used to sense whether the to-be-tested member is in the avoiding slot, and when the to-be-tested member is in the avoiding slot, the extension part can be used to stabilize the to-be-tested member in the avoiding slot.

[0014] In some embodiments, the sensing member is an integrated sensor, and the sensing member comprises a pressure sensor and a flow sensor, the pressure sensor is used to detect the pressure of the connecting assembly, and the flow sensor is used to detect the flow of the medium in the connecting assembly.

[0015] The sensing member has multiple monitoring capabilities, can perform multi-parameter collaborative verification, improve data reliability, and is suitable for different media and has good versatility.

[0016] In some embodiments, the second pipeline and the interface are both provided with a connector, the connector is used to communicate the supply member when the supply member is inserted, or communicate the to-be-tested member when the to-be-tested member is inserted, and the connector is also used to close the interface when the supply member is pulled out, or close the second pipeline when the to-be-tested member is pulled out.

[0017] The connector is automatically closed when pulled out, which can prevent air or external pollutants from entering the first pipeline or the second pipeline to pollute the connecting assembly and affect the detection result.

[0018] In some embodiments, each first pipe is spaced apart from two interfaces in the first direction, and the two first pipes are connected to the supply through one interface.

[0019] Different interfaces can be selected according to the type of medium and the performance to be measured, which is good in versatility, and the extra interfaces can be used as backup and prevent the interface from being damaged and unable to be connected.

[0020] In some embodiments, the connecting assembly further comprises a plurality of third pipes, each first pipe being connected to the inductor through one third pipe.

[0021] The third pipe connects the first pipe and the inductor, facilitating the connection of the first pipe of the third pipe.

[0022] Embodiments of the present application also provide a detection device comprising a transfer assembly and a detection apparatus as in the above embodiment, the transfer assembly being used to carry a plurality of to-be-measured members, so that the plurality of to-be-measured members are arranged in a stack along a first direction, and the transfer assembly can be connected to the support, so that each to-be-measured member can correspond to the extension of one carrier member.

[0023] The plurality of to-be-measured members correspond to the plurality of inductors through the transfer assembly, facilitating the insertion of the second pipe into the to-be-measured member in the corresponding avoiding slot, so that each inductor can form a closed loop with one to-be-measured member, and the medium is introduced into the interface, so that each inductor can measure the performance of one to-be-measured member, that is, the plurality of inductors can simultaneously and respectively test the plurality of to-be-measured members. BRIEF DESCRIPTION OF DRAWINGS

[0024] Figure 1 is a structural schematic diagram of the detection apparatus in an embodiment of the present application.

[0025] Figure 2 is Figure 1 is a structural schematic diagram of the inside of the protective shell in the embodiment.

[0026] Figure 3 is Figure 2 is a structural schematic diagram of the detection apparatus in another view of the embodiment.

[0027] Figure 4 is Figure 2 is a partial structural schematic diagram of the detection apparatus in the embodiment.

[0028] Figure 5 is Figure 1 is a connection schematic diagram of one to-be-measured member and one inductor in the embodiment.

[0029] Figure 6 is Figure 3 is an enlarged view of A in the embodiment.

[0030] MAIN ELEMENT SYMBOL EXPLANATION

[0031] 100, detection device; 10, carrier frame; 11, support; 111, fixing frame; 1111, clamping groove; 112, protective shell; 1122, buckle; 113, telescopic piece; 12, carrier; 121, carrying part; 122, extension part; 1201, avoiding groove; 20, connecting assembly; 21, first pipeline; 211, interface; 2111, connector; 22, second pipeline; 23, third pipeline; 30, inductive piece; 200, to-be-detected piece; 300, supply piece.

[0032] The following detailed description will further describe the present application in conjunction with the above-mentioned drawings. DETAILED DESCRIPTION

[0033] The technical solutions in the embodiments of the present application will be described below in conjunction with the drawings in the embodiments of the present application. Obviously, the described embodiments are only some of the embodiments of the present application, not all the embodiments.

[0034] Unless otherwise defined, all technical and scientific terms used herein have the same meaning as commonly understood by one of ordinary skill in the art to which this application belongs. The terminology used in the description herein is for describing the specific embodiments only and is not intended to be limiting of the application.

[0035] In the description of the embodiments of the present application, the technical terms "first", "second", and the like are only used to distinguish different objects, and cannot be understood as indicating or implying relative importance or implicitly indicating the number, specific order or primary and secondary relationship of the indicated technical features. In the description of the embodiments of the present application, the meaning of "multiple" is two and more than two, unless otherwise specifically limited.

[0036] Reference herein to "an embodiment" means that a particular feature, structure, or characteristic described in connection with the embodiment can be included in at least one embodiment of the present application. The phrase appears at various locations in the specification is not necessarily all referring to the same embodiment, nor is it necessarily referring to a single or alternative embodiment.

[0037] When testing a liquid cooling device, the air pressure or liquid pressure of the liquid cooling device is usually tested to detect the air tightness of the liquid cooling device. In the related art, it is difficult to test multiple liquid cooling devices at the same time, and the detection efficiency is low.

[0038] The embodiment of the present application provides a detection device, which comprises a bearing frame and a connecting assembly. The bearing frame comprises a support and a plurality of bearing members, the plurality of bearing members are arranged in layers and are spaced apart along a first direction on the support, the bearing member comprises a bearing part and an extension part connected with each other, the bearing part bears a sensing member, and the extension part extends along a second direction and corresponds to a to-be-detected member. The connecting assembly comprises a plurality of first pipes and a plurality of second pipes, the first pipes extend along the first direction and are arranged on the support, the plurality of first pipes are all connected with the sensing members, each second pipe is connected with the to-be-detected member and the sensing member respectively, the second pipes are arranged between every two bearing members arranged in layers, and each to-be-detected member and each sensing member form a loop through the second pipes; the first pipes are provided with interfaces, the interfaces can be used to connect a supply member, so as to accommodate a medium provided by the supply member to pass through, and the sensing member is used to detect the medium, so as to measure the performance of the to-be-detected member.

[0039] In the detection device, the supply member passes the medium into one first pipe through the interface of the first pipe, the medium enters the sensing member, so that the sensing member detects the value of the medium for the first time; each sensing member can form a closed loop with one to-be-detected member, so that the medium entering the sensing member passes through one second pipe, enters the sensing member again through another second pipe, and enters the sensing member again, so that the sensing member detects the value of the medium for the second time, and the medium finally returns to the supply member or is discharged through another first pipe. In this way, the sensing member measures the value of the medium twice, the first time is the value before entering the to-be-detected member, and the second time is the value after entering the to-be-detected member. According to the values of the medium measured twice, the performance of the to-be-detected member can be measured. The plurality of bearing members can bear the plurality of sensing members and correspond to the plurality of to-be-detected members. Each to-be-detected member can be connected through the two second pipes arranged between the two bearing members arranged in layers, so that each sensing member can form a closed loop with one to-be-detected member, and each sensing member can measure the performance of one to-be-detected member by passing the medium into the joint, that is, the plurality of sensing members can simultaneously test the plurality of to-be-detected members respectively.

[0040] The embodiment of the present application is further described below with reference to the drawings. In the case of no conflict, each embodiment in the present application can be combined with each other.

[0041] Please refer to Figure 1 In the embodiment, the first direction is a direction parallel to Z in the drawing, the second direction is a direction parallel to Y in the drawing, and the third direction is a direction parallel to X in the drawing.

[0042] For the convenience of reference to the drawing, in the following, the first direction is represented as "first direction Z", the second direction is represented as "second direction Y", and the third direction is represented as "third direction X".

[0043] Please refer to Figure 1Embodiments of the present application provide a detection device (not shown in the figure) comprising a transfer assembly (not shown in the figure) and a detection apparatus 100. The transfer assembly is used to carry a plurality of test pieces 200 (see Figure 5 , so that the plurality of test pieces 200 can be placed in a stack along a first direction Z.

[0044] In some embodiments, the test piece 200 is a liquid cooling device, and the detection apparatus 100 can be used to test the air tightness of the liquid cooling device.

[0045] Please refer to Figure 2 and Figure 3 In some embodiments, the detection apparatus 100 comprises a carrier 10, a sensing piece 30, and a connecting assembly 20. The carrier 10 is used to carry the sensing piece 30. The connecting assembly 20 is used to connect the sensing piece 30 and the test piece 200, so that the sensing piece 30 can test the performance of the test piece 200.

[0046] The carrier 10 comprises a support 11 and a plurality of carriers 12. The support 11 is installed on the ground. The plurality of carriers 12 are fixedly connected to the support 11, and the plurality of carriers 12 are arranged in a stack and spaced apart along the first direction Z on the support 11, so as to save the floor space of the detection apparatus 100. The carrier 12 comprises a carrying portion 121 and an extension portion 122 connected to each other. The carrying portion 121 is used to carry the sensing piece 30, so as to accommodate the plurality of test pieces 200 while saving the floor space. The extension portion 122 extends along a second direction Y. The support 11 can also be used to connect the transfer assembly, so that each test piece 200 corresponds to the extension portion 122 of one carrier 12, i.e., in the first direction Z, each test piece 200 corresponds to one sensing piece 30.

[0047] In the illustrated embodiments, the first direction Z is parallel to the vertical direction. The second direction Y is parallel to the horizontal direction.

[0048] The connecting assembly 20 comprises a plurality of first pipes 21 and a plurality of second pipes 22. The first pipes 21 extend along the first direction Z and are fixedly arranged on the support 11, i.e., the first pipes 21 are fixedly installed through the support 11. The second pipes 22 are arranged between every two carriers 12 arranged in a stack. When the test piece 200 corresponds to the extension portion 122, the second pipe 22 is connected to the test piece 200. The extension portion 122 of each carrier 12 corresponds to one test piece 200, i.e., there is one test piece 200 between every two carriers 12 arranged in a stack. The free end of the second pipe 22 between every two carriers 12 arranged in a stack is used to connect the corresponding test piece 200. Therefore, the test piece 200 and each layer of the second pipe 22 can correspond one by one, the plurality of second pipes 22 are arranged in order, and the plurality of second pipes 22 are prevented from being entangled.

[0049] Please refer to Figure 4 and Figure 5The first conduit 21 is provided with an interface 211, which is used to connect the supply 300 (see Fig. 2) to supply the medium provided by the supply 300. Figure 5 The first conduit 21 is provided with an interface 211, which is used to connect the supply 300 (see Fig. 2) to supply the medium provided by the supply 300.

[0050] In some embodiments, if the standard capacity of the test object 200 is known, the sensor 30 detects the value of the medium after entering the test object 200, and the performance of the test object 200 can be determined according to the difference between the standard capacity and the value detected by the sensor 30 after the medium enters the test object 200.

[0051] In some embodiments, the sensor 30 detects the value of the medium before and after entering the test object 200, and the performance of the test object 200 can be determined according to the difference between the value detected by the sensor 30 before the medium enters the test object 200 and the value detected by the sensor 30 after the medium enters the test object 200.

[0052] In use, the supply 300 supplies the medium to one of the first conduits 21 through the interface 211 of the first conduit 21, and the medium enters the sensor 30, so that the sensor 30 detects the value of the medium for the first time. Each sensor 30 can form a closed loop with one test object 200, so that the medium entering the sensor 30 enters the test object 200 through one of the second conduits 22 and reenters the sensor 30 through the other second conduit 22, so that the sensor 30 detects the value of the medium for the second time. Thus, the sensor 30 detects the value of the medium twice, once before entering the test object 200 and once after entering the test object 200, and the performance of the test object 200 can be determined according to the values of the medium detected twice.

[0053] The plurality of carriers 12 can carry the plurality of sensors 30 and correspond to the plurality of test objects 200. Each test object 200 can be connected by two second conduits 22 located between two carriers 12 arranged in a stack, so that each sensor 30 can form a closed loop with one test object 200. Therefore, by supplying the medium to the interface 211, each sensor 30 can determine the performance of one test object 200, i.e., the plurality of sensors 30 can simultaneously test the plurality of test objects 200 respectively.

[0054] In some embodiments, the supply 300 is a multifunctional liquid-gas testing machine for outputting the medium.

[0055] In some embodiments, the medium is a gas, and the inductor 30 measures the gas pressure before and after the medium enters the test piece 200 to compare and determine the gas tightness of the test piece 200. The closer the two measured medium values, the less the test piece 200 leaks, and the better the gas tightness of the test piece 200.

[0056] In some embodiments, the medium is a liquid, and the inductor 30 measures the liquid pressure or liquid flow before and after the medium enters the test piece 200. The closer the two measured medium values, the better the gas tightness of the test piece 200.

[0057] In some embodiments, the medium can be a gas or a liquid used to assist the inductor 30 in detecting the gas tightness. The medium can also be a gas or a liquid injected into the test piece 200, and the inductor 30 can be used to detect the injection amount of the medium injected into the test piece 200 to determine whether the test piece 200 is qualified.

[0058] In some embodiments, the inductor 30 is an integrated sensor, and the inductor 30 includes a pressure sensor and a flow sensor. When the medium is a gas, the pressure sensor is used to detect the pressure of the connecting assembly 20 to determine whether the test piece 200 leaks the medium, thereby measuring the gas tightness of the test piece 200. When the medium is a liquid, the flow sensor is used to detect the flow of the medium in the connecting assembly 20 to obtain the flow of the medium and indirectly obtain the flow rate of the medium by dividing the flow by the cross-sectional area of the pipeline, thereby determining whether the test piece 200 leaks the medium, thereby measuring the gas tightness of the test piece 200.

[0059] In some embodiments, the inductor 30 further includes a temperature and humidity sensor. The temperature and humidity sensor can detect the temperature and humidity in the connecting assembly 20 to detect the dryness to determine whether the connecting assembly 20 is dried when the supply 300 dries the connecting assembly 20.

[0060] Therefore, the inductor 30 has multiple monitoring capabilities, covering gas and liquid pressure, flow, flow rate, and environmental dryness, can be verified by multiple parameters, can improve data reliability, is suitable for gas and liquid media, and has good versatility.

[0061] In some embodiments, the connecting assembly 20 further includes a plurality of third pipelines 23. Each first pipeline 21 is connected to the inductor 30 through a third pipeline 23.

[0062] The third pipeline 23 is threadedly connected with the first pipeline 21 and the inductor 30, so that the third pipeline 23 can be disassembled and replaced. The second pipeline 22 is also threadedly connected with the test piece 200 and the inductor 30, so that the second pipeline 22 can be disassembled and replaced.

[0063] In some embodiments, one interface 211 of one first pipe 21 is connected to the supply 300, and the medium is finally discharged through the interface 211 of another first pipe 21.

[0064] Please refer to Figure 5 In some embodiments, both interfaces 211 of two first pipes 21 are connected to the supply 300, and the medium is finally discharged through the interface 211 of another first pipe 21, so that the medium is returned to facilitate recycling of the medium.

[0065] Please refer to Figure 2 to Figure 4 In some embodiments, each first pipe 21 is spaced apart from two interfaces 211 in the first direction Z. Both first pipes 21 are connected to the supply 300 through one interface 211. When one interface 211 in one first pipe 21 is used to input the medium, the other interface 211 in the other first pipe 21 is used to output the medium.

[0066] When the medium is a liquid used for injection into the test object 200, the lower interface 211 is selected to input the medium, so that the medium fills from the bottom up, which can reduce bubbles and avoid interference of bubbles. The liquid will flow downward under the action of gravity, and the upper interface 211 is selected to output the medium, which is beneficial to the medium to stay for a period of time after filling the first pipe 21.

[0067] When the medium is a gas used for drying the pipe, such as high-temperature drying gas (hot compressed air CDA) after heating, the gas can quickly discharge the liquid residue in the pipe and thoroughly dry the residue. At this time, the upper interface 211 is selected to input the medium, and the lower interface 211 is selected to output the medium. The drying gas enters from the top, forming a temperature gradient from top to bottom. The high-temperature area at the top evaporates the moisture, and the outlet at the bottom discharges the moisture, which can quickly discharge the residual liquid by gravity and efficiently dry with directional hot gas flow. Finally, the inductive object 30 is used to detect to ensure that the pipe is completely dried.

[0068] Therefore, two interfaces 211 are provided in each first pipe 21, and the user can select to use the upper interface 211 and the lower interface 211 according to the actual situation, which is suitable for various media.

[0069] In some embodiments, a liquid level sensor is arranged in the first pipe 21 to determine the liquid level of the medium.

[0070] Please refer to Figure 2In some embodiments, the second pipe 22 is used to connect one end of the test piece 200, i.e. the free end of the second pipe 22, and the connector 2111 at the interface 211 of the first pipe 21. The connector 2111 is used to connect the supply piece 300 when the supply piece 300 is inserted, or to connect the test piece 200 when the test piece 200 is inserted. The connector 2111 is also used to close the interface 211 when the supply piece 300 is pulled out, or to close the second pipe 22 when the test piece 200 is pulled out.

[0071] The connector 2111 can close the interface 211 and the second pipe 22 after being pulled out, so as to prevent air from entering the first pipe 21 or the second pipe 22 and affecting the air tightness of the connecting assembly 20, and to prevent external contaminants from entering the first pipe 21 or the second pipe 22 and polluting the connecting assembly 20, thereby affecting the detection result.

[0072] In some embodiments, the connector 2111 comprises a self-sealing quick connector.

[0073] Please refer to Figure 3 In some embodiments, each carrier 12 comprises two extension portions 122. The two extension portions 122 are respectively connected to opposite ends of the carrier portion 121 along the third direction X, so that the carrier 12 forms the avoiding groove 1201.

[0074] When the carrier assembly is connected to the support 11, each test piece 200 can correspond to the extension portion 122 of one carrier 12. At this time, the avoiding groove 1201 accommodates the test piece 200, the two extension portions 122 are respectively arranged at opposite sides of the test piece 200 along the third direction X, and the sensing piece 30 carried in the carrier portion 121 is aligned with the test piece 200. The plurality of sensing pieces 30 correspond to the plurality of test pieces 200 one by one, so as to facilitate the connection of the second pipe 22 and the test piece 200, thereby facilitating the simultaneous detection of the plurality of test pieces 200.

[0075] The plurality of carriers 12 are arranged in layers, so that the space formed by the plurality of avoiding grooves 1201 can accommodate the carrier assembly, thereby enabling the carrier assembly to be embedded in the support 11, facilitating the alignment and connection of the carrier assembly and the detection device 100, and the connected carrier assembly and detection device 100 have a rectangular shape, compact structure and beautiful appearance. The support 11 and the extension portion 122 limit the movement of the carrier assembly in the third direction X, so as to prevent the carrier assembly from shaking relative to the sensing piece 30.

[0076] In the illustrated embodiments, the second direction Y and the first direction Z are two horizontal directions perpendicular to each other.

[0077] In some embodiments, the carrier portion 121 and the extension portion 122 are both flat plates. The sensing piece is fixedly connected to the carrier portion 121 by a bolt.

[0078] In some embodiments, each second conduit 22 is located between two carriers 12 stacked along the first direction Z, so that the second conduit 22 can be connected to the test piece 200 located in the clearance groove 1201.

[0079] Please see Figure 3 and Figure 6 In some embodiments, the bracket 11 has a plurality of fixing brackets 111 on the side near the extension 122. The plurality of fixing brackets 111 are spaced apart along the first direction Z, and a fixing bracket 111 is provided between every two carrier members 12. The fixing bracket 111 is provided with a slot 1111 for engaging the second pipe 22.

[0080] The mounting bracket 111 ensures that the free ends of the second pipe 22 are all located at the end of the bracket 11 facing the extension 122. When the transfer assembly is embedded in the bracket 11, it is convenient to remove the free ends of the second pipe 22 and insert them into the test piece 200 in the corresponding clearance groove 1201.

[0081] Multiple mounting brackets 111 arrange the free ends of multiple second pipes 22 at intervals along the first direction Z. When the transfer component is embedded in the bracket 11, the test piece 200 and the sensing element 30 correspond one-to-one, and the test piece 200 and the second pipe 22 correspond to each other. This makes it easy to insert the corresponding test piece 200 into the second pipe 22 and prevents incorrect connection.

[0082] In some embodiments, the outer periphery of the second pipe 22 is cylindrical. The slot 1111 is half-annular to accommodate the shape of the second pipe 22.

[0083] In some embodiments, the mounting bracket 111 has two slots 1111, one extending along a first direction Z and the other extending along a third direction X. When the transfer assembly is not connected to the bracket 11, the second pipe 22 is engaged in the slot 1111 extending along the third direction X, so that after the transfer assembly is embedded in the bracket 11, the second pipe 22 can be inserted into the test piece 200 in the corresponding clearance slot 1201. After the second pipe 22 is inserted into the test piece 200, the second pipe 22 is engaged in the slot 1111 extending along the first direction Z to organize the second pipe 22 and prevent the second pipe 22 from becoming too long and tangled.

[0084] Please see Figure 1 In some embodiments, a protective shell 112 is provided on the outer periphery of the bracket 11 to protect the bracket 11, as well as the connecting assembly 20 and the sensing element 30 provided on the bracket 11.

[0085] In some embodiments, the bracket 11 is provided with an alignment sensor (not shown) for sensing that the test piece 200 is located in the clearance groove 1201.

[0086] The alignment sensor is arranged on the protective shell 112 near one side of the avoidance groove 1201. The alignment sensor senses that the transfer assembly is transferred to the position when the transfer assembly enters the protective shell 112. The bottom of the transfer assembly is provided with a roller, and the transfer assembly can slide into the protective shell 112 to be embedded in the plurality of avoidance grooves 1201, so that each sensing piece 30 corresponds to one to-be-measured piece 200. At this time, the alignment sensor senses that the transfer assembly is transferred to the position.

[0087] In some embodiments, the alignment sensor is a laser displacement sensor or a vision sensor, which is not limited in the present application.

[0088] In some embodiments, the protective shell 112 is also provided with a sensing groove (not shown in the figure), which is arranged on the side of the protective shell 112 away from the avoidance groove 1201. The transfer assembly is provided with a sensing sheet (not shown in the figure). When the alignment sensor senses that the transfer assembly is transferred to the position, the sensing sheet enters the sensing groove. The arrangement of various sensors can more accurately position the position of the transfer assembly and the support 11.

[0089] In some embodiments, the support 11 is provided with a telescopic piece 113 on one side near the extension 122. The telescopic piece 113 is fixedly arranged on the protective shell 112 to facilitate installation. When the avoidance groove 1201 contains the to-be-measured piece 200, the telescopic piece 113 is elongated along the first direction Z. When the to-be-measured piece 200 moves away from the bearing part 121 along the second direction Y, the telescopic piece 113 stops the to-be-measured piece 200 to stop the to-be-measured piece 200 in the avoidance groove 1201, thereby limiting the to-be-measured piece 200 from leaving the avoidance groove 1201.

[0090] The telescopic piece 113 is a piston cylinder. When the alignment sensor senses that the transfer assembly is transferred to the position, the transfer assembly is embedded in the plurality of avoidance grooves 1201. At this time, the telescopic piece 113 is elongated to stop the piston of the piston cylinder to limit the movement of the transfer assembly away from the plurality of avoidance grooves 1201 along the second direction Y, thereby preventing the transfer assembly from separating from the support 11.

[0091] In some embodiments, the telescopic piece 113 includes two or more cylinders to more stably stop the movement of the transfer assembly.

[0092] In some embodiments, the protective shell 112 is provided with a buckle 1122, and the top of the transfer assembly is provided with a matching piece (not shown in the figure). The buckle 1122 is used to clamp the matching piece when the transfer assembly is embedded in the plurality of avoidance grooves 1201.

[0093] In some embodiments, the matching piece is a hook, and the buckle 1122 clamps the hook to limit the movement of the transfer assembly away from the plurality of avoidance grooves 1201 along the second direction Y, and prevent the transfer assembly from shaking, so that the transfer assembly can be stably positioned in the protective shell 112.

[0094] In some embodiments, the buckle 1122 is a resilient buckle, and the buckle 1122 can be manually actuated to disengage the buckle 1122 from the mating member. The buckle 1122 can also be actuated to disengage the buckle 1122 from the mating member by an electrically powered mechanism, including a pneumatic cylinder that actuates the buckle 1122 in the first direction Z to engage the mating member and actuates the buckle 1122 in the first direction Z to disengage the mating member.

[0095] In addition, those skilled in the art should understand that the above-described embodiments are only used to explain the present application, and are not used as limitations to the present application, and any modifications and changes made to the above-described embodiments within the spirit and principle of the present application should fall within the scope of the present application.

Claims

1. A detection device, characterized in that, The application relates to a detection device. The detection device comprises a bearing frame and a connecting assembly. Each of the bearing frames comprises two extension parts connected to opposite ends of the bearing part along a third direction, so that the bearing frame forms an avoiding slot for accommodating the to-be-detected member.

2. The detection device of claim 1, wherein, The bearing frame is provided with a plurality of fixing frames on a side close to the extension parts.

3. The detection device according to claim 1 or 2, characterized in that The bearing frame is provided with a telescopic member on the side close to the extension parts.

4. The detection device of claim 2, wherein, The bearing frame is provided with a position sensor for sensing the to-be-detected member in the avoiding slot.

5. The detection device of claim 4, wherein, The sensing member is an integrated sensor.

6. The detection device of claim 1, wherein, The sensing member comprises a pressure sensor and a flow sensor.

7. The detection device of claim 1, wherein, The second pipe is provided with a connector at one end of the to-be-detected member and the interface.

8. The detection device according to claim 6 or 7, characterized in that Each of the first pipes is provided with two interfaces along the first direction.

9. The detection device of claim 1, wherein, The connecting assembly further comprises a plurality of third pipes.

10. A detection device, characterized by The detection device is used for detecting the performance of the to-be-detected member.

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