Electronic component applied to multifunctional blood glucose detection equipment

Abstract

The electronic component comprises a shell, a first terminal, a second terminal and a push-out structure, the shell is provided with an attaching side, the attaching side is fixed to an external circuit board, test paper is clamped between the first terminal and the second terminal, and the push-out structure is arranged between the first terminal and the second terminal. The push-out structure comprises a push plate and a push rod arranged on the push plate, the push plate is located in the shell and is in sliding connection with the shell, and when the test paper is clamped between the first terminal and the second terminal, the push rod protrudes out of the shell and penetrates through an external circuit board; the push rod is designed to protrude out of the fitting side of the shell instead of extending out of the two sides of the shell, and the design of single-side arrangement significantly reduces the occupation of the electronic components in the transverse space.

Description

TECHNICAL FIELD

[0001] The present application relates to the field of electronic components, and particularly relates to an electronic component applied to a multifunctional blood glucose detection device. BACKGROUND

[0002] In the field of blood glucose monitoring, multifunctional blood glucose detection devices have become a key tool for daily management of diabetic patients. Such devices usually rely on specific electronic components to hold and push out blood glucose test strips for accurate blood glucose detection. However, there are some limitations in the design of electronic components in the prior art, especially in the design of the push-out structure.

[0003] Traditional electronic components applied to multifunctional blood glucose detection devices usually have a push-out structure that extends from the two sides of the housing transversely. This design allows the two push-out rods to move along the two sides of the housing, thereby pushing the test strip out of the electronic component. Although this design achieves the function of pushing out the test strip to some extent, it also brings some significant problems.

[0004] Specifically, due to this design method of distributing the push-out structure on both sides of the housing, the electronic component occupies relatively large transverse space. In modern electronic devices, the space on the circuit board is usually very limited, and needs to accommodate various components to achieve various functions. Therefore, this design method of occupying large transverse space often affects the arrangement of other components on the circuit board, increasing the complexity and difficulty of layout.

[0005] In addition, for application scenarios that require the electronic component to be directly placed on the circuit board, this design method also brings additional challenges. Due to the limitation of transverse space, more space may need to be reserved on the circuit board for the electronic component, which not only wastes valuable circuit board resources, but also may affect the compactness and portability of the entire device.

[0006] In summary, the existing electronic component push-out structure has obvious limitations in design and application, especially in the case of limited circuit board space. Therefore, it is necessary to develop a new type of electronic component design to overcome these limitations. CONTENT OF THE INVENTION

[0007] Therefore, it is necessary to provide an electronic component applied to a multifunctional blood glucose detection device to solve the problem of relatively large transverse space occupation of the design method of distributing the push-out structure of the electronic component on both sides of the housing, affecting the arrangement of other components on the circuit board.

[0008] Embodiments of the present application provide an electronic component applied to a multifunctional blood glucose detection device, comprising:

[0009] A shell has a fitting side fixed on an external circuit board;

[0010] A first terminal is arranged in the shell;

[0011] A second terminal is arranged in the shell, and a test paper is clamped between the first terminal and the second terminal;

[0012] A push structure includes a push plate and a push rod arranged on the push plate, the push plate is located in the shell and is in sliding connection with the shell, and when the test paper is clamped between the first terminal and the second terminal, the test paper is located on the sliding path of the push plate, the push plate is located on the side of the push plate close to the fitting side, the push rod protrudes from the shell and the push rod penetrates the external circuit board.

[0013] In at least one embodiment of the present application, the push plate includes a sliding plate and a plurality of push portions arranged on the sliding plate, the sliding plate is in sliding connection with the shell, and a plurality of the push portions are arranged side by side on the sliding plate, and when the test paper is clamped between the first terminal and the second terminal, the test paper is located on the sliding path of a plurality of the push portions.

[0014] In at least one embodiment of the present application, the shell includes a housing and a base, the base is fixed on the external circuit board, the housing is arranged on the base, the first terminal, the second terminal and the push plate are arranged between the housing and the base, and the push rod protrudes from the housing.

[0015] In at least one embodiment of the present application, a plurality of positioning columns are arranged on the base, and a plurality of the positioning columns correspond to the external circuit board.

[0016] In at least one embodiment of the present application, the first terminal has a first clamping portion, the second terminal has a second clamping portion, and when the test paper is clamped between the first terminal and the second terminal, the first clamping portion and the second clamping portion abut the two sides of the test paper respectively.

[0017] In at least one embodiment of the present application, a first clamping groove is arranged on the base, and the first terminal is clamped in the first clamping groove.

[0018] In at least one embodiment of the present application, a second clamping groove is arranged on the base, and the second terminal is clamped in the second clamping groove.

[0019] In at least one embodiment of the present application, two positioning columns are arranged on the base.

[0020] In at least one embodiment of the present application, two pushers are arranged on the sliding plate, and the two pushers are symmetrically arranged on both sides of the sliding plate.

[0021] In at least one embodiment of the present application, the first terminal and the second terminal are both phosphor bronze.

[0022] The electronic component applied to the multifunctional blood glucose detection device provided above is fixed to the external circuit board through the design of the shell with the fitting side. This design enables the electronic component to be firmly mounted on the circuit board. The push-out structure includes a push plate and a push rod arranged on the push plate. Importantly, the push rod is designed to protrude from the fitting side of the shell and penetrate the external circuit board, rather than extending from both sides of the shell. This one-sided arrangement design significantly reduces the occupation of the electronic component in the horizontal space, so that the push rod no longer needs to occupy the extra space on both sides of the shell. BRIEF DESCRIPTION OF DRAWINGS

[0023] Figure 1 The structural perspective view of the electronic component applied to the multifunctional blood glucose detection device;

[0024] Figure 2 The structural perspective view of the electronic component applied to the multifunctional blood glucose detection device;

[0025] Figure 3 The top view of the electronic component applied to the multifunctional blood glucose detection device;

[0026] Figure 4 The bottom view of the electronic component applied to the multifunctional blood glucose detection device;

[0027] Figure 5 The structural exploded view of the electronic component applied to the multifunctional blood glucose detection device;

[0028] Figure 6 The structural perspective view of the electronic component applied to the multifunctional blood glucose detection device inserted into the test paper;

[0029] Figure 7 The structural schematic view of the electronic component applied to the multifunctional blood glucose detection device inserted into the test paper;

[0030] Figure 8 The structural schematic view of the electronic component applied to the multifunctional blood glucose detection device inserted into the test paper;

[0031] Figure 9 The structural perspective view of the electronic component applied to the multifunctional blood glucose detection device inserted into the test paper and arranged on the circuit board;

[0032] Figure 10A structure perspective view of an electronic component for a multi-functional blood glucose monitoring device inserted into a test paper and arranged on a circuit board.

[0033] Main component symbol description

[0034] 100, an electronic component for a multi-functional blood glucose monitoring device; 1, a housing; 11, a base; 111, a first clamping groove; 112, a second clamping groove; 113, a positioning column; 12, an outer shell; 2, a first terminal; 21, a first clamping part; 3, a second terminal; 31, a second clamping part; 4, a push-out structure; 41, a push plate; 411, a sliding plate; 412, a pushing part; 42, a pushing rod; 5, an external circuit board; 6, a test paper; a, a fitting side. DETAILED DESCRIPTION

[0035] The embodiments of the present application will be described below in conjunction with the accompanying drawings. Obviously, the described embodiments are only part of, but not all of the embodiments of the present application.

[0036] It should be noted that when one component is considered to be "connected" to another component, it can be directly connected to the other component or can exist with a middle component. When one component is considered to be "arranged" on another component, it can be directly arranged on the other component or can exist with a middle component. The terms "top", "bottom", "upper", "lower", "left", "right", "front", "back", and the like used herein are for illustrative purposes only.

[0037] The embodiments of the present application provide an electronic component for a multi-functional blood glucose monitoring device, comprising:

[0038] a housing, the housing having a fitting side, the fitting side being fixed on an external circuit board;

[0039] a first terminal arranged in the housing;

[0040] a second terminal arranged in the housing, a test paper being clamped between the first terminal and the second terminal;

[0041] The push-out structure comprises a push plate and a push rod arranged on the push plate. The push plate is located in the shell and is in sliding connection with the shell. When the test paper is clamped between the first terminal and the second terminal, the test paper is located on the sliding path of the push plate. The push plate is located on the side of the push plate close to the fitting side. The push rod protrudes from the shell and penetrates the external circuit board. This design enables the electronic components to be firmly mounted on the circuit board. The push-out structure comprises a push plate and a push rod arranged on the push plate. Importantly, the push rod is designed to protrude from the fitting side of the shell, rather than extending from both sides of the shell. This one-sided arrangement significantly reduces the occupation of horizontal space by electronic components, so that the push rod no longer needs to occupy additional space on both sides of the shell.

[0042] Some embodiments of the present application will be described in detail below with reference to the accompanying drawings. The following embodiments and features in the embodiments can be combined with each other without conflict.

[0043] Please refer to Figures 1-10 The electronic components 100 applied to the multifunctional blood glucose detection device provided by the embodiments of the present application comprise a shell 1, a first terminal 2, a second terminal 3 and a push-out structure 4. The shell 1 has a fitting side a which is fixed to an external circuit board 5. The first terminal 2 is arranged in the shell 1. The second terminal 3 is arranged in the shell 1, and the test paper 6 is clamped between the first terminal 2 and the second terminal 3. The push-out structure 4 comprises a push plate 41 and a push rod 42 arranged on the push plate 41. The push plate 41 is located in the shell 1 and is in sliding connection with the shell 1. When the test paper 6 is clamped between the first terminal 2 and the second terminal 3, the test paper 6 is located on the sliding path of the push plate 41. The push plate 41 is located on the side of the push plate 41 close to the fitting side a. The push rod 42 protrudes from the shell 1 and penetrates the external circuit board 5.

[0044] Specifically, the shell 1 has a fitting side a fixed to the external circuit board 5, as the main structure of the electronic component, the shell 1 not only provides the necessary protection, but also ensures the stable connection between the component and the circuit board. Through the design of the fitting side a, the component can be closely fitted on the circuit board, reducing the space occupation and improving the compactness of the layout. The first terminal 2 and the second terminal 3 are both arranged in the shell 1, and the test paper 6 is clamped between the two. The first terminal 2 and the second terminal 3 together constitute a clamping mechanism of the test paper 6, ensuring the stability and accuracy of the test paper 6 during the detection process. By precisely controlling the distance between the terminals and the clamping force, effective clamping of the test paper 6 can be achieved, avoiding the movement or falling of the test paper 6 during the detection process, thereby improving the accuracy of blood glucose detection. The push-out structure 4 includes a push plate 41 and a push rod 42 arranged on the push plate 41. The push plate 41 is located in the shell 1 and is in sliding connection with the shell 1. When the test paper 6 is clamped between the first terminal 2 and the second terminal 3, the test paper 6 is located on the sliding path of the push plate 41. The push rod 42 protrudes from the shell 1 and penetrates the external circuit board 5. The push-out structure 4 is responsible for pushing the test paper 6 out of the component after the detection is completed, facilitating the user to replace the new test paper 6. Through the sliding connection of the push plate 41 and the push rod 42 protruding from the shell 1, the user can easily operate the push-out structure 4 from the outside, realizing the quick replacement of the test paper 6. This design not only improves the convenience of operation, but also ensures that the compact layout of the component on the circuit board is not affected. The shell 1 is generally designed with an opening, which is usually designed as the inlet and outlet of the test paper 6. The position, size and shape of the opening are determined according to the size of the test paper 6 and the overall design of the electronic component. The sliding path of the push plate 41 in the shell 1 is usually matched with the position and shape of the opening. When the test paper 6 is clamped between the first terminal 2 and the second terminal 3, the push plate 41 will move along this sliding path, ensuring that the test paper 6 can be smoothly pushed out through the opening. The fitting side a of the shell 1 can be fixed to the external circuit board 5 by using the surface mount technology (Surface Mount Technology, SMT for short). SMT technology is a circuit connection technology that installs surface mount components (SMC / SMD, Chinese name: sheet component) without pins or short lead on the surface of a printed circuit board (Printed Circuit Board, PCB for short) or other substrates, and is welded and assembled by reflow soldering or immersion soldering.

[0045] In a specific example, the push plate 41 includes a sliding plate 411 and a plurality of push portions 412 arranged on the sliding plate 411. The sliding plate 411 is in sliding connection with the shell 1, and the plurality of push portions 412 are arranged side by side on the sliding plate 411. When the test paper 6 is clamped between the first terminal 2 and the second terminal 3, the test paper 6 is located on the sliding path of the plurality of push portions 412.

[0046] In particular, the sliding plate 411 is the main component of the push plate 41, which is responsible for sliding within the shell 1, thereby bringing the test paper 6 out. The sliding plate 411 is connected to the shell 1 through some sliding mechanism (such as sliding rails, guide grooves, etc.). This connection ensures the stability and reliability of the sliding plate 411 within the shell 1, and also makes the sliding process smoother. The size and shape of the sliding plate 411 are usually determined according to the internal structure of the shell 1 and the size of the test paper 6. The sliding plate 411 needs to be large enough to accommodate multiple pushers 412, and needs to be strong enough to withstand the force required to push out the test paper 6. The material selection of the sliding plate 411 is also crucial. It needs to have good wear resistance, corrosion resistance and sufficient strength to ensure stable performance over a long period of use. The pushers 412 are key components provided on the sliding plate 411, which are responsible for pushing the test paper 6 when the sliding plate 411 slides. The number of pushers 412 is usually determined according to the width and length of the test paper 6 to ensure that the test paper 6 can be uniformly pushed. Multiple pushers 412 are arranged side by side on the sliding plate 411, which can ensure that the test paper 6 is subjected to uniform force during the pushing process, thereby avoiding deformation or damage to the test paper 6. The shape and size of the pushers 412 need to be designed according to the shape and size of the test paper 6. They need to be small enough to closely fit the test paper 6, while being large enough to ensure that sufficient pushing force is generated. The material selection of the pushers 412 also needs to consider wear resistance, corrosion resistance and sufficient strength. They need to match the material of the sliding plate 411 to ensure stable performance over a long period of use. When the test paper 6 is clamped between the first terminal 2 and the second terminal 3, it is located on the sliding path of the multiple pushers 412. When the user needs to push out the test paper 6, they will push the push rod 42 protruding from the shell 1 through some means (such as a button, a handle, etc.). The push rod 42 will bring the sliding plate 411 to slide within the shell 1, thereby bringing the multiple pushers 412 to move together. The pushers 412 will contact the test paper 6 during the movement and push it out from between the first terminal 2 and the second terminal 3.

[0047] In a specific example, the shell 1 includes a housing 12 and a base 11, the base 11 is fixed to the external circuit board 5, the housing 12 is covered on the base 11, the first terminal 2, the second terminal 3 and the push plate 41 are arranged between the housing 12 and the base 11, and the push rod 42 protrudes from the housing 12.

[0048] In particular, the shell 12 is the main protective part of the housing 1, which covers the base 11 and provides protection for the internal components from dust, moisture and other impurities. At the same time, the shell 12 also plays a role in fixing the internal components, ensuring that they do not move or damage during use. The design of the shell 12 usually takes into account the overall aesthetics, durability and ease of operation of the device. It may be manufactured using processes such as injection molding, and the material selection usually takes into account its impact resistance, weather resistance and chemical stability. The shell 12 may also be designed with openings, buttons, indicator lights, etc. for users to operate and observe. The base 11 is the interface part of the housing 1 connected to the external circuit board 5. It is usually fixed on the circuit board to provide support for the internal components and ensure the correctness and stability of the circuit connection. The design of the base 11 usually takes into account the compatibility with the circuit board, the convenience of installation and the reliability of the connection. It may be made of metal or plastic materials with appropriate size and shape to match the interface on the circuit board. The base 11 may also be designed with positioning holes, fixing holes, etc. for installation and fixation. The first terminal 2 and the second terminal 3 are usually used to hold the test paper 6, ensuring that the test paper 6 can stably contact the circuit and transmit current. They are usually designed as elastic conductive sheets or pins that can tightly adhere to the test paper 6 and maintain good electrical contact. The first terminal 2 and the second terminal 3 are usually arranged on the base 11 in the space between the shell 12 and the base 11. Their position and shape are usually determined according to the size and shape of the test paper 6 to ensure that the test paper 6 can be correctly inserted and held. The push plate 41 is a component used to push the test paper 6, which usually works in combination with the sliding plate 411 to drive the test paper 6 out by sliding. The design of the push plate 41 needs to consider factors such as the pushing force, pushing path and stability of the test paper 6. The push plate 41 is also arranged on the base 11 in the space between the shell 12 and the base 11. It usually has a certain gap with the shell 12 to allow the sliding plate 411 to slide smoothly. The push plate 41 may also be designed with a pushing part 412, a guide groove, etc. to ensure that the test paper 6 can be stably pushed out. The push rod 42 is the interface part operated by the user, which usually protrudes from the shell 12 for the user to push to start the test paper 6 pushing mechanism. The design of the push rod 42 needs to consider the convenience and comfort of user operation. It is usually designed as a cylindrical or rod-shaped structure with a certain length and diameter, protruding from the surface of the shell 12, and may have anti-slip texture or button design. In the design of electronic components, the base 11 is usually the core support structure, where a rubber core is often arranged, and the first terminal 2 and the second terminal 3 are connected to the rubber core in a detachable manner. This design not only improves the flexibility and maintainability of electronic components, but also ensures the stable connection and efficient transmission between components. Plug-in connection is the most common connection method. The first terminal 2 and the second terminal 3 are designed as plugs with a certain shape, while the rubber core is provided with corresponding sockets.The plug and socket are connected through a precise fitting and locking mechanism, ensuring a stable connection after insertion. When disassembly is required, simply overcome the locking force and pull the plug out of the socket.

[0049] In a specific example, the base 11 is provided with a plurality of positioning columns 113 corresponding to the external circuit board 5.

[0050] Specifically, the main function of the positioning column 113 is to provide accurate positioning reference for electronic components during installation. By inserting the positioning column 113 into the corresponding hole on the circuit board, the correct alignment and connection between the component and the circuit board can be ensured. In addition to the positioning function, the positioning column 113 can also provide additional fixed support for electronic components. After the component is connected to the circuit board, the positioning column 113 can be inserted into the hole on the circuit board and play a locking role, preventing the component from moving or falling off during use. By using the positioning column 113, the positional deviation of the component caused by human operation or mechanical error during assembly can be greatly reduced. This helps to improve the manufacturing precision and reliability of the entire device. On the circuit board, there are usually corresponding holes for the positioning column 113. The size and position of these holes are precisely designed and calculated to ensure perfect matching with the positioning column 113.

[0051] In a specific example, the first terminal 2 has a first clamping portion 21, and the second terminal 3 has a second clamping portion 31. When the test paper 6 is clamped between the first terminal 2 and the second terminal 3, the first clamping portion 21 and the second clamping portion 31 abut the two sides of the test paper 6, respectively.

[0052] In particular, the first terminal 2 is an electrical connection component with specific functions, which is usually designed to connect with a power source, a signal source or other electronic elements. In this description, the first terminal 2 not only has the function of electrical connection, but also has the mechanical function of clamping the test paper 6. The first clamping portion 21 is a special structure on the first terminal 2, which is usually designed to tightly contact with one side of the test paper 6 to ensure that the test paper 6 remains stable during clamping. The second terminal 3 is similar to the first terminal 2, which is also an electrical connection component. However, in this specific application, the second terminal 3 also undertakes the task of clamping the test paper 6 in cooperation with the first terminal 2. The second clamping portion 31 is a special structure on the second terminal 3, which corresponds to the first clamping portion 21 and is used to clamp the other side of the test paper 6. The test paper 6 is a thin sheet of material commonly used for testing, analysis or diagnosis, which may be coated with specific chemicals or biological agents for reaction with samples (such as blood, urine, etc.) and produce observable results. In this description, the test paper 6 is clamped between the first terminal 2 and the second terminal 3 to achieve certain testing or analysis functions. When the test paper 6 is clamped between the first terminal 2 and the second terminal 3, the first clamping portion 21 and the second clamping portion 31 respectively abut the two sides of the test paper 6. This clamping method ensures that the test paper 6 remains stable during testing and will not move or fall off due to external factors (such as vibration, air flow, etc.). At the same time, since the first terminal 2 and the second terminal 3 both have the function of electrical connection, they can also provide the necessary power or signal input for the test paper 6 to achieve the testing or analysis function.

[0053] In a specific example, the base 11 is provided with a first clamping groove 111, and the first terminal 2 is clamped in the first clamping groove 111.

[0054] In particular, the base 11 is the main support structure of the electronic component or device, usually made of a sturdy and durable material such as metal, plastic or composite material. It provides the foundation for mounting, securing and supporting other components, and ensures the stability and reliability of the entire device. The card slot is a special structure on the base 11, usually designed as a groove or opening, used to receive and secure other components. The shape, size and location of the card slot are usually determined according to the components to be installed, to ensure that they can be tightly fitted and kept stable. The first terminal 2 is a functional electrical connection component, usually designed to connect with the circuit board, signal source or other electronic elements. In this description, the first terminal 2 not only has the function of electrical connection, but also connects with the base 11 through the carding method. The carding connection is a simple and effective connection method, which uses the shape matching and friction between components to achieve fixation. In this description, the first terminal 2 is designed to be able to be carded in the first card slot 111 of the base 11. This usually means that the first terminal 2 has a structure (such as a protrusion, barb, etc.) that matches the shape of the first card slot 111, when the first terminal 2 is inserted into the first card slot 111, these structures will be carded into the slot and generate friction, so as to prevent the first terminal 2 from falling off.

[0055] In a specific example, the base 11 is provided with a second card slot 112, and the second terminal 3 is carded in the second card slot 112.

[0056] In particular, the base 11 is the main structure of the entire device or apparatus, which provides the foundation for mounting, supporting and securing other components. The base 11 is usually made of sturdy and durable materials to ensure the stability and reliability of the entire device. In electronic components or test equipment, the base 11 often also contains functional designs such as electrical connection points, heat dissipation structures, etc. The second clamping groove 112 is a recess or opening specially designed on the base 11 for receiving and fixing the second terminal 3. Its shape, size and position are determined according to the structure and installation requirements of the second terminal 3. The design of the clamping groove usually takes into account factors such as easy installation, stability and ease of disassembly. The second terminal 3 is a component with specific electrical or mechanical functions, which is usually used to connect with power sources, signal sources, sensors or other electronic elements. In test equipment or electronic components, the second terminal 3 may also undertake the task of transmitting data, control signals or measurement. Clamping connection is a connection method that fixes components through shape matching and friction. In this connection, the second terminal 3 is designed to be tightly clamped into the second clamping groove 112. This usually means that the second terminal 3 has structures (such as protrusions, barbs, elastic pieces, etc.) that match the shape of the second clamping groove 112, and when the second terminal 3 is inserted into the second clamping groove 112, these structures will generate friction with the groove wall, thereby ensuring that the second terminal 3 remains stable in the groove. Clamping connection fixes components through shape matching and friction, so once installed in place, the connection is usually very stable and not easily affected by external factors such as vibration, impact, etc.

[0057] In a specific example, two positioning columns 113 are provided on the base 11.

[0058] In particular, the base 11 is the main structure of the device or apparatus, which provides the foundation for mounting, supporting and securing other components. In electronic components or test equipment, the base 11 usually also contains functional designs such as electrical connection points, heat dissipation structures, etc. to ensure the stability and performance of the entire device. The positioning column 113 is a structure specially designed on the base 11, usually in the shape of a cylinder or other shapes, used for precise alignment and positioning with external components (such as circuit boards) during assembly. The height, diameter and position of the positioning column 113 are determined according to the structure and installation requirements of the external components. The external circuit board 5 refers to the circuit board that is electrically connected and signals transmitted with the components installed on the base 11. It can be a separate circuit board or part of a larger system. The circuit board usually contains various electrical elements, connectors and wires to achieve complex electrical and signal functions. The design, position and size of the positioning column 113 are designed to match the corresponding structures (such as positioning holes, connectors, etc.) on the external circuit board. This correspondence ensures that the components on the base 11 can be precisely aligned with the external circuit board and remain stable during assembly.

[0059] In a specific example, the sliding plate 411 is provided with two push parts 412, which are symmetrically arranged on both sides of the sliding plate 411.

[0060] Specifically, the sliding plate 411 is a flat plate structure that can slide on guide rails, sliding rails, or other guiding mechanisms. It is commonly used to achieve linear motion, transmit force, or serve as a mounting platform for other components. The sliding plate 411 can be made of metal, plastic, composite materials, etc., depending on its application environment and required performance. The push part 412 is a specially designed structure on the sliding plate 411 for generating thrust or guiding the sliding plate 411 to move. The push part 412 can take various forms, such as bumps, sliders, rollers, air cylinders, etc., depending on the required movement mode and force transmission efficiency. The push part 412 is usually connected to a driving mechanism (such as a motor, air cylinder, hydraulic cylinder, etc.) to achieve automated control of the sliding plate 411. Symmetrically arranged means that the two push parts 412 are opposite each other on the sliding plate 411, and are mirror images relative to the center line of the sliding plate 411. This arrangement is usually used to ensure that the sliding plate 411 remains balanced and stable during movement, avoiding unnecessary lateral forces or torsion. In this description, "both sides" refers to the two sides of the sliding plate 411 in the direction of movement. The push parts 412 are arranged on both sides of the sliding plate 411, which can provide uniform thrust when the sliding plate 411 moves, ensuring that the sliding plate 411 moves smoothly and linearly.

[0061] In a specific example, the first terminal 2 and the second terminal 3 are both phosphor bronze.

[0062] Specifically, phosphor bronze is a special copper alloy made by adding a small amount of phosphorus and other possible alloying elements (such as tin, zinc, etc.) to pure copper. Phosphor bronze has a series of excellent properties, making it an ideal choice for electrical connection components. Phosphor bronze has good electrical conductivity, ensuring stable transmission of current. Phosphor bronze has good resistance to a variety of corrosive media and can maintain its performance in harsh environments. Phosphor bronze has a certain elasticity and can return to its original shape after being subjected to external force, which is particularly important for connectors that need to be frequently plugged in and out. Phosphor bronze is easy to process and form, and can be made into the required shape and size through casting, forging, stamping, etc. Phosphor bronze has good weldability and can be reliably welded to other metals or alloys.

[0063] The above is only an embodiment of the present application, and it should be noted that those skilled in the art can make improvements without departing from the inventive concept of the present application, but these are within the scope of protection of the present application.

Claims

1. An electronic component applied to a multi-functional blood glucose monitoring device, characterized by, The utility model relates to a test paper push-out structure, comprising: A shell has a fit side, and the fit side is fixed on an external circuit board; A first terminal is arranged in the shell; A second terminal is arranged in the shell, and test paper is clamped between the first terminal and the second terminal; The push-out structure comprises a push plate and a push rod arranged on the push plate, the push plate is located in the shell, the push plate is in sliding connection with the shell, and when test paper is clamped between the first terminal and the second terminal, the test paper is located on the sliding path of the push plate, the push plate is located on the side of the push plate close to the fit side, the push rod protrudes from the shell, and the push rod penetrates the external circuit board.

2. The electronic component for a multi-functional blood glucose monitoring device according to claim 1, wherein The push plate comprises a sliding plate and a plurality of push parts arranged on the sliding plate, the sliding plate is in sliding connection with the shell, a plurality of push parts are arranged side by side on the sliding plate, and when test paper is clamped between the first terminal and the second terminal, the test paper is located on the sliding path of a plurality of push parts.

3. The electronic component for a multi-functional blood glucose monitoring device according to claim 2, wherein The shell comprises a shell and a base, the base is fixed on the external circuit board, the shell cover is arranged on the base, the first terminal, the second terminal and the push plate are arranged between the shell and the base, and the push rod protrudes from the shell.

4. The electronic component for a multi-functional blood glucose monitoring apparatus according to claim 3, wherein A plurality of positioning columns are arranged on the base, and the plurality of positioning columns correspond to the external circuit board.

5. The electronic component for a multi-functional blood glucose monitoring device according to claim 1, wherein The first terminal has a first clamping part, the second terminal has a second clamping part, and when test paper is clamped between the first terminal and the second terminal, the first clamping part and the second clamping part abut the two sides of the test paper respectively.

6. The electronic component for a multi-functional blood glucose monitoring device according to claim 3, wherein A first clamping groove is arranged on the base, and the first terminal is clamped in the first clamping groove.

7. The electronic component for a multi-functional blood glucose monitoring device according to claim 3, wherein A second clamping groove is arranged on the base, and the second terminal is clamped in the second clamping groove.

8. The electronic component for a multi-functional blood glucose monitoring device according to claim 3, wherein, Two positioning columns are arranged on the base.

9. The electronic component for a multi-functional blood glucose monitoring device according to claim 2, wherein, Two push parts are arranged on the sliding plate, and the two push parts are symmetrically arranged on the two sides of the sliding plate.

10. The electronic component for a multi-functional blood glucose monitoring device according to claim 1, wherein, The first terminal and the second terminal are both phosphor bronze.

Images