Anti-deformation DDR5 memory strip with metal reinforced bracket

Abstract

The utility model relates to DDR5 memory stick technical field, and disclose a kind of anti-deformation DDR5 memory stick with metal reinforcing bracket, including memory stick body, first fixed frame, second fixed frame, rely on metal support anti-deformation, first fixed frame front end has guide sliding slot, locking sliding slot, for locking clamping strip sliding positioning, top rotary hole is connected second fixed frame, bottom end leaves memory stick connecting space, push locking clamping strip compression first spring, after memory stick is placed, loosen, clamping strip reset clamping, locking sliding block auxiliary positioning, second fixed frame can overturn, rubber pad in back gage plate groove is closed when sticking memory stick, play buffering effect, its telescopic storage groove installs locking assembly, fixed telescopic strip is tangent with the degree of rubber pad adhesion of table, close second fixed frame, telescopic rod inserts first fixed frame connecting hole and is fixed, the first fixed frame of metal material and second fixed frame constitute reinforcing bracket, can effectively resist extrusion and bending of external force to memory stick body, avoid the deformation of memory stick.

Description

Technical Field

[0001] This utility model relates to the field of DDR5 memory module technology, specifically a deformation-resistant DDR5 memory module with a metal reinforcement bracket. Background Technology

[0002] DDR5 memory modules are core components in modern computers and other electronic devices, responsible for temporary data storage and high-speed read / write operations. Their performance directly affects the overall operating efficiency of the device and they are widely used in desktop computers, servers, workstations, and other scenarios. As electronic devices develop towards high performance and miniaturization, DDR5 memory modules need to achieve higher frequency data transmission within a limited space, which places higher demands on their structural stability. During daily installation, transportation, or equipment operation, memory modules are easily affected by external forces such as squeezing, bending, or vibration. Without effective protection, the memory module itself may be damaged or have poor contact. Therefore, a supporting reinforced structure is needed to ensure its safety and stability during use. Traditional DDR5 memory modules rely primarily on their own structure for support, lacking dedicated metal reinforcement brackets. Some products only have simple thermal pads attached to their surfaces, which cannot effectively resist external impacts. In actual use, when the memory module is inserted into the motherboard slot, its suspended portion is easily bent by external force. Long-term use may lead to memory module deformation, solder joint detachment, and subsequent data transmission errors, blue screen crashes, and other malfunctions. At the same time, traditional memory modules are only fixed to the slot using slot clips, lacking additional auxiliary fixing structures. Under equipment vibration, the memory module is prone to loosening, affecting the stability of equipment operation. To address these issues, we have proposed a deformation-resistant DDR5 memory module with a metal reinforcement bracket. Utility Model Content

[0003] To address the shortcomings of existing technologies, this invention provides a deformation-resistant DDR5 memory module with a metal reinforcement bracket, thus solving the aforementioned problems.

[0004] To achieve the above-mentioned objectives, this utility model provides the following technical solution: a deformation-resistant DDR5 memory module with a metal reinforcement bracket, comprising: The memory module body, the first fixing frame, and the second fixing frame are provided. The front end of the first fixing frame is slidably installed with symmetrically distributed locking clips. The back sides of the locking clips are provided with first springs. The memory module body is provided between the two locking clips and is located inside the front end of the first fixing frame. A second fixed frame is provided at the front end of the first fixed frame. The second fixed frame is rotatably connected to the first fixed frame. A symmetrically distributed rubber pad is provided inside the back of the second fixed frame. The front end of the rubber pad is tightly attached to the memory module body. The locking assembly is located inside the back of the second fixed frame. The locking assembly consists of a fixed telescopic bar, a second spring, a telescopic rod, and a third spring. The front end of the fixed telescopic bar is tightly fitted to the back of the rubber pad. The right end of the fixed telescopic bar is equipped with a telescopic rod. The front end of the telescopic rod passes through the end face of the first fixed frame and is fixedly connected to it.

[0005] Preferably, the front end of the first fixing frame has symmetrically distributed guide grooves on both sides, and the back of the locking clip has symmetrically distributed protrusions. A first spring is provided on the back of the protrusions, wherein the protrusions and the first spring are disposed inside the guide grooves and slide in cooperation.

[0006] Preferably, the front end of the first fixing frame has through locking grooves on both sides, the locking grooves are located on both sides of the guide groove, and the back of the locking clip has a locking slider, which is located between two protrusions, wherein the locking slider passes through the locking groove and slides in engagement.

[0007] Preferably, the first fixing frame has rotating holes on both sides of the top front end, and the second fixing frame has rotating shafts fixed at both ends of the top end. The second fixing frame is located at the front end of the first fixing frame, and the rotating shafts are inserted into the rotating holes for rotational engagement.

[0008] Preferably, the back of the second fixing frame is provided with symmetrically distributed pad grooves, and the inner ends of the pad grooves are provided with symmetrical telescopic storage grooves, and the right end of the telescopic storage grooves passes through both ends of the second fixing frame.

[0009] Preferably, the fixed telescopic strip is slidably installed inside the telescopic storage slot, and a second spring is provided inside the left end of the fixed telescopic strip. The second spring is located at the innermost side of the telescopic storage slot, and the right end of the fixed telescopic strip is distributed towards both ends of the second fixed frame.

[0010] Preferably, the rubber pad is disposed inside the pad groove, and the rubber pad can slide back and forth inside the pad groove. An inclined tangent platform is provided at the center of the front end of the fixed telescopic strip, and the tangent platform is tangentially engaged with the back of the rubber pad.

[0011] Preferably, the right end of the fixed telescopic bar has a storage hole, and a telescopic rod is installed inside the storage hole. A third spring is provided at the end of the telescopic rod and is located inside the storage hole. The cylindrical surface at the end of the telescopic rod has an auxiliary block, and the auxiliary block slides through the fixed telescopic bar and the second fixed frame respectively.

[0012] Preferably, the front ends of the first fixed frame are provided with symmetrically distributed connecting holes, wherein the front end of the telescopic rod corresponds to the connecting hole, and the front end of the telescopic rod is inserted into the connecting hole for fixed connection. The connecting end of the memory module body is located at the bottom end of the first fixed frame and the second fixed frame.

[0013] Compared with the prior art, this utility model provides a deformation-resistant DDR5 memory module with a metal reinforcement bracket, which has the following beneficial effects: This anti-deformation DDR5 memory module with a metal reinforcement bracket uses a first and second fixing frame to form a reinforcement bracket, effectively resisting external forces from squeezing and bending the memory module body. Structurally, this prevents memory module deformation and ensures long-term stable operation. Symmetrically distributed locking clips within the first fixing frame, combined with the sliding engagement of the rear protrusions and guide grooves, and the spring-loaded return action, quickly clamp the memory module body from both sides. Simultaneously, the engagement of the locking slider and locking groove further restricts clip movement, achieving initial stable fixation of the memory module and preventing loosening after installation. When the second fixing frame is flipped closed, the rubber pad on the back firmly engages with the memory module body. The tight fit utilizes the properties of rubber to provide cushioning and anti-slip properties, preventing direct contact between the metal frame and the memory module and thus protecting the memory module's appearance and performance. The locking assembly's telescopic bar engages tangentially with the rubber pad via a tangential platform, allowing adjustment of the pad's fit to ensure a tight seal against the memory module in various usage scenarios. Simultaneously, the telescopic rod's connection to the first fixing frame's connecting hole securely connects the first and second fixing frames, enhancing overall structural stability. The bottom of the first fixing frame has reserved space for the memory module's connection end, ensuring unimpeded connection between the memory module and the device. Furthermore, the simple installation structure of each component facilitates user operation and provides convenience. Attached Figure Description

[0014] Figure 1 This is a schematic diagram of the structure of this utility model; Figure 2 This is a schematic diagram showing the structural breakdown of this utility model; Figure 3 This is a cross-sectional view of the structure of this utility model; Figure 4 This is a cross-sectional view of the second fixed frame structure of this utility model.

[0015] In the diagram: 1. Memory module body; 2. First fixing frame; 3. Locking clip; 4. First spring; 5. Second fixing frame; 6. Rubber pad; 7. Fixed telescopic strip; 8. Second spring; 9. Telescopic rod; 10. Third spring; 11. Locking slide groove; 12. Guide slide groove; 13. Tangent stage; 14. Pad groove; 15. Telescopic storage groove; 16. Locking slider. Detailed Implementation

[0016] The technical solutions of the present utility model will be clearly and completely described below with reference to the accompanying drawings of the embodiments. Obviously, the described embodiments are only some embodiments of the present utility model, and not all embodiments. Based on the embodiments of the present utility model, all other embodiments obtained by those of ordinary skill in the art without creative effort are within the protection scope of the present utility model.

[0017] Please see Figure 1-4 A type of deformation-resistant DDR5 memory module with a metal-reinforced bracket, comprising: The memory module body 1, the first fixing frame 2, and the second fixing frame 5 are provided. The front end of the first fixing frame 2 is slidably installed with symmetrically distributed locking clips 3. The back sides of the locking clips 3 are provided with first springs 4. The memory module body 1 is provided between the two locking clips 3. The memory module body 1 is located inside the front end of the first fixing frame 2. The second fixed frame 5 is set at the front end of the first fixed frame 2. The second fixed frame 5 is rotatably connected to the first fixed frame 2. The back of the second fixed frame 5 is provided with symmetrically distributed rubber pads 6. The front end of the rubber pads 6 is tightly attached to the memory module body 1. The locking assembly is located inside the back of the second fixed frame 5. The locking assembly consists of a fixed telescopic bar 7, a second spring 8, a telescopic rod 9 and a third spring 10. The front end of the fixed telescopic bar 7 is tightly fitted to the back of the rubber pad 6. The right end of the fixed telescopic bar 7 is provided with a telescopic rod 9. The front end of the telescopic rod 9 passes through the end face of the first fixed frame 2 and is fixedly connected to it.

[0018] Furthermore, the front end of the first fixed frame 2 has symmetrically distributed guide grooves 12 on both sides, and the back of the locking clip 3 has symmetrically distributed protrusions. The back of the protrusions is provided with a first spring 4. The protrusions and the first spring 4 are located inside the guide grooves 12 and slide together to provide a stable sliding track for the locking clip 3, ensuring that the locking clip 3 can move in a fixed direction, laying the foundation for clamping the memory module body 1 in the future.

[0019] Furthermore, the front end of the first fixed frame 2 has through locking grooves 11 on both sides. The locking grooves 11 are located on both sides of the guide groove 12. The back of the locking clip 3 is provided with a locking slider 16, which is located between two protrusions. The locking slider 16 passes through the locking groove 11 and slides to further restrict the movement direction of the locking clip 3, prevent the locking clip 3 from deviating during sliding, and improve its stability when clamping the memory module body 1.

[0020] Furthermore, rotating holes are provided on both sides of the top front end of the first fixing frame 2, and rotating shafts are fixed at both ends of the top of the second fixing frame 5. The second fixing frame 5 is located at the front end of the first fixing frame 2, and the rotating shafts are inserted into the rotating holes to rotate and cooperate, thereby connecting the first fixing frame 2 and the second fixing frame 5, allowing the second fixing frame 5 to be rotated around the rotating holes, which facilitates the subsequent secondary reinforcement of the memory module body 1.

[0021] Furthermore, the back of the second fixing frame 5 is provided with symmetrically distributed pad grooves 14. The inner ends of the pad grooves 14 are provided with symmetrical telescopic storage grooves 15, and the right end of the telescopic storage grooves 15 passes through both ends of the second fixing frame 5, providing installation space for the rubber pad 6 and the fixed telescopic strip 7, ensuring that the rubber pad 6 and the fixed telescopic strip 7 can be assembled in an orderly manner, creating conditions for the subsequent realization of buffering and fixing functions.

[0022] Furthermore, the fixed telescopic strip 7 is slidably installed inside the telescopic storage groove 15, and a second spring 8 is provided inside the left end of the fixed telescopic strip 7. The second spring 8 is located at the innermost side of the telescopic storage groove 15, and the right end of the fixed telescopic strip 7 is distributed towards both ends of the second fixed frame 5, providing elastic support for the fixed telescopic strip 7, so that the fixed telescopic strip 7 can maintain a stable position under the action of the second spring 8, which is convenient for subsequently pushing the rubber pad 6.

[0023] Furthermore, the rubber pad 6 is set inside the pad groove 14, and the rubber pad 6 can slide back and forth inside the pad groove 14. An inclined tangent platform 13 is provided at the center of the front end of the fixed telescopic strip 7. The tangent platform 13 is tangentially engaged with the back of the rubber pad 6. The position of the rubber pad 6 is adjusted by moving the fixed telescopic strip 7 to ensure that the rubber pad 6 can fit tightly against the memory module body 1, thereby playing a role in buffering and anti-slip.

[0024] Furthermore, a storage hole is provided inside the right end of the fixed telescopic bar 7, and a telescopic rod 9 is installed inside the storage hole. A third spring 10 is provided at the end of the telescopic rod 9 and is located inside the storage hole. The cylindrical surface at the end of the telescopic rod 9 is provided with an auxiliary block, which slides through the fixed telescopic bar 7 and the second fixed frame 5 respectively, providing an installation and adjustment structure for the telescopic rod 9, facilitating manual control of the extension and retraction of the telescopic rod 9. At the same time, the third spring 10 enables the telescopic rod 9 to automatically reset, preparing for subsequent connection with the first fixed frame 2.

[0025] Furthermore, symmetrically distributed connecting holes are provided on both sides of the front end of the first fixing frame 2, wherein the front end of the telescopic rod 9 corresponds to the connecting hole, and the front end of the telescopic rod 9 is inserted into the connecting hole for fixed connection. The connecting end of the memory module body 1 is set at the bottom end of the first fixing frame 2 and the second fixing frame 5 to fix the first fixing frame 2 and the second fixing frame 5, while reserving the docking space of the memory module body 1 so that the two form a stable whole, ensuring that the memory module body 1 can be properly docked with the device and complete the all-round fixation.

[0026] Structural Description: Memory module body 1: This is the core data storage component of the DDR5 memory module. It is located inside the front end of the first fixed frame 2, and the connection end is at the bottom of the two fixed frames to ensure data reading and writing of the device. First fixed frame 2: core load-bearing frame, with guide slide 12, locking slide 11, etc. at the front end, and the top rotating hole connects to the second fixed frame 5, providing an installation base for each component; Locking clip 3: symmetrically slidably mounted on the front end of the first fixed frame 2, with protrusions and locking slider 16 on the back, which, together with springs and grooves, clamp the memory module body 1 from both sides; First spring 4: Located behind the protrusion on the back of the locking clip 3 and inside the guide groove 12, it provides elastic force to reset the clip and help clamp the memory module body 1. Second fixed frame 5: The top pivot is connected to the first fixed frame 2 and can be flipped. The back has a pad groove 14, etc., which provides secondary reinforcement to the memory module body 1 after closing. Rubber pad 6: It can slide in the pad groove 14 of the second fixed frame 5, fits the memory module body 1, and plays a role in buffering, anti-slip and anti-wear. Fixed telescopic strip 7: Slidably mounted on telescopic storage groove 15, front tangent platform 13 touches rubber pad 6, adjust pad fit, right end connected to telescopic rod 9; Second spring 8: Located inside the left end of the fixed telescopic bar 7 and the innermost side of the telescopic storage groove 15, it provides elasticity to keep the telescopic bar stable and assists in pushing the rubber pad 6. Telescopic rod 9: It is installed in the storage hole of the fixed telescopic strip 7, and has a third spring 10 and an auxiliary block at the end. The front end is inserted into the connection hole of the first fixed frame 2 to fix the two frames. The third spring 10: located at the end of the telescopic rod 9 and inside the storage hole of the fixed telescopic strip 7, provides elastic force to reset the telescopic rod, making it easy to insert into the connection hole for fixing; Locking groove 11: It is opened through both sides of the front end of the first fixed frame 2 and next to the guide groove 12, so that the locking slider 16 can slide through it and limit the offset of the clamping bar; Guide groove 12: Symmetrically opened on both sides of the front end of the first fixed frame 2, for the protrusion and the first spring 4 to slide in, and to guide the locking clip 3; Tangent platform 13: It is located at the center of the front end of the fixed telescopic strip 7 and is inclined, tangent to the back of the rubber pad 6. Pushing the rubber pad 6 adjusts the fit between it and the memory module body 1. Pad groove 14: Symmetrically opened on the back of the second fixed frame 5, for the rubber pad 6 to be installed and slid, providing assembly space for the pad; Telescopic storage slot 15: The second fixing frame 5 passes through both ends of the pad slot 14, providing space for the installation and sliding of the telescopic strip 7; Locking slider 16: Located between the two protrusions on the back of the locking clip 3, it slides through the locking groove 11 to restrict the movement direction of the clip and improve clamping stability.

[0027] Working principle: From the perspective of the overall installation foundation, the first fixed frame 2 serves as the core load-bearing frame, and its front interior is the key assembly area. Symmetrically distributed guide grooves 12 and through locking grooves 11 are provided on both sides, with the locking grooves 11 located on both sides of the guide grooves 12. These two grooves provide the track foundation for the subsequent sliding and positioning of the locking clips 3. Simultaneously, rotating holes are provided on both sides of the top front end of the first fixed frame 2 for rotatable connection with the second fixed frame 5. The bottom end is reserved for the placement of the memory module body 1 connection end, ensuring that the memory module can properly connect with the device. During the initial fixing stage of the memory module body 1, the symmetrically distributed locking clips 3 are slidably installed inside the front end of the first fixed frame 2, with protrusions on both sides of their back end embedded in the guides. Inside the slide groove 12, the first spring 4 on the back of the protrusion is also placed inside the guide slide groove 12, forming a sliding fit structure. When installing the memory module body 1, the locking clips 3 are pushed to both sides first. At this time, the protrusion slides in the guide slide groove 12 and compresses the first spring 4. After the memory module body 1 is placed between the two locking clips 3, the locking clips 3 are released, the first spring 4 releases its elastic force, and drives the protrusion and the locking clips 3 to reset, clamping the memory module body 1 from both sides. At the same time, the locking slider 16 on the back of the locking clip 3, located between the two protrusions, passes through the locking slide groove 11 and slides with the locking clip 3, further restricting the movement direction of the locking clip 3, ensuring the stability of the initial clamping, and completing the initial fixation of the memory module body 1 inside the front end of the first fixing frame 2. The fixed frame 5 is rotatably connected to the first fixed frame 2 via pivots at both ends of its top. It can rotate around the pivots to the front of the first fixed frame 2, providing secondary reinforcement to the memory module body 1. The back of the second fixed frame 5 has symmetrically distributed pad grooves 14. Rubber pads 6 are placed within the pad grooves 14 and can slide back and forth. When the second fixed frame 5 is closed by flipping, the front end of the rubber pad 6 can fit tightly against the memory module body 1, providing cushioning and anti-slip properties, preventing direct contact between the metal frame and the memory module, thus avoiding wear. Simultaneously, the pad grooves 14 have symmetrical telescopic storage slots 15 at both ends, with the right end penetrating the second fixed frame 5, providing space for the installation of the locking assembly. The locking assembly consists of a fixed telescopic bar 7, a second spring 8, a telescopic rod 9, and a... The three springs 10 are crucial for fixing the second fixed frame 5 to the first fixed frame 2 and adjusting the fit of the rubber pad 6. The fixed telescopic strip 7 is slidably installed inside the telescopic storage groove 15. The second spring 8 at its left end abuts against the innermost side of the telescopic storage groove 15, and the right end is distributed towards both ends of the second fixed frame 5. The inclined tangent platform 13 at the center of the front end of the fixed telescopic strip 7 is tangentially engaged with the back of the rubber pad 6. When the fixed telescopic strip 7 slides in the telescopic storage groove 15, the tangent platform 13 pushes the rubber pad 6 to move back and forth in the pad groove 14, thereby adjusting the tightness of the fit between the rubber pad 6 and the memory module body 1. A telescopic rod 9 is installed in the storage hole inside the right end of the fixed telescopic strip 7, and the third spring 10 at the end of the telescopic rod 9 is placed in the storage hole.Furthermore, the auxiliary block on the cylindrical surface of the telescopic rod 9 slides through the fixed telescopic strip 7 and the second fixed frame 5. The auxiliary block can restrict the movement direction of the telescopic rod 9 and facilitate manual adjustment of the position of the telescopic rod 9. When the second fixed frame 5 is flipped to fit against the first fixed frame 2, it needs to be fixed to the first fixed frame 2 by the telescopic rod 9. The front end of the first fixed frame 2 has symmetrical connecting holes on both sides corresponding to the telescopic rod 9. At this time, pulling the auxiliary block will cause the telescopic rod 9 to compress the third spring 10 and retract into the storage hole. After the second fixed frame 5 is completely closed, the auxiliary block is released, and the third spring 10 returns to its original position and pushes the telescopic rod. 9. The front end is inserted into the connecting hole to achieve a fixed connection between the second fixing frame 5 and the first fixing frame 2. During this process, the fixing telescopic strip 7 maintains a stable position under the elastic force of the second spring 8, ensuring that the tangent platform 13 continuously pushes the rubber pad 6 to tightly adhere to the memory module body 1. Combined with the clamping force of the locking clip 3 inside the first fixing frame 2, this forms an all-around fixation of the memory module body 1. Simultaneously, the metal first fixing frame 2 and the second fixing frame 5 constitute a reinforcing bracket, effectively resisting external forces from squeezing and bending the memory module body 1, preventing deformation of the memory module body 1, and ensuring its normal operation.

[0028] Although embodiments of the present invention have been shown and described, it will be understood by those skilled in the art that various changes, modifications, substitutions and alterations can be made to these embodiments without departing from the principles and spirit of the present invention, the scope of which is defined by the appended claims and their equivalents.

Claims

1. A deformation-resistant DDR5 memory stick with metal reinforced standoffs, characterized by, include: The memory module body (1), the first fixed frame (2) and the second fixed frame (5) are provided. The front end of the first fixed frame (2) is slidably fitted with symmetrically distributed locking clips (3). The back sides of the locking clips (3) are provided with first springs (4). The memory module body (1) is provided between the two locking clips (3). The memory module body (1) is located inside the front end of the first fixed frame (2). The second fixed frame (5) is set at the front end of the first fixed frame (2). The second fixed frame (5) is rotatably connected to the first fixed frame (2). The back of the second fixed frame (5) is provided with symmetrically distributed rubber pads (6). The front end of the rubber pads (6) is tightly attached to the memory module body (1). The locking assembly is located inside the back of the second fixed frame (5). The locking assembly consists of a fixed telescopic bar (7), a second spring (8), a telescopic rod (9), and a third spring (10). The front end of the fixed telescopic bar (7) is tightly attached to the back of the rubber pad (6). The right end of the fixed telescopic bar (7) is provided with a telescopic rod (9). The front end of the telescopic rod (9) passes through the end face of the first fixed frame (2) and is fixedly connected to it.

2. The anti-deformation DDR5 memory strip with metal reinforced support according to claim 1, wherein, The front end of the first fixed frame (2) has symmetrically distributed guide grooves (12) on both sides. The back of the locking clip (3) has symmetrically distributed protrusions. The back of the protrusions is provided with a first spring (4). The protrusions and the first spring (4) are located inside the guide grooves (12) and slide together.

3. The anti-deformation DDR5 memory strip with metal reinforced support according to claim 2, wherein, The first fixed frame (2) has through locking grooves (11) on both sides of the front end. The locking grooves (11) are located on both sides of the guide groove (12). The back of the locking clip (3) is provided with a locking slider (16). The locking slider (16) is located between two protrusions. The locking slider (16) passes through the locking groove (11) and slides.

4. A deformation-resistant DDR5 memory module with a metal reinforcement bracket according to claim 1, characterized in that, The first fixed frame (2) has rotating holes on both sides of the top front end, and the second fixed frame (5) has rotating shafts fixed at both ends of the top. The second fixed frame (5) is located at the front end of the first fixed frame (2), and the rotating shafts are inserted into the rotating holes for rotational engagement.

5. A deformation-resistant DDR5 memory module with a metal reinforcement bracket according to claim 1, characterized in that, The back of the second fixed frame (5) is provided with symmetrically distributed pad grooves (14), and the two ends of the pad grooves (14) are provided with symmetrical telescopic storage grooves (15), and the right end of the telescopic storage grooves (15) passes through both ends of the second fixed frame (5).

6. A deformation-resistant DDR5 memory module with a metal reinforcement bracket according to claim 5, characterized in that, The fixed telescopic strip (7) is slidably installed inside the telescopic storage groove (15), and a second spring (8) is provided inside the left end of the fixed telescopic strip (7). The second spring (8) is located on the innermost side of the telescopic storage groove (15), and the right end of the fixed telescopic strip (7) is distributed towards both ends of the second fixed frame (5).

7. A deformation-resistant DDR5 memory module with a metal reinforcement bracket according to claim 6, characterized in that, The rubber pad (6) is set inside the pad groove (14), and the rubber pad (6) can slide back and forth inside the pad groove (14). The front center of the fixed telescopic strip (7) is provided with an inclined tangent platform (13), and the tangent platform (13) is tangential to the back of the rubber pad (6).

8. A deformation-resistant DDR5 memory module with a metal reinforcement bracket according to claim 6, characterized in that, The right end of the fixed telescopic bar (7) has a storage hole, and a telescopic rod (9) is installed inside the storage hole. A third spring (10) is provided at the end of the telescopic rod (9). The third spring (10) is located inside the storage hole. An auxiliary block is provided on the cylindrical surface at the end of the telescopic rod (9), and the auxiliary block slides through the fixed telescopic bar (7) and the second fixed frame (5).

9. A deformation-resistant DDR5 memory module with a metal reinforcement bracket according to claim 1, characterized in that, The first fixed frame (2) has symmetrically distributed connecting holes on both sides of its front end. The front end of the telescopic rod (9) corresponds to the connecting hole, and the front end of the telescopic rod (9) is inserted into the connecting hole for fixed connection. The connecting end of the memory module body (1) is located at the bottom of the first fixed frame (2) and the second fixed frame (5).

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