Modular handle structure and electronic device

Abstract

This invention provides a modular handle structure, comprising a handle housing, a handle module, and a linkage module. The handle housing includes a handle shell. The handle module includes a handle base, a limiting member, and a handle. The limiting member protrudes from the handle base. The handle connects to the handle base. The linkage module includes a latch and a linkage element. The latch includes a latch portion protruding from the handle shell. The linkage element includes a pressing portion that contacts the latch. When the modular handle structure is mounted on a panel and assembled into a housing, the latch portion protrudes to correspond to a lock hole in the housing. When an external force is applied to the handle, the pressing portion presses against the latch, causing the latch portion to disengage from the lock hole, allowing the modular handle structure to separate the panel from the housing. Therefore, by mounting the modular handle structure on a panel, convenient installation and disassembly can be achieved.

Description

Technical Field

[0001] This invention relates to a handle structure and electronic device, and more particularly to a modular handle structure and electronic device. Prior Technology

[0002] With the development of technology, the public's demand for various electronic devices is constantly increasing. Therefore, electronic devices are equipped with a variety of electronic components to meet different needs. An electronic device may be a server, which may include a housing and a panel. The panel is equipped with a handle, which the user can hold to install or remove the panel from the housing. The panel can also be further secured to the housing using fasteners.

[0003] However, this method of using fasteners to fix the panel to the housing can easily cause inconvenience in installation and disassembly, and there is still room for improvement. Summary of the Invention

[0004] This invention provides a modular handle structure and electronic device, which, through structural design, facilitates easy installation and disassembly.

[0005] According to one embodiment of the present invention, a modular handle structure is provided, comprising a handle housing, a handle module, and a linkage module. The handle housing includes a handle shell, a handle latch, and a handle side hole. The handle shell has an accommodating space and includes a first surface and a second surface, the second surface being orthogonal to the first surface. The handle latch is formed on the first surface of the handle shell. The handle side hole is formed on the second surface of the handle shell. The handle module is coupled to the handle housing and includes a handle seat, a limiting member, and a handle. The handle seat is accommodated in the accommodating space. The limiting member protrudes from the handle seat. The handle passes through the handle side hole to connect to the handle seat, and the handle portion is exposed outside the handle housing. The linkage module includes a hook, a first elastic member, a linkage element, and a second elastic member. The hook is pivotally connected to the first surface and includes a hook portion protruding from the handle latch from the handle shell. The first elastic member abuts against the hook, and the first elastic member has a first elastic capacity that allows the hook to rotate in a first rotation direction. A linkage element is pivotally connected to the handle housing. The linkage element corresponds to a limiting member and includes a pressing portion that contacts the hook. A second elastic member abuts against the linkage element, and the second elastic member has a second elastic potential energy that causes the linkage element to rotate in a second rotation direction, the second elastic potential energy being greater than the first elastic potential energy. When the modular handle structure is disposed on a panel and assembled into a housing, the hook portion is in a locked position and protrudes from the handle's latch hole to correspond to a lock hole in the housing. When the handle is pulled out in a direction away from the housing by an external force, the limiting member moves away from the linkage element, the second elastic member drives the linkage element to rotate in the second rotation direction, the pressing portion presses against the hook, causing the hook portion to switch to an unlocked position and disengage from the lock hole, allowing the modular handle structure to separate the panel from the housing.

[0006] In this way, the modular handle structure can be combined with the panel and the housing through the configuration of the hook. Furthermore, through the cooperation of the limiting member, the pressing part, the hook and the handle, the limiting of the panel and the housing can be released at the same time when the handle is pulled, so as to facilitate installation and disassembly.

[0007] According to another embodiment of the present invention, an electronic device is provided, comprising a modular handle structure, a panel, and a housing. The modular handle structure includes a handle housing, a handle module, and a linkage module. The handle housing includes a handle shell, a handle latch, and a handle side hole. The handle shell has an accommodating space and includes a first surface and a second surface, the second surface being orthogonal to the first surface. The handle latch is formed on the first surface of the handle shell. The handle side hole is formed on the second surface of the handle shell. The handle module is coupled to the handle housing and includes a handle base, a limiting member, and a handle. The handle base is accommodated in the accommodating space. The limiting member protrudes from the handle base. The handle passes through the handle side hole to connect to the handle base, and a portion of the handle is exposed outside the handle housing. The linkage module includes a hook, a first elastic member, a linkage element, and a second elastic member. The hook is pivotally connected to the first surface and includes a hook portion protruding from the handle latch from the handle housing. A first elastic element abuts against the hook, and the first elastic element has a first elastic potential that causes the hook to rotate in a first rotational direction. A linkage element is pivotally connected to the handle housing, and the linkage element corresponds to the limiting element and includes a pressing portion that contacts the hook. A second elastic element abuts against the linkage element, and the second elastic element has a second elastic potential that causes the linkage element to rotate in a second rotational direction, the second elastic potential being greater than the first elastic potential. The panel is connected to the modular handle structure. The housing is detachably connected to the panel and includes a locking hole. When the panel is assembled on the housing, the hook portion is in a locked position and protrudes from the handle's locking hole to correspond to the locking hole; when the handle is pulled out in a direction away from the housing by an external force, the limiting element moves away from the linkage element, the second elastic element drives the linkage element to rotate in the second rotational direction, the pressing portion presses against the hook, causing the hook portion to switch to an unlocked position and disengage from the locking hole, allowing the modular handle structure to separate the panel from the housing.

[0008] In this way, the modular handle structure can be combined with the panel and the housing through the configuration of the hook. Furthermore, through the cooperation of the limiting member, the pressing part, the hook and the handle, the limiting of the panel and the housing can be released at the same time when the handle is pulled, so as to facilitate installation and disassembly. Simple Explanation of the Diagram

[0009] Figure 1 illustrates a perspective view of a modular handle structure according to a first embodiment of the present invention; Figure 2 shows an exploded view of the modular handle structure of the embodiment in Figure 1; Figure 3A illustrates a cross-sectional view of the modular handle structure of the embodiment in Figure 1 along section line 3-3; Figure 3B illustrates another cross-sectional view of the modular handle structure of the embodiment in Figure 1 along section line 3-3; Figure 4 illustrates a perspective view of an electronic device according to a second embodiment of the present invention; and Figure 5 illustrates a partial exploded view of the electronic device in the embodiment of Figure 4. Implementation

[0010] Please refer to Figures 1 and 2. Figure 1 shows a perspective view of a modular handle structure 10 according to a first embodiment of the present invention. Figure 2 shows an exploded view of the modular handle structure 10 of the embodiment in Figure 1. The modular handle structure 10 includes a handle housing 100, a handle module 200, and a linkage module 300. The handle housing 100 includes a handle shell 110, a handle latch hole 120, and a handle side hole 130. The handle shell 110 has an accommodating space (not shown) and includes a first surface 111 and a second surface 112, the second surface 112 being orthogonal to the first surface 111. The handle latch hole 120 is formed on the first surface 111 of the handle shell 110. The handle side hole 130 is formed on the second surface 112 of the handle shell 110. The handle module 200 is coupled to the handle housing 100 and includes a handle base 210, a limiting member 220, and a handle 230. Handle seat 210 is accommodated in the accommodating space. A limiting member 220 protrudes from handle seat 210. Handle 230 passes through handle side hole 130 to connect to handle seat 210, and a portion of handle 230 is exposed outside handle housing 100. Linkage module 300 includes a hook 310, a first elastic member 320, a linkage element 330, and a second elastic member 340. Hook 310 is pivotally connected to first surface 111 and includes a hook portion 312 that protrudes from handle latch hole 120 out of handle housing 110. First elastic member 320 abuts against hook 310, and the first elastic member 320 allows hook 310 to rotate in a first rotation direction D1 (shown in Figure 3A) with a first elastic capacity. The linkage element 330 is pivotally connected to the handle housing 110. The linkage element 330 corresponds to the limiting member 220 and includes a pressing portion 332 that contacts the hook 310. The second elastic member 340 abuts against the linkage element 330. The second elastic member 340 causes the linkage element 330 to rotate in a second rotation direction D2 (shown in Figure 3B) with a second elastic potential energy. The second elastic potential energy is greater than the first elastic potential energy.

[0011] When the modular handle structure 10 is disposed on a panel (such as panel 30 in Figure 4) and assembled on a housing (such as housing 40 in Figure 4), the latch 312 is in a locked position and protrudes from the handle latch hole 120 to correspond to a lock hole (such as lock hole 41 in Figure 4) of the housing; when the handle 230 is pulled out in a direction away from the housing by an external force, the limiting member 220 moves away from the linkage element 330, the second elastic member 340 drives the linkage element 330 to rotate in the second rotation direction D2, and the pressing part 332 presses against the pressing part 313, so that the latch 312 switches to an unlocked position and disengages from the lock hole, allowing the modular handle structure 10 to drive the panel to separate from the housing.

[0012] In this way, the modular handle structure 10 can combine the panel and the housing through the configuration of the hook 310, and through the cooperation of the limiting member 220, the pressing part 332, the hook 310 and the handle 230, the limiting of the panel and the housing can be released when the handle 230 is pulled, so as to facilitate installation and disassembly.

[0013] Specifically, the handle housing 110 further includes two side surfaces 113 and a bottom surface 114. The two side surfaces 113 are orthogonal to the first surface 111 and the second surface 112, and the bottom surface 114 is orthogonal to the second surface 112 and the two side surfaces 113 and parallel to the first surface 111. The two side surfaces 113, the first surface 111, and the bottom surface 114 can surround to form a housing opening (not shown) opposite the second surface 112. The handle module 200 can be inserted into the receiving space through the housing opening and coupled to the handle housing 100. The handle housing 100 may further include two mounting holes 140. The two mounting holes 140 are formed on the first surface 111 and are respectively located on both sides of the handle latch hole 120. The mounting holes 140 can be used to assemble with the handle module 200. In the first embodiment, the number of holes 140 can be four, and each hole 140 is an elongated elliptical opening. Two holes 140 are located on the first surface 111, and these two holes 140 are adjacent to the second surface 112 relative to the handle hole 120. The remaining two holes 140 are located on the bottom surface 114, relative to the two holes 140 located on the first surface 111. In other embodiments, the number and arrangement of the holes are not limited to this.

[0014] The handle housing 100 may further include a pivoting protrusion 150, which is disposed on the first surface 111. The modular handle structure 10 may further include a pin 400, which is inserted into the pivoting protrusion 150 and the linkage module 300. The number of pivoting protrusions 150 may be three, which are spaced apart on the first surface 111, and two of the pivoting protrusions 150 are located on both sides of the handle latch hole 120. The pivoting protrusion 150 protrudes toward the accommodating space and may include a pivoting hole (not shown). The pin 400 is inserted into the pivoting hole and the linkage module 300, and the linkage module 300 can rotate around the pin 400.

[0015] The hook 310 may further include a hook body 311 and a pressure receiving portion 313. The hook body 311 is pivotally connected to the pin 400. The hook portion 312 is disposed on the hook body 311 and adjacent to the first surface 111. The pressure receiving portion 313 is disposed on the hook body 311 and faces the second surface 112. The first elastic member 320 is inserted into the pin 400. The first elastic member 320 abuts between the hook 310 and the first surface 111, thereby allowing the hook 310 to rotate in the first rotation direction D1. The linkage element 330 may further include a linkage body 331. The linkage body 331 is pivotally connected to the pin 400. The pressing portion 332 is connected to one end of the linkage body 331 adjacent to the second surface 112 and is orthogonal to the linkage body 331, thus protruding toward and contacting the pressure receiving portion 313. The second elastic element 340 is inserted into the pin 400, and the second elastic element 340 abuts between the linkage element 330 and the first surface 111, so that the hook 310 can rotate in the second rotation direction D2.

[0016] The handle module 200 may further include two connecting posts 240, which protrude from the handle base 210 and respectively protrude into two mounting holes 140. Furthermore, the handle base 210 may include two handle mounting portions 211, a pivot groove 212, a step portion 213, and two spring arms 214. The two handle mounting portions 211 are respectively used to connect the two ends of the handle 230. The pivot groove 212 is recessed between the two handle mounting portions 211 and allows the hook 310 to protrude therein. The step portion 213 is located between one of the two handle mounting portions 211 and the pivot groove 212 and protrudes beyond the pivot groove 212. A limiting member 220 protrudes from the step portion 213. One end of each spring arm 214 is connected to each handle mounting portion 211, and the two spring arms 214 are respectively mounted on the two connecting posts 240.

[0017] The handle mounting portion 211 can be located on both sides of the handle latch hole 120. The pivot groove portion 212 and the step portion 213 are located between the two handle mounting portions 211 and are both recessed relative to the handle mounting portion 211. Therefore, a space corresponding to the pivot protrusion 150 can be formed above the pivot groove portion 212 and the step portion 213, so that the linkage module 300 can be installed therein. The latch 310 can correspond to the pivot groove portion 212, and the linkage element 330 can correspond to the step portion 213. The limiting member 220 protrudes from the step portion 213 and is closer to and in contact with the linkage element 330.

[0018] The number of spring arms 214 can be four, with two spring arms 214 disposed on the upper and lower sides of the left handle mounting portion 211, and the remaining two spring arms 214 disposed on the upper and lower sides of the right handle mounting portion 211. Each spring arm 214 may include an extension portion (not shown) and an arm portion (not shown), wherein the two extension portions extend from the handle mounting portion 211 toward the first surface 111, and the remaining two extension portions extend from the handle mounting portion 211 toward the bottom surface 114. The arm portion connects to the extension portions and extends toward the second surface 112, that is, the extension portions and the arm portions are orthogonal to each other and connected to form an L-shape. The arm portion is provided with a connecting post 240 disposed thereon. The spring arm 214 can be bent toward the handle mounting portion 211 to make it easier for the handle module 200 to be inserted into the handle housing 100.

[0019] The number of connecting posts 240 can match the number of setting holes 140, which is four. The four connecting posts 240 can be respectively protruded from the four spring arms 214 and respectively protruded into the four setting holes 140. Each connecting post 240 can be generally cylindrical, and the diameter of each connecting post 240 can be smaller than the length of each setting hole 140 and approximately equal to the width of each setting hole 140. When the handle module 200 is coupled to the handle housing 100, the four connecting posts 240 protrude into the four setting holes 140 respectively. The connecting posts 240 are limited by the setting holes 140, so that the handle module 200 does not detach from the handle housing 100. Since the length of the setting hole 140 is longer than the connecting post 240, the connecting post 240 can be allowed to move within the setting hole 140, and the handle module 200 can be moved along the length direction of the setting hole 140.

[0020] Further, as shown in Figures 1 and 2, each coupling post 240 may include a ramp (not shown) angled towards the handle 230. The height of the side of the coupling post 240 adjacent to the second surface 112 is less than the height of the side away from the second surface 112, and a ramp can be formed at the top of the coupling post 240. When the handle module 200 is coupled to the handle housing 100, the first surface 111 and the bottom surface 114 of the handle housing 110 can be slightly opened by the abutment of the ramp of the coupling post 240 until the coupling post 240 exactly corresponds to and protrudes into the mounting hole 140, and the first surface 111 and the bottom surface 114 of the handle housing 110 no longer deform due to the abutment of the coupling post 240. By providing the ramp, the handle module 200 can be more easily coupled to the handle housing 100.

[0021] The handle base 210 may further include two receiving grooves 215, which are respectively opened in the two handle mounting portions 211. The handle module 200 may further include two elastic bodies 250, which are respectively received in the two receiving grooves 215 and abut against the second surface 112. Specifically, the opening of the receiving groove 215 faces the second surface 112. When the user applies an external force to bring the handle base 210 closer to the second surface 112, the elastic bodies 250 are compressed and can accumulate a third elastic potential energy of each elastic body 250. At the same time, the connecting post 240 moves within the mounting hole 140 and is still limited by the mounting hole 140. When the user stops applying the external force, the handle base 210 moves away from the second surface 112 under the action of the third elastic potential energy, pushing the handle base 210 to move the connecting post 240 within the mounting hole 140 back to its original position. The connecting post 240 rests against the rear end of the mounting hole 140, and the handle module 200 does not detach from the handle housing 100.

[0022] The handle 230 may be U-shaped and include two free ends. The two free ends of the handle 230 may pass through the handle side hole 130 located in the central area of ​​the second surface 112 and be connected to the handle mounting part 211. An arc-shaped part of the handle 230 can be gripped by a user and applied with external force. The handle 230 is connected to the handle mounting part 211, and when the handle 230 is pulled, the handle seat 210 can be pulled at the same time.

[0023] Please refer to Figures 3A and 3B, and also to Figures 1 and 2. Figure 3A shows a cross-sectional view of the modular handle structure 10 of the embodiment in Figure 1 along the cut line 3-3. Figure 3B shows another cross-sectional view of the modular handle structure 10 of the embodiment in Figure 1 along the cut line 3-3. When the modular handle structure 10 is in the state shown in Figure 3A, the limiting member 220 limits the linkage element 330, the latch 310 rotates in the first rotation direction D1 under the influence of the first elastic member 320, the latch portion 312 protrudes from the handle latch hole 120, and the latch portion 312 is in the locked position; when the modular handle structure 10 is in the state shown in Figure 3B, the handle 230 is pulled out in a direction away from the second surface 112 by an external force, the limiting member 220 moves away from the linkage element 330 without blocking the linkage element 330, the linkage element 330 rotates in the second rotation direction D2 under the influence of the second elastic member 340, the pressing portion 332 is linked to the pressed portion 313, and the latch 310 rotates in the second rotation direction D2 as well, so the position is switched from the locked position to the unlocked position. It should be noted that when the modular handle structure 10 is in the state shown in Figure 3B, the hook 310 is simultaneously subjected to the first elastic potential energy and the second elastic potential energy. However, since the second elastic potential energy is greater than the first elastic potential energy, the hook 310 rotates in the second rotation direction D2.

[0024] Please refer to Figures 4 and 5. Figure 4 shows a perspective view of an electronic device according to a second embodiment of the present invention, and Figure 5 shows a partially exploded view of the electronic device of the embodiment in Figure 4. The electronic device (not shown) includes a modular handle structure 20, a panel 30, and a housing 40. The panel 30 houses the modular handle structure 20, and the housing 40 is connected to the panel 30 and includes a locking hole 41. A hook portion (not shown) of the modular handle structure 20 can correspond to and engage with the locking hole 41 of the housing 40. The modular handle structure 20 of the second embodiment is similar to the modular handle structure 10 of the first embodiment, and the number of modular handle structures 20 can be two, which can be respectively connected to two ends of the panel 30 by locking. Therefore, through the configuration of the modular handle structure 20, the hook can engage with the lock hole 41 to combine the panel 30 and the housing 40, and pulling the handle (not shown) can separate the panel 30 from the housing 40, thus providing convenience for assembly and disassembly.

[0025] Although the present invention has been disclosed above by way of embodiments, it is not intended to limit the present invention. Any person skilled in the art can make various modifications and refinements without departing from the spirit and scope of the present invention. Therefore, the scope of protection of the present invention shall be determined by the appended claims.

[0026] 10,20: Modular handle structure 100: Handle housing 110: Handle housing 111: First Page 112: Second page 113: Side view 114: Bottom surface 120: Handle clamp hole 130: Handle side hole 140: Setting hole 150: Pivot convex part 200: Handle Module 210: Handle base 211: Handle Setting Section 212: Pivot Groove 213:Step Department 214: Spinning arm 215: Receiving slot 220: Limiting component 230: Handle 240: Joint column 250: Elastomer 30: Panel 300: Interlocking Module 310: Hook 311: Hook body 312: Hook section 313: Pressure-bearing part 320: First elastic element 330: Linkage element 331: Linked bodies 332: Pressing part 340: Second elastic element 40: Chassis 400: Pin 41: Keyhole D1: First rotation direction D2: Second rotation direction

Claims

1. A modular handle structure, comprising: a handle housing, including: a handle shell having a receiving space and including a first surface and a second surface, the second surface being orthogonal to the first surface; a handle latch hole formed on the first surface of the handle shell; and a handle side hole formed on the second surface of the handle shell; a handle module coupled to the handle housing and including: a handle seat received in the receiving space; a limiting member protruding from the handle seat; and a handle passing through the handle side hole to connect to the handle seat, and the handle portion being exposed outside the handle housing; and a linkage module including: a hook pivotally connected to the first surface and including a hook portion, the hook portion protruding from the handle latch hole from the handle shell; and a first elastic member abutting against the hook, the first elastic member having a first elastic capacity to rotate the hook in a first rotation direction; A linkage element, pivotally connected to the handle housing, the linkage element corresponding to the limiting member and including a pressing portion contacting the latch; and a second elastic element abutting against the linkage element, the second elastic element causing the linkage element to rotate in a second rotational direction by a second elastic potential energy, the second elastic potential energy being greater than the first elastic potential energy; wherein... When the modular handle structure is installed on a panel and assembled into a housing, the hook portion is in a locked position and protrudes from the handle's latch hole to align with a lock hole in the housing. When the handle is pulled out by an external force in a direction away from the housing, the limiting member moves away from the linkage element, the second elastic member drives the linkage element to rotate in the second rotation direction, and the pressing portion presses against the hook, causing the hook portion to switch to an unlocked position and disengage from the lock hole, allowing the modular handle structure to separate the panel from the housing.

2. The modular handle structure as described in claim 1, wherein the handle housing further includes two mounting holes, the two mounting holes being opened on the first surface and respectively located on both sides of the handle latch hole, and the handle module further includes two connecting posts, the two connecting posts protruding from the handle base and respectively protruding into the two mounting holes.

3. The modular handle structure as described in claim 2, wherein the handle base includes two handle mounting portions, a pivot groove, a differential portion, and two spring arms; the two handle mounting portions are respectively used to connect the two ends of the handle; the pivot groove is recessed between the two handle mounting portions and allows the latch to protrude therein. The step portion is located between one of the two handlebar settings and the pivot groove and protrudes from the pivot groove. The limiting member protrudes from the step portion. One end of each of the two spring arms is connected to each of the two handlebar settings. The two spring arms are respectively provided with the two connecting posts.

4. The modular handle structure as described in claim 3, wherein each of the two connecting posts includes a ramp that is inclined toward the handle.

5. The modular handle structure as described in claim 3, wherein the handle base further includes two receiving slots, the two receiving slots being respectively opened in the two handle mounting portions, and the handle module further includes two elastic bodies, the two elastic bodies being respectively received in the two receiving slots and abutting against the second surface.

6. The modular handle structure as described in claim 1, wherein the handle housing further includes a pivoting protrusion disposed on the first surface, and the modular handle structure further includes a pin inserted into the pivoting protrusion and the linkage module.

7. An electronic device comprising: a modular handle structure comprising: a handle housing comprising: a handle shell having a receiving space and including a first surface and a second surface, the second surface being orthogonal to the first surface; a handle latch hole formed on the first surface of the handle shell; and a handle side hole formed on the second surface of the handle shell; a handle module coupled to the handle shell and comprising: a handle seat received in the receiving space; a limiting member protruding from the handle seat; and a handle passing through the handle side hole to connect to the handle seat, and the handle portion being exposed outside the handle shell; and a linkage module comprising: a hook pivotally connected to the first surface and including a hook portion, the hook portion protruding from the handle latch hole from the handle shell; and a first elastic member abutting against the hook, the first elastic member having a first elastic capacity to rotate the hook in a first rotation direction; A linkage element, pivotally connected to the handle housing, the linkage element corresponding to the limiting member and including a pressing portion contacting the latch; and a second elastic member abutting against the linkage element, the second elastic member causing the linkage element to rotate in a second rotational direction by a second elastic potential energy, the second elastic potential energy being greater than the first elastic potential energy; a panel connected to the modular handle structure; and a housing detachably connected to the panel and including a lock hole; wherein... When the panel is installed on the housing, the hook is in a locked position and protrudes from the handle latch hole to correspond to the lock hole; when the handle is pulled out in a direction away from the housing by an external force, the limiting member moves away from the linkage element, the second elastic member drives the linkage element to rotate in the second rotation direction, and the pressing part presses against the hook, so that the hook switches to an unlocked position and disengages from the lock hole, allowing the modular handle structure to separate the panel from the housing.

8. The electronic device as claimed in claim 7, wherein the handle housing further includes two mounting holes, the two mounting holes being opened on the first surface and respectively located on both sides of the handle latch hole, and the handle module further includes two connecting posts, the two connecting posts protruding from the handle base and respectively protruding into the two mounting holes.

9. The electronic device as claimed in claim 8, wherein the handle base includes two handle mounting portions, a pivot groove, a differential portion, and two spring arms, the two handle mounting portions being respectively used to connect the two ends of the handle, the pivot groove being recessed between the two handle mounting portions and allowing the latch to protrude therein. The step portion is located between one of the two handlebar settings and the pivot groove and protrudes from the pivot groove. The limiting member protrudes from the step portion. One end of each of the two spring arms is connected to each of the two handlebar settings. The two spring arms are respectively provided with the two connecting posts.

10. The electronic device as claimed in claim 9, wherein each of the two connecting posts includes a ramp that is angled toward the handle.

Images