浸没式液冷服务器架构

Abstract

本申请公开了一种浸没式液冷服务器架构，涉及服务器检修技术领域，包括架构箱、移位机构、升降机构、夹取机构和旋转机构，架构箱的多个插槽沿架构箱的长度方向间隔设置；移位机构与架构箱的宽度方向的侧表面连接，移位机构的移位驱动部与升降机构驱动连接，升降机构具有升降驱动部；升降驱动部通过花键轴与夹取机构驱动连接，夹取机构的夹取端用于夹取位于插槽内的服务器本体；旋转机构的旋转驱动部与花键轴驱动连接；移位机构、升降机构、夹取机构、旋转机构协同作业。本申请至少解决了相关技术中在取出服务器时需要人工手动调整位置，进行服务器的吊取和取出操作的问题，大大提升了浸没式液冷服务器架构的自动化程度和服务器本体的检修效率。

Claims

1. An immersed liquid-cooled server architecture, comprising: include: Architecture box (1), the architecture box (1) has multiple slots (2), the multiple slots (2) are spaced apart along the length direction of the architecture box (1), and each slot (2) is used to insert the server body (3); A shifting mechanism (7) is connected to the side surface of the frame box (1) in the width direction, and the shifting mechanism (7) has a shifting drive unit; The lifting mechanism (12) is driven by the displacement driving unit to drive the lifting mechanism (12) to be movably arranged along the length direction of the frame box (1). The lifting mechanism (12) has a lifting driving unit. The clamping mechanism (11) is driven by the lifting drive unit through the spline shaft (10) to drive the clamping mechanism (11) to be vertically and vertically arranged. The clamping mechanism (11) has a clamping end for clamping the server body (3) located in the slot (2). The rotating mechanism (13) has a rotating drive unit, which is driven to the spline shaft (10) to drive the spline shaft (10) to rotate the clamping mechanism (11). The shifting mechanism (7), the lifting mechanism (12), the clamping mechanism (11), and the rotating mechanism (13) work together to lift the server body (3) away from the top of the architecture box (1).

2. The liquid submersion cooled server architecture of claim 1, wherein, The lifting mechanism (12) includes: Mounting frame (5), the displacement driving part is driven to the bottom of the mounting frame (5), the mounting frame (5) has a first accommodating space, and the lifting driving part is located in the first accommodating space; The lifting drive unit is driven to the first end of the spline shaft (10), and the second end of the spline shaft (10) passes through the first accommodating space and is connected to the clamping mechanism (11). The rotating mechanism (13) has an assembly frame (1302) connected to the top of the mounting frame (5), and the rotating drive unit is disposed on the assembly frame (1302).

3. The submerged liquid-cooled server architecture of claim 2, wherein, The lifting mechanism (12) also includes: A support plate (1201) is disposed in the first accommodating space. The first end of the support plate (1201) is connected to the side wall of the mounting frame (5), and the second end of the support plate (1201) extends in the horizontal direction. The second screw (1202) is rotatably disposed in the first accommodating space, and the first end of the second screw (1202) is connected to the bearing plate (1201), and the second end of the second screw (1202) is connected to the top wall of the first accommodating space; A slide rod (1205) is disposed in the first accommodating space and is arranged parallel to the second screw (1202). The first end of the slide rod (1205) is connected to the bearing plate (1201), and the second end of the slide rod (1205) is connected to the top wall of the first accommodating space. A lifting plate (1204) is threadedly connected to the second screw (1202) so that the lifting plate (1204) is slidably arranged relative to the second screw (1202). The lifting plate (1204) is slidably connected to the slide rod (1205), and the lifting plate (1204) is connected to the first end of the spline shaft (10). The second end of the spline shaft (10) extends out of the top of the mounting frame (5) and is connected to the clamping mechanism (11). The lifting plate (1204) is fixedly connected to a second bearing (1206), and the spline shaft (10) passes through the inner ring side of the second bearing (1206).

4. The submerged liquid-cooled server architecture of claim 3, wherein, The lifting mechanism (12) also includes: The second motor (1203) is disposed on the side of the support plate (1201) away from the second screw (1202), and the second drive end of the second motor (1203) is drivenly connected to the second screw (1202).

5. The immersion liquid-cooled server architecture according to claim 2, characterized in that, The shifting mechanism (7) includes: A frame (701) is connected to the side surface of the structure box (1) in the width direction, and the frame (701) has a second accommodating space; The shifting drive unit is disposed on the frame (701); The shift driving unit includes: A first screw (702) is rotatably disposed within the second accommodating space and extends along the length direction of the frame box (1); A guide rod (705) is disposed within the second accommodating space and is arranged parallel to the first screw (702); A shift block (704) is threadedly connected to the first screw (702) so that the shift block (704) is movably disposed relative to the first screw (702). One end of the shift block (704) away from the first screw (702) is connected to the mounting frame (5), and the shift block (704) is slidably connected to the guide rod (705).

6. The submerged liquid-cooled server architecture of claim 5, wherein, The shift driving unit further includes: A first motor (703) is mounted on the frame (701). The first drive end of the first motor (703) is driven to connect with the first screw (702) to drive the first screw (702) to rotate.

7. The submerged liquid-cooled server architecture of claim 1, wherein, The clamping mechanism (11) includes: Top plate (1101), the top plate (1101) is connected to one end of the spline shaft (10) away from the lifting mechanism (12); Two sets of fixing blocks are symmetrically arranged on the lower end face of the top plate (1101). Each set of fixing blocks includes two symmetrically arranged fixing blocks (1102). A guide post (1103) is provided between the two fixing blocks (1102) in the same set. Each guide post (1103) is slidably connected to a clamping plate (1104). Telescopic cylinder (1105) is located at the geometric center of the upper end face of the top plate (1101). The telescopic driving end of the telescopic cylinder (1105) passes through the top plate (1101) and is driven to connect with the connecting block (1106). Two connecting rods (1107) are provided. The first ends of the two connecting rods (1107) are pivotally connected to the connecting block (1106), and the second ends of the two connecting rods (1107) are pivotally connected to the two connecting blocks (1108), respectively. The two connecting blocks (1108) are connected to the two clamping plates (1104), respectively.

8. The immersion liquid-cooled server architecture according to claim 2, characterized in that, The top of the mounting frame (5) is provided with a first bearing (8), and a rotating tube (9) is fixedly connected to the inner side wall of the inner ring of the first bearing (8). The rotating tube (9) extends out of the top of the mounting frame (5) and into the first accommodating space. The rotating tube (9) is sleeved on the outer periphery of the spline shaft (10), and the spline shaft (10) and the rotating tube (9) are slidably connected. The rotating mechanism (13) includes: Worm gear (1301), the worm gear (1301) is sleeved on the outer periphery of the rotating tube (9); The rotary drive unit has a worm (1303) for meshing with the worm gear (1301), and the rotary drive unit also includes a third motor (1304), the third drive end of which is drivenly connected to the worm (1303).

9. The submerged liquid-cooled server architecture of any of claims 1-8, wherein, The immersion liquid-cooled server architecture also includes: The defoaming mechanism (14) has a defoaming part and a defoaming driving part. At least the defoaming part is located inside the architecture box (1) and on the side of the server body (3) to defoam the side of the server body (3). The defoaming driving part is located outside the architecture box (1) and is drivenly connected to the defoaming part to drive the defoaming part to be movably arranged at least along the width direction of the architecture box (1).

10. The immersion liquid-cooled server architecture according to claim 9, characterized in that, The defoaming section includes: Multiple reciprocating rods (1401) are arranged in parallel, and all of the multiple reciprocating rods (1401) are movably arranged along the width direction of the frame box (1); Multiple sets of mounting head groups, each set of mounting head groups corresponds one-to-one with multiple reciprocating rods (1401), each set of mounting head groups includes multiple mounting heads (1402), and the multiple mounting heads (1402) on the same reciprocating rod (1401) are spaced apart along the width direction of the frame box (1); Multiple sets of scraper blocks are provided, and each set of scraper blocks corresponds one-to-one with a set of mounting heads (1402). Each set of scraper blocks includes multiple scraper units. The multiple scraper units in the same set of scraper blocks correspond one-to-one with the multiple mounting heads (1402) in the corresponding set of mounting heads (1402). Each scraper unit includes two symmetrically arranged scraper blocks (1403). The two scraper blocks (1403) in the same scraper block (1403) unit are connected to the corresponding mounting heads (1402) at both ends of the length direction of the frame box (1). The defoaming drive unit includes: A horizontal plate (1404) is disposed outside the frame box (1) and drivenly connected to the plurality of reciprocating rods (1401); A fixed plate (1407) is connected to the outer surface of the frame box (1). The fixed plate (1407) extends horizontally. A swing rod (1409) is rotatably connected to the top of the fixed plate (1407). A fourth motor (1408) is provided at the bottom of the fixed plate (1407). The fourth drive end of the fourth motor (1408) passes through the fixed plate (1407) and is drivenly connected to the swing rod (1409). A connecting rod (1405) is provided, the first end of which is connected to the cross plate (1404), and the second end of which is pivotally connected to the swing rod (1409) via a rotating rod (1406).

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