TWM642376U - Server device - Google Patents

Abstract

A server device includes a chassis, a first fan assembly, a front-drawing storage array, two side-drawing storage arrays, a power supply module and a motherboard module. The chassis includes a case body having an accommodating space, and a partition board separating the accommodating space into an upper layer area and a lower layer area stacked with each other. The side-drawing storage arrays are oppositely arranged in the lower area and connected to a front end of the case body. The first fan assembly is located in the lower area and connected to a rear end of the case body. The front-drawing storage array is located in the upper area and connected to the front end of the case body. The power module is located in the upper area and connected to the rear end of the case body. The motherboard module is located in the upper area, connected to the rear end of the case body, and electrically connected to the side-drawing storage array, the first fan assembly, the front-drawing storage array and the power supply module.

Description

server device

The invention relates to a server device, especially a server device with both front-drawing and side-drawing storage arrays.

With the increasing demand for cloud services, in order to provide better network services, server equipment inevitably needs to be equipped with more storage performance, so as to effectively improve the service quality of server equipment.

However, under the server specifications specified by the industry, the configuration space of the motherboard module and the storage drive is often limited, and it is impossible to effectively configure the two. At the same time, how to effectively provide heat dissipation for the storage drive is also faced challenge.

This shows that the above-mentioned technology obviously still has inconvenience and defective, and needs to be further improved. Therefore, how to effectively solve the above-mentioned inconveniences and defects is one of the current important research and development issues, and has become an urgent need for improvement in related fields.

This creation proposes a server device to solve the problems of the prior art.

According to an embodiment of the present invention, a server device includes a chassis, a first fan group, a front-drawing storage array, two side-drawing storage arrays, a power supply module and a motherboard module. The chassis has a box body and a partition board. The box body has an accommodating space, and the partition plate separates the accommodating space into an upper layer area and a lower layer area which are stacked with each other. The side-drawing storage arrays are arranged in the lower area opposite to each other and connected to one end of the box body. The first fan group is located in the lower area and connected to the other end of the cabinet. The front access storage array is located in the upper area and is connected to the end of the cabinet. The power module is located in the upper area and connected to the other end of the cabinet. The motherboard module is located in the upper area, connected to the other end of the box body, and electrically connected to these side-drawing storage arrays, the first fan group, the front-drawing storage array and the power supply module.

According to one or more embodiments of the present invention, in the above server device, the box body further includes a bottom plate, a cover plate, two long side plates and two openings. The two long side plates are located on two opposite side edges of the bottom plate and extend toward a same direction. The cover plate is opposite to the bottom plate, and is connected with the long side plate, so that the cover plate, the long side plate and the bottom plate jointly define the accommodating space. These openings are respectively formed on the long side plates, connecting two opposite sides of the bottom plate, and connecting with the accommodating space. The openings respectively expose the side-drawing storage arrays.

According to one or more embodiments of the present invention, in the above server device, the cabinet further includes two side doors and two fasteners. The two side doors are respectively pivotally connected to opposite side edges of the bottom plate for pivoting to cover the openings. These two fasteners are located on these side doors respectively. When one of the side doors covers the corresponding opening, one of the fasteners fixes the corresponding side door on the box body.

According to one or more embodiments of the present invention, in the above server device, each side-loading storage array includes a first frame, a plurality of first hard disk drives and a first circuit backplane. The first frame includes a plurality of first disk slots, and the first disk slots are arranged in an array. The first hard disk drives are respectively detachably located in the first disk slots. The first circuit backplane is electrically connected to the first hard disk drives.

According to one or more embodiments of the present invention, in the above server device, the cabinet further includes a middle retaining wall. The intermediate retaining wall is located in the lower area, between the first fan group and the side-drawing storage arrays. The middle retaining wall is fixedly connected with the first frames and the long side panels of the side drawer storage arrays. The said end of the box body has a front frame portion corresponding to the position of the lower layer area. The front frame part includes a closed surface and two air intake frames. The sealing surface is between the intake frames, and each side-drawing storage array is located between one of the intake frames and the middle retaining wall.

According to one or more embodiments of the present invention, in the above server device, a central corridor is separated between the first circuit backplanes of the side-drawing storage arrays. The two opposite ends of the central corridor are respectively connected with multiple ventilation openings aligned with the closed surface and the intermediate retaining wall to accommodate the wires of these side-drawn storage arrays.

According to one or more embodiments of the present invention, in the above server device, the first fan group includes a plurality of first fan devices. Each first fan device includes a first bracket, a first fan module and a handle. The first brackets of the first fan devices are arranged at the other end of the box body. The first fan module is pluggably located in the first bracket and electrically connected to the motherboard module. The pull handle is pivotally connected to the first fan module.

According to one or more embodiments of the present invention, in the above server device, the front access storage array includes a second frame, a plurality of second hard disk drives and a second circuit backplane. The second frame includes a plurality of second disk slots, and the second disk slots are arranged in an array. The second hard disk drives are respectively detachably located in the second disk slots. The second circuit backplane is electrically connected to the second hard disk drives.

According to one or more embodiments of the present invention, the above server device further includes a second fan group and a cable management slot. The second fan group is located in the upper area, between the motherboard module and the front-drawing storage array, and is electrically connected to the motherboard module. The wire management groove is formed between the second fan group and the front-drawing storage array, and is used for accommodating wires of the front-drawing storage array.

According to one or more embodiments of the present invention, in the above server device, the second fan group includes a second bracket and a plurality of second fan modules. The second bracket is fixed on the partition plate and is located between the mainboard module and the front-drawing storage array, and the second bracket includes a plurality of linearly arranged fan slots. Each second fan module is pluggably located in one of the fan slots, and is electrically connected to the motherboard module through the second bracket. Each second fan module includes a force applying portion for the corresponding second fan module to be pulled out of the corresponding fan slot.

Through the above-mentioned structure, the server device can not only have the existence of the motherboard module and the storage drive in the limited space, but also can configure the maximum number of storage drives in the limited space, and can effectively manage the storage. The driver provides proper cooling means.

The above description is only used to explain the problem to be solved by this creation, the technical means to solve the problem, and its effects, etc. The specific details of this creation will be introduced in detail in the following implementation methods and related drawings.

The following will disclose multiple implementations of this creation with diagrams. For the sake of clarity, many practical details will be described together in the following description. However, those skilled in the art should understand that in some implementations of the present invention, these practical details are not necessary, and thus should not be used to limit the present invention. In addition, for the sake of simplifying the drawings, some well-known structures and components will be shown in a simple and schematic manner in the drawings. For the convenience of readers, the dimensions of the components in the drawings are not drawn in actual scale.

Fig. 1 is a perspective view of a server device 10 according to an embodiment of the invention. FIG. 2 is a perspective view of the server device 10 in FIG. 1 viewed from another perspective. FIG. 3 is an exploded view of the server device 10 in FIG. 1 . As shown in FIGS. 1 to 3, the server device 10 includes a chassis 100, a first fan group 300, a front-drawing storage array 500, two side-drawing storage arrays 600, a motherboard module 700 and A power module 750 (Power Supply Unit, PSU). The chassis 100 has a box body 200 and a partition plate 210 . The box body 200 has an accommodating space 800 , a front end 201 and a rear end 202 . The front end 201 and the rear end 202 are opposite to each other, and the accommodating space 800 is located in the box body 200 between the front end 201 and the rear end 202 . The partition plate 210 is laid flat in the box body 200 , and partitions the accommodating space 800 into an upper layer area 810 and a lower layer area 820 stacked on each other. The side-drawing storage arrays 600 are disposed opposite to each other in the lower area 820 and connected to the front end 201 of the box body 200 . The first fan group 300 is located in the lower area 820 and connected to the rear end 202 of the cabinet 200 . The front-drawing storage array 500 is located in the upper area 810 and connected to the front end 201 of the box body 200 . The power module 750 is located in the upper area 810 and connected to the rear end 202 of the box body 200 . The motherboard module 700 is located in the upper area 810 , connected to the rear end 202 of the case 200 , and electrically connected to the side-drawing storage array 600 , the first fan group 300 , the front-drawing storage array 500 and the power supply module 750 .

In this way, when a user faces the front end 201 of the cabinet 200 of the server device 10, the user can operate the corresponding front-loading storage array 500 at the front end 201 of the cabinet 200, or the server device 10 can be removed from a cabinet ( (not shown in the figure) is pulled out, and the corresponding side-drawing storage array 600 can be operated from both sides of the chassis 100. Therefore, through the above structure, the server device 10 can not only have the existence of the motherboard module 700 and the storage drive in the limited space, but also can configure the maximum number of storage drives in the limited space, and can effectively Provide proper heat dissipation for storage drives.

Furthermore, the front end 201 of the box body 200 has a front frame portion 240 at a position corresponding to the lower area 820 . The rear end 202 of the case body 200 has a first slot 251 at a position corresponding to the lower area 820 , and the first fan group 300 is exposed outside the case 100 through the first slot 251 . The front end 201 of the box body 200 has a second slot 243 at a position corresponding to the upper area 810 , and the front-loading storage array 500 is exposed outside the chassis 100 through the second slot 243 . The rear end 202 of the box body 200 has a rear frame portion 250 at a position corresponding to the upper zone 810 .

More specifically, as shown in FIG. 3 , the box body 200 further includes a cover body 220 , a bottom plate 230 and two long side plates 260 . The two long side plates 260 are respectively adjacent to the two opposite side edges 231 of the bottom plate 230, and the two long side plates 260 all extend towards a same direction (such as the Z axis). 230 , so that the cover body 220 , the bottom plate 230 and the long side plate 260 jointly define the accommodating space 800 . Two opposite sides of the partition plate 210 are respectively fixed to the two long side plates 260 of the box body 200 . Each long side plate 260 further has an opening 261 . The opening 261 is connected to one side edge of the bottom plate 230 and connected to the accommodating space 800 . Each opening 261 is sufficient to expose one of the side-loading storage arrays 600 .

The box body 200 further includes two side doors 280 and two fasteners 281 . Each side door 280 is pivotally connected to the chassis 100 so as to be rotated to cover or expose the corresponding opening 261 . In this embodiment, each side door 280 is pivotally connected to the side edge 231 of the base plate 230, so that the side door 280 is turned downward to expose the corresponding side-drawn storage array 600 (FIG. 1 ), or the side door 280 is turned upward to expose Cover opening 261 (FIG. 2). Each fastener 281 is located on one side of the door 280 . When the side door 280 covers the corresponding opening 261, the fastener 281 will fasten the corresponding side door 280 on a non-movable structure (such as the long side plate 260 or the bottom plate 230) of the box body 200 (Fig. Flip down and expose the side access storage array 600 . In this embodiment, the fastener 281 is, for example, a resilient plunger, however, the present invention is not limited thereto.

More specifically, FIG. 4A is a top view of the lower layer area 820 of the chassis 100 of the server device 10 in FIG. 1 . As shown in FIG. 3 and FIG. 4A , each side-loading storage array 600 includes a first frame 610 , a first circuit backplane 630 and a plurality of first hard disk drives 640 . The first frame 610 is locked on the case body 200, and the first frame 610 includes a plurality of first disk slots 620, and the first disk slots 620 are arranged in an array. The first hard disk drives 640 are respectively detachably located in the first disk slots 620 . The first circuit backplane 630 is fixed on a side of the first frame 610 facing away from the opening 261 , and the first circuit backplane 630 is electrically connected to the motherboard module 700 . For example, a plurality of connection ports 631 are distributed on the first circuit backplane 630, and the connection terminal 641 of each first hard disk drive 640 is used to plug into one of the connection ports 631 of the first circuit backplane 630, and through The first circuit backplane 630 is electrically connected to the motherboard module 700 .

In this way, as shown in FIG. 1 and FIG. 3 , any first hard disk drive 640 of the side-loading storage array 600 can be pulled out of the corresponding first disk slot 620 from the corresponding opening 261 . In this way, the user can open one side door 280 and replace or repair the first hard disk drive 640 through the opening 261 . For example, the first hard disk drive 640 includes a 2.5-inch or 3.5-inch hard disk, however, the present invention is not limited thereto.

As shown in FIG. 3 and FIG. 4A , the box body 200 further includes a middle retaining wall 270 . The intermediate retaining wall 270 is located in the lower area 820 , and the intermediate retaining wall 270 is interposed between the first fan group 300 and the first frames 610 . Two opposite ends of the middle retaining wall 270 are respectively fixedly connected to the long side panels 260 of the box body 200 , and one side of the middle retaining wall 270 is fixedly connected to the first frames 610 . In this way, the side-drawing storage array 600 can be more stably located in the box body 200 .

In addition, a central corridor 830 is separated between the first circuit backplanes 630 of the side-drawing storage arrays 600 . More specifically, the central corridor 830 is located between the intermediate retaining wall 270 and the front frame portion 240 , and is jointly defined by the bottom plate 230 , the partition plate 210 and the first circuit backplanes 630 . The central corridor 830 is used for accommodating the cables (not shown) connecting the side-loading storage arrays 600 to the motherboard module 700 . In this embodiment, the long-axis direction (such as the X-axis) of the central corridor 830 and the long-axis direction (such as the Y-axis) of the intermediate retaining wall 270 are orthogonal to each other, however, the present invention is not limited thereto.

As shown in FIG. 3 and FIG. 4A , the front frame portion 240 includes a closed surface 241 and two air intake frames 242 . The closed surface 241 is located between the air intake frames 242 , each side pumping storage array 600 connects one of the air intake frames 242 and the intermediate retaining wall 270 , and the central corridor 830 connects the enclosed surface 241 and the intermediate retaining wall 270 .

FIG. 4B is a schematic diagram of the operation of the lower layer area 820 of the box body 200 in FIG. 4A. As shown in Fig. 4A and Fig. 4B, when the first fan group 300 is activated to draw air outward, since the closed surface 241 is facing the central corridor 830, the airflow A driven by the first fan group 300 enters from each Frame 242 enters into the corresponding side-drawing storage array 600, so that part A1 of the above-mentioned airflow A reaches the first fan group 300 through all the first hard disk drives 640, and the other part A2 of the above-mentioned airflow A is from each first disk The slots 620 enter the central corridor 830 and gather together in the central corridor 830 , and then reach the first fan group 300 from the air vent 271 of the intermediate retaining wall 270 in a straight line. Since the side door 280 covers the corresponding opening 261, the airflow A will not overflow from the openings 261 (FIG. 1 ) on both sides of the chassis 100 when it reaches the first fan group 300 from the intake frame 242 . In this way, a more effective heat dissipation method is provided for the first hard disk drives 640 of the side-loading storage arrays 600 .

More specifically, as shown in FIG. 3 and FIG. 4A , the first fan set 300 includes a plurality of first fan devices 310 . Each first fan device 310 includes a first bracket 311 , a first fan module 312 and a handle 313 . The first brackets 311 of the first fan devices 310 are arranged in the first slot 251 of the casing 200 , and are exposed outside the casing 100 through the first slot 251 . The first fan modules 312 are linearly arranged sequentially, and the arrangement direction (such as the Y axis) of the first fan modules 312 is parallel to the extraction direction (such as the Y axis) of the first hard disk drive 640 . The first fan module 312 is pluggably located in the first bracket 311 and electrically connected to the motherboard module 700 . More specifically, the first fan module 312 is hot-swappably connected to the motherboard module 700 . The handle 313 is pivotally connected to the first fan module 312 , which is convenient for the user to manually install the first fan module 312 in the corresponding first bracket 311 or manually disassemble it from the first bracket 311 . For example, the first fan module 312 is a dual-rotor fan to enhance air flow guidance and improve overall cooling effect during operation.

In this way, when the user wants to repair or replace any one of the first fan modules 312, the user only needs to go around to the rear end 202 of the cabinet 200 of the server device 10 (see FIG. 2 ), and then quickly pass through the handle 313 To remove the corresponding first fan module 312, it is not necessary to pull out the entire server device 10, thereby reducing the risk of harming the user.

FIG. 5 is a top view of the upper layer area 810 of the chassis 100 of the server device 10 in FIG. 1 . More specifically, as shown in FIG. 3 and FIG. 5 , the front access storage array 500 includes a second frame 510 , a second circuit backplane 520 and a plurality of second hard disk drives 530 . The second frame 510 is locked in the second slot 243 of the box body 200 (FIG. 3). The second frame 510 includes a plurality of second disk slots 511 , and the second disk slots 511 are arranged in an array. The second hard disk drives 530 are respectively detachably located in the second disk slots 511 . The second circuit backboard 520 is located in the upper area 810 and fixed on a side of the second frame 510 facing away from the front end 201 of the box body 200 . The second circuit backplane 520 is electrically connected to the motherboard module 700 . For example, a plurality of connection ports 521 are distributed on the second circuit backplane 520, and the connection terminal 531 of each second hard disk drive 530 is used to plug into one of the connection ports 521 of the second circuit backplane 520, and through The second circuit backplane 520 is electrically connected to the motherboard module 700 . For example, the second hard disk drive 530 includes a 2.5-inch or 3.5-inch hard disk, however, the present invention is not limited thereto.

In this way, the user can pull any second hard disk drive 530 of the front-loading storage array 500 out of the corresponding second disk slot 511 at the front of the chassis 100 to replace or repair the second hard disk drive 530 . The extraction direction (such as the X-axis) of the second hard disk drive 530 of the front-access storage array 500 and the extraction direction (such as the Y-axis) of the first hard disk drive 640 of each side-access storage array 600 are orthogonal to each other.

The motherboard module 700 includes a motherboard 710 and a plurality of electronic components 720 . The motherboard 710 is located in the upper area 810 , placed on the partition board 210 , and connected to the rear frame portion 250 . The electronic components 720 are arranged on the main board 710 and are electrically connected to each other through the main board 710 . The electronic component 720 is, for example, a central processing unit, a graphics processing unit, a memory device, a network interface card, and the like. The motherboard module 700 further includes an input-output module 730 , the input-output module 730 is electrically connected to the motherboard 710 and is exposed from the rear frame portion 250 .

In this embodiment, the server device 10 further includes a rear hard disk device 740. The rear hard disk device 740 is located in the upper zone 810, disposed on the partition plate 210, and interposed between the motherboard module 700 and the power module 750. between, and the rear hard disk device 740 is electrically connected to the motherboard module 700 . However, the present invention is not limited to the configuration positions of the motherboard module 700, the rear hard disk device 740 and the power module 750. And the difference in quantity is arranged accordingly.

In this embodiment, the server device 10 further includes a second fan group 400 . The second fan group 400 is located in the upper area 810 , between the motherboard module 700 and the front-loading storage array 500 , and is electrically connected to the motherboard module 700 . A cable management slot 840 is separated between the second fan group 400 and the front-drawing storage array 500 , and the cable management slot 840 is used for accommodating wires (not shown in the figure) of the front-drawing storage array 500 .

Therefore, when the second fan group 400 is activated to blow air toward the rear frame 250 of the case body 200, the airflow driven by the second fan group 400 enters the front-drawing storage array 500, and passes the heat energy of the second hard disk drive 530 through The cable management groove 840 sends into the second fan group 400 , and the second fan group 400 sends the heat energy of the motherboard module 700 out of the chassis 100 from the rear frame part 250 . In this way, the second fan group 400 can simultaneously provide a more effective cooling method for the second hard disk drives 530 of the front-drawing storage array 500 and the motherboard module 700 .

Furthermore, the second fan group 400 includes a second bracket 410 and a plurality of second fan modules 430 . The second bracket 410 is fixed on the partition plate 210 and is located between the motherboard module 700 and the front-loading storage array 500 , and the second bracket 410 includes a plurality of fan slots 420 arranged linearly. The fan slots 420 are arranged along the extraction direction (such as the Y axis) of the first hard disk drive 640 . Each second fan module 430 is pluggably located in one of the fan slots 420 , and is electrically connected to the motherboard module 700 through the second bracket 410 . More specifically, the second fan module 430 is hot-swappably connected to the motherboard module 700 . Each second fan module 430 includes a force application portion 431, and the force application portion 431 is located on the side of the second fan module 430 facing the cover, so that the user can grasp the force application portion 431, so that the second fan module Group 430 is drawn out of fan slot 420 upwards. In this embodiment, the server device 10 further includes a tool-free detachable air duct (ARIDUCT, not shown in the figure) design, so that the airflow of the second fan set 400 can pass through the motherboard module 700 more concentratedly.

In addition, as shown in FIG. 3 , FIG. 4B and FIG. 5 , the heat dissipation mechanisms of the upper zone 810 and the lower zone 820 are independent air intake and outlet, separated by the partition plate 210 , and the heat dissipation airflow does not interfere with each other. More specifically, the airflow in the upper zone 810 flows in a straight-through manner, passing through the second slot 243 , the front-drawing storage array 500 , the second fan group 400 , the mainboard module 700 , and finally exhausted from the rear frame 250 On the other hand, the airflow in the lower area 820 passes through the air intake frame 242 and the side-drawn storage array 600 in sequence, and after converging in the central corridor 830, it is guided by the first fan group 300 to be discharged in the first slot 251 Outside the box 200.

It should be noted that, in this embodiment, the chassis 100 is a rack of at least 4U, that is, the height of the space of the chassis 100 is 4 unit heights, however, this invention does not limit the size of the server, such as 2U, 3U and other heights can adopt the technical solutions provided above in this creation.

Finally, the embodiments disclosed above are not intended to limit this creation. Anyone who is familiar with this technique can make various changes and modifications without departing from the spirit and scope of this creation, and all of them can be protected in this creation. creation. Therefore, the scope of protection of this creation should be defined by the scope of the attached patent application.

10: Server device 100: Chassis 200: cabinet 201: front end 202: Backend 210: Partition board 220: cover body 230: Bottom plate 231: side edge 240: front frame 241: closed surface 242: Air intake frame 243: Second slot 250: Rear frame 251: The first slot 260: long side panel 261: opening 270: middle retaining wall 271: ventilation port 280: side door 281: Fasteners 300: The first fan group 310: The first fan device 311: The first bracket 312: The first fan module 313: pull handle 400: Second fan group 410: second bracket 420: fan slot 430: Second fan module 431: force department 500: front access storage array 510: second frame 511: Second disk slot 520: second circuit backplane 521: port 530: Second hard drive 531: Connecting terminal 600:Side-drawn storage array 610: First frame 620: The first disk slot 630: The first circuit backplane 631: port 640: First hard drive 641: Connecting terminal 700: Motherboard module 710: Motherboard 720: Electronic components 730: Input and output module 740: rear hard disk device 750: Power module 800:Accommodating space 810: upper area 820: lower area 830: Central Corridor 840: cable management slot A: Airflow A1: part of the airflow A2: Another part of the airflow X, Y, Z: axes

In order to make the above-mentioned and other purposes, features, advantages and embodiments of this creation more obvious and easy to understand, the description of the accompanying drawings is as follows: Fig. 1 is a perspective view of a server device according to an embodiment of the invention. Fig. 2 is a perspective view of the server device in Fig. 1 viewed from another angle. Fig. 3 is an exploded view of the server device in Fig. 1. FIG. 4A is a top view of the lower layer of the chassis of the server device in FIG. 1 . FIG. 4B is a schematic diagram of the operation of the lower layer of the cabinet in FIG. 4A. Fig. 5 is a top view of the upper layer area of the chassis of the server device in Fig. 1.

10: Server device

100: Chassis

200: cabinet

201: front end

202: Backend

220: cover body

230: Bottom plate

240: front frame

260: long side panel

261: opening

280: side door

281: Fasteners

300: The first fan group

500: front access storage array

511: Second disk slot

530: Second hard drive

531: Connecting terminal

620: The first disk slot

640: First hard drive

641: Connecting terminal

800:Accommodating space

810: upper area

820: lower area

X, Y, Z: axes

Claims (10)

A server device, comprising: a chassis with a box body and a partition plate, the box body has an accommodating space, and the partition plate separates the accommodating space into an upper layer area and a lower layer layered on each other area; two side-drawing storage arrays are disposed opposite to each other in the lower area and connected to one end of the box; a first fan group is located in the lower area and connected to the other end of the box; a front A pumping storage array is located in the upper area and connected to the end of the box; a power supply module is located in the upper area and connected to the other end of the box; and a motherboard module is located in the In the upper area, connect the other end of the cabinet and electrically connect the side-drawing storage arrays, the first fan group, the front-drawing storage array and the power supply module. The server device as described in claim 1, wherein the box body includes: a bottom plate; two long side plates, located at two opposite side edges of the bottom plate, and extending in the same direction; a cover plate, opposite to the bottom plate, and connected to the Some long side plates, so that the cover plate, the long side plates and the bottom plate jointly define the accommodating space; and two openings are respectively formed on the long side plates, connecting the two of the bottom plate The opposite side is connected to the accommodating space, wherein the openings respectively expose the side-drawing storage arrays. The server device as described in claim 2, wherein the box body further comprises: two side doors, respectively pivotally connected to the two opposite side edges of the bottom plate, for pivoting to cover the openings; and two fasteners, respectively Located on the side doors, when one of the side doors covers one of the openings, one of the fasteners will fix the corresponding side door on the box body. The server device as described in claim 2, wherein each of the side-loading storage arrays includes: a first frame, including a plurality of first disk slots, and the first disk slots are based on an array method Arrangement; a plurality of first hard disk drives respectively detachably located in the first disk slots; and a first circuit backplane electrically connected to the first hard disk drives. The server device as described in claim 4, wherein the cabinet further includes: a middle retaining wall, located in the lower area, between the first fan group and the side-drawing storage arrays, and the middle The retaining wall is fixedly connected to the first frames and the long side panels of the side drawer storage arrays, Wherein the end of the box body has a front frame part corresponding to the position of the lower floor area, the front frame part includes a closed surface and two air intake frames, the closed surface is between the air intake frames, and the side drawers Each of the storage arrays is located between one of the air intake frames and the intermediate retaining wall. The server device as described in claim 5, wherein a central corridor is separated between the first circuit backplanes of the side-drawing storage arrays, and the two opposite ends of the central corridor are respectively connected to the closed surface And a plurality of ventilation openings in the middle retaining wall are used to accommodate the wires of the side-drawing storage arrays. The server device as described in claim 1, wherein the first fan group includes a plurality of first fan devices, and each of the first fan devices includes: a first bracket, wherein one of the first fan devices The first brackets are arranged side by side at the other end of the box body; a first fan module is pluggably located in the first bracket and electrically connected to the motherboard module; and a pull handle is pivotally connected to on the first fan module. The server device as described in claim 1 or 7, wherein the front-loading storage array includes: a second frame, including a plurality of second disk slots, and the second disk slots are arranged in an array; a second hard drive, each removably located on the second and a second circuit backplane electrically connected to the second hard disk drives. The server device as described in claim 1 or 7, further comprising: a second fan group, located in the upper zone, between the motherboard module and the front-loading storage array, and electrically connected to the host a board module; and a cable management trough formed between the second fan group and the front-drawing storage array for accommodating the wires of the front-drawing storage array. The server device as described in claim 9, wherein the second fan group includes: a second bracket, fixed on the partition plate, between the motherboard module and the front-drawing storage array, and the The second bracket includes a plurality of linearly arranged fan slots; and a plurality of second fan modules, each of the second fan modules is pluggably located in one of the fan slots, and passes through the first fan modules The two brackets are electrically connected to the motherboard module, wherein each of the second fan modules includes a force application part, and the force application part is used for the corresponding second fan module to be drawn out of the corresponding fan slot.

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