Abstract: A server chassis includes a casing, a motherboard, a rotatable rack and an electronic device. The rotatable rack is axially disposed inside the casing and able to rotate with respect to the casing. The rotatable rack has a plurality of insertion spaces. The electronic device is provided on one side of the rotatable rack, and a cord passage is provided between the fan module and the electronic device. The storage devices accommodated in the rotatable rack is electrically connected to the motherboard via the cord passage, thereby increasing the quantity of the storage devices and decreasing the length of the casing.

Abstract: A hard drive rack includes a frame and a buckle arm. The frame includes a plurality of plates and at least one insertion opening. A buckle trough is formed on the plates at a side of the insertion opening. The plates include a bottom plate, a cover plate, and a supporting plate. The buckle arm is pivotally connected to a side of the frame and one end thereof is able to pivotally rotate through pivotally connecting to the frame. The other end of the buckle arm is formed with an elastic insertion plate which is selectively blocked by the buckle trough to be inserted into the insertion opening.

Abstract: A loading mechanism of a storage device for accommodating a hard drive has a loading body and a second supporting arm. The loading body includes a loading base, a first supporting arm extending from one end of the loading base, and an assembling part provided on the loading base. The second supporting arm is laterally and slidably connected to another end of the loading base, and is disposed correspondingly to the first supporting arm. One end of the second supporting arm includes a stand disposed on the loading base and a sliding member disposed on the stand. The sliding member has an elastic engaging part being able to detachably connect to the assembling part. Therefore, the goal of quickly replacing hard disk without using any screws can be achieved.

Abstract: A fixing member (100) of a rack server includes a chassis slide assembly (200), a main body (102), and a fixing column (110). The main body (102) is disposed on an end of the chassis slide assembly (200), one side of the main body (102) is connected to a first positioning element (104), and another side of the main body (102) is connected to a second positioning element (106). The second positioning element (106) is disposed corresponding to the first positioning element (104). The fixing column (110) is disposed on the main body (102) and one end thereof is fixed onto the chassis slide assembly (200). The main body (102) is able to rotate along the fixing column (110) as an axis. The first positioning element (104) and the second positioning element (106) have different shape. Therefore, the same chassis slide assembly (200) can match a different server rack.

Abstract: A storage device backplane with penetrating convection and a computer framework with the storage device backplane are disclosed. The storage device backplane includes an integration board, an operation board and a heat dissipation unit. The integration board has a first surface for electrically connecting the storage device group. The operation board is superposed on and electrically connected to a second surface of the integration board and is provided that the operation board includes an electronic heating active element (EHAE) and an airflow hole set around the EHAE. The heat dissipation unit includes a heat absorb portion and multiple fins set on the heat absorb portion. The heat absorb portion makes a thermal contact with the EHAE. The fins laterally extend to cover the airflow hole. Airflow passages are formed between the fins corresponding to the airflow hole.

Abstract: A server device has a case, a backplane board mounted inside the case, a plurality of data storage device replacement mechanisms inserted inside the case, a plurality of first data storage devices and a plurality of second data storage devices. The data storage device replacement mechanism includes a tray, a connector assembly and a circuit board. The connector assembly is disposed inside an accommodation space of the tray and includes a first connector and a second connector. The circuit board is installed inside a second arrangement area of the tray and electrically connected to the first connector, the second connector and the backplane board. The first data storage device is arranged inside a first arrangement area of the tray and electrically connected to the first connector. The second data storage device is arranged inside the second arrangement area of the tray and electrically connected to the second connector.

Abstract: A server system utilizing a backplane structure comprises first and second hard disk modules; a first backplane comprising a first wiring board comprising air vents and passive components and a second wiring board connected to a bottom portion of the first wiring board at a first angle and comprising first active components; and a second backplane comprising a third wiring board comprising second air vents and second passive components and a fourth wiring board connected to a bottom portion of the third wiring board at a second angle and comprising second active components thereon; wherein the first and second backplanes are disposed between the first and second hard disk modules; the first wiring board is directly corresponding to the first hard disk module; the third wiring board is directly corresponding to the second hard disk module; the first backplane is higher than the second backplane.

Abstract: A data storage connecting device includes a circuit board, a first connector, a second connector and a third connector. The circuit board has a first connecting end and a second connecting end. The first connector and a second connector are both disposed on the first connecting end and respectively at two sides of a long axis of the circuit board, a location of the second connector connecting with a data storage device being opposite to that of the first connector connecting with another data storage device. The third connector is disposed on the second connecting end for transmitting data from two data storage devices connected to the first connector and the second connector, respectively, via the circuit to a server device, or vice versa.

Abstract: A server for shortening development schedule is disclosed. A case has two tray receiving spaces. Each tray receiving space has a first opening and a second opening. Power sockets are disposed at the same position in the tray receiving spaces correspondingly. A storage unit includes a tray, a mother board and a storage component. The tray is inserted to the tray receiving space from the first opening and disposed extending to the opposite second opening. The storage unit is electrically connects with the power socket and fixed in the tray receiving space through a locking structure.

Abstract: A server system utilizing a backplane structure comprises first and second hard disk modules; a first backplane comprising a first wiring board comprising air vents and passive components and a second wiring board connected to a bottom portion of the first wiring board at a first angle and comprising first active components; and a second backplane comprising a third wiring board comprising second air vents and second passive components and a fourth wiring board connected to a bottom portion of the third wiring board at a second angle and comprising second active components thereon; wherein the first and second backplanes are disposed between the first and second hard disk modules; the first wiring board is directly corresponding to the first hard disk module; the third wiring board is directly corresponding to the second hard disk module; the first backplane is higher than the second backplane.

Abstract: A storage device backplane with penetrating convection and a computer framework with the storage device backplane are disclosed. The storage device backplane includes an integration board, an operation board and a heat dissipation unit. The integration board has a first surface for electrically connecting the storage device group. The operation board is superposed on and electrically connected to a second surface of the integration board and is provided that the operation board includes an electronic heating active element (EHAE) and an airflow hole set around the EHAE. The heat dissipation unit includes a heat absorb portion and multiple fins set on the heat absorb portion. The heat absorb portion makes a thermal contact with the EHAE. The fins laterally extend to cover the airflow hole. Airflow passages are formed between the fins corresponding to the airflow hole.

Abstract: A data storage connecting device includes a circuit board, a first connector, a second connector and a third connector. The circuit board has a first connecting end and a second connecting end. The first connector and a second connector are both disposed on the first connecting end and respectively at two sides of a long axis of the circuit board, a location of the second connector connecting with a data storage device being opposite to that of the first connector connecting with another data storage device. The third connector is disposed on the second connecting end for transmitting data from two data storage devices connected to the first connector and the second connector, respectively, via the circuit to a server device, or vice versa.

Abstract: A server structure with a swappable tray includes a chassis housing, two power supply devices and a plurality of motherboard trays, and the chassis housing has two parallel motherboard areas, and each motherboard area has a power slot formed at a rear section and a plurality of tray slots at a front section, and each power slot is formed at the same position of each motherboard area, and each power supply device is plugged into each respective power slot, and each motherboard tray is in the same shape and has a motherboard, and each motherboard tray has an opening and a storage unit set installed through the opening, and each motherboard tray can be swapped and plugged into any one of the tray slots. Therefore, the motherboard tray can be installed freely at any position according to the using requirement, so as to improve the overall functionality and convenience.

Abstract: A server for shortening development schedule is disclosed. A case has two tray receiving spaces. Each tray receiving space has a first opening and a second opening. Power sockets are disposed at the same position in the tray receiving spaces correspondingly. A storage unit includes a tray, a mother board and a storage component. The tray is inserted to the tray receiving space from the first opening and disposed extending to the opposite second opening. The storage unit is electrically connects with the power socket and fixed in the tray receiving space through a locking structure.

Abstract: A two-layer wind-guiding shroud includes a base. The interior of the base includes a first wind-guiding channel and a second wind-guiding channel longitudinally overlapped with each other. The first wind-guiding channel has a first wind entrance and a first wind exit. The second wind-guiding channel has a second wind entrance and a second wind exit. The first wind exit and the second wind exit are staggered. By this arrangement, the airflow generated by a fan can be guided into different wind-guiding channels toward different locations, thereby increasing the heat-dissipating efficiency of the fan.

Abstract: A system comprises a plurality of the hot swapping type uninterruptible power supply module and a plurality of conventional power supply. A HSUPS comprises a battery module and a controller module. A conventional power supplies is connected with an external AC power source and converts into DC voltage to provide power to the electronic system and/or to charge the HSUPS when necessary. The battery module holds the energy needed to power the electronic system during the absences of a conventional power supply and/or external AC power source. The controller module controls the operation to charge the battery, discharge the battery, switch off the HSUPS, or be standby. The controller module has the ability to detect for any failure event. The HSUPS provides power to the electronic system when the external AC power source is interrupted and when all of the conventional power supplies are removed from the system.

Abstract: A screw-less fixing assembly for an interface card having a fixing support includes a frame, a movable cover module and an elastic member. The frame has an I/O opening. One side of the I/O opening is provided with an accommodating space. A long plate of the fixing support is positioned to correspond to the I/O opening, and a short plate of the fixing support is received in the accommodating space. The movable cover module is mounted in the accommodating space. The elastic member has an elastic protrusion positioned to correspond to the short plate of the fixing support. The movable cover module is moved to drive the elastic protrusion to tightly fix the short plate of the fixing support to the frame. With this arrangement, the interface card can be rapidly detached from the frame or attached thereto without using screws.

Abstract: A heat-dissipating assembly for a server includes a housing in which a partitioning plate and a power supply mounted on one side of the partitioning plate are provided. The power supply includes a casing and a power-supplying module received in the casing. The heat-dissipating assembly includes a fan received in the casing and located outside the power-supplying module. The partitioning plate and the casing are respectively provided with a plurality of first heat-dissipating holes and second heat-dissipating holes. The first heat-dissipating holes and the second heat-dissipating holes are positioned to correspond to the fan. The airflow caused by the fan drives the air inside the housing to flow out of the housing via the first heat-dissipating holes and the second heat-dissipating holes. In this way, the heat-dissipating efficiency can be improved without affecting the arrangement of other electronic devices in the housing.

Abstract: A disposing structure of industrial computer chassis includes a chassis shell, two motherboard trays and a back plate. The interior of the chassis shell is divided into a storage unit section and a motherboard section. The interior of the storage unit section is arranged at least one storage unit, while two motherboard trays are disposed in the motherboard section. The interior of each motherboard tray is arranged a motherboard. In the motherboard trays, at least one motherboard tray is extended a wedge frame toward the storage unit section. A transfer card having a hot swapping function is arranged on the wedge frame and is arranged by inserting into the corresponding motherboard. In addition, a back plate is arranged between the storage unit section and the motherboard section. Corresponding to the wedge frame, a slot capable of a hot swapping function is arranged on the back plate. In so doing, the transfer card may be inserted into the slot, thereby, providing a hot swapping function.

Abstract: A server module includes a tray, a motherboard installed in the tray, and at least one storage device. The tray includes a port erected from a rear end of the tray, a roomage inwardly and concavely disposed on an edge of the motherboard and proximate to the port, and a socket disposed at an edge of the roomage and opposite to the port for connecting the insert roomage of the storage device, such that the storage device is disposed onto the roomage of the motherboard, and the motherboard can be used for expanding the storage device directly.