56results about "Data processing centers" patented technology

The application discloses an underwater data center, which comprises a pressure cabin, an outer frame, a lifting structure, a pipeline structure, a server cabinet inside the pressure shell, an inspection lifting structure, a fixing and moving mechanism, and an internal state monitoring system; the pressure cabin is a closed structure formed by the pressure shell, and at least one pressure cabin entrance structure is arranged on the surface of the pressure cabin; the lifting structure comprises a hydraulic jacking oil cylinder and a lifting guide column; the server cabinet is arranged in an array in the pressure shell, and is fixed and moved by the fixing and moving mechanism at the upper end and the lower end for control. The application can realize efficient water-out and water-in actions by using the lifting mechanism; the application is suitable for high-stable underwater cooling of a large-volume high-density data center system; the pressure cabin entrance is provided, so that the inspection personnel can enter the pressure cabin for inspection without water-out, and the working efficiency and use efficiency are high; and the state monitoring system ensures high safety of the internal environment and timeliness of risk discovery.

The invention discloses an integrated seabed data center structure based on a negative pressure barrel foundation, the integrated seabed data center structure comprises a negative pressure barrel body, a data center cabin is integrally formed on the top surface of the negative pressure barrel body, and a circulating cooling pipe is arranged in the data center cabin. Large-scale construction of the submarine data center can be realized, structural parameters of the negative pressure barrel and the data center cabin can be adjusted according to construction requirements, and a plurality of data cabins can be mounted in the data center cabin, so that the whole data center cabin shares one negative pressure barrel foundation, and the construction cost of the submarine data center is reduced; the negative pressure barrel body and the data center cabin are prefabricated through concrete, compared with steel materials, the economical efficiency is better, the construction cost is reduced, meanwhile, seabed sinking installation of the data center cabin is achieved through the negative pressure principle, large piling equipment is not needed, and the installation speed is high.

The present invention discloses an underwater data center comprising a pressure-resistant cabin, an outer framework, a lifting mechanism, a pipeline system, internally disposed server cabinets, a maintenance elevator mechanism, a stationary and mobile mechanism, and an internal state monitoring system. The pressure-resistant cabin constitutes a sealed structure formed by the pressure-resistant enclosure, featuring at least one access on its surface. The lifting mechanism includes hydraulic jack and lifting guide post. Server cabinets are arrayed within the pressure-resistant enclosure and are secured and maneuvered using the stationary and mobile mechanism at both upper and lower ends. This innovation enables efficient surfacing and submerging operations, making it particularly adaptable for large-scale, high-density data center systems requiring stable underwater cooling. The cabin entrance facilitates inspections and repairs, thereby enhancing operational efficiency. The integrated monitoring system ensures superior environmental security through real-time status surveillance and prompt risk identification capabilities.

This invention describes the use of pre-packaged air shipping containers for delivery of edge data center equipment. The containers are capable of rapid deployment and positioning at the edge data center delivery site to minimize time between the order of equipment and deployment of a functioning edge data center. The containers allow for easy access, and rapid repair / replacement of modular edge data center equipment.

The invention discloses an emergency ventilation device of a communication machine room and the communication machine room, and relates to the technical field of emergency ventilation of machine rooms. The emergency ventilation device comprises a fan mechanism, a connecting mechanism and a sealing mechanism which are connected in sequence. The fan mechanism is arranged in the machine room, and the sealing mechanism is arranged outside the machine room. The connecting mechanism is used for driving the sealing mechanism to move in the direction away from the machine room until the sealing mechanism keeps a preset distance from the outer wall of the machine room under the condition that the emergency ventilation program is converted from the closed state to the starting state. And the driving mechanism is used for driving the sealing mechanism to move towards the machine room until the sealing mechanism is hermetically connected with the outer wall of the machine room under the condition that the emergency ventilation program is converted from the starting state to the closing state. And the fan mechanism is used for blowing air into or out of the machine room under the condition that the emergency ventilation program is converted into the starting state from the closing state. When the emergency ventilation device of the communication machine room is in a daily standby state, the requirements that the machine room needs to be sealed and fireproof and small animals are prevented from invading the machine room are met, and when the emergency ventilation device enters a working state, a large amount of outdoor fresh air can be rapidly and effectively introduced into the machine room, and emergency ventilation is achieved.

The present invention discloses a cabinet, a related UPS, and a data center. The cabinet is used to house electrical modules and includes a first cabinet body and a second cabinet body. The first cabinet body defines a first cavity for accommodating the electrical modules. The second cabinet body is adapted to be removably attached to and abut against the first cabinet body along a first direction, and is configured to coincide with the orthographic projection of the first cabinet body along the first direction after being attached to the first cabinet body. The cabinet of the present invention is adapted to accommodate the depth of conventional UPSs and data center UPSs, ensuring that each cabinet has a consistent depth dimension when the UPS is installed in the data center, resulting in a more attractive appearance.

A rack system for a data center includes: a plurality of racks configured to house electronic equipment therein, at least one rack column being formed by at least some of the racks being disposed above one another, each rack having a rack depth measured in a front-to-rear direction; and at least one supporting pedestal disposed below the at least one rack column in order to support the at least one rack column, the at least one supporting pedestal being configured to be positioned on a ground surface of the data center to distribute a load of the at least one rack column on the ground surface, each of the at least one supporting pedestal having a pedestal depth measured in the front-to-rear direction, the pedestal depth being greater than the rack depth, a ratio of the pedestal depth over the rack depth being between 1.2 and 2.5 inclusively.

The present invention proposes a factory-based assembly method for a pipe gallery and square cabin cluster, which belongs to the technical field of submarine data center construction. The method divides the production line into a pipe gallery prefabrication line and a square cabin docking assembly line. According to the process of the pipe gallery prefabrication line, steel bars are tied in a steel bar tying area, and then the area is moved to a pouring area for concrete pouring. After pouring is completed, the entire area is moved to a docking area. The square cabin docking assembly line installs internal servers, cooling systems and joints in the assembly area, and after assembly is completed, the assembled square cabin is moved to a docking area. Subsequently, the pipe gallery and the square cabin are docked in the docking area, and after docking is completed, the entire area is moved to an outfitting area for installation of ancillary facilities of the pipe gallery and square cabin. The method is used to solve the difficulties and problems in the assembly and manufacturing of submarine data centers, can effectively solve the problems of realizing the manufacturing and assembly of submarine data centers, and has promotion and application value for the construction of submarine data centers.

The invention provides a network security virtual laboratory structure and a use method thereof, and the structure comprises a first laboratory main body which is internally provided with an adjusting assembly. The adjusting assembly comprises a mounting plate, a first linear module, two first fixing plates, two first supporting frames, a sliding seat, a connecting frame, an adjusting rod, a first sliding block, a lead screw and a servo motor. The two first supporting frames are symmetrically and fixedly connected to the adjacent faces of the two first fixing plates. When the adjusting assembly adjusts the height of the first VR screen, the first linear module drives the sliding seat so as to adjust the height position of the first VR screen, when the angle of the first VR screen is adjusted, the servo motor drives the lead screw to rotate, the lead screw drives the first sliding block through the thread, and the first sliding block drives the first VR screen through the adjusting rod, so that the first VR screen is adjusted. And the angle position of the first VR screen can be adjusted.

A rack system for a data center includes: a plurality of racks configured to house electronic equipment therein, at least one rack column being formed by at least some of the racks being disposed above one another, each rack having a rack depth measured in a front-to-rear direction; and at least one supporting pedestal disposed below the at least one rack column in order to support the at least one rack column, the at least one supporting pedestal being configured to be positioned on a ground surface of the data center to distribute a load of the at least one rack column on the ground surface, each of the at least one supporting pedestal having a pedestal depth measured in the front-to-rear direction.

To provide an arrangement support method and an arrangement support system for efficiently constructing a data center and the data center constructed by them.SOLUTION: The total rated power of a plurality of kinds of servers installed on a floor is specified, the total weight of the servers installed on the floor is predicted according to the total rated power, and the total weight is distributed to the plurality of kinds of servers at a constitution ratio corresponding to the kinds and classified into a plurality of heavy high-density servers L11, and a plurality of light medium-density servers L12 and low-density servers L13. In a building, the positions of a plurality of beams b1 supporting a floor b2 are specified, a plurality of first servers is placed directly above the beams, and the plurality of medium-density servers L12 and the low-density servers L13 are placed between the plurality of high-density servers L11.SELECTED DRAWING: Figure 4

The present invention provides a data center and a pumped storage power station joint operation system and method, comprising an upper reservoir, a lower reservoir, a data center and a pumped storage power station; wherein an air conditioning system is installed inside the data center; the air conditioning system comprises a heat exchange station, a hybrid heat exchanger and an air conditioning terminal. It has the following advantages: 1. Energy saving and consumption reduction: utilizing natural low-temperature water sources, greatly reducing the power consumption of the data center cooling system. 2. Improving efficiency: through an efficient heat exchange system, significantly improving the cooling efficiency of the data center. 3. Reducing costs: reducing the use of electricity and the maintenance cost of air conditioning equipment, and reducing the operating cost of the data center. 4. Environmentally friendly: reducing power consumption, reducing carbon emissions, and being more environmentally friendly. 5. Reducing initial investment: utilizing natural cold sources, the data center saves the refrigeration and air conditioning system, reducing initial investment; the pumped storage power station provides UPS function for the data center, further reducing initial investment.

This invention provides a lightweight offshore step-up substation and big data center integrated platform. The lower part houses the big data center module, while the offshore substation functional area is located on the upper part of the platform. The first to third layers are functional layers for the big data center modules. Lifting rail areas are located at staggered positions on the outer edges of the first and second layers, with lifting rails installed within these areas. Power centers are located on both the first and second layers. The first layer includes a seawater lifting room, which, along with a cooling room, provides seawater cooling for the entire IDC and main transformer. The power center converts and stabilizes the stepped-down voltage from the upper step-up substation module, providing reliable power transmission to the big data center module. This invention proposes an integrated layout scheme for an offshore electrical platform and IDC, solving the difficulties of cabinet replacement and expansion during IDC operation and maintenance, reducing initial investment and subsequent operation and maintenance costs, and improving the economic benefits of both industries.

The present application relates to a kind of anti-fragment penetration assembled electronic signal shielding room, construction method, the shielding room includes: multiple wallboard modules, each is sequentially fixedly connected with ceramic composite impact layer, ribbed steel plate bearing layer, honeycomb buffer layer and first electromagnetic shielding layer from outside to inside, multiple wallboard modules head-to-tail butt joint;Top plate module is at least provided with second electromagnetic shielding layer, and top plate module is adaptively butted with the top of multiple wallboard modules;Bottom plate module is at least provided with third electromagnetic shielding layer, and bottom plate module is adaptively butted with the bottom of multiple wallboard modules;Hydraulic locking mechanism is arranged at the butt joint of adjacent wallboard module, wallboard module and top plate module and wallboard module and bottom plate module;Multiple wallboard modules and top plate module and bottom plate module cooperatively form closed shielding room.The present application realizes the coordination of anti-fragment penetration protection, electromagnetic shielding integrity and quick assembly construction, improves the structural reliability and shielding stability in high-risk environment.

The invention provides a Karman vortex street effect-based single pile foundation connected fan-shaped underwater data center system and a layout method, and belongs to the field of underwater data centers. The system comprises a single wind power pile foundation, and three rows of underwater data centers are arranged on a seabed at the downstream of the wind power pile foundation; a first water drainage data center, a second water drainage data center and a third water drainage data center are arranged from near to far from the wind power pile foundation. The first row of underwater data center is provided with two underwater data center modules, the second row of underwater data center is provided with four underwater data center modules, and the second row of underwater data center is provided with eight underwater data center modules. The single wind power pile foundation cooperates with the underwater data center arranged in the sector shape, electric energy generated by the wind generating set can supply power to the underwater data center nearby, and the heat dissipation efficiency of the underwater data center module is enhanced and marine organism attachment is inhibited by utilizing the Karman vortex street effect generated by the wind power pile foundation and the underwater data center module.

A multi-level data center building, a kit of parts and a method for constructing such a building is disclosed. The data center building may have a plurality of data levels, each comprising a ceiling structure formed from a plurality of chassis units supported above the floor by a plurality of support posts. Optionally, there are a plurality of cold aisle chassis units interleaved with a plurality of hot aisle chassis units, joined together in an alternating side by side arrangement. Optionally, wherein the ceiling structure of a first data level forms the floor of a second data level, and side joins between cold aisle chassis units and hot aisle chassis units of the ceiling structure of the first data level are positioned under and extends along at least a portion of the length of rack storage areas of the second data level.

The invention relates to a multi-separation supporting mechanism for a data center building, which belongs to the technical field of data center equipment integration and comprises a plurality of prefabricated functional modules and connecting structures. The functional module is divided into an upper layer pipe heald skid for bearing a pipeline system, a middle data cabinet skid for bearing a data cabinet and a lower layer heating and ventilation pipeline skid for bearing heating and ventilation equipment, which are stacked up and down; the upper-layer pipe heald skid and the middle data cabinet skid are mutually assembled and fixed through a connecting structure, and the middle data cabinet skid and the lower-layer heating and ventilation pipeline skid are mutually assembled and fixed through a connecting structure. The method has the effects of being capable of being flexibly spliced and combined according to actual requirements, reducing the field workload and shortening the time period.

Modular element (1) for structure (1) adapted for supporting a telecommunications station (100), said modular element comprising a first lower planar surface (2) and a second upper planar surface (3) opposite and parallel to said first planar surface (2), said modular element (1) further comprising a metal core (4) embedded, at least partly, in a cementitious structure (5), said metal core (4) further comprising a perimeter metal structure (6) having polygonal plan and a central metal structure (7) integrally constrained to said perimeter structure, said perimeter metal structure (6) comprising at least one connecting metal body (10) having longitudinal axis (X) orthogonal to said first planar surface and provided with a first plurality of through holes (11) each having axis (Y) orthogonal to said longitudinal axis (X) and adapted for allowing the removable connection of said modular element (1) to an additional modular element (1').

The invention relates to an assembly type electronic signal shielding room resistant to elastic piece penetration and a construction method, the shielding room comprises a plurality of wallboard modules, each wallboard module is fixedly connected with a ceramic composite impact layer, a ribbed steel plate bearing layer, a honeycomb buffer layer and a first electromagnetic shielding layer in sequence from outside to inside, and the multiple wallboard modules are in butt joint end to end; the top plate module is at least provided with a second electromagnetic shielding layer, and the top plate module is in adaptive butt joint with the tops of the plurality of wallboard modules; the bottom plate module is at least provided with a third electromagnetic shielding layer, and the bottom plate module is in adaptive butt joint with the bottoms of the plurality of wallboard modules; the hydraulic locking mechanisms are arranged at the joints of the adjacent wallboard modules, the joints of the wallboard modules and the top plate module and the joints of the wallboard modules and the bottom plate module; and the plurality of wallboard modules, the top plate module and the bottom plate module cooperate to form a closed shielding room. According to the invention, cooperative consideration of anti-elastic piece penetration protection, electromagnetic shielding integrity and rapid assembly type construction is realized, and the structural reliability and shielding stability in a high-risk environment are improved.

To provide a server layout design method, a server layout design system and a data center for efficiently constructing a data center.SOLUTION: The locations of girders b1 and beams b2 of the existing building are specified in a first layer 510 where servers are located. Layout candidates are specified including areas a11, a12, a15, a16 and a19 for placing servers by areas surrounded with the girders b1 and the beams b2 and, in a second layer 520 immediately above the first layer 510, areas a21, a22, a25, a26 and a29 for removing a floor immediately above the areas a11, a12, a15, a16, and a19. In the layout candidates, the layout of the data center is determined according to the weight of the servers placed in the server arrangement areas and the floor weight of the floor removal area.SELECTED DRAWING: Figure 5

The invention particularly relates to an assembly type machine room adopting renewable energy sources, and belongs to the technical field of assembly. The assembly type machine room adopting the renewable energy sources comprises a machine room body and a moving assembly. The top of the machine room body is provided with two guide groove parts in a spaced mode in the first direction, the length direction of the guide groove parts extends in the second direction, the first direction is perpendicular to the second direction, the opposite sides of the two guide groove parts are each provided with a concave part, and the concave parts penetrate through the guide groove parts in the second direction. The moving assembly comprises a bearing part, the bearing part is used for arranging the photovoltaic panel, the bearing part is arranged between the two guide groove parts, two guide wheels are rotationally arranged on the two sides, in the first direction, of the bearing part respectively, and the guide wheels are contained in the concave parts so that the bearing part can be movably connected to the guide groove parts. The photovoltaic panel can be used for supplying energy to the assembly type machine room, so that the assembly type machine room can use renewable energy sources, and the dependence on a fixed power supply is reduced.

The invention relates to the technical field of oil and gas exploitation, and discloses an oil and gas exploitation intelligent expansion shelter which comprises a fixed shelter body and two expansion shelter bodies, the two expansion shelter bodies are movably connected to the two sides of the fixed shelter body respectively, the inner sides of the expansion shelter bodies communicate with the fixed shelter body, and the outer side faces of the expansion shelter bodies extend in the circumferential direction to form a circle of sealing wall. A circle of sealing strip is arranged on the inner side of the sealing wall, a fixed cabin floor is laid on the bottom face of the fixed cabin body, an expansion cabin floor is fixedly connected to the inner side of the bottom face of the expansion cabin body, a folding floor is hinged between the expansion cabin floor and the fixed cabin floor, and a low-temperature-intolerant electrical element is installed on the inner wall of the outer side face of the expansion cabin body and located above the expansion cabin floor. The surface of the fixed cabin floor, the surface of the folding floor and the surface of the expansion cabin floor are all covered with electric heating plates, electrical elements which are not resistant to low temperature are preheated, all the electrical elements are located in a temperature area where normal work can be achieved, and at the moment, an expansion system is started to drive the expansion square cabin to be unfolded.

The application relates to the technical field of building installation engineering, and particularly discloses an anti-seismic base for a machine room, which is used for the anti-seismic of the machine room and comprises a lower supporting assembly, an upper supporting assembly, an adjusting assembly and a dehumidification assembly. The upper supporting assembly is slidably arranged on the upper end of the lower supporting assembly. The adjusting assembly is arranged between the lower supporting assembly and the upper supporting assembly. The dehumidification assembly is symmetrically arranged outside the lower supporting assembly. The lower supporting assembly is provided with a drainage pool and a plurality of first supporting rods and second supporting rods. The first supporting rods are movably connected with the second supporting rods through rubber balls. The upper supporting assembly is rollingly connected with the lower supporting assembly through the rollers at the ends of the third supporting rods. The adjusting assembly is provided with a driving part, a lifting part and a damping support. In the device, the multistage energy dissipation structure is arranged, so that the anti-seismic structure of the machine room is no longer single, the energy dissipation efficiency of the whole anti-seismic base is improved, the amplitude of the machine room is reduced, and the safety of the equipment inside the machine room is ensured.

This application describes the entryway to a remote or modular data center to provide access to data to rural customers or customers that do not have the advantage of large data centers nearby. The entryway to the remote data center must be equipped with safeguards to prevent the intrusion of dust, dirt and moisture from entering the data center storage facility. A two door system with a filtration system and other safeguards is anticipated that will limit the amount of contaminants that can enter the storage facility.

The invention relates to a computing centre module (151) having: a plurality of containers (102), each container (102) having a plurality of side walls (102s), which can be substantially fully opened (for example on three sides), with two fixed walls (102z) disposed therebehind at the two short end faces with standardised feed interfaces (412) for all media, and which contain at least one entry door (712t), the container (102) thus remaining unchanged. The computing centre module has a computing system (104) within the container (102), the computing system (104) having a plurality of processors (104p); has an enhanced failsafe power supply infrastructure (106) within the container (102) for supplying electrical energy to the computing system (104); the fail safety of the computing system (104) being pre-certified individually for the power supply infrastructure of each container (102) of the computing centre module (151) or the entire container (102).

The invention discloses a novel energy recovery module for laboratory building ventilation, and relates to the technical field of energy recovery, the novel energy recovery module comprises two end plates and a plurality of energy recovery core bodies mounted between the two end plates, each energy recovery core body comprises a shell with two sides provided with tube plates, the two tube plates respectively face the two end plates, the tube plates are provided with tube holes, and the tube holes are communicated with the shell. A heat exchange pipe is arranged in the shell, and the two ends of the heat exchange pipe are connected with the pipe holes in a sealed mode. The modular design is adopted, and the device can be directly assembled during use.

A cooling system includes a first circulation pipeline unit and a second circulation pipeline unit that are configured to circulate a cooling medium. The first circulation pipeline unit includes a first water supply pipe group and a first water return pipe group that are connected to each other. The second circulation pipeline unit includes a second water supply pipe group and a second water return pipe group that are connected to each other. A first end of the first water supply pipe group and a first end of the first water return pipe group each are provided with a first expansion interface.

The invention discloses a design and construction method for a data center with a trestle connected with a submarine pipe gallery, and is suitable for the technical field of submarine data center construction. The method comprises the steps of determining the structure of the data center; selecting a position selection principle of the data center; the trestle, the barrel type structure and the submarine pipe gallery meet the structural design requirement, and a structural arrangement scheme is determined; and constructing a trestle, a barrel-type structure and a submarine pipe gallery to finish the building of the data center. Through geology-structure-construction multi-dimensional collaborative innovation, the problems of stability, durability and economy of the seabed data center in a complex marine environment are solved, and a systematic solution is provided for deep and far sea data infrastructure construction.

A method for constructing a data center using an existing building includes identifying locations of beams in a first level of the existing building in which a server is placed; specifying layout options that include a server placement region that is surrounded by the beams and a floor removal region in a second level immediately above the first level, the floor removal region being directly above the server placement region; and determining, in the layout options, a layout of the data center in accordance with a weight of a server placed in the server placement region and a weight of a floor in the floor removal region.

A system may include a superstructure. The structure can include a first end and a second end opposite the first end. The superstructure can include a first level, the first level defined by a plurality of structural features in a first series of rows and columns, wherein the rows correspond to a lateral direction and the columns correspond to a longitudinal direction. The superstructure can include a second level, the second level defined by a plurality of structural features in a second series of rows and columns, the second level positioned vertically above the first level such that the second level is supported by the first level. The system may include a fire suppression system, a ventilation system, a safety corridor system, and a cable management system in the superstructure. The system may include one or more battery containers in the second level.