RU2598355C2 - Modular data processing centre - Google Patents

Abstract

FIELD: information technology.

SUBSTANCE: invention relates to the field of software and hardware systems and is intended for fast deployment of infrastructure of data processing centre (DPC). This is achieved by the fact that the modular data center includes an airlock entry module, modules such as server, main distribution, power and diesel-generator, made in the format of cargo prefabricated containers and connected to each other in functionally-distributed structure of the modular DPC, with the possibility of increasing the number of hosted information-technology user equipment by increasing the number of modules in continuous operating conditions with the possibility of scaling both in horizontal plane and in the development of a modular DPC with transition to the next floors.

EFFECT: reducing the area required for arrangement of the modular DPC, not degrading its functionality, efficiency and reliability, unification of structural solutions and optimization of interaction of engineering systems, which enable to significantly reduce a time of deployment of modular DPC.

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Description

The invention relates to the field of software and hardware systems using local and global computer networks and is intended for the rapid deployment of the data center infrastructure (DPC).

The main problem when scaling any data center is scaling the engineering infrastructure. The concept of designing and deploying modular data centers is based on an industrial approach to the formation of engineering infrastructure and a high level of component unification. It allows you to move construction work from the customer’s facility to the manufacturer’s factory, which, with improved quality, makes it possible to accelerate the deployment of data centers. Modular solutions provide good scalability, as well as a significant reduction in capital and operating costs.

A well-known modular data center (http://astmodular.com/solutions/product/non-iso-modular-data-center_2, 2014) of the company "Schneider Electric", containing containers whose format does not match the standard cargo container in which they are located Engineering systems: power supply system with uninterruptible power supplies, cooling system, security alarm and access control system, gas fire extinguishing system, cable and network equipment, server racks, data storage systems, telecommunication equipment and cable support structures.

The disadvantage of this technical solution is that the modular data center is scaled by building modules only in the horizontal plane, which leads to a significant increase in the occupied area. Another drawback of such a technical solution is that the modules have non-standard transport dimensions, which makes it difficult to deliver them to the assembly place by road, rail or air.

Known modular data center (Modular Computing Environments), US patent No. 7738251, dated 15.06.2010, IPC H05K 7/20, B60F 1/00, G06F 15/16, F25D 23/12, F28F 7/00, G06F 13 / 00, containing modules in the format of containers with servers, data storage systems, telecommunication equipment, with a heat exchanger placed under the floor. The cooling system delivers the chilled fluid through a pipeline to the under-floor heat exchangers in the modules. The modules are equipped with engineering systems: power supply system, process air conditioning system, fire extinguishing system.

The disadvantage of this technical solution is that the modular data center has a centralized cooling system, originally designed for the maximum number of modules, designed to transfer coolant to the heat exchangers of all server modules. If the maximum number of modules is not working, the centralized cooling system does not work at full capacity. This method of organizing the cooling system leads to its redundancy until the physical commissioning of the maximum possible number of modules.

The closest analogue to the proposed device is a modular data center (prototype - RF patent No. 2444868, 07/13/2010), which contains at least one server cell with racks installed in it (server racks) with servers, systems data storage; at least one vestibule cell, power supply system, forced air cooling system, security alarm and access control system, fire extinguishing system, automated dispatch control system, cable and network equipment. The server cell is equipped with a screen separating the flows of cold and hot air, with the organization of the flow of cold air through the equipment. The server cell is made in the form of an isolated room, with the possibility of connecting to a similar server cell or with a cell of another functional purpose, such as: a server air duct, a corridor cell, an air duct corridor, a cooling cell, a tambour cell, a dynamic uninterruptible power supply cell, a complete cell switchgear and household cell. All of the above cells are structurally combined into a module for placing and providing server cells (server module), compatible with another module or other modules for placing and providing server cells and the possibility of at least electrical connection with the module of the electric power generator, also the server cell contains: brackets and holes for fastening and placing racks, racks are equipped with plugs for separating zones of cold and hot air in the direction of "front-rear" or "rear -frontal "in servers, data storage systems, equipment of telecommunication systems, and devices that ensure the passage of cold air through the cooled equipment in the direction" from bottom to top "or" top to bottom "when organizing such directions of cooling in servers, data storage systems, equipment of telecommunication systems ; temperature sensors and humidity sensors with a hardware-software system for monitoring the climatic parameters of the server cell; smoke sensors and / or gas analyzers with a hardware-software fire alarm system, curtains and / or blinds to seal the cell volume in case of fire; autonomous fire extinguishing system; at least one system for transmitting and distributing electricity to power racks, servers, data storage systems and telecommunication systems equipment, with ammeters and voltmeters with a hardware-software system for monitoring electrical parameters; at least one system for transmitting and distributing electricity to power internal consumers, for example, fire valves, general and emergency lighting, with ammeters and voltmeters with a hardware-software system for monitoring electrical parameters; fiber-optic cable system for connecting racks and equipment to communication systems; access control and management system; forced air exhaust system; additional cooling system; transitions for access to neighboring cells, cable energy and information channels connecting neighboring cells; uninterruptible power supply system; direct cooling systems with liquid refrigerant; the cooling cell contains a heat exchanger with the possibility of taking air from outside, cooling the hot air circulating in the modular data center, and discharging heated external air into the environment, as well as minimally sufficient to provide ventilation during the exchange of air from the environment with the air circulating in the modular data center; the module for hosting and providing server cells contains: at least one access zone to the cells of the module, at least one transition, at least one corridor, a power supply system with predetermined parameters of power quality, a hardware-software system for monitoring controlled parameters of cells, access zones for module cells, passages and corridors, fire alarm system, fire extinguishing system, curtains and / or blinds to seal the module volume in case of fire, lighting system, control system Proportion of access control to the at least one passage to move to another module; an electric energy generator module comprises: a diesel engine, a diesel engine cooling system, an electric energy generator, a ventilation chamber with electric fans, a cooling tower, an electrical panel, a fuel tank, an air filter, an expansion tank, at least one door; access control and management systems for modules are integrated into a single access monitoring, control and management system, module fire alarm systems are integrated into a single fire alarm system.

The disadvantages of this technical solution are:

- the principle of functioning of a “forced air cooling system” implies the presence of a large number of cells, namely “cooling cells”, “server air duct cells”, “corridor cells”, “air duct corridor cells”, which requires considerable time for the manufacture and deployment of a modular data center, entails additional costs;

- when the modules are arranged “vertically relative to each other”, heated air from the “cooling cell” installed below rises and enters the air intake of the “cooling cell” installed above, thereby significantly reducing its efficiency;

- long and voluminous corridors for air flow formed by “server air duct cells”, “corridor cells”, “air duct corridor cells” contribute to the loss of cooling system efficiency when moving air masses from the “cooling cell” to the “server cell” and require additional installation “Forced air exhaust systems”;

- the use of a “forced air cooling system” with such a significant number of “air ducts”, “corridor cells” and “cooling cells”, as well as “vestibule cells, dynamic uninterruptible power supply cells, complete switchgear cells and household cells” requires a large area for location and time for the deployment of the data center being built.

The objective of the invention is to increase the density of equipment and engineering systems in order to reduce the area required to accommodate a modular data center while maintaining its functionality, efficiency, reliability, as well as reducing the deployment time and scaling of a modular data center.

The technical result of the invention consists in:

- optimization of design solutions, allowing to reduce the area required to accommodate a modular data center, without compromising its functionality, efficiency and reliability;

- unification of design solutions and optimization of the interaction of engineering systems, which can significantly reduce the deployment time of a modular data center.

In the analogue closest to the device, the term “cell” means a functional element, and the set of cells structurally connected into a single unit, both different and matching in terms of the functions performed, forms a module. When the module is connected to other modules that are different or that match the functions performed, a modular data center is formed.

To achieve the claimed technical results of the claimed invention, it is advisable to use prefabricated elements designated by the term “module” as functional elements, the external overall dimensions of these modules and the constructs of the node connections of the modules to each other are unified. A set of structurally interconnected both different and matching modules in terms of their functions forms a modular data center.

The technical result is achieved in that the modular data center includes at least one server module 1, made in the form of a room, with server racks 5 installed in it (Fig. 2), including servers, data storage systems, equipment of telecommunication systems, and heat shields 22 (Fig. 3), allowing to isolate the flows of cold and hot air and dividing the room into cold 12 (Fig. 3) and hot 11 (Fig. 3) air corridors with the direction of flow of cold air through the cooled equipment s. In addition, server racks 5 are equipped with plugs for separating zones of cold and hot air; in addition, the server module 1 contains temperature sensors and humidity sensors with software and hardware for controlling climate parameters, as well as smoke sensors and / or gas analyzers with a software and hardware fire alarm system, an autonomous fire extinguishing system 9 (Fig. 2), a transmission system and power distribution to racks with servers, data storage systems and telecommunications systems equipment. In addition, a lighting system, fire alarm system, access control and management system, and an automated dispatch control system are installed in the server module. In addition, the modular data center includes at least one module of an electric energy generator 21 (Fig. 1), comprising a diesel engine, an electric energy generator, a fire alarm system, an autonomous fire extinguishing system, and a control and access control system for an electric generator energy, automated dispatch control system. The server module is equipped with additional modules, namely the input-distribution module 2 (Fig. 1), the vestibule gateway module 4 (Fig. 1) and the power module 3 (Fig. 1), while the modular data center at various stages of scaling can contain one or more than one server module 1, and connected directly to each other; in addition, the modular data center at various stages of scaling may contain one or more than one energy modules 3 connected directly to each other. In addition, the server module 1 (Fig. 1) and all additional modules are made in the format of cargo containers and are connected in a single construct in the horizontal plane so that the vestibule gateway module 4 (Fig. 1) is connected to the server module 1 (Fig. 1). 1) or several server modules connected to the input-distribution module 2 (Fig. 1), which in turn is connected to one or more power modules 3 (Fig. 1); at the same time, in the vestibule gateway module 4 (Fig. 1), designed, in case of need to replace servers, data storage systems, equipment of telecommunication systems, for unpacking and preliminary preparation for placement in server racks 5, a ladder, a lighting system, a system are installed fire alarm, access control and management system. In addition, the room of the server module 1 (Fig. 2) is formed of two interconnected cargo containers with no adjacent wall between them, each of which has a heat shield 22, one row of server racks 5 (Fig. 2) with them placed between them inter-row air conditioners 6 (Fig. 2) of the air conditioning system, between which reinforcing elements 7 (Fig. 2) are installed for the frame of the server module 1 (Fig. 2), which are a structure of connected profiles that allow you to install the modules in two or more floors ( f Ig. 4); in addition, in one of the ends of each of the two cargo containers of the server module connected to each other, there was a vestibule room with side openings due to the absence of side walls, and a partition with doors 8 fenced off from the room with server racks 5 (Fig. 2). In addition, when two or more server modules 1 are added to a modular data processing center, the tambour spaces located in a row form a common corridor 10 (Fig. 3); in addition, at the ends of the server module installed outdoor units 18 (Fig. 2) of the air conditioning system; in addition, the automated dispatch control system of the server module is additionally equipped with devices for monitoring the status of technological equipment via wireless lines. In addition, the input-distribution module 2 (Fig. 2), designed to connect the modular data center to external electrical networks 13 (Fig. 5), to the module of the electric power generator 21 (Fig. 1), as well as to distribute electric power through the busbar 15 (Fig. 5) and cable connections, on the front side has a built-in gate for loading equipment, and includes an in-line shield array 16 installed in it (Fig. 1) with circuit breakers and an automatic re-entry system moat. In addition, the input-distribution module 2 (Fig. 1) is equipped with a lighting system, a fire alarm system, an autonomous fire extinguishing system, an access control and management system, and an automated dispatch control system with devices for monitoring the status of technological equipment via wireless communication lines. In addition, the energy module 3 (Fig. 1), designed to ensure uninterrupted power supply of equipment and engineering systems located in the server module 1 (Fig. 1), includes installed uninterruptible power supplies 17 (Fig. 1) with rechargeable batteries, electrical panels 19 (Fig. 1), busbars 15 (Fig. 5), an air conditioning system 20 (Fig. 1), providing the necessary temperature conditions for the equipment of energy module 3 (Fig. 1), a ventilation system, a lighting system, a fire alarm system si Thread access control, autonomous fire-extinguishing system 9 (FIG. 1), an automated system with supervisory control devices for monitoring process equipment for wireless communication links. In addition, the electric energy generator module is made in the form of a diesel generator module 21 (Fig. 1), installed in the immediate vicinity of the input-distribution module and designed to provide the modular data center with guaranteed power supply, while the ventilation system is installed in the diesel generator module 21 , lighting system, automated dispatch control system with devices for monitoring the status of technological equipment via wireless lines. In addition, each of the above modules is made in the form of a prefabricated cargo container with unified nodes for mechanical connection between each other through fittings of cargo containers, and the access control and management system, fire alarm system, automated dispatch control system installed in the modules are combined, respectively , into a unified access control and management system, a unified fire alarm system, a unified automated dispatch control system for a modular data center as a whole.

The possibility of practical implementation of the invention is illustrated by drawings, where figure 1 shows a General view of a modular data center (layout solution of the minimum configuration of a modular data center); figure 2 is a General view of the layout of the server module; figure 3 is a variant of the placement of server modules in an amount of more than one (4 server modules), top view; figure 4 is a spatial diagram of the layout solution of a three-story configuration of a modular data center with the option of placing server and power modules in an amount of more than one (5 server and 5 power modules on each floor); figure 5 is a structural diagram of the electrical and information interconnections of modules in a modular data center in the embodiment of 4 server modules.

The device operates as follows. Manufactured in the factory in the format of freight containers, the data center modules, with the structural elements installed in accordance with the claimed invention, are delivered to the data center assembly site by any available transport suitable for the transport of cargo containers that are made in standard sizes in accordance with the requirements of the International Organization for Standardization (ISO ) The advantage of manufacturing modular components in the factory is more precise control over the production processes, as well as testing and testing of each module by experienced personnel, which helps to avoid errors when connecting the modules, reduces setup time of the equipment and speeds up the commissioning of the data center. In addition, modules delivered from the factory to the assembly site can be assembled quickly on a minimum area with the formation of all the necessary infrastructure of a modular data center. Due to its modularity, the data center can be easily scaled, quickly dismantled and moved to a new location.

At the first stage of deployment, the minimum configuration of a modular data center is assembled, consisting of a server module 1 (Fig. 1), an input-distribution module 2 (Fig. 1), an energy module 3 (Fig. 1), a vestibule gateway of module 4 (Fig. 1) ) and diesel generator module 21 (Fig. 1), which are connected to each other through fittings of cargo containers.

First, the input-distribution module 2 and the diesel-generator module 21 are delivered and installed to the site (Fig. 1). The input-distribution module 2 (Fig. 1), containing the switchboard array 16 (Fig. 1), is connected to an external electrical network 13 (Fig. 5), as well as electrically connected 14 (Fig. 5) to the diesel generator module 21 ( Fig. 5) to provide a guaranteed power supply. The front side of the input-distribution module 2 with the gates located on it is the front side of the module. All other modules, depending on the functional affiliation, are installed and mechanically connected to each other by the side walls on the left or on the right relative to the front side of the input-distribution module 2 (Fig. 1). Busbars 15 installed in the modules 15 (Fig. 5) provide electric power transmission from the input-distribution module 2 (Fig. 1) to uninterruptible power supplies 17 (Fig. 1) installed in the energy modules 3 (Fig. 1).

The energy module 3 (Fig. 1) is installed to the right of the input-distribution module 2 (Fig. 1) with respect to its front side. The indicated modules 3 and 2 are mechanically connected to each other through fittings of cargo containers, then the corresponding busbars 15 (Fig. 5) of the input-distribution module 2 (Fig. 1) and the energy module 3 (Fig. 1) are connected, which ensures the operation of the installed energy module 3 (Fig. 1) of uninterruptible power supply 17 (Fig. 1), air conditioning system 20 of energy module 3 (Fig. 1), electrical panels 19 (Fig. 1), lighting system, monitoring and control system for access to the room, autonomous fire alarm systems Istemi extinguishing 9 (FIG. 1), which is triggered before quenching process is switched off uninterruptible power supply 17 (FIG. 1), air conditioning system 20 of power unit 3 (Fig. 1) and the ventilation systems. The extinguishing agent is removed from the room using the ventilation system of the energy module 3.

The server assembly 1 is installed next in the assembly order (Fig. 1). It is located to the left of the input-distribution module 2 (Fig. 1) with respect to its front side. Server module 1 (Fig. 1) consists of two parts (Fig. 2), each of which is made in the format of a cargo container and delivered to the assembly site of the modular data center in the form of an independent container. Each part has one row array of server racks 5 (Fig. 2) with inter-row air conditioners 6 placed between them (Fig. 2). One side wall of each part, designed to interface these containers with each other to form a server module, is made in the form of a transportation wall (plug) for transportation, which is removed during the assembly process by connecting these containers to each other. A heat shield 22 (Fig. 3) is installed in each part, dividing the air spaces in the server module (Fig. 2) into a "cold corridor" 12 (Fig. 3) and "hot corridors" 11 (Fig. 3). The connected parts of the server module (Fig. 2) form an isolated room with server racks 5 (Fig. 2) and a vestibule room, fenced off from the server room by a partition with doors 8 (Fig. 2). Parts of the server module (Fig. 2) are made in such a way that when they are connected, the front panels of one row of server racks 5 (Fig. 2) with inter-row air conditioners 6 (Fig. 2) located between them are located opposite the front panels of another row of server racks 5 s in-row air conditioners 6, and in combination with heat shields 22 (Fig. 3) a “cold corridor” 12 is formed between these rows (Fig. 3), and “hot corridors” 11 are formed between the back sides of the rows of server racks 5 and the walls of the server module (Fig. 3). The principle of operation of the air conditioning system of the server module 1, formed from in-line air conditioners 6, is that the air from the "cold corridor" 12 (Fig. 3) passes through the server equipment in the racks 5, cooling it, and is discharged into the "hot corridor" 11 (Fig. 3). Heated air from the "hot corridor" 11 (Fig. 3) is taken by in-line air conditioners 6 (Fig. 2) through their air filters, cools down and is again fed into the "cold corridor" 12 (Fig. 3). These air conditioners belong to the class of inverter precision air conditioners that use compressors and fans controlled by direct current, and electronic thermostatic valves that do not require periodic adjustment. Intra-row air conditioners control the temperature of not only the supply, but also the cooled air. The function of adaptive power limitation is implemented to prevent the protection against high pressure in the freon circuit, which ensures the data center is operational in critical situations associated with contamination of the outdoor units of the air conditioning system 18 (Fig. 2) at high outdoor temperatures.

To strengthen the frame of the server module 1, between each in-line air conditioner 6 and the nearby server rack 5, reinforcing elements 7 (Fig. 2) of connected profiles are installed, which allow the modules to be installed in two or more floors (Fig. 4). Reinforcing elements 7 (Fig. 2) are placed in such a way that they do not interfere with the installation and maintenance of equipment installed in the server racks 5.

The ventilation system of the server module 1 is designed to create excess air pressure in the room with server racks in relation to adjacent rooms in order to prevent dust from entering it and to remove residual extinguishing agent and combustion products from the room after the autonomous fire extinguishing system 9 has been triggered (Fig. 2). After installing and connecting the server module 1 (Fig. 1) with the modules already installed in a single construct, through the busbars 15 (Fig. 5) installed in the modules, the server module is electrically connected to uninterruptible power supplies 17 (Fig. 1) installed in the energy module 3 (Fig. 1).

Tambour-gateway module 4 (Fig. 1) in the process of assembling the minimum configuration of a modular data center is the final module. It is attached to the side of the server module 1 (Fig. 1), opposite the input-distribution module 2 (Fig. 1). In the vestibule gateway module 4 (Fig. 1), a lighting system, a fire alarm system, an access control and control system are installed. Its functional purpose is: in case of need to replace servers, data storage systems, equipment of telecommunication systems, it serves as a place for unpacking and preliminary preparation of this equipment for placement in server racks 5 (Fig. 2), and is also used as a warehouse. In the vestibule-gateway module 4 (Fig. 4) a ladder is installed to go to the upper floors. The tambour-gateway module 4 (Fig. 2), together with the vestibule room of the server module, fenced off from the room with server racks 5 (Fig. 2) by a partition with doors 8 (Fig. 2), provides a stable temperature and humidity regime in the room with server racks, convenient operational access to rooms with server racks.

To complete the assembly of the minimum configuration of the modular data center described above, engineering systems, such as access control and management systems, fire alarm systems, automated dispatch control systems installed in the modules, are combined over wireless lines, respectively, into a single access control and management system , a unified fire alarm system, a unified automated dispatch control system for a modular data center as a whole.

The modular data center has easy scalability, i.e. the ability to increase the number of hosted information technology equipment of the user by increasing the number of modules in continuous operation. Moreover, at various stages of scaling, according to the invention, it may contain one or more server modules connected directly to each other, and, in addition, one or more one energy modules connected directly to each other.

The scaling of the above-described minimum configuration of a modular data center in the horizontal plane is as follows. To the right of the energy module 3 (Fig. 1) to its lateral side, the necessary number of additional energy modules 3 is installed and connected to each other through the fittings of the cargo containers (Fig. 4). Through busbars 15 (Fig. 5), energy modules 3 (Fig. 1) are supplied with energy from the input-distribution module 2 (Fig. 1). To install the required number of additional server modules 1 (Fig. 1), the vestibule gateway module 4 (Fig. 1) is pre-dismantled by disconnecting it from the server module 1 (Fig. 1). To the left of the server module 1 (Fig. 4) with respect to its front side, the required number of additional server modules 1 (Fig. 1) are connected through the fittings of the cargo containers, then the vestibule-gateway module 4 (Fig. 4) is mechanically connected to the last added server module 1 (Fig. 4). Additionally installed server modules 1 (Fig. 1) are connected to uninterruptible power supplies 17 (Fig. 1) installed in power modules 3 (Fig. 1) through busbars 15 (Fig. 5).

When connecting the server modules 1, their vestibule rooms form a common corridor 10 (Fig. 3), located in front of the entrances to the server rooms. The common corridor 10 (Fig. 3) allows you to optimally place the busbar 15 (Fig. 5) of the power supply system and reduce the time for electrical connection of the added modules, due to convenient access to the connection nodes of the busbar sections 15 (Fig. 5).

After scaling is completed on the 1st floor, the development of a modular data center moves on to the next floor. The scaling order of each of the subsequent floors is similar to the scaling order of the first floor, while the input-distribution module 2 of each floor is electrically connected to a separate diesel generator module 21.

A comparison of the proposed solution with other technical solutions shows that the container solutions of modular data centers, as well as the composition of equipment and systems used in their infrastructure, are widely known. However, the redistribution of information and communication equipment and supporting infrastructure in comparison with the prior art in the above modules and, in addition, the connection of these modules in the indicated connection into the claimed functionally distributed structure of a modular data center exhibit new properties that lead to the possibility of achieving a technical result - more rapid deployment and scaling of a modular data center on a minimum area while maintaining its functionality, efficiency, reliability. At the same time, equipment and data center systems of different functionality, requiring the observance of various operating conditions (increased or decreased operating temperature, humidity, degree of fire resistance, a limited number of relocations, etc.), are installed in separate modules in compliance with the requirements for a regulated microclimate and excluding the impact different equipment for each other. Also, a faster connection of equipment and systems of all modules to the electric network was provided and the process of integrating engineering systems was optimized.

The claimed invention can be implemented using existing apparatus and equipment, telecommunications and computer technology and is industrially applicable.

Claims (1)

A modular data center, including at least one server module, made in the form of a room, with server racks installed in it, including servers, data storage systems, telecommunication systems equipment, and heat shields, allowing to isolate the flows of cold and hot air and dividing the room into cold and hot air corridors with the direction of cold air flow through the cooled equipment, in addition, the server racks are equipped with plugs for separation zones of cold and hot air, in addition, the server module contains temperature sensors and humidity sensors with software and hardware for controlling climate parameters, as well as smoke sensors and / or gas analyzers with a software and hardware fire alarm system, an autonomous fire extinguishing system, a transmission system and power distribution to racks with servers, data storage systems and telecommunication systems equipment, in addition, a lighting system is installed in the server module, fire alarm system, access control and management system, automated dispatch control system, in addition, the modular data center includes at least one module of an electric energy generator comprising a diesel engine, an electric energy generator, a fire alarm system, an autonomous fire extinguishing system, access control and management system for the electric power generator module, an automated dispatch control system, characterized in that the module is equipped with additional modules, namely, the input-distribution module, the vestibule gateway module and the energy module, while the modular data center at various stages of scaling can contain one or more server modules, and connected directly to each other, in addition, the modular the data center at various stages of scaling may contain one or more than one energy modules connected directly to each other, in addition, the server module and all additional modules are made in the format of cargo containers and connected in a single construct in the horizontal plane so that the vestibule-gateway module is connected to a server module or several server modules connected to an input-distribution module, which in turn is connected to one or more power modules at the same time in the vestibule-gateway module, designed, in case of need to replace servers, data storage systems, telecommunication systems equipment, for unpacking and preliminary To prepare for placement in server racks, a ladder, a lighting system, a fire alarm system, an access control and management system are installed, in addition, the server module room is formed of two interconnected cargo containers with no adjacent wall between them, each of which is installed a heat shield, one row of server racks with inter-row air conditioning of the air conditioning system located between them, between which reinforcing elements are installed for the server frame a muzzle, which is a structure of connected profiles that allow you to install modules in two or more floors, in addition, in one of the ends of each of the two connected cargo containers of the server module, there is a vestibule room with side openings due to the absence of side walls, and a fenced from a room with server racks, a partition with doors, in addition, when two or more server modules are added to a modular data center, tambour rooms located in a row, They indicate a common corridor, in addition, outdoor units of the air conditioning system are installed at the ends of the server module, in addition, the automated dispatch control system of the server module is additionally equipped with devices for monitoring the status of technological equipment over wireless lines, in addition, an input and distribution module designed for connection modular data center to external electrical networks, to the module of the generator of electric energy, as well as for distribution electric power through the busbar trunking and cable connections, on the front side has a built-in gate designed to load equipment, and includes an in-line shield array installed in it with circuit breakers and an automatic reserve input system, in addition, the input and distribution module is equipped with a lighting system, a fire system alarm system, autonomous fire extinguishing system, access control and management system and automated dispatch control system with devices to monitor the status of technological equipment via wireless lines, in addition, the energy module, designed to provide uninterrupted power supply to equipment and engineering systems located in the server module, includes uninterruptible power supplies installed in it, batteries, electrical panels, busbars, air conditioning providing the necessary temperature conditions for the equipment of the energy module, ventilation system, lighting system, fire alarm system, access control and management system, autonomous fire extinguishing system, automated dispatch control system with devices for monitoring the status of technological equipment via wireless lines, in addition, the electric power generator module is designed as a diesel generator module installed in the immediate vicinity distribution module and designed to provide a modular data center with guaranteed electric power In this case, a ventilation system, a lighting system, an automated dispatch control system with devices for monitoring the status of technological equipment via wireless lines are installed in the diesel generator module, in addition, each of the above modules is made in a prefabricated cargo container format with unified nodes for mechanical connection between each other through fittings of cargo containers, and access control and management system, fire alarm system, and the automated dispatch control system installed in the modules is combined, respectively, into a single access control and management system, a unified fire alarm system, and a single automated dispatch control system for a modular data center as a whole.

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