CN110650022A - Industrial data center system and working method - Google Patents

Industrial data center system and working method Download PDF

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Publication number
CN110650022A
CN110650022A CN201910874794.7A CN201910874794A CN110650022A CN 110650022 A CN110650022 A CN 110650022A CN 201910874794 A CN201910874794 A CN 201910874794A CN 110650022 A CN110650022 A CN 110650022A
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network
power supply
switch
server
poe
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CN201910874794.7A
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CN110650022B (en
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丁远彤
丁贤根
肖苑辉
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Shenzhen Addie Intelligent System Co Ltd
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Shenzhen Addie Intelligent System Co Ltd
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    • HELECTRICITY
    • H04ELECTRIC COMMUNICATION TECHNIQUE
    • H04LTRANSMISSION OF DIGITAL INFORMATION, e.g. TELEGRAPHIC COMMUNICATION
    • H04L12/00Data switching networks
    • H04L12/02Details
    • H04L12/10Current supply arrangements
    • HELECTRICITY
    • H04ELECTRIC COMMUNICATION TECHNIQUE
    • H04LTRANSMISSION OF DIGITAL INFORMATION, e.g. TELEGRAPHIC COMMUNICATION
    • H04L12/00Data switching networks
    • H04L12/02Details
    • H04L12/12Arrangements for remote connection or disconnection of substations or of equipment thereof
    • HELECTRICITY
    • H04ELECTRIC COMMUNICATION TECHNIQUE
    • H04LTRANSMISSION OF DIGITAL INFORMATION, e.g. TELEGRAPHIC COMMUNICATION
    • H04L49/00Packet switching elements
    • H04L49/40Constructional details, e.g. power supply, mechanical construction or backplane
    • HELECTRICITY
    • H04ELECTRIC COMMUNICATION TECHNIQUE
    • H04QSELECTING
    • H04Q1/00Details of selecting apparatus or arrangements
    • H04Q1/02Constructional details
    • H04Q1/03Power distribution arrangements
    • YGENERAL TAGGING OF NEW TECHNOLOGICAL DEVELOPMENTS; GENERAL TAGGING OF CROSS-SECTIONAL TECHNOLOGIES SPANNING OVER SEVERAL SECTIONS OF THE IPC; TECHNICAL SUBJECTS COVERED BY FORMER USPC CROSS-REFERENCE ART COLLECTIONS [XRACs] AND DIGESTS
    • Y02TECHNOLOGIES OR APPLICATIONS FOR MITIGATION OR ADAPTATION AGAINST CLIMATE CHANGE
    • Y02DCLIMATE CHANGE MITIGATION TECHNOLOGIES IN INFORMATION AND COMMUNICATION TECHNOLOGIES [ICT], I.E. INFORMATION AND COMMUNICATION TECHNOLOGIES AIMING AT THE REDUCTION OF THEIR OWN ENERGY USE
    • Y02D30/00Reducing energy consumption in communication networks
    • Y02D30/50Reducing energy consumption in communication networks in wire-line communication networks, e.g. low power modes or reduced link rate

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  • Engineering & Computer Science (AREA)
  • Computer Networks & Wireless Communication (AREA)
  • Signal Processing (AREA)
  • Power Engineering (AREA)
  • Small-Scale Networks (AREA)

Abstract

The invention relates to an industrial data center system and a working method, wherein a network server, a network switch, a network power supply and a shunt controller are designed in one device, the network server manages the network power supply and the network switch through the shunt controller, and provides network communication and a low-power-consumption power supply for network downlink terminal devices through network cable multiplexing, and meanwhile, network and application management is implemented. The network power supply comprises a multi-path POE power supply, a pulse power supply, an alternating current power supply and an upper direct current power supply. The downlink network module provides network communication signals and power for a downlink network terminal equipment circuit, and the extension module is used for extending network communication lines and power supply for the downlink network terminal equipment circuit to enable the downlink network terminal equipment circuit to exceed 100 meters of Ethernet communication standard.

Description

Industrial data center system and working method
Technical Field
The invention relates to the field of information communication, in particular to the fields of an industrial automation control system and an internet of things communication sub-field, and particularly relates to a ship internet of things and an automation system.
Background
The existing industrial data center system adopts standard rack-mounted servers and rack-mounted switches, and terminals adopt respective independent power supplies and wiring, so that the cost of the whole project is high, the volume is large, the wiring is complex, and the management is inconvenient in some specific industrial places. In some applications, it is often necessary to control, e.g. turn on, turn off and manage, some network terminals. Furthermore, some network terminals do not consume much power in practice, but also require a power supply arrangement. For example, in a ship application, the scale of a common ship control and application system is not large, and a branch line container ship is taken as an example, and the number of information points is usually between dozens and dozens; the power consumption of the network terminal equipment is also very small, usually between a few watts and a dozen of watts, especially for some cabins, and the power supply needs to be turned off at any time due to explosion prevention. It is seen that the conventional centralized control of the power supply or the information point on-site power supply is inconvenient.
The existing POE (Power Over Ethernet ) Power supply technology solves the multiplexing network cable Power supply technology, but cannot meet the requirements of special application scenarios because each path of Power supply cannot be flexibly closed and opened, and data such as current and voltage of each path of Power supply cannot be monitored in real time.
It can be seen that the deficiencies of the prior art are apparent, and are at least reflected in the following aspects:
1. each network terminal requires power and wiring and is not able to control and monitor the power.
2. The data center end adopts a cabinet type design, has a complex structure and a large volume, and is not beneficial to maintenance and management.
3. The integration level is low, the equipment redundancy is high, the cost is high, the power consumption is large, and the reliability is low.
Therefore, there is a need to tailor a dedicated industrial data center for these specific application scenarios.
Disclosure of Invention
The technical problem to be solved by the present invention is to provide an industrial data center system and a working method thereof.
The technical scheme adopted by the invention for solving the problems is as follows: an industrial data center system comprises a server, a switch and a network power supply which are arranged in the same shell and are mutually connected, wherein the network power supply supplies power to a downlink network through a multiplexing network; and/or, the system comprises an extension module which is independent from the industrial data center and is matched with the industrial data center and is used for extending the network communication link and a downlink network module which is accessed by the downlink network equipment.
Preferably, the power consumption of the system is lower than 10 kilowatts, the system comprises more than one network port, and the server realizes the management of the switch and the network power supply; and/or the system is designed by adopting an industrial personal computer, wherein the main chip adopts an industrial chip, and the hard disk adopts a solid state disk.
Preferably, the shunt controller is included, and,
the network power supply comprises a POE power supply and a network cable direct power supply;
the network power supply comprises more than one power supply, wherein each power supply provides power less than 100 watts, supplies power to the downlink network equipment or the extension module through network cable multiplexing and communicates with the network, and comprises a control end connected with the shunt controller and receives the management of the server;
the POE power supply is a direct current power supply; the network cable direct power supply comprises a pulse power supply, a direct current power supply and an alternating current power supply, and the voltage is lower than 60V;
the network cable adopts 8 cores and 4 pairs of twisted pairs made of metal materials, wherein the 8 cores are numbered as 1-8, and the 4 pairs of twisted pairs are numbered as 1-2, 3-6, 4-5 and 7-8;
the switch comprises a network cable port, the network cable port comprises a network isolation transformer, the network isolation transformer comprises a PHY side and a network cable side, the network power supply is connected to the network cable side and is transmitted to the downlink network through 2 pairs or 3 pairs or 4 pairs of twisted pairs in the network cable, and a network signal is transmitted to the downlink network from the PHY side to the network isolation transformer and then to the network cable side through the network cable;
and/or the presence of a gas in the gas,
the network power supply comprises a voltage sensor and a current sensor, and each path of power supply also comprises a power switch so as to monitor the voltage and the current of each path of power supply and realize the switching and overload protection of the power supply.
Preferably, the switch adopts a network cable port, and includes a POE switch or a non-POE switch, including a hundred million switch, a gigabit switch and a ten million switch;
the network cable ports comprise RJ45 plug-in type ports and 110 clamping type ports;
when the switch adopts the POE switch, the network power supply is a POE power supply;
when the switch adopts the non-POE switch, the network power supply is a network cable direct power supply;
when the switch adopts a gigabit switch or a gigabit switch, the network power supply adopts 2 pairs or 3 pairs or 4 pairs of 8-core 4-pair twisted-pair transmission; when the switch adopts a hundred mega switch, the network power supply adopts 2 pairs or 3 pairs or 4 pairs of 8-core 4-pair twisted-pair transmission; and/or, 4-5 and 7-8 pairs in 8-core 4-pair twisted-pair wires are adopted to directly transmit power; and/or the switch comprises a hub, a two-layer switch and more than two layers of switches.
Preferably, management of the shunt controller by the server is included;
the shunt controller is connected with the server and the POE switch to realize the control and management of the POE switch, wherein the control and management comprises the management of each path of POE port power supply and the control of a power switch, and/or the network control and management of each path of POE switch port, and the shunt controller comprises a software module or a shunt controller circuit and control software;
the shunt controller is connected with the server and the network cable direct power supply, and the power switch control and management of each path of power supply in the network cable direct power supply are realized through the server; and/or the presence of a gas in the gas,
the shunt controller management for each shunt power supply includes monitoring and display of voltage and current, the power switch includes control and display of the power on and off for that shunt power supply, and limits for overload.
Preferably, the downlink network module is matched with the network power supply and the switch, is connected with a network cable of a downlink network device end and a downlink network device circuit, and provides network connection and power supply for the downlink network device;
the downlink network module comprises a network isolation transformer, a power supply conversion circuit, a PHY circuit and an MAC circuit;
the network cable side of the network isolation transformer is connected with a network port of the industrial data center through the network cable, and is simultaneously connected with the power supply conversion to provide power supply required by a circuit in the downlink network;
the PHY side of the network isolation transformer is connected with a PHY circuit and an MAC circuit and provides network signals connected with circuits in the downlink network;
the downlink network module comprises two design forms, wherein one of the two design forms is a form integrally designed in the downlink network equipment shell; the other is a form of an independent shell with a network cable input end, a network output end and a power supply output end, wherein the network cable input end is connected with the network cable of the downlink network from the industrial data center, the network output end is connected with the network port of downlink network equipment, and the power supply output end is connected with the power supply port of the downlink network equipment;
the extension module is when network transmission line surpasss 100 meters, inserts the equipment that has independent casing of extension network communication and mains operated in the middle of the net twine, specifically includes POE extension module based on the POE power and net twine direct power supply source extension module based on net twine direct power supply source, the basis network power supply source type is supporting to be adopted.
Preferably, the system comprises a complete machine power supply, a touch screen, a network port, a local port, an external network wireless access, a mobile phone wireless access and a uniform shell; making the system a stand alone device; wherein, the whole power supply supports the software of the server to start and shut down; and/or the system is provided with a heat dissipation and air duct and also comprises an antenna; the types of the network ports comprise plug-in type wiring and clamping type wiring, and all connector wiring positions are fixed by glue.
The invention provides a design method of an industrial data center, which comprises the following steps
A network power supply supplies power to the downstream network equipment through a multiplexing network cable;
a step of managing the network power supply by the server; and/or the presence of a gas in the gas,
a step of the server managing the switch;
and integrally designing the server, the network power supply and the switch into an independent device.
Preferably, manufacturing a mainboard of the server by adopting an industrial standard component, or selecting a mainboard of an industrial personal computer as the mainboard of the server;
welding a CPU and a memory on a mainboard of the server, or reinforcing and gluing the CPU connector, the memory connector and a mainboard connecting connector;
designing or selecting more than one network port on a mainboard of the server to provide routing connection and management; and/or the presence of a gas in the gas,
designing the circuits of the server, the switch and the network power supply on more than one PCB;
and connecting satellite network equipment or 4G, 5G, 6G, 7G and 8G modules through the switch, and connecting the Internet, so that the server supports a cloud mode and a block chain, supports wireless access of users, and supports remote service.
Preferably, the step of supplying power to the downstream network device by the network power supply through the multiplexed network cable includes:
dividing the network power supply into more than one path of power supply, wherein each path is provided with an independent management and power switch port;
multiplexing each path of the more than one path of power supply sources through a network cable and providing power supply for the downstream network equipment;
the network power supply works in a mode of more than one POE power supply or a mode of more than one network line direct power supply;
each path of the network power supply comprises 1 group of power supply loops or 2 groups of power supply loops, and the step of taking the center tap of 2 pairs of network cable sides in 4-5 and 7-8 line pairs in the network cable side of the network isolation transformer as 1 group of power supply loops; or, adopting the center taps of 4 pairs of network wire sides in 1-2, 3-6, 4-5 and 7-8 wire pairs in the network wire side of the network isolation transformer as 2 groups of power supply loops, and transmitting network signals at the PHY side of the circuit; or, adopting 1 path in the center tap of 4 pairs of network line sides in 1-2, 3-6, 4-5, 7-8 line pairs in the network line side of the network isolation transformer as a common power ground end as 3 groups of power loops, and transmitting network signals on the PHY side of the circuit;
the network power supply comprises POE power supply, AC power supply, pulse power supply and DC power supply, and the provided power supply power meets the POE standard or is less than 100 watts.
Preferably, the step of managing the network power supply by the server specifically includes:
when the network power supply adopts a POE power mode, the server manages and switches each POE power by adopting a POE protocol through the port of the switch;
the server provides routing connection and management for a network power supply through more than one network port;
a step in which the server runs and manages application software including an operating system, the industrial data center, and user application software;
when the network power supply adopts a network cable direct power supply source, the server adopts an agreed communication protocol to manage and switch the network cable direct power supply source of each path through an onboard communication port or a network port; and/or the presence of a gas in the gas,
and the management of the network power supply pair by the server comprises monitoring, displaying and operating the voltage, the current, the connection, the disconnection, the overload setting and the overload protection of each path of the network power supply.
Preferably, the step of the server managing the switch specifically includes:
a step in which the server manages the switch in accordance with a network management protocol;
the server manages the switching chip directly or through a CPU in the switch according to the SDK of the switching chip in the switch, and realizes the steps of network cable monitoring, network cable length measurement, network communication quality monitoring and network port switching;
the server manages the POE switch according to the POE protocol;
the server manages the network cable direct power supply according to the agreed communication protocol; and/or the presence of a gas in the gas,
the server connects more than one port including the switch and the user terminal through more than one network port, and realizes the steps of configuring LAN and VLAN and routing connection and management between LAN and VLAN by the switch.
Preferably, the method includes the steps of downlink network access and downlink network extension, and specifically includes:
according to the network communication protocol and the power supply mode, when the transmission distance of a network cable is less than 100 meters, separating a network communication signal and a power supply in POE by adopting a POE separation mode, and providing the network communication signal and the power supply to downlink network equipment; or, a network communication signal and a power supply are separated by adopting a network cable direct power supply mode and are provided for the downlink network equipment;
according to a network communication protocol and a power supply mode, when the transmission distance of a network cable exceeds 100 meters, the method comprises a network communication extension step and a power supply extension step;
the network communication prolonging step comprises the steps of adopting active network connection, prolonging the network communication line for not more than 100 meters each time, wherein the active network connection comprises a dual-port switch mode and a dual network card sharing mode;
the power supply extension step comprises POE power supply extension and network cable direct power supply extension; the POE power supply extension comprises the steps of separating a POE power supply from network communication, synthesizing again, and extending a network communication line and a power supply line; the extension of the network cable direct power supply specifically comprises: in the direct current power supply mode, the extension is realized in a network line direct connection mode or a DC-DC mode, in the alternating current power supply mode, the extension is realized in a transformer boosting mode, and in the pulse power supply mode, the extension is realized in a pulse conversion mode.
Preferably, the step of integrally designing the server, the network power supply, and the switch specifically includes:
uniformly designing a power supply of the industrial data center, and respectively supplying power to the server, the switch and the network power supply; and/or, the power supply is designed to enable the server to be powered on firstly when the system is started, the switch and the network power supply to be powered on later, and the server is supported to be powered off after the shutdown work is finished when the system is shut down;
uniformly designing the machine boxes of the industrial data center, and arranging the server, the network power supply and the switch in the same machine box;
designing a heat dissipation air duct to sequentially supply air from the position close to the server, pass through the switch and supply air to the position close to the network power supply;
the power supply module is designed in a matched manner according to the type selection of the network power supply of the industrial data center, wherein the power supply module comprises the following steps:
when the network power supply is selected as a POE power supply, the power supply module is designed as a corresponding POE power supply separator;
when the network power supply is selected as the network line direct power supply, the design of the power supply module is determined in a matched manner according to the selection of the network power supply including alternating current power supply, pulse power supply and direct current power supply; and/or the presence of a gas in the gas,
and adopting the steps of satellite network access, internet of things access and mobile phone wireless access to enable the industrial data center to be brought into the satellite network, the internet and the mobile phone APP access.
Compared with the prior art, the invention has the advantages that:
1. the industrial data center realizes the modularized complete machine design of the server, the switch and the network power supply, reduces the volume to the maximum extent, improves the integration level, and reduces the complexity and the power consumption of the system.
2. The industrial data center of the invention adopts centralized power supply and management to the network center, and field power supply wiring and branch management are avoided for each network terminal.
3. The invention is very suitable for the cabin and some special application places with explosion prevention and fire prevention.
4. The invention adopts the integrated design of the server, the switch and the network power supply, thereby greatly reducing the cost, improving the reliability of the equipment, simplifying the later maintenance and simplifying the field installation.
5. Due to the fact that remote maintenance of a satellite network and a wireless network is supported, block chains and cloud computing are supported.
Drawings
FIG. 1 is a system block diagram in an embodiment of the invention;
FIG. 2 is a diagram of a network power supply and shunt control according to an embodiment of the present invention;
FIG. 3 is a schematic diagram of an industrial data center and downlink network communication in an embodiment of the present invention;
fig. 4 is a schematic diagram of a gigabit network power supply according to an embodiment of the present invention;
fig. 5 is a schematic diagram of a hundred million network power supply in an embodiment of the invention;
FIG. 6 is a schematic diagram of an extender module in an embodiment of the present invention;
FIG. 7 illustrates a remote monitoring and control system for a refrigerated container for a ship in an embodiment of the present invention;
fig. 8 is a diagram of a general industrial data center structure in an embodiment of the present invention.
Detailed Description
The invention is described in further detail below with reference to the accompanying examples.
The first embodiment is as follows: intelligent ship industrial data center and refrigerating box measurement and control system
The intelligent ship industrial data center system and the refrigerating box measurement and control system are realized as follows:
including but not limited to servers, switches, and network power supplies interconnected in the same housing, which supply power to the downstream network through multiplexed network lines. Including but not limited to an extension module for extending a network communication link, a downstream network module for downstream network device access, independent of and associated with the industrial data center.
As shown in fig. 1. It should be noted that all block diagrams described below are drawn and broken down in accordance with conventional practice in the art, unless otherwise indicated. It is not intended to be limiting. For example, the description of the contents of the shunt controller block and its functions may be included in the block of the network power supply, or a part of the contents and functions may be decomposed from the subsequent blocks of the power generator and the logic controller and incorporated in the shunt controller block, which is not intended to limit the present invention in any way.
The diagram 1100 is shown by a dashed box, which is a main component of an industrial data center, and 1201, 1202 are a downstream network module and an extension module, respectively, that is 1100, 1201, 1202 are 3 independent devices. Wherein 1101 is a server portion, which usually adopts a server motherboard, on which a CPU, a memory, a solid state disk or a mechanical hard disk is mounted, and is fixed in a chassis. The switch 1102 is a switch part, and generally adopts an ethernet port RJ45 standard switch, and also can adopt a 110-wire module-based port output, and the number of ports can adopt conventional interface modes such as 8 ports, 16 ports, 24 ports, 48 ports and the like, and can also adopt switches with other port numbers. 1107 is the main power supply of the industrial data center, which supplies power for 1101 servers, 1102 switches, 1103 network power supply and the like. Note that 1107 general power supports conventional design of software power on/off, hibernation, etc. of the server. 1104 is a shunt controller, 1105, 1106 are 8-core 4-pair network cables (network communication cables) conforming to TIA 568 standard, and standards such as CAT5, CAT6, CAT7, CAT8 and the like are supported. Wherein, the total length of the line of 1105 directly connected 1201 to the downstream network module should not exceed 100 meters, and actually, in the engineering design, the length of the line includes the length of the link of the engineering construction contractor, and the length should not exceed 90 meters. For lines with total lengths exceeding 100 meters, at 100 mega network speeds, it is necessary to employ 1202 extension modules, each of which extends a network communication distance of no more than 100 meters.
On the basis of the above technical solutions, in other aspects of the present invention, one or more of the following measures for local improvement may be adopted:
the system consumes less than 10 kilowatts, including but not limited to more than one network port, and the server implements management of the switches and management of the network power supplies.
The system is designed by adopting an industrial personal computer, wherein a main chip adopts an industrial grade chip, and a hard disk adopts a solid state disk.
In practical design, it is usually necessary to consider the total power provided by the industrial data center system for the downlink network module, for example, the power of each path of the downlink network device such as a camera is usually below 30 watts, while each path of the micro base station provided by this embodiment is around 3 watts. The total power is calculated according to the total number of the downlink networks, and can be designed in the grades of 10000VA, 5000VA, 2000VA, 1000VA, 500VA and the like. The power limitations presented herein are based upon conventional considerations and are not limitations of the present invention. In addition, a UPS uninterrupted power supply with a storage battery can be added into the industrial data center.
The server is designed by adopting an industrial personal computer, and comprises but is not limited to an industrial chip and a solid state disk.
On the basis of the above technical solutions, in other aspects of the present invention, one or more of the following measures for local improvement may be adopted:
the system includes, but is not limited to, a shunt controller, which is one design for controlling the network power supply.
The network power supply includes, but is not limited to, a POE power supply and a network cable direct power supply, and is more than one path of power supply multiplexed with a network cable, where each path of power supply provides less than 100 watts of power supply power, and includes, but is not limited to, a control terminal connected to the shunt controller.
The POE power is direct current power supply, the net twine direct current power supply includes pulse power supply, direct current power supply and alternating current power supply, and voltage is less than 60 volts.
The mesh wire adopts 8 cores and 4 pairs of twisted pairs made of metal materials, wherein the 8 cores are numbered as 1-8, and the 4 pairs of twisted pairs are numbered as 1-2, 3-6, 4-5 and 7-8.
The network power supply supplies power to a downlink network through a multiplexing network cable, and specifically comprises the following steps: the network port of the switch comprises a network isolation transformer, the network isolation transformer comprises a PHY side and a network cable side, the network power supply is connected to the network cable side and is transmitted to the downlink network through 2 pairs or 3 pairs or 4 pairs of twisted pairs in the network cable, and network signals are transmitted to the network cable side from the PHY side to the network isolation transformer and then to the downlink network through the network cable.
The network power supply comprises a voltage sensor and a current sensor, and further comprises, but is not limited to, a power switch in each path, so as to monitor the power including, but not limited to, voltage and current of each path, and realize the switching and overload protection of the power.
For the network line direct power supply, unless a direct current power supply is adopted, when a pulse power supply and an alternating current power supply are adopted, the pulse frequency or the frequency of the alternating current power supply must consider interference to network communication, and the general principle is that the frequency is far away from the carrier frequency of the network communication, the known real carrier frequency is in the order of hundred megahertz, and then the pulse frequency or the frequency of the alternating current power supply can be selected in the order of kilohertz.
The network power supply comprises, but is not limited to, a voltage sensor and a current sensor, and further comprises, but is not limited to, a power switch in each path, so as to monitor the voltage and the current of each path of power supply, and realize the switching and overload protection of the power supply.
Regarding the voltage and current sensors and the connection mode, a multi-input ADC (analog-to-digital converter) is adopted for analog-to-digital conversion, and each path of a plurality of paths of power supplies is acquired in turn or acquired at any time as required. And the power switch of each power supply is completed by adopting an MOS tube. The overload protection can be realized by switching off the power supply after monitoring the current magnitude, or by directly limiting the current on the MOS transistor.
As shown in fig. 2, 2001 power generator provides power input from 1107 power, decomposes power supply branches P1, P2, … with the same number of branches according to the number of network power supply branches provided by industrial data, outputs to 2003 logic control, 2005 logic control, … respectively, the logic control includes switch, voltage sensor, current sensor, receives SS1, SS2 control of 2002 branch control unit, completes switch, voltage measurement, current measurement for power supply output by S1, S2, …, and uploads measurement signal to SERVER through branch control unit, 2007 switch. Network communication signals N1, N2, and … from the 2007 switch are supplied to the downstream network module or the extension module via 2004 combiner, 2006 combiner, and …, respectively, and the network communication signals and the shunt power are supplied to the downstream network module or the extension module via PE1, PE2, and …, respectively.
This is a schematic diagram of the connection between the industrial data center and the downstream modules, as shown in fig. 3. It comprises a network communication link and a power transmission link. The following are described respectively:
a network communication link.
In the industrial data center, as one pair of 4 pairs in the network wire, 3101 is a switching matrix in a switch chip, MAC (Media Access Control), PHY (Port Physical Layer), which is connected 3104 network isolation transformers through 3102MAC11 circuit and 3103PHY11 circuit, and connected 3204 network isolation transformers in the downstream network module, connected 3203PHY12 circuit and 3202MAC12 circuit through one pair of 8 core 4 pairs of network wires of 3001, and connected 3201 downstream network equipment circuit, to realize bidirectional duplex network communication. And so on, as another pair of network wires, 3106MAC21 circuit and 3107PHY21 circuit are connected 3108 network isolation transformer, and in one of 8 core 4 pairs of network wires through 3003, with 3204 network isolation transformer in downstream network module, connected to 3207PHY22 circuit and 3206MAC22 circuit, connected with 3201 downstream network equipment circuit, realizing bidirectional duplex network communication. The circuits PHY21, MAC21, PHY22, and MAC22 are included in a network card chip of the circuit of the 3201 downstream network device.
A power transmission link.
The power transmission link is shown in dashed lines 3002. The method comprises the following steps: 3105 a power generator is provided to supply power in the system. The two poles of the power supply are respectively connected to the central taps of the secondary coils of the 3104 network isolation transformer and the 3108 network isolation transformer to supply power to the 3001 network line and the 3003 network line and the downlink network module, and particularly, the two poles of the power supply are connected to the central taps of the secondary coils through the 3204 network isolation transformer and the 3208 network isolation transformer to supply power to the 3205 power supply conversion circuit and supply power to the 3201 downlink network equipment circuit through conversion.
It can be seen that the combination of the network communication link and the power transmission link (i.e., the 2004 combiner and 2006 combiner of fig. 2) is achieved through the network isolation transformer.
Fig. 4 and 5 are schematic diagrams of the connections between specific industrial data centers and downstream network modules in gigabit network communication and hundred mega network communication modes, respectively. Wherein 4100, 4200 and 5100, 5200 are giga and hundred mega network isolation transformers, respectively.
In fig. 4, 4 network isolation transformer modules are adopted, so that 4 pairs of network lines 1-2, 3-6, 4-5, 7-8 are all used for network communication, and the center taps 4101 and 4201 and 4204 of the secondary coils can be used for power transmission. When the power supply is designed, one path of power supply can be transmitted by every 2 pairs of lines, and 1 path of power supply can also be used as common ground. Transmitting 3 paths of power. It should be noted that, since the network isolation transformer is designed for transmitting network communication signals with high frequency and small current, and the wire diameter of the winding of the transformer coil is small, about 0.1 mm, this solution provides a power supply whose current does not exceed the power supply capacity of the winding, otherwise the network isolation transformer would be burned out due to the serious heating of the winding.
In fig. 5, 2 network isolation transformer modules are used, so that 2 pairs of 4 pairs of network lines 1-2, 3-6 are used for network communication, and the 5101-. When the power supply is designed, 2 pairs of lines 4-5 and 7-8 are adopted to transmit 1 line of power supply. Here, it should be particularly noted that, since the power supply directly adopts 4-5 pairs of parallel connection (5103, 5203) and 7-8 pairs of parallel connection (5104, 5204), and is not limited by the coil winding of the network isolation transformer, the wire diameter of the winding is not limited, and only limited by the wire diameter of the network wire, the supply current at this time can be large, and in the design, it can be selected as high as several hundred milliamperes.
On the basis of the above technical solutions, in other aspects of the present invention, one or more of the following measures for local improvement may be adopted:
the switch includes but is not limited to a POE switch or a non-POE switch of a network cable port;
when a POE switch is adopted, the network power supply is a POE power supply;
when a non-POE hundred-million switch is adopted, the network power supply adopts a network cable direct power supply, the port of the switch adopts an RJ45 plug-in type wiring standard or a clamping type wiring standard, the port of the switch adopts a hundred-million transmission protocol, network transmission adopts 1-2 and 3-6 pairs in 8-core and 4-pair twisted-pair lines, and power transmission adopts 4-5 and 7-8 pairs in 8-core and 4-pair twisted-pair lines.
When a non-POE gigabit switch is adopted, the network power supply adopts a network line direct power supply, the port of the switch adopts a connection standard including but not limited to RJ45 plug-in type or a clamping type connection standard, the port of the switch adopts a gigabit transmission protocol, network transmission adopts all wire pairs in 8 cores and 4 twisted pairs, and power transmission adopts all wire pairs in 8 cores and 4 twisted pairs to transmit power.
The switches include, but are not limited to, hubs, two-layer switches, and switches with more than two layers.
On the basis of the above technical solutions, in other aspects of the present invention, one or more of the following measures for local improvement may be adopted:
including a shunt controller and management of the shunt controller by the server.
Characterized by including but not limited to the management of the shunt controller by the shunt controller and the server;
place in the controller along separate routes in the server, through the server is connected the POE switch realizes to the control of POE switch, the control of POE switch includes but not limited to management and the switch control of POE port power, the network control of POE switch port, the controller along separate routes includes but not limited to by software module or controller circuit along separate routes and control software constitutes.
The shunt circuit controller is connected with the server and the network cable direct power supply, and power switch control of each path of power supply in the network cable direct power supply is achieved through the server.
The shunt controller manages each shunt power source including, but not limited to, monitoring and display of voltage and current, the power switch includes, but not limited to, control and display of the power on and off of the power source, and limitation of overload.
On the basis of the above technical solutions, in other aspects of the present invention, one or more of the following measures for local improvement may be adopted:
including but not limited to a downstream network module and an extension module that are independent of and complimentary to the industrial data center system.
The downlink network module is matched with the network power supply and the switch, is connected with a network cable and a downlink network equipment circuit of a downlink network equipment end, and provides network connection and power supply for the downlink network equipment.
The downstream network module includes, but is not limited to, a network isolation transformer, a power conversion, a PHY circuit, and a MAC circuit.
And the network cable side of the network isolation transformer is connected with the network port of the industrial data center through the network cable and is simultaneously connected with the power supply conversion to provide power supply required by the circuit in the downlink network.
And the PHY side of the network isolation transformer is connected with a PHY circuit and an MAC circuit and provides network signals connected with circuits in the downlink network.
The downlink network module comprises but is not limited to two design forms, one is a form integrally designed in the downlink network equipment shell, and the other is a form with an independent shell and provided with a network cable input end, a network output end and a power supply output end, wherein the network cable input end is connected with a network cable of the downlink network from the industrial data center, the network output end is connected with a network end of downlink network equipment, and the power supply output end is connected with a power supply port of the downlink network equipment.
The extension module is the extension module of extension network communication and power supply in the middle of the net twine of access when network transmission line surpassed 100 meters, specifically includes but not limited to POE extension module based on the POE power and net twine direct power supply source extension module based on net twine direct power supply source, the basis network power supply source type adopts in a supporting manner.
When the network power supply module adopts the POE power supply, a standard POE power supply separator is adopted to separate a network line interface and a power supply interface; and when the network power supply module adopts the network cable direct power supply, the network power supply module is a network cable direct power supply module and comprises a network line interface and a power supply interface.
As shown in fig. 6, this is a typical design of the illustrated extension module, particularly a typical line when based on gigabit network communication. The left side of the figure is the incoming line of the upstream network and the right side is the outgoing line of the downstream network, providing both extension and relaying of the network communication link and the power transmission link for network lines in excess of 100 meters. The specific work is as follows:
a power transmission link.
In FIG. 6, 1-2, 3-6, 4-5, 7-8 are 4 pairs of sequences of 8 cores and 4 pairs of mesh wires. Signals entering from an uplink network respectively enter network isolation transformers of 6101, 6201, 6301 and 6401, a power supply is led out from a secondary center tap, the signals enter 6002 power supply conversion, the power supply is converted according to the type of the network power supply and is sent to center taps of 6107, 6207, 6307 and 6407, the power supply conversion is completed, and meanwhile, power is provided for a 6001 switching circuit. The 6002 power supply conversion strictly performs conversion according to indexes such as the type, line sequence, power supply type and voltage value of the network power supply. If the type of the network power supply is a hundred mega network as shown in fig. 5, corresponding modifications are made to fig. 6 according to the type, line sequence, power type, voltage value and other indexes of the network power supply to complete the matching power supply conversion.
A network communication link.
The communication signals of the uplink network passing through the network isolation transformers of 6101, 6201, 6301 and 6401 are converted into network exchange signals through PHY and MAC of respective line pairs, exchanged in 6001 exchange circuit and output to MAC and PHY on the right side, then network communication signals are formed by the network isolation transformers of 6107, 6207, 6307 and 6407, and finally output to the 8-core and 4-pair network wire connectors of 1-2, 3-6, 4-5 and 7-8 on the right side, thereby realizing extension and relay of network lines. If the network communication type is a hundred mega network as shown in fig. 5, corresponding modifications are made to fig. 6 according to the line sequence of 1-2 and 3-6 to complete extension and relay of the network communication link.
On the basis of the above technical solutions, in other aspects of the present invention, one or more of the following measures for local improvement may be adopted:
including but not limited to: the system comprises a complete machine power supply, a touch screen, a network port, a local port, an external network wireless access, a mobile phone wireless access and a unified shell; making the system a stand alone device. Wherein, the whole power supply supports the software of the server to be started and shut down. The system is provided with heat dissipation and air ducts, including but not limited to antennas. The types of network ports include, but are not limited to, plug-in and snap-in connections, and other on-board connector connections that are glued.
Fig. 7 is a system diagram of the intelligent ship refrigerated container remote measurement and control system of the embodiment.
7001 is an intelligent ship industrial data center device, 7002 is a high-power wireless router wirelessly covered by ship WIFI, and the high-power wireless router is installed at a porthole part and a deck of a driving building of a container ship, an industrial data center cabin, a corridor and the like. 7003 is satellite communication equipment, 7006 is cabin sensor cluster data collecting equipment, 7004, 7005 are wireless micro base stations distributed at the port and starboard parts of a container yard on a ship deck, 7007, 7008 are wireless micro base stations positioned at the parts of various container cabins, and the wireless micro base stations are communicated with wireless communication modules arranged on the refrigerated containers to complete remote measurement and control of the whole ship refrigerated containers and provide functions of inquiring and managing related containers for ship workers, ship companies on land and authorized users. 7002 to 7008 are schematic only, the actual installation number is determined according to the requirement, the power supplies of the devices are all the network power supplies of the invention, and no power supply line is required to be additionally arranged, thus being a very convenient scheme for manufacturing new ships or transforming old ships.
The working method comprises the following steps:
the working method of the intelligent ship industrial data center and the refrigerated container measurement and control system comprises but is not limited to the following steps: a network power supply supplies power to the downstream network equipment through a multiplexing network cable;
and the server manages the network power supply.
And the server manages the switch.
And integrally designing the server, the network power supply and the switch into an independent device.
On the basis of the above technical solutions, in other aspects of the present invention, one or more of the following measures for local improvement may be adopted:
and manufacturing the mainboard of the server by adopting an industrial standard component, or selecting the mainboard of the industrial personal computer as the mainboard of the server.
The CPU and the memory on the mainboard of the server are welded, and the steps of reinforcing and gluing are adopted at the positions including but not limited to a CPU connector, a memory connector and a mainboard connecting connector.
And designing or selecting more than one network port on a mainboard of the server to provide routing connection and management.
And designing the circuits of the server, the switch and the network power supply on more than one PCB.
And connecting satellite network equipment or 4G, 5G and 6G modules through the switch, and connecting the Internet, so that the server supports a cloud mode and a block chain, supports wireless access of users, and supports remote service.
The server is provided with software of a refrigerated container remote measurement and control system, management software is provided for a client workstation through a wired network, the management software is covered by a whole-ship WIFI, an APP version of the management software is provided for a smart phone of an authorized user in a ship, a company provides remote service based on a cloud mode for authorized land clients for the ship, a block chain mode is supported, decentralized data storage of the client is supported, and particularly block chain application of insurance, claim and evidence obtaining of the refrigerated container is supported. In addition, the remote upgrading and maintenance of the management system software installed on the server are supported by software manufacturers through a satellite network and a cloud mode.
On the basis of the above technical solutions, in other aspects of the present invention, one or more of the following measures for local improvement may be adopted:
the network power supply supplies power to the downstream network equipment through the multiplexing network cable, and the steps include but are not limited to:
dividing the network power supply into more than one path of power supply, wherein each path is provided with an independent management and power switch port;
multiplexing each path of the more than one path of power supply sources through a network cable, and providing power supply for the downstream network equipment by taking the network cable as a transmission carrier;
the network power supply works in a mode of more than one POE power supply or a mode of more than one network line direct power supply;
each path of the network power supply comprises 1 group of power supply loops or 2 groups of power supply loops, and the step of adopting 2 pairs of network wire sides in 4-5 and 7-8 wire pairs in the network wire side of the network isolation transformer as 1 group of power supply loops, or the step of adopting 4 pairs of network wire sides in 1-2, 3-6, 4-5 and 7-8 wire pairs in the network wire side of the network isolation transformer as 2 groups of power supply loops and transmitting network signals on the PHY side of the circuit;
the network power supply comprises POE power supply, AC power supply, pulse power supply and DC power supply, and the provided power supply power meets the POE standard or is less than 100 watts.
On the basis of the above technical solutions, in other aspects of the present invention, one or more of the following measures for local improvement may be adopted:
the step of the server managing the network power supply specifically includes but is not limited to:
when the network power supply adopts a POE power mode, the server manages and switches each path of POE power by adopting a POE protocol through the switch port.
The server provides routing connection and management for the network power supply through more than one network port.
The server operates and manages steps including, but not limited to, an operating system, application software for the industrial data center, and user application software.
And when the network power supply adopts a network cable direct power supply, the server adopts an agreed communication protocol to manage and switch the network cable direct power supply of each path through an onboard communication port or a network port.
And monitoring, displaying and operating the voltage, the current, the connection, the disconnection, the overload setting and the overload protection of each path of the network power supply.
On the basis of the above technical solutions, in other aspects of the present invention, one or more of the following measures for local improvement may be adopted:
the step of the server managing the switch specifically includes but is not limited to:
and the server manages the switch according to a network management protocol.
And the server manages the switching chip directly or through a CPU in the switch according to the SDK of the switching chip in the switch, so as to realize the steps including but not limited to network cable monitoring, network cable length measurement, network communication quality monitoring and network port switching.
And the server manages the POE switch according to the POE protocol.
And the server manages the network cable direct power supply according to the agreed communication protocol.
The server realizes the steps of configuring LAN and VLAN and routing connection and management between LAN and VLAN by the switch through more than one network port, and connecting more than one ports including but not limited to the switch and the user terminal.
On the basis of the above technical solutions, in other aspects of the present invention, one or more of the following measures for local improvement may be adopted:
the method includes, but is not limited to, the steps of downlink network access and downlink network extension, which specifically include, but are not limited to:
and according to the network communication protocol and the power supply mode, when the transmission distance of the network cable is less than 100 meters, separating the network communication signal and the power supply in the POE by adopting a POE separation mode, and providing the network communication signal and the power supply to the downlink network equipment. And separating the network communication signal and the power supply by adopting a network cable direct power supply mode, and providing the network communication signal and the power supply to the downlink network equipment.
According to the network communication protocol and the power supply mode, when the transmission distance of the network cable exceeds 100 meters, the steps including but not limited to the network communication extension step and the power supply extension step are adopted.
The network communication extension step includes but is not limited to the step of extending the network communication line by no more than 100 meters each time by using active network connection, and the active network connection includes but is not limited to a dual-port switch mode and a dual network card sharing mode.
And the power supply extension step comprises but not limited to POE power supply extension and network cable direct power supply extension. The POE power supply extension includes, but is not limited to, re-synthesizing a POE power supply after separating the POE power supply from network communication, and extending a network communication line and a power supply line. The extension of the network cable direct power supply specifically includes but is not limited to: in the direct current power supply mode, the extension is realized in a network line direct connection mode or a DC-DC mode, in the alternating current power supply mode, the extension is realized in a transformer boosting mode, and in the pulse power supply mode, the extension is realized in a pulse conversion mode.
On the basis of the above technical solutions, in other aspects of the present invention, one or more of the following measures for local improvement may be adopted:
the step of integrally designing the server, the network power supply and the switch specifically includes, but is not limited to:
and uniformly designing a power supply of the industrial data center, and respectively supplying power to the server, the switch and the network power supply. The power supply is designed to enable the server to be powered on firstly when the system is started, the switch and the network power supply to be powered on later, and the server is supported to be powered off after shutdown work is completed when the system is shut down.
And uniformly designing the machine case of the industrial data center, and arranging the server, the network power supply and the switch in the same machine case.
And designing a heat dissipation air channel to sequentially supply air from the server, pass through the switch and supply air to the network power supply.
The power supply module is designed in a matched manner according to the type selection of the network power supply of the industrial data center, wherein the power supply module comprises the following steps:
when the network power supply is selected as a POE power supply, the power module is designed as a corresponding POE power separator.
When the network power supply is selected as the network direct power supply, the design of the power module is determined by matching the network power supply including, but not limited to, alternating current power supply, pulse power supply and direct current power supply.
And adopting the access including but not limited to satellite network access, Internet of things access and mobile phone wireless access to enable the industrial data center to be incorporated into the satellite network, the Internet and the mobile phone APP access.
Second, general industrial data center equipment and accessories are implemented.
In contrast to the first embodiment, the same points are not described again, but the differences are as follows:
1. as shown in fig. 8, the general industrial data center equipment is structurally arranged in a chassis, and the external connection includes a network cable and an input power line of the industrial data center.
2. The server adopts a mainboard of an industrial personal computer server, and adopts a low-power-consumption CPU and a solid state disk. The switch adopts the POE switch mainboard that the support 802.3at standard of giga 16 mouths, industrial level components and parts, RJ45 interface, and every port supports 30 VA's output power supply maximum. The display and the keyboard and the mouse are externally connected through the mainboard interface. The WIFI router is arranged in the case, the antenna is led to the outside of the case when the metal case is adopted, and the antenna is arranged in the case when the non-metal case is adopted.
3. The whole machine is provided with a 600VA switching power supply to support software on-off. According to the requirement, an uninterruptible power supply design can be configured at the switch power supply, and the back of the storage battery is used for supplying power.
4. A cooling fan is arranged on the case, and an air duct is designed to draw air to the outside of the case.
5. The net twine adopts 110 formula joint formula distribution frame (specifically can adopt 50 to 110 distribution frames), at the bottom of distribution frame, joint net twine, one end of net twine connects RJ45 crystal head, and crystal head inserts the RJ45 socket of switch version to scribble fastening glue. The upper layer of the distribution frame is clamped with the output network cable, and the output network cable is fixed by adopting a fastening type cable arranging frame. The network wire adopts 8 cores and 4 pairs of twisted pairs, and the standard is above CAT 5.
6. As an optional part, a voltage sensor and a current sensor are designed on a circuit board of the switch, and voltage and current monitoring is carried out on all multi-path power supplies output by 16 network cables, specifically, the monitoring is realized on a server by programming switch software.
7. And switching and reading and writing each path of POE power supply by adopting a POE protocol, and specifically, writing switch software to realize the switching and reading and writing on a server.
8. As the ultra-low power consumption selection of the invention, a heat radiation fan is cancelled, an insulating heat radiation plate connected with a case is used for heat radiation, the case is designed into a waterproof case supporting IP56 and above security protection standards, an external display and a keyboard and a mouse are cancelled, and an integrated touch screen is used.
9. And for the circuit board in the chassis, a modular design is adopted so as to be flexibly assembled into industrial data center equipment with various configurations.
In addition to the above embodiments, the present invention also includes other embodiments, and any technical solutions formed by equivalent transformation or equivalent replacement should fall within the scope of the claims of the present invention.

Claims (14)

1. An industrial data center system, characterized by: the system comprises a server, a switch and a network power supply which are arranged in the same shell and are mutually connected, wherein the network power supply supplies power to a downlink network through a multiplexing network cable; and/or, the system comprises an extension module which is independent from the industrial data center and is matched with the industrial data center and is used for extending the network communication link and a downlink network module which is accessed by the downlink network equipment.
2. An industrial data center system according to claim 1, wherein: the power consumption of the system is lower than 10 kilowatts, the system comprises more than one network port, and the server realizes the management of the switch and the network power supply; and/or the system is designed by adopting an industrial personal computer, wherein the main chip adopts an industrial chip, and the hard disk adopts a solid state disk.
3. An industrial data center system according to claim 1, wherein: comprises a shunt controller, a shunt controller and a shunt controller,
the network power supply comprises a POE power supply and a network cable direct power supply;
the network power supply comprises more than one power supply, wherein each power supply provides power less than 100 watts, supplies power to the downlink network equipment or the extension module through network cable multiplexing and communicates with the network, and comprises a control end connected with the shunt controller and receives the management of the server;
the POE power supply is a direct current power supply; the network cable direct power supply comprises a pulse power supply, a direct current power supply and an alternating current power supply, and the voltage is lower than 60V;
the network cable adopts 8 cores and 4 pairs of twisted pairs made of metal materials, wherein the 8 cores are numbered as 1-8, and the 4 pairs of twisted pairs are numbered as 1-2, 3-6, 4-5 and 7-8;
the switch comprises a network cable port, the network cable port comprises a network isolation transformer, the network isolation transformer comprises a PHY side and a network cable side, the network power supply is connected to the network cable side and is transmitted to the downlink network through 2 pairs or 3 pairs or 4 pairs of twisted pairs in the network cable, and a network signal is transmitted to the downlink network from the PHY side to the network isolation transformer and then to the network cable side through the network cable;
and/or the presence of a gas in the gas,
the network power supply comprises a voltage sensor and a current sensor, and each path of power supply also comprises a power switch so as to monitor the voltage and the current of each path of power supply and realize the switching and overload protection of the power supply.
4. An industrial data center system according to claim 1, wherein: the switches adopt network cable ports and comprise POE switches or non-POE switches, wherein the POE switches or the non-POE switches comprise a hundred-million switch, a kilomega switch and a ten-million switch;
the network cable ports comprise RJ45 plug-in type ports and 110 clamping type ports;
when the switch adopts the POE switch, the network power supply is a POE power supply;
when the switch adopts the non-POE switch, the network power supply is a network cable direct power supply;
when the switch adopts a gigabit switch or a gigabit switch, the network power supply adopts 2 pairs or 3 pairs or 4 pairs of 8-core 4-pair twisted-pair transmission; when the switch adopts a hundred mega switch, the network power supply adopts 2 pairs or 3 pairs or 4 pairs of 8-core 4-pair twisted-pair transmission; and/or, 4-5 and 7-8 pairs in 8-core 4-pair twisted-pair wires are adopted to directly transmit power; and/or the switch comprises a hub, a two-layer switch and more than two layers of switches.
5. An industrial data center system according to claim 3 or 4, wherein: including management of the shunt controller by the server;
the shunt controller is connected with the server and the POE switch to realize the control and management of the POE switch, wherein the control and management comprises the management of each path of POE port power supply and the control of a power switch, and/or the network control and management of each path of POE switch port, and the shunt controller comprises a software module or a shunt controller circuit and control software;
the shunt controller is connected with the server and the network cable direct power supply, and the power switch control and management of each path of power supply in the network cable direct power supply are realized through the server; and/or the presence of a gas in the gas,
the shunt controller management for each shunt power supply includes monitoring and display of voltage and current, the power switch includes control and display of the power on and off for that shunt power supply, and limits for overload.
6. An industrial data center system according to claim 3 or 4, wherein: the downlink network module is matched with the network power supply and the switch, is connected with a network cable and a downlink network equipment circuit at a downlink network equipment end, and provides network connection and power supply for downlink network equipment;
the downlink network module comprises a network isolation transformer, a power supply conversion circuit, a PHY circuit and an MAC circuit;
the network cable side of the network isolation transformer is connected with a network port of the industrial data center through the network cable, and is simultaneously connected with the power supply conversion to provide power supply required by a circuit in the downlink network;
the PHY side of the network isolation transformer is connected with a PHY circuit and an MAC circuit and provides network signals connected with circuits in the downlink network;
the downlink network module comprises two design forms, wherein one of the two design forms is a form integrally designed in the downlink network equipment shell; the other is a form of an independent shell with a network cable input end, a network output end and a power supply output end, wherein the network cable input end is connected with the network cable of the downlink network from the industrial data center, the network output end is connected with the network port of downlink network equipment, and the power supply output end is connected with the power supply port of the downlink network equipment;
the extension module is when network transmission line surpasss 100 meters, inserts the equipment that has independent casing of extension network communication and mains operated in the middle of the net twine, specifically includes POE extension module based on the POE power and net twine direct power supply source extension module based on net twine direct power supply source, the basis network power supply source type is supporting to be adopted.
7. An industrial data center system according to claim 3 or 4, wherein: the system comprises a complete machine power supply, a touch screen, a network port, a local port, an external network wireless access, a mobile phone wireless access and a uniform shell; making the system a stand alone device; wherein, the whole power supply supports the software of the server to start and shut down; and/or the system is provided with a heat dissipation and air duct and also comprises an antenna; the types of the network ports comprise plug-in type wiring and clamping type wiring, and all connector wiring positions are fixed by glue.
8. An industrial data center working method is characterized in that: comprises that
A network power supply supplies power to the downstream network equipment through a multiplexing network cable;
a step of managing the network power supply by the server; and/or the presence of a gas in the gas,
a step of the server managing the switch;
and integrally designing the server, the network power supply and the switch into an independent device.
9. The industrial data center working method according to claim 8, wherein: manufacturing a mainboard of the server by adopting an industrial standard component, or selecting a mainboard of an industrial personal computer as the mainboard of the server;
welding a CPU and a memory on a mainboard of the server, or reinforcing and gluing the CPU connector, the memory connector and a mainboard connecting connector;
designing or selecting more than one network port on a mainboard of the server to provide routing connection and management; and/or the presence of a gas in the gas,
designing the circuits of the server, the switch and the network power supply on more than one PCB;
and connecting satellite network equipment or 4G, 5G, 6G, 7G and 8G modules through the switch, and connecting the Internet, so that the server supports a cloud mode and a block chain, supports wireless access of users, and supports remote service.
10. The industrial data center working method according to claim 8, wherein: the step that the network power supply supplies power to the downstream network equipment through the multiplexing network cable comprises the following steps:
dividing the network power supply into more than one path of power supply, wherein each path is provided with an independent management and power switch port;
multiplexing each path of the more than one path of power supply sources through a network cable and providing power supply for the downstream network equipment;
the network power supply works in a mode of more than one POE power supply or a mode of more than one network line direct power supply;
each path of the network power supply comprises 1 group of power supply loops or 2 groups of power supply loops, and the step of taking the center tap of 2 pairs of network cable sides in 4-5 and 7-8 line pairs in the network cable side of the network isolation transformer as 1 group of power supply loops; or, adopting the center taps of 4 pairs of network wire sides in 1-2, 3-6, 4-5 and 7-8 wire pairs in the network wire side of the network isolation transformer as 2 groups of power supply loops, and transmitting network signals at the PHY side of the circuit; or, adopting 1 path in the center tap of 4 pairs of network line sides in 1-2, 3-6, 4-5, 7-8 line pairs in the network line side of the network isolation transformer as a common power ground end as 3 groups of power loops, and transmitting network signals on the PHY side of the circuit;
the network power supply comprises POE power supply, AC power supply, pulse power supply and DC power supply, and the provided power supply power meets the POE standard or is less than 100 watts.
11. The industrial data center working method according to claim 10, wherein: the step of managing the network power supply by the server specifically includes:
when the network power supply adopts a POE power mode, the server manages and switches each POE power by adopting a POE protocol through the port of the switch;
the server provides routing connection and management for a network power supply through more than one network port;
a step in which the server runs and manages application software including an operating system, the industrial data center, and user application software;
when the network power supply adopts a network cable direct power supply source, the server adopts an agreed communication protocol to manage and switch the network cable direct power supply source of each path through an onboard communication port or a network port; and/or the presence of a gas in the gas,
and the management of the network power supply pair by the server comprises monitoring, displaying and operating the voltage, the current, the connection, the disconnection, the overload setting and the overload protection of each path of the network power supply.
12. The industrial data center working method according to claim 8, wherein: the step of the server managing the switch specifically includes:
a step in which the server manages the switch in accordance with a network management protocol;
the server manages the switching chip directly or through a CPU in the switch according to the SDK of the switching chip in the switch, and realizes the steps of network cable monitoring, network cable length measurement, network communication quality monitoring and network port switching;
the server manages the POE switch according to the POE protocol;
the server manages the network cable direct power supply according to the agreed communication protocol; and/or the presence of a gas in the gas,
the server connects more than one port including the switch and the user terminal through more than one network port, and realizes the steps of configuring LAN and VLAN and routing connection and management between LAN and VLAN by the switch.
13. The industrial data center working method according to claim 8, wherein: the method comprises the steps of downlink network access and downlink network extension, and specifically comprises the following steps:
according to the network communication protocol and the power supply mode, when the transmission distance of a network cable is less than 100 meters, separating a network communication signal and a power supply in POE by adopting a POE separation mode, and providing the network communication signal and the power supply to downlink network equipment; or, a network communication signal and a power supply are separated by adopting a network cable direct power supply mode and are provided for the downlink network equipment;
according to a network communication protocol and a power supply mode, when the transmission distance of a network cable exceeds 100 meters, the method comprises a network communication extension step and a power supply extension step;
the network communication prolonging step comprises the steps of adopting active network connection, prolonging the network communication line for not more than 100 meters each time, wherein the active network connection comprises a dual-port switch mode and a dual network card sharing mode;
the power supply extension step comprises POE power supply extension and network cable direct power supply extension; the POE power supply extension comprises the steps of separating a POE power supply from network communication, synthesizing again, and extending a network communication line and a power supply line; the extension of the network cable direct power supply specifically comprises: in the direct current power supply mode, the extension is realized in a network line direct connection mode or a DC-DC mode, in the alternating current power supply mode, the extension is realized in a transformer boosting mode, and in the pulse power supply mode, the extension is realized in a pulse conversion mode.
14. The working method of the industrial data center according to any one of claims 8 to 13, wherein the step of integrally designing the server, the network power supply and the switch specifically comprises:
uniformly designing a power supply of the industrial data center, and respectively supplying power to the server, the switch and the network power supply; and/or, the power supply is designed to enable the server to be powered on firstly when the system is started, the switch and the network power supply to be powered on later, and the server is supported to be powered off after the shutdown work is finished when the system is shut down;
uniformly designing the machine boxes of the industrial data center, and arranging the server, the network power supply and the switch in the same machine box;
designing a heat dissipation air duct to sequentially supply air from the position close to the server, pass through the switch and supply air to the position close to the network power supply;
the power supply module is designed in a matched manner according to the type selection of the network power supply of the industrial data center, wherein the power supply module comprises the following steps:
when the network power supply is selected as a POE power supply, the power supply module is designed as a corresponding POE power supply separator;
when the network power supply is selected as the network line direct power supply, the design of the power supply module is determined in a matched manner according to the selection of the network power supply including alternating current power supply, pulse power supply and direct current power supply; and/or the presence of a gas in the gas,
and adopting the steps of satellite network access, internet of things access and mobile phone wireless access to enable the industrial data center to be brought into the satellite network, the internet and the mobile phone APP access.
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