CN218216769U - Multifunctional integrated power supply - Google Patents

Abstract

The application discloses multi-functional integrated power supply includes: the system comprises a plurality of battery management units, an alternating current extension set, a commercial power supply, a gasoline generator, a solar controller unit, a high-voltage direct current remote supply unit, a monitoring management unit, an FSU (self service Unit), a plurality of user management units and a rectifying unit; each battery management unit is respectively connected with the two groups of differential batteries; at least one battery management unit is connected with the energy storage batteries arranged in pairs; the battery management units are respectively connected with the basic framework; the alternating current branch machine is respectively connected with the commercial power and the oil engine; the AC extension is connected with the basic framework. The device can realize solar energy input or high-voltage direct current output; the left half and the right half of the integrated power supply are separated by adopting a bilateral symmetrical layout and a left-right busbar communication design for the basic plug frame, so that special requirements of some users on an independent power supply system can be met.

Description

Multifunctional integrated power supply

Technical Field

The application relates to the technical field of power supply of communication base stations, in particular to a multifunctional integrated power supply.

Background

The existing base station power supply is converted from the original simple dependence on a set of switch power supply system into a complex energy source guarantee system consisting of a switch power supply, a power-off sensor, a shunt metering device, an oil engine power generation identification device, a battery sharing manager, an intelligent load manager, intelligent alternating current distribution equipment, 5G distribution equipment and continuously expanded unknown equipment and facilities.

A large number of newly added functional devices in the cabinet will result in: the planning of the internal space of the machine room is disturbed, the space in the cabinet is unreasonably occupied, and the cabinet becomes more congested; after the newly-added equipment is connected with a base station power supply through a bus cable, a large amount of precious direct-current power distribution interface resources of the base station are occupied. The FSU that connects the rotating ring control is dilatation constantly, has crisscross repetition problem when too much new equipment uploads information, and construction cycle overlength and continuous repetition when newly increasing equipment lead to the maintenance point to constantly increase, the constantly increase of construction and maintenance cost.

A connector is arranged between a plurality of functional modules arranged in the cabinet and the bus bar, and the specific structure is shown in fig. 1 (a) - (c). The existing connector consists of two parts of copper sheets, wherein one part is a high-current connecting copper sheet and is responsible for power transmission; the other part is a small current copper sheet which is responsible for signal transmission. The disadvantages of this approach are:

1. according to the design specification requirement of the modular communication equipment, all modules are inserted into the cabinet from the front of the cabinet, the rear of the cabinet cannot be opened generally, and all maintenance operations are performed in the front. Because the copper sheet of this kind of component of heavy current connection socket generates heat seriously, the copper sheet is easy ageing damage, and its life can be less than other components, nevertheless because traditional busbar concentrates on the motherboard of rack rear portion, once there is the component damage on the motherboard, then unable maintenance.

2. Because the energy is input and output from the cabinet panel, and the traditional bus bar is arranged at the rear part of the cabinet, the current flows from the front to the rear of the cabinet, winds a circle and flows back to the front, and a large-current conveying copper bar or a large-current conveying cable is required to be arranged from the bus bar to the panel, so that the cost is increased, and the space is occupied.

3. With the continuous improvement of the power density of the modular device, the input and output currents of a single module are larger and larger, so that the requirement on the capacity of a high-current connector is higher and higher.

The power density of the module is continuously improved along with the technical development of components, but the current capacity of the current connector is only related to the resistivity of materials, and if only copper materials can be used, the current connector cannot be miniaturized, so that the current capacity of the module of the current modular power supply equipment for the communication base station can only supply power to equipment below 75A if the connector is used for connection, and cannot meet the requirement of multi-module power supply under the requirement of 5G communication conditions.

4. After the standardized current connector is applied to a module, in order to solve the problem that a copper foil on a PCB cannot conduct large current, an auxiliary flow guiding copper bar needs to be added on the PCB, so that the structure and the processing technology of equipment are complicated, the associated cost is increased, the energy efficiency is reduced and the like.

SUMMERY OF THE UTILITY MODEL

The application provides a multifunctional integrated power supply, which is used for solving the problem that a power supply interface of an existing base station is invaded after a large amount of equipment is newly added in a cabinet in the prior art; the problem of interleaving and repeating exists when various devices upload information; the technical problem that the commercial power and the oil and electricity can not be automatically switched.

The application provides a multi-functional integrated power supply, includes: the system comprises a plurality of battery management units, an alternating current extension, a mains supply, a gasoline generator, a solar controller unit, a high-voltage direct current remote supply unit, a monitoring management unit, an FSU (self service Unit), a plurality of user management units and a rectification unit;

each battery management unit is respectively connected with the two groups of differential batteries; at least one battery management unit is connected with the energy storage batteries arranged in pairs;

the battery management units are respectively connected with the basic framework;

the alternating current branch machine is respectively connected with the commercial power and the oil engine; the alternating current extension is connected with the basic framework;

the infrastructure is respectively connected with the monitoring management unit, the plurality of user management units and the rectifying unit;

the monitoring management unit is connected with the FSU;

the solar controller unit and the high-voltage direct-current remote supply unit are respectively connected with the foundation framework;

the method comprises the following steps: the device comprises a bus bar, a connecting copper screw, a communication board and a plurality of functional units; the communication board is arranged at the rear end of the functional unit and is connected with each functional unit; the bus bar is arranged at the front end of the functional units and is connected with the functional units through connecting copper plates and connecting copper screws;

the bus bar is connected with the rectifying unit and the battery management unit respectively;

exchange extension includes: the system comprises a main control board, a wireless transmitter and a commercial power oil engine interlocking circuit; the commercial power oil engine interlocking circuit is respectively connected with the commercial power, the oil engine and the foundation framework;

commercial power oil engine interlock circuit includes: the first relay and the second relay are both single-pole double-throw relays; the public end of the first relay is connected with the basic framework, the normally closed contact is electrically connected with the city, and the normally open contact is connected with the public end of the second relay; the second relay coil is connected with a mains supply, the normally closed contact is connected with the oil engine, the common end is connected with the oil engine, and the normally open contact is idle;

when the first relay is in a normally closed state, the commercial power is communicated with the infrastructure; when the second relay is in a normally closed state, the oil engine is communicated with the foundation framework through a normally open contact of the first relay;

the first relay includes: the relay comprises a first relay common end, a first relay coil, a normally closed contact and a normally open contact; the second relay includes: the second relay coil, normally closed contact, normally open contact.

The commercial power is connected with the second relay coil; the oil engine is connected with the common end of the first relay and the normally open contact;

the monitoring points of the main control board are respectively connected with the commercial power and the input points of the oil engine; the signal output point of the main control board is connected with the signal input point of the wireless transmitter;

a wireless receiver on-off switch is arranged on a starting switch loop of the oil engine; the wireless receiver is connected with the wireless transmitter through radio waves;

the monitoring management unit is used for setting peak clipping time and valley filling time, and when the clock time is in the peak clipping time period, the monitoring unit controls the output voltage of the rectification unit to be reduced until the output current of the rectification unit is 0, and the energy storage battery takes over the mains supply to discharge to the infrastructure; when the clock time is in the valley filling time, the monitoring unit controls the output voltage of the rectification unit to be increased to charge the energy storage battery until the output voltage of the rectification unit reaches a set value; after the mains supply is recovered from power failure, the rectification unit is communicated with the mains supply and the energy storage battery to charge the energy storage battery;

the method comprises the following steps: a bus bar connection switch; the busbar communication switch is in control connection with the monitoring management unit; the busbar communication switch is arranged in the middle of the busbar; the busbar contact switch is used for dividing the busbar into two sections, and when the busbar contact switch is closed, the two sections of the busbar are connected; when the bus bar connection switch is disconnected, the two sections of the DC output flow bus bar are disconnected.

Preferably, the infrastructure comprises: a plurality of connecting copper plates and a plurality of connecting copper screws; one end of the connecting copper plate is connected with the functional unit interface; the extension end of the connecting copper plate is connected with the bus bar through a connecting copper screw.

Preferably, the monitoring unit comprises: a data interface; the data interface is arranged at the rear end of the functional unit and is connected with the data interfaces of other functional units through a bus.

Preferably, the user management unit includes: a plurality of load inputs are open; the load input spaces are arranged from top to bottom in the user management unit, and the user loads are connected to the user management unit from the left and right sides.

Preferably, the method comprises the following steps: a direct current load current sensor; the direct current load current sensor is arranged on a user management unit and user load connection circuit and is connected with the monitoring management unit.

Preferably, it comprises: the function of an online power-off sensor is integrated; the integrated online power-off sensor is respectively connected with the mains supply and the normally closed contact of the first relay and is connected with the monitoring management unit.

Preferably, the integrated online power outage sensor comprises: the system comprises an A-phase integrated online power-off sensor, a B-phase integrated online power-off sensor and a C-phase integrated online power-off sensor;

commercial power oil engine interlock circuit includes: the A-phase commercial power and oil engine interlocking circuit; the system comprises a B-phase mains supply and oil engine interlocking circuit and a C-phase mains supply and oil engine interlocking circuit;

the A-phase integrated online power-off sensor is respectively connected with an A-phase commercial power and an A-phase commercial power oil engine interlocking circuit;

the B-phase integrated online power-off sensor is respectively connected with a B-phase commercial power and a B-phase commercial power oil engine interlocking circuit;

and the C-phase integrated online power-off sensor is respectively connected with a C-phase commercial power and a C-phase commercial power oil engine interlocking circuit.

Preferably, the method comprises the following steps: the lightning protection module comprises an alternating current input lightning protection module and a direct current output lightning protection module; the alternating current lightning protection module is connected with the alternating current extension set; the direct current lightning protection module is respectively connected with a direct current busbar of the user management unit.

Preferably, the bus bar includes: a first section and a second section; the first section is respectively connected with the battery management module and the rectifying unit; the second section is respectively connected with the other battery management module and the other rectifying unit.

Preferably, the battery interface of each battery management unit is arranged at the front end of the unit; the solar battery interface of the solar controller unit is arranged at the front end of the unit; the remote supply interface of the high-voltage direct-current remote supply unit is arranged at the front end of the unit; the load interface of the user management unit is arranged at the front end of the user management unit;

on the upper end face of the multifunctional integrated power supply inserting frame, a battery interface of a battery management unit, a solar battery interface of a solar controller unit and a remote supply interface of a high-voltage direct-current remote supply unit are transversely aligned on a horizontal transverse line; the battery interfaces of the user management units are arranged at two ends of the horizontal transverse line in a bilateral symmetry mode and are vertically arranged from top to bottom.

The beneficial effect that this application can produce includes:

1) The multi-functional integrated power that this application provided provides the multiple multi-functional integrated form power of set, solves the problem that the basic station constantly accumulated for many years, is favorable to 5G basic station construction. The device reduces the floor area of a single newly-added device through an integrated structure design, and relieves the situation of short space of a machine room/cabinet; adopting a unified standard modular product; intelligent direct current distribution realizes differentiated power supply guarantee of different operators; the loss generated by multiple direct current conversion in the traditional mode can be reduced by one direct current conversion; intelligent direct current distribution can realize 'peak clipping and valley filling'; the commercial power and the battery are mixed and complemented to realize load peak clipping; the intelligent alternating current power distribution unit is internally provided with a radio transmitting device, and can implement remote shutdown on the oil engine generating electricity through radio waves, so that invalid electricity generation oil consumption is eliminated; the original pi-shaped wiring layout enables the connection of a power distribution system to be more efficient and convenient; the busbar front design can save a large-current connector and greatly reduce the cost of a large-current connector by transplanting the position of the total direct-current busbar from the rear part of the traditional cabinet to the front part of the cabinet.

2) The utility model provides a multi-functional integrated power supply just can directly insert the busbar from the anterior copper sheet of module through the electric current of arranging leading function module input/output, has avoided the copper connector that a large amount of bore heavy current to get into from the frame front portion, then the condition that turns out once more after the frame rear portion tandem, has not only left out the use of heavy current connector, has still practiced thrift a large amount of copper products and the equipment inner space that heavy current return circuit used. The bus bar preposed connection mode can simply realize large-current connection with low cost, and easily realize the input and output of more than 100A current. The busbar front-end device can also provide installation positions integrated in a set of power supply system for more functional modules.

Drawings

Fig. 1 is a schematic diagram illustrating a bus bar connection state of a conventional modular communication power supply apparatus according to the present application; wherein (a) is a power supply front view; (b) is a power supply top view; (c) is a power supply side view;

fig. 2 is a schematic diagram illustrating a bus bar connection state of the multifunctional integrated power supply provided in the present application; wherein (a) is a power supply front view; (b) is a power supply top view; (c) As a side view of the power supply

FIG. 3 is a schematic diagram of a multi-functional integrated power module connection provided herein;

fig. 4 is a schematic connection diagram of a battery sharing management module provided in the present application;

FIG. 5 is a schematic diagram of a power supply setting load input idle module provided in the present application;

FIG. 6 is a schematic diagram of a power supply provided with a DC load current sensor module;

fig. 7 is a schematic structural diagram of an interlock circuit of a mains oil supply device provided in the present application;

fig. 8 is a schematic diagram of a connection structure of an integrated online power-off sensor module of a commercial oil supply provided by the present application;

fig. 9 is a schematic structural diagram of a high-voltage direct-current remote supply module connected to the power supply provided by the present application;

fig. 10 is a schematic structural diagram of a power supply provided with an energy storage battery connection module;

FIG. 11 is a schematic structural diagram of a power supply lightning protection module provided in the present application;

FIG. 12 is a schematic diagram of a multi-functional integrated power circuit connection provided herein;

FIG. 13 is a diagram of a multi-functional integrated power supply infrastructure provided herein;

illustration of the drawings:

1. a bus bar; 2. connecting the copper plates; 21. connecting a copper screw; 22. a communication board; 31. a first relay switch; 32. a first relay coil; 33. a second relay switch; 34. a second relay coil; 11. and a busbar interconnection switch.

Detailed Description

To make the objects, technical solutions and advantages of the embodiments of the present invention clearer, the drawings of the embodiments of the present invention are combined to clearly and completely describe the technical solutions of the embodiments of the present invention, and obviously, the described embodiments are some embodiments of the present invention, not all embodiments. The components of embodiments of the present invention, as generally described and illustrated in the figures herein, could be arranged and designed in a wide variety of different configurations.

Thus, the following detailed description of the embodiments of the present invention, presented in the accompanying drawings, is not intended to limit the scope of the invention, as claimed, but is merely representative of selected embodiments of the invention. Based on the embodiments of the present invention, all other embodiments obtained by a person skilled in the art without creative efforts belong to the protection scope of the present invention.

The controller used in this embodiment is of an existing structure, and the control circuit can be implemented by simple programming by a person skilled in the art, which belongs to the common knowledge in the art, and is used only without modification, so that the control mode and circuit connection are not described in detail.

Technical means which are not described in detail in the present application and are not used for solving the technical problems of the present application are all arranged according to common knowledge in the field, and various common knowledge arrangement modes can be realized.

Referring to fig. 2 to 12, the present application provides a multifunctional integrated power supply, including: the system comprises a plurality of battery management units, alternating current extension sets, a mains supply, an oil engine, a solar controller unit, a high-voltage direct current remote supply unit, a monitoring management unit, an FSU (fault tolerant unit), a plurality of user management units and a rectification unit;

each battery management unit is respectively connected with the two groups of differential batteries; at least one battery management unit is connected with the energy storage batteries arranged in pairs;

the battery management units are respectively connected with the basic framework;

the alternating current branch machine is respectively connected with the commercial power and the oil engine; the alternating current extension is connected with the basic framework;

the infrastructure is respectively connected with the monitoring management unit, the plurality of user management units and the rectifying unit;

the monitoring management unit is connected with the FSU;

the solar controller unit and the high-voltage direct-current remote supply unit are respectively connected with the foundation framework;

the method comprises the following steps: the device comprises a bus bar, a connecting copper plate, a connecting copper screw, a communication plate and a plurality of functional modules; the communication board is arranged at the rear end of the functional module and connected with the functional modules; the bus bar is arranged at the front end of the functional module and is connected with each functional module through a connecting copper plate and a connecting copper screw;

the bus bar is connected with the rectifying unit and the battery management unit respectively;

exchange extension includes: the system comprises a main control board, a wireless transmitter and a commercial power oil engine interlocking circuit; the commercial power oil engine interlocking circuit is respectively connected with a commercial power, an oil engine and a foundation framework;

commercial power oil engine interlock circuit includes: a first relay and a second relay; the first relay is respectively connected with the mains supply and the infrastructure; the second relay is connected with the oil engine and the idle circuit;

the first relay is communicated with the infrastructure and the commercial power when in a normally closed state; the second relay is communicated with the oil engine and the foundation framework when in a normally closed state;

the first relay includes: a first relay switch, a first relay coil; the second relay includes: a second relay switch, a second relay coil;

the commercial power is connected with the second relay coil in an opening and closing manner; the oil engine is connected with the first relay coil in an opening and closing manner;

the main control board is respectively connected with the commercial power and the oil engine; the main control board is connected with the first relay coil, the second relay coil and the wireless transmitter through signal output;

a wireless receiver is arranged on a pneumatic switch loop of the oil engine; the wireless receiver is connected with the wireless transmitter;

the monitoring management unit is used for setting peak clipping time and valley filling time, and when the clock time is in the peak clipping time period, the monitoring unit controls the output voltage of the rectification unit to be reduced until the output current of the rectification unit is 0, and the energy storage battery takes over the mains supply to discharge to the infrastructure; when the clock time is in valley filling time, the monitoring unit controls and increases the output voltage of the rectifying unit until the output voltage of the rectifying unit is 220V, the mains supply is recovered, and meanwhile, the mains supply and the energy storage battery are communicated to charge the energy storage battery; the monitoring unit includes: a data interface; the data interface is arranged at the rear end of the functional unit and is connected with the data interfaces of other functional units through a bus.

The connections described in this application are all types of existing connections that are covered by electrical connections.

The method comprises the following steps: a bus bar connection switch; the busbar communication switch is in control connection with the monitoring management unit; the bus bar connection switch is arranged on the bus bar; the busbar contact switch is used for dividing the busbar into two sections, and when the busbar contact switch is closed, the two sections of the busbar are connected; when the bus bar connection switch is disconnected, the two sections of the backflow bus bar are disconnected.

In one embodiment, the method comprises the following steps: and the base station air conditioner is connected with the alternating current extension set. The infrastructure includes: the multifunctional bus bar comprises a metal frame designed according to a 19-inch standard and an inserting frame inserted into various functional units, wherein a copper bus bar is arranged at the front part of the frame.

The effective power supply of different new and old batteries, different capacities or different difference batteries of different manufacturers can be realized by arranging the battery management unit, the problem of unstable power supply caused by mixed use of different types of batteries is avoided, and the source universality of the batteries is improved. Modularization: according to the load power consumption and the quantity, the output switches can be flexibly configured as required, flexible power distribution is realized, the functions of replacing the rectification conversion modules, the control modules, the direct-current output power distribution modules and the like without power outage can be realized, and the mixed insertion and free combination parallel machine output of various rectification conversion modules is supported.

The bus bar is moved from the rear part of the frame to the front part (hereinafter referred to as the front bus bar), and the communication connector is kept at the rear part. The bus bar is provided with a row of screw holes for fixing the current input/output connection copper sheets positioned at the front part of the functional module, so that the current input/output from the functional module can be directly connected into the bus bar from the copper sheets at the front part of the module, the condition that a large number of copper connectors bearing large current enter from the front part of the rack and then are transferred out again after being connected with the rear part of the rack is avoided, the use of a large-current connector is omitted, a large number of copper materials used by a large-current loop and the internal space of equipment are saved, particularly, the bus bar prepositive connection mode can simply realize large-current connection with low cost, and the current input/output of more than 100A is easily realized. In addition, the structure of the busbar preposition also integrates more functional modules on one set of power supply system, and brings great convenience for the requirements of high-current connection, such as the condition that high-voltage direct-current remote supply equipment becomes a module access system, the condition that a solar controller becomes a module access system and the like.

Two sections of power supplies can be communicated as required by arranging the busbar contact switch, and when parts need to be maintained, maintenance without shutdown can be realized.

Each functional unit is respectively connected with the basic framework to form a novel multifunctional integrated power supply system. The input of the alternating current branch machine is three-phase commercial power or single-phase alternating current of an oil engine, and the alternating current branch machine has the automatic switching function of the commercial power/oil engine and 3 oil engine power generation input interfaces; the battery management units have the functions of accommodating multiple groups of different batteries for sharing without influencing the performance and the service life of each battery pack, wherein at least one battery management unit has the capacity of bypassing batteries, and all the battery management units are connected with the infrastructure; the user management unit has the capacity of managing the loads of the four households by households, the load electric quantity of the four households is measured by households and a differentiated load power-on/power-off strategy is implemented, and the load side voltage acquisition function can also provide evidence for judging whether the user equipment is powered off; the user load cable and the basic framework adopt a pi-shaped wiring layout, so that the problems of congestion and crisscross routing of the base station power supply load cable for a long time are solved. Particularly, the device realizes the function of dividing the power supply of the base station into two sets of power supplies through the bilateral symmetry structural design and the novel bus dividing/combining design, so that the special requirements of users on an independent power supply system can be met.

Referring to fig. 10, the peak clipping and valley filling function is realized by arranging the monitoring management unit, when the peak clipping time comes, the monitoring unit reduces the output voltage of the rectifying unit until the output current of the rectifying unit is 0, and the energy storage battery starts to take over the commercial power for discharging, so that the power supply or power off of the user equipment is realized. In addition, the 'peak clipping and valley filling' function of the mains supply can be realized by setting and selecting the mains supply or the battery supply.

Intelligentization: according to the management requirement, parameters such as voltage, current and electric energy of each output shunt circuit can be collected and measured, remote power-on and power-off control is realized through linkage with services, dynamic management is carried out on charging and discharging of a battery, efficient and intelligent monitoring, management and control can be carried out on power supply equipment, energy consumption and energy efficiency through a management platform, and intelligent power supply management is realized.

Multiple input multiple output: the device is suitable for various energy supplies, and can support the simultaneous input of various energy sources such as commercial power, a generator, a direct-current power supply and the like; the functions of peak clipping, peak shifting, power utilization and the like of the commercial power are supported, and the functions of mixed use of new and old batteries, mixed use of different types of batteries and the like can be realized through the battery management module.

Battery management unit connection referring specifically to fig. 4, the battery management units 1 and 2 are battery sharing manager modules. Because the conventional switching power supply has no battery sharing management function, when the actually used batteries are different batteries of different old and new types, different capacities or different manufacturers, a device called a battery sharing manager needs to be additionally configured. The utility model discloses two sets of difference batteries of every module management, the complete machine can adorn 4 modules, can manage and reach 8 group's batteries as much.

Through setting up female contact switch of arranging, its switching is controlled to accessible control management unit, and when female contact switch intercommunication, two sections backward flow female arranging of intercommunication are convenient for according to the circuit intercommunication condition, and each section intercommunication power supply of adjusting female arranging.

The system is provided with a basic framework, bears all functional modules, adopts a backflow mother board to replace a bus cable, adopts a switching power supply main control board, adopts a battery sharing manager main control board, adopts an intelligent power distribution main control board and the like to be integrated, and really realizes a center of one set of system. The basic framework can adapt to various brands of rectification units through modes such as model division or module switching, and the stock rectification units obtain a large number of opportunities of old people, cost reduction and efficiency improvement. Intelligent power distribution and household management. The iron tower company can provide differentiated service guarantees for different operator devices according to service agreements signed by various operators, such as selling electricity for renting, paying for the electricity, selecting a disclaimer time interval strategy and the like.

The battery is good for the old, the cost is reduced and the efficiency is improved. No matter whether the lead-acid battery is new or old, or the new or old lithium battery can be connected into the system for normal charging and discharging, and the utilization rate of the battery is further improved. The efficiency is improved, and energy conservation and emission reduction are realized. The battery sharing management module and the rectifying unit are charged interactively without additional DC/DC conversion. Peak clipping and valley filling, and energy mixing. The lithium battery is used for storing energy, supplying power to the lithium battery at the electricity price peak time period and charging the lithium battery at the electricity price valley time period, so that the problem of small quantity of insufficient commercial power capacity can be solved. Automatic switching is carried out, and power generation can not enter a base station. The commercial power and the oil engine are accurately identified, the oil engine power generation does not have a switching master gate, the commercial power is recovered to automatically remotely control the oil engine to stop, and the operation and maintenance management cost and the maintenance generation cost are reduced.

The terminals are distributed in a pi shape, so that the cables are not disordered. The original wiring terminal layout has the advantages that the load cables are not crossed any more, the construction difficulty is reduced, and the cable consumption is greatly reduced.

The busbar is arranged in front, and large-current connection is realized. The original busbar front design provides simple and reliable heavy current connection guarantee for the access of various new functional modules. And conditions are provided for supplementing a solar controller, high-voltage direct current remote supply, constant-voltage DCDU output and even a UPS module in the future.

Preferably, the infrastructure includes: a plurality of connecting copper plates and a plurality of connecting copper screws; one end of the connecting copper plate is connected with the functional module interface; the extension end of the connecting copper plate is connected with the bus bar through a connecting copper screw.

Preferably, the functional module comprises: a communication interface; the communication interface is arranged at the rear end of the functional module and is connected with the communication board.

Preferably, the user management unit includes: a plurality of load inputs are open; each load input slot is arranged on a circuit connected with the user management unit and the user load equipment. The arrangement is convenient for the user to connect with the load equipment and the user management unit according to the self leasing requirement.

Referring to fig. 5, in a specific embodiment, the device has 20 load input idle switches of 4 tenants, so that the tenants can freely define the operation and management provider, and each tenant can remotely set parameters through the operation and maintenance monitoring system, thereby realizing differentiated power supply or power generation management of different tenants.

Preferably, it comprises: a direct current load current sensor; the direct current load current sensor is arranged on a user management unit and user load connection circuit and is connected with the monitoring management unit.

In an embodiment, referring to fig. 6, the power consumption of the direct current load of the operator is measured by the sub-tenants, and meanwhile, the operator has management functions of differentiated power supply, authorized power supply, timed power down, power down in a non-liability period, and the like. The green graphic symbols i1, i2, i3 and i4 are direct current load current sensors and upload current data of each tenant device to a monitoring management unit, and household metering is achieved.

Preferably, referring to fig. 13, the power interface of each battery management unit is disposed on the outer end of the unit; the power interface of the solar controller unit is arranged on the outer side end of the unit; the remote supply interface of the high-voltage direct-current remote supply unit is arranged on the outer side end of the unit; the peripheral interface of the user management unit is arranged on the outer side end of the user management unit;

on the top end face of the multifunctional integrated power supply, a power supply interface of the battery management unit, a power supply interface of the solar controller unit and a remote supply interface of the high-voltage direct-current remote supply unit are transversely aligned to form a first transverse line; the peripheral interfaces of the user management unit are symmetrically arranged at two ends of the first transverse line and are perpendicular to the first transverse line.

In one embodiment, the battery interface of each battery management unit is disposed at the front end of the unit; the solar battery interface of the solar controller unit is arranged at the front end of the unit; the remote supply interface of the high-voltage direct-current remote supply unit is arranged at the front end of the unit; the load interface of the user management unit is arranged at the front end of the user management unit;

on the upper end face of the multifunctional integrated power supply inserting frame, a battery interface of the battery management unit, a solar battery interface of the solar controller unit and a remote supply interface of the high-voltage direct-current remote supply unit are transversely aligned on a horizontal transverse line; the battery interfaces of the user management units are arranged at two ends of the horizontal transverse line in a bilateral symmetry mode and are vertically arranged from top to bottom.

According to the arrangement, the connection between each interface and the plug-in equipment is conveniently finished outside the power supply, and in the top end view, the upper horizontal line interface and the vertical interface form an original 'pi' type wiring layout, so that the power distribution system is more efficiently and conveniently connected.

Referring to fig. 7, in an embodiment, the ac extension has an automatic oil engine/utility power switching function, and can realize interlocking, and power failure, power generation, and power incoming do not need to manually switch the utility power switch. The utility model discloses the bright spot is commercial power oil machine switch interlocking, and the use is as follows:

1. when the commercial power is normally supplied, the first relay switch of the first relay is connected with the commercial power and the basic frame, and the load directly gets electricity from the commercial power. The first relay coil is free of electricity, a second relay coil of the second relay is connected with the mains supply in parallel and then is electrified, and a second relay switch is communicated with the idle circuit; the second relay switch is not conducted with the oil engine, and the oil engine does not generate electricity;

2. after the mains supply is powered off, the second relay coil is not electrified, the first relay coil is connected with the oil engine, and the first relay coil is attracted to the first relay switch; the second relay switch returns to the normally closed state and is conducted with the oil engine, and the first relay switch leaves the normally closed state to conduct the oil engine and the foundation framework;

3. after the mains supply is recovered, the second relay coil is electrified, the second relay switch returns to the vacant circuit, and the motor is disconnected with the basic framework circuit. The first relay coil is free of power, the first relay switch returns to be normally closed, and the mains supply and the infrastructure are communicated, so that the mains supply is realized;

4. if the relay contacts are adhered, the commercial power and the oil engine cannot collide under any condition.

The oil engine can set the load of the special communication equipment, the air conditioner can not be started, and the storage battery can be set to be charged or not charged. And after the commercial power is recovered and stably operated for a period of time, the oil engine can be turned off in a remote control mode.

The wireless transmitter is connected with the main control board; after the main control board detects and obtains the input commercial power and the current change of the oil engine, when the commercial power is detected to be recovered, the wireless transmitter transmits an electric signal to a receiver arranged on a starting switch loop of the oil engine, and the oil engine is automatically started.

Through this having set up wireless transmitter at the interchange extension, the receiver is independent little box, and the box is 2 port components, connects its series to oily quick-witted starting switch return circuits. When the main control board detects that the commercial power is recovered, a shutdown signal is sent out, and after the receiver receives the signal, the port is disconnected, and the oil engine is shut down.

Preferably, the method comprises the following steps: an integrated online power-off sensor; the integrated online power-off sensor is respectively connected with the mains supply and the first relay and is connected with the monitoring management unit.

Preferably, the integrated online power outage sensor comprises: the system comprises an A-phase integrated online power-off sensor, a B-phase integrated online power-off sensor and a C-phase integrated online power-off sensor;

commercial power oil engine interlock circuit includes: an A-phase mains oil engine interlocking circuit; the system comprises a B-phase commercial power oil engine interlocking circuit and a C-phase commercial power oil engine interlocking circuit;

the A-phase integrated online power-off sensor is respectively connected with an A-phase commercial power and an A-phase commercial power oil engine interlocking circuit;

the B-phase integrated online power-off sensor is respectively connected with a B-phase commercial power and a B-phase commercial power oil engine interlocking circuit;

and the C-phase integrated online power-off sensor is respectively connected with a C-phase commercial power and a C-phase commercial power oil engine interlocking circuit.

Referring to fig. 8, the integrated online power-off sensors are respectively arranged on each phase of the mains supply, so that the presence or absence of the mains supply can be directly judged, the detection accuracy is high, the power supply of the mains supply or an oil engine can be judged through a physical mode and a software logic mode, and the mains supply power-off warning information is sent to the operation and maintenance monitoring platform. When the commercial power is cut off, the A, B and C phases can be free of electricity to judge the power failure. If the mains supply lacks one phase, the phase difference of the other two phases is judged, and if the voltage phase collected by the sampling point is 120 degrees, the power generation of the mains supply can be judged; if the oil engine generates electricity by 2-3 oil engines, the voltage phase difference obtained by the sampling points is not 120 degrees, and then the oil engine electricity generation can be judged. And if the power is generated by one oil engine, judging whether the oil engine generates power according to the error range of the alternating current frequency. The power supply conditions of the commercial power and the oil engines are judged according to the sampling result of the main control board, and the main control board is respectively connected with various commercial power and various oil engines for sampling detection.

In a specific embodiment, relays J1, J2, J3, J4, J5, and J6 are respectively disposed in the ac interlock circuit of each item of the utility power, and are used to control each item of the circuit.

If 2 or 3 oil engines generate electricity, the phase difference of the sampling current is not stabilized at 120 degrees, and the oil engine is judged to generate electricity when the phase difference continuously exceeds 2 degrees within 1 second.

Referring to fig. 9, in a specific embodiment, includes: the direct-current remote supply far-end power supply is connected with the high-voltage direct-current remote supply unit; the battery manager module is a direct current remote supply module, and the direct current output voltage is configurable from 300V to 750V.

When the battery management system is used, only 1-2 battery manager modules are required to be replaced by direct current remote supply modules, and the direct current output voltage is configurable to 300-750V.

Preferably, the method comprises the following steps: the lightning protection module comprises a B-level lightning protection module and a plurality of C-level lightning protection modules; the B-level lightning protection module is connected with the alternating current extension set; and each C-level lightning protection module is respectively connected with each user management unit.

The strong current part is designed into an alternating current extension set according to the arrangement, so that the sufficient creepage distance can be ensured, and the induced voltage generated by the lightning current is ensured not to appear in other weak current equipment in the infrastructure.

A 4-wire 60kA lightning protection module is arranged at a commercial power inlet of the AC extension, and TN-S is adopted for grounding;

in addition, a class C lightning protection is also arranged on the user management unit, so that lightning stroke current induced from the direct current remote cable can be prevented.

Preferably, the bus bar includes: a first section and a second section; the first section is respectively connected with the battery management module and the rectifying unit; the second section is respectively connected with the other battery management module and the other rectifying unit. According to the arrangement, when a section of module local equipment needs maintenance, normal operation of user load can be maintained.

In one embodiment, the method comprises the following steps: and the base station air conditioner is connected with the alternating current extension set. The connection is an electrical connection in this application.

In one embodiment, the rectifying unit includes: a plurality of rectifying units; the battery management unit includes: a plurality of battery management modules.

Referring to fig. 12, the present application provides a power supply comprising: the device comprises an alternating current unit, a rectifying unit and a battery management unit; the alternating current unit includes: the system comprises a mains supply, an oil engine, a main control board, a mechanical interlocking structure, a mains supply oil engine interlocking circuit, a B-level lightning protection module and a bus bar;

the commercial power is connected with the oil engine through a mechanical interlocking structure; the commercial power oil engine interlocking circuit is communicated with a commercial power and an oil engine; the commercial power oil engine is also connected with each rectifying unit in the rectifying units;

the rectifying unit, a plurality of battery management modules contained in the battery management unit and a plurality of user management modules contained in the user management unit are connected through a busbar;

the monitoring management unit is respectively connected with the rectifying unit, the battery management unit and the user management unit;

the busbar communication switch is arranged on the busbar, the busbar is divided into two sections, and meanwhile, after the rectifying unit and the battery management unit are divided into two groups, the rectifying unit and the battery management unit are respectively connected with the busbar of the corresponding group.

All modules and units in the application all meet the connection requirement of the basic architecture, wherein parameters of a universal module such as a B-level lightning protection module are purchased by a user according to the relevant standard requirements, and specific products are not specified in the scheme; the other modules and units are selected or made by users according to the connection requirements of the infrastructure.

In a specific embodiment, the user can connect the mobile phone app applet with the monitoring management unit through data transmission by bluetooth, and acquire information through the mobile phone. Or the control connection of the monitoring management unit is realized through keys arranged on the display equipment.

Although the present invention has been described in detail with reference to the foregoing embodiments, it will be apparent to those skilled in the art that modifications may be made to the embodiments or portions thereof without departing from the spirit and scope of the invention.

Claims (10)

1. A multifunctional integrated power supply, comprising: the system comprises a plurality of battery management units, an alternating current extension set, a commercial power supply, a gasoline generator, a solar controller unit, a high-voltage direct current remote supply unit, a monitoring management unit, an FSU (self service Unit), a plurality of user management units and a rectifying unit;

each battery management unit is respectively connected with the two groups of differential batteries; at least one battery management unit is connected with the energy storage batteries arranged in pairs;

the battery management units are respectively connected with the basic framework;

the alternating current branch is respectively connected with a mains supply and an oil engine; the alternating current extension is connected with the basic framework;

the infrastructure is respectively connected with the monitoring management unit, the plurality of user management units and the rectifying unit;

the monitoring management unit is connected with the FSU;

the solar controller unit and the high-voltage direct-current remote supply unit are respectively connected with the foundation framework;

the method comprises the following steps: the device comprises a bus bar, a connecting copper screw, a communication board and a plurality of functional units; the communication board is arranged at the rear end of the functional unit and connected with each functional unit; the bus bar is arranged at the front end of the functional units and is connected with the functional units through connecting copper plates and connecting copper screws;

the bus bar is connected with the rectifying unit and the battery management unit respectively;

exchange extension includes: the system comprises a main control board, a wireless transmitter and a commercial oil engine interlocking circuit; the commercial power oil engine interlocking circuit is respectively connected with the commercial power, the oil engine and the foundation framework;

commercial power oil engine interlock circuit includes: the first relay and the second relay are both single-pole double-throw relays; the public end of the first relay is connected with the basic framework, the normally closed contact is electrically connected with the city, and the normally open contact is connected with the public end of the second relay; the second relay coil is connected with a mains supply, the normally closed contact is connected with the oil engine, the common end is connected with the oil engine, and the normally open contact is idle;

when the first relay is in a normally closed state, the commercial power is communicated with the foundation framework; when the second relay is in a normally closed state, the oil engine is communicated with the foundation framework through the normally open contact of the first relay;

the first relay includes: the relay comprises a first relay common end, a first relay coil, a normally closed contact and a normally open contact; the second relay includes: the second relay coil is connected with the second relay public end;

the commercial power is connected with the second relay coil; the oil engine is connected with the common end of the first relay and the normally open contact;

the monitoring points of the main control board are respectively connected with the commercial power and the input points of the oil engine; the signal output point of the main control board is connected with the signal input point of the wireless transmitter;

a wireless receiver on-off switch is arranged on a starting switch loop of the oil engine; the wireless receiver is connected with the wireless transmitter through radio waves;

the monitoring management unit is used for setting peak clipping time and valley filling time, and when the clock time is in the peak clipping time period, the monitoring unit controls and reduces the output voltage of the rectifying unit until the output current of the rectifying unit is 0, and the energy storage battery takes over the mains supply to discharge to the infrastructure; when the clock time is in valley filling time, the monitoring unit controls the output voltage of the rectification unit to be increased to charge the energy storage battery until the output voltage of the rectification unit reaches a set value; after the mains supply is recovered from power failure, the rectification unit is communicated with the mains supply and the energy storage battery to charge the energy storage battery;

the method comprises the following steps: a bus bar connection switch; the busbar communication switch is in control connection with the monitoring management unit; the busbar communication switch is arranged in the middle of the busbar; the busbar contact switch is used for dividing the busbar into two sections, and when the busbar contact switch is closed, the two sections of the busbar are connected; when the bus bar connection switch is disconnected, the two sections of the DC output flow bus bar are disconnected.

2. The multifunctional integrated power supply of claim 1, wherein the infrastructure comprises: a plurality of connecting copper plates and a plurality of connecting copper screws; one end of the connecting copper plate is connected with the functional unit interface; the extension end of the connecting copper plate is connected with the bus bar through a connecting copper screw.

3. The multifunctional integrated power supply of claim 1, wherein the monitoring unit comprises: a data interface; the data interface is arranged at the rear end of the functional unit and is connected with the data interfaces of other functional units through a bus.

4. The multifunctional integrated power supply of claim 1, wherein the user management unit comprises: a plurality of load inputs are open; the load input spaces are arranged from top to bottom in the user management unit, and the user loads are connected to the user management unit from the left and right sides.

5. The multifunctional integrated power supply of claim 1, comprising: a direct current load current sensor; the direct current load current sensor is arranged on a user management unit and user load connecting circuit and is connected with the monitoring management unit.

6. The multifunctional integrated power supply of claim 1, comprising: integrating the functions of an online power-off sensor; the integrated online power-off sensor is respectively connected with the mains supply and the normally closed contact of the first relay and is connected with the monitoring management unit.

7. The multifunctional integrated power supply of claim 6, wherein the integrated online power outage sensor comprises: the system comprises an A-phase integrated online power-off sensor, a B-phase integrated online power-off sensor and a C-phase integrated online power-off sensor;

commercial power oil engine interlock circuit includes: the A-phase mains supply and oil engine interlocking circuit; the system comprises a B-phase mains supply and oil engine interlocking circuit and a C-phase mains supply and oil engine interlocking circuit;

the A-phase integrated online power failure sensor is respectively connected with an A-phase mains supply and an A-phase mains supply oil engine interlocking circuit;

the B-phase integrated online power-off sensor is respectively connected with a B-phase mains supply and a B-phase mains supply oil engine interlocking circuit;

the C-phase integrated online power-off sensor is respectively connected with the C-phase commercial power and the C-phase commercial power oil engine interlocking circuit.

8. The multifunctional integrated power supply of claim 1, comprising: the lightning protection module comprises an alternating current input lightning protection module and a direct current output lightning protection module; the alternating current lightning protection module is connected with the alternating current extension set; the direct current lightning protection module is respectively connected with a direct current busbar of the user management unit.

9. The multifunctional integrated power supply of claim 1, wherein the busbar comprises: a first section and a second section; the first section is respectively connected with the battery management module and the rectifying unit; the second section is respectively connected with the other battery management module and the other rectifying unit.

10. The multifunctional integrated power supply of claim 1, wherein the battery interface of each battery management unit is disposed at the front end of the unit; the solar battery interface of the solar controller unit is arranged at the front end of the unit; the remote supply interface of the high-voltage direct-current remote supply unit is arranged at the front end of the unit; the load interface of the user management unit is arranged at the front end of the user management unit;

on the upper end face of the multifunctional integrated power supply inserting frame, a battery interface of the battery management unit, a solar battery interface of the solar controller unit and a remote supply interface of the high-voltage direct-current remote supply unit are transversely aligned on a horizontal transverse line; the battery interfaces of the user management units are arranged at two ends of the horizontal transverse line in a bilateral symmetry mode and are vertically arranged from top to bottom.

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