CN222667754U - A zero-carbon temporary facility - Google Patents
A zero-carbon temporary facility Download PDFInfo
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- CN222667754U CN222667754U CN202421415541.6U CN202421415541U CN222667754U CN 222667754 U CN222667754 U CN 222667754U CN 202421415541 U CN202421415541 U CN 202421415541U CN 222667754 U CN222667754 U CN 222667754U
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- Y—GENERAL 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
- Y02—TECHNOLOGIES OR APPLICATIONS FOR MITIGATION OR ADAPTATION AGAINST CLIMATE CHANGE
- Y02E—REDUCTION OF GREENHOUSE GAS [GHG] EMISSIONS, RELATED TO ENERGY GENERATION, TRANSMISSION OR DISTRIBUTION
- Y02E10/00—Energy generation through renewable energy sources
- Y02E10/50—Photovoltaic [PV] energy
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Abstract
本实用新型公开了一种零碳临时设施。本实用新型包括设施支架、模数化光伏构件、电气柜、喷淋系统、清理装置、水回收装置和污水处理装置；所述的设施支架作为框架，多个模数化光伏构件安装在设施支架的顶面和侧面上；所述的电气柜内设有电气储能设备，实现源‑网‑荷‑储的交互和柔性响应；所述的设施支架上装有喷淋系统，设施支架的顶部设有用于模数化光伏构件清洁的清理装置，设施支架的底部设有水回收装置；所述的污水处理装置与水回收装置连接，用于处理水回收装置中的污水。本实用新型改善了临时设施的电能质量，实现柔性用电，实现新型电力系统源‑网‑荷‑储的互动，具有可靠性高、能源自足、环境污染小、就近消纳等特点。
The utility model discloses a zero-carbon temporary facility. The utility model includes a facility support, a modular photovoltaic component, an electrical cabinet, a spray system, a cleaning device, a water recovery device and a sewage treatment device; the facility support is used as a frame, and a plurality of modular photovoltaic components are installed on the top and side surfaces of the facility support; an electrical energy storage device is arranged in the electrical cabinet to realize the interaction and flexible response of source-grid-load-storage; the facility support is equipped with a spray system, the top of the facility support is provided with a cleaning device for cleaning the modular photovoltaic component, and the bottom of the facility support is provided with a water recovery device; the sewage treatment device is connected to the water recovery device to treat the sewage in the water recovery device. The utility model improves the power quality of temporary facilities, realizes flexible electricity use, realizes the interaction of source-grid-load-storage of a new power system, and has the characteristics of high reliability, energy self-sufficiency, low environmental pollution, and nearby consumption.
Description
Technical Field
The utility model belongs to the field of buildings, and particularly relates to a zero-carbon temporary facility.
Background
The common temporary facility is an environment-friendly and economic movable plank house which uses sandwich boards as an enclosure structure, uses standard modulus series to carry out space combination and has brand new concept, and has the advantages of series development, integrated production, matched supply, stock and multiple turnover use. The movable house is used as a movable portable temporary facility, has the defect of poor heat insulation and poor heat preservation effect, and is cold in winter and hot in summer, so that the energy consumption of the air conditioner is seriously high. Meanwhile, temporary facilities are limited by functions and positioning of the temporary facilities, and a plurality of electric safety problems such as electric lines, electric equipment and electric protection exist.
The wind power photovoltaic power generation, the energy storage and a large amount of electric equipment of the building are direct current, low-voltage direct current power distribution is adopted, repeated conversion between AC/DC is reduced, conversion links are reduced, and energy efficiency is improved. Meanwhile, compared with alternating current power distribution, the direct current power distribution has the characteristics of no frequency, no phase and no reactive power, is flexible and simple to control, and is easy to realize interruption and adjustment of power load, so that the power demand of a building is changed from rigidity to flexibility. Through building photovoltaic, direct current distribution, distributed energy storage, flexible power consumption control, realize the high-efficient comprehensive utilization of clean energy and the interaction of novel electric power system source-net-lotus-storage, effectively solve wind-force photovoltaic power generation randomness, volatility etc. unstable short plates, when make full use of wind-force photovoltaic energy, reduce the impact of switching on the operation distribution network, improve the electric energy quality, furthest balance the operation quality of distribution network, realize flexible power consumption, realize the peak clipping and valley filling regulation of electric energy. Under the background of low-carbon development, in order to adapt to a high-proportion renewable energy structure, the novel building power supply and distribution form of the light Chu Zhirou micro-grid is gradually and widely accepted, and the novel building power supply and distribution form has the characteristics of high reliability, self-sufficient energy, small environmental pollution, close consumption and the like.
Temporary facilities in various fields such as temporary buildings on construction sites, disaster relief houses, space cabins and the like are widely applied, and the improvement of the comfort of the temporary facilities and the energy conservation and carbon reduction become the problems to be solved urgently.
Disclosure of utility model
The utility model aims to overcome the defects of the prior art, and provides a zero-carbon temporary facility to improve the electric energy quality of the temporary facility, realize flexible electricity utilization and realize the interaction of a novel power system source-network-load-storage.
In order to achieve the aim, the utility model adopts the following technical scheme that the zero-carbon temporary facility comprises a facility bracket, a modularized photovoltaic component, an electrical cabinet, a spraying system, a cleaning device, a water recovery device and a sewage treatment device;
the electric cabinet is internally provided with electric energy storage equipment to realize interaction and flexible response of source-net-load-storage;
The device comprises a facility support, a spray system, a cleaning device, a water recovery device, a spray system and a spray system, wherein the cleaning device for cleaning a modularized photovoltaic component is arranged at the top of the facility support;
The sewage treatment device is connected with the water recovery device and is used for treating sewage in the water recovery device.
The water recovery device can collect spray water, rainwater and other living water, and a water supplementing interface is reserved.
The utility model solves the problems of observability, measurability, adjustability and controllability on the power supply side, the power grid side and the user side, realizes the interaction of the source, the network, the load and the storage of the novel power system, and can be suitable for various fields of temporary construction of construction sites, houses for disaster relief, space cabins and the like.
Further, the top surface of facility support is formed by the concatenation of many top surface crossbeams, and the side of facility support is formed by the concatenation of many side crossbeams and many stands.
Further, a trapezoid buckle interface is arranged on the upright post, a trapezoid buckle matched with the trapezoid buckle interface is arranged on the side face of the modularized photovoltaic component, a cylindrical structure hole is formed in the side face cross beam, and a cylindrical buckle matched with the cylindrical structure hole is arranged on the side face of the modularized photovoltaic component.
Further, the top surface cross beam, the side surface cross beam and the stand column are spliced by adopting a splicing structure and a protruding structure on the side surface of the modularized photovoltaic component.
Further, the modularized photovoltaic component comprises a finish coat, an insulation layer, a waterproof layer, a protective layer and a photovoltaic layer from inside to outside, and a photovoltaic wiring terminal is arranged on the side face of the modularized photovoltaic component.
Further, gaps between adjacent modular photovoltaic components are used for wiring of cables, and sealing glue and a sealing cover plate are adopted for sealing.
Further, the electrical energy storage equipment comprises a power grid interface converter, a photovoltaic converter, an energy storage converter, a bus voltage controller, a flexible charging pile, a power distribution protection device and a storage battery, and adopts low-voltage direct current interconnection to realize flexible supply of temporary electricity utilization;
The power grid interface converter is power conversion equipment connected between an external power grid and a micro-grid bus, the photovoltaic converter is power conversion equipment connected between a photovoltaic cell array and the micro-grid, the energy storage converter is power conversion equipment connected between an energy storage battery pack and the micro-grid bus, the bus voltage controller is power conversion equipment connected between different buses of the micro-grid, the power distribution protection device is equipment connected between different buses of the micro-grid to provide safety protection, and the storage battery is energy storage for realizing flexible adjustment of integral power utilization of temporary facilities.
Further, the spraying system comprises a first spraying pipeline arranged at the top of the facility support, a second spraying pipeline and a third spraying pipeline arranged on two side surfaces of the facility support, wherein the spraying pipelines are fixed on the facility support through clamps and used for cleaning and surface cooling of the modularized photovoltaic component, and the spraying system adopts direct current power distribution to execute flexible power utilization adjustment.
Further, the cleaning device comprises a movable slide plate, a guide rail and a direct current motor, wherein the movable slide plate is arranged on the guide rail, the direct current motor is used for driving the movable slide plate to slide in a reciprocating manner along the guide rail, and a hairbrush is fixedly arranged on the inner side of the movable slide plate and is used for being clung to the outer wall of the modularized photovoltaic component.
Furthermore, the guide rail is arranged on the outer side of the top surface cross beam through bolts, and sleeves are arranged at two ends of the movable sliding plate and sleeved on the guide rail.
Further, the sewage treatment device can adopt an underground integrated sewage treatment device or an external integrated sewage treatment device on the ground.
The utility model solves the relatively unstable short plates of solar power generation randomness, volatility and the like, improves the electric energy quality of temporary facilities, realizes flexible power utilization, realizes the interaction of source-network-load-storage of a novel power system, has the characteristics of high reliability, self-sufficient energy source, small environmental pollution, nearby digestion and the like, and provides a new direction for advancing ecological priority, saving intensive and green low-carbon development.
Drawings
In order to more clearly illustrate the technical solution of the present utility model, the following description will simply refer to the drawings of the specification required to be used in the embodiments.
FIG. 1 is a schematic diagram of a zero-carbon temporary facility according to the present utility model;
FIG. 2 is a schematic view of a portion of the structure of the facility bracket of the present utility model;
FIG. 3 is a schematic structural view of a modular photovoltaic member of the present utility model;
FIG. 4 is a schematic diagram of the spray system of the present utility model;
FIG. 5 is a schematic view of a cleaning apparatus according to the present utility model;
FIG. 6 is a topology of the optical storage direct-soft system of the present utility model;
In the figure, 1-facility support, 2-modular photovoltaic component, 3-electrical cabinet, 4-spraying system, 5-cleaning device, 6-water recovery device, 7-sewage treatment device, 11-side beam, 12-stand, 13-top beam, 21-trapezoidal buckle, 22-cylindrical buckle, 23-finish layer, 24-heat preservation, 25-waterproof layer, 26-protective layer, 27-photovoltaic layer, 28-photovoltaic binding post, 111-cylindrical structure hole, 121-trapezoidal buckle interface, 131-first mosaic structure, 122-second mosaic structure, 112-third mosaic structure, 41-first spray pipeline, 42-second spray pipeline, 43-third spray pipeline, 51-movable slide, 52-sleeve, 53-guide rail, 54-bolt.
Detailed Description
In order to make the objects, technical solutions and advantages of the present utility model more apparent, the technical solutions of the present utility model will be clearly and completely described below with reference to specific embodiments of the present utility model and corresponding drawings. It will be apparent that the described embodiments are only some, but not all, embodiments of the utility model. All other embodiments, which can be made by those skilled in the art based on the embodiments of the utility model without making any inventive effort, are intended to be within the scope of the utility model. The following describes in detail the technical scheme provided by the embodiment of the utility model with reference to the accompanying drawings.
Example 1
The embodiment provides a zero-carbon temporary facility, which is composed of a facility bracket 1, a modularized photovoltaic component 2, an electrical cabinet 3, a spraying system 4, a cleaning device 5, a water recovery device 6 and a sewage treatment device 7 as shown in fig. 1.
The facility support 1 is used as a frame, a plurality of modularized photovoltaic components 2 are arranged on the top surface and the side surface of the facility support 1, and the electrical cabinet 3 is internally provided with electrical energy storage equipment to realize source-net-load-storage interaction and flexible response.
The utility model is characterized in that a spraying system 4 is arranged on the utility bracket 1, a cleaning device 5 for cleaning the modularized photovoltaic component is arranged at the top of the utility bracket 1, and a water recovery device 6 is arranged at the bottom of the utility bracket 1.
The sewage treatment device 7 is connected with the water recovery device 6 and is used for treating sewage in the water recovery device 6. The sewage treatment device can adopt an underground integrated sewage treatment device or an external integrated sewage treatment device on the ground.
As shown in fig. 3, the modularized photovoltaic component 2 comprises a finish layer 23, a heat insulation layer 24, a waterproof layer 25, a protection layer 26 and a photovoltaic layer 27 from inside to outside, and a photovoltaic wiring terminal 28 is arranged on the side surface of the modularized photovoltaic component 2. The gaps between the adjacent modularized photovoltaic components 2 are used for wiring of cables, and meanwhile sealing glue and a sealing cover plate are adopted for sealing.
The electric energy storage device comprises a power grid interface converter, a photovoltaic converter, an energy storage converter, a bus voltage controller, a flexible charging pile, a power distribution protection device and a storage battery, wherein flexible supply of temporary electricity utilization is achieved, the power grid interface converter is electric energy conversion equipment connected between an external power grid and a micro-grid bus, the photovoltaic converter is electric energy conversion equipment connected between a photovoltaic cell array and the micro-grid bus, the energy storage converter is electric energy conversion equipment connected between an energy storage battery pack and the micro-grid bus, the bus voltage controller is electric energy conversion equipment connected between different buses of the micro-grid, the power distribution protection device is equipment connected between different buses of the micro-grid to provide safety protection, and the storage battery is energy storage capable of achieving flexible adjustment of the whole electricity utilization of the temporary facility.
As shown in fig. 6, the topology diagram of the optical storage direct-flexible system is that the zero-carbon temporary facility adopts direct-current power supply and distribution, so that repeated conversion between AC/DC is reduced, conversion links are reduced, flexible control is simplified, the purposes of considerable, measurable and adjustable power supply measurement and user side are achieved, and energy efficiency is improved. When the illumination is sufficient, the photovoltaic power generation preferentially supplies power to zero-carbon temporary facilities, such as lighting equipment, office equipment and the like, and the undigested photovoltaic power is input into the energy storage battery. In the period of insufficient illumination or peak load, the energy storage battery releases electric quantity to meet the requirement of zero-carbon temporary facilities, so that the use of commercial power in the period of peak load is reduced. Meanwhile, the zero-carbon temporary facility is provided with a direct-current flexible bidirectional charging pile, and the direct-current flexible bidirectional charging pile participates in flexible adjustment of the zero-carbon temporary facility.
Example 2
The embodiment provides a zero-carbon temporary facility, which is composed of a facility bracket 1, a modularized photovoltaic component 2, an electrical cabinet 3, a spraying system 4, a cleaning device 5, a water recovery device 6 and a sewage treatment device 7 as shown in fig. 1.
The facility support 1 is used as a frame, a plurality of modularized photovoltaic components 2 are arranged on the top surface and the side surface of the facility support 1, and the electrical cabinet 3 is internally provided with electrical energy storage equipment to realize source-net-load-storage interaction and flexible response.
The utility model is characterized in that a spraying system 4 is arranged on the utility bracket 1, a cleaning device 5 for cleaning the modularized photovoltaic component is arranged at the top of the utility bracket 1, and a water recovery device 6 is arranged at the bottom of the utility bracket 1.
The sewage treatment device 7 is connected with the water recovery device 6 and is used for treating sewage in the water recovery device 6. The sewage treatment device can adopt an underground integrated sewage treatment device or an external integrated sewage treatment device on the ground.
As shown in fig. 2-3, the top surface of the facility support 1 is formed by splicing a plurality of top surface beams 13, and the side surface of the facility support 1 is formed by splicing a plurality of side surface beams 11 and a plurality of upright posts 12. The column 12 is provided with a trapezoid buckle interface 121, the side face of the modularized photovoltaic component 2 is provided with a trapezoid buckle 21 matched with the trapezoid buckle interface 121, the side face beam 11 is provided with a cylindrical structure hole 111, and the side face of the modularized photovoltaic component 2 is provided with a cylindrical buckle 22 matched with the cylindrical structure hole 111.
The top surface beam 13 is spliced with the protruding structures on the side surfaces of the modularized photovoltaic component 2 by adopting a first splicing structure 131. The side cross beam 11 is spliced with the protruding structure on the side of the modular photovoltaic component 2 by adopting a second splicing structure 122. The upright post 12 is spliced with the protruding structure on the side surface of the modularized photovoltaic component 2 by adopting a third splicing structure 112.
The modularized photovoltaic component 2 comprises a finish coat 23, a heat preservation layer 24, a waterproof layer 25, a protective layer 26 and a photovoltaic layer 27 from inside to outside, and a photovoltaic wiring terminal 28 is arranged on the side surface of the modularized photovoltaic component 2. The gaps between the adjacent modularized photovoltaic components 2 are used for wiring of cables, and meanwhile sealing glue and a sealing cover plate are adopted for sealing.
The electric energy storage device comprises a power grid interface converter, a photovoltaic converter, an energy storage converter, a bus voltage controller, a flexible charging pile, a power distribution protection device and a storage battery, wherein flexible supply of temporary electricity utilization is achieved, the power grid interface converter is electric energy conversion equipment connected between an external power grid and a micro-grid bus, the photovoltaic converter is electric energy conversion equipment connected between a photovoltaic cell array and the micro-grid bus, the energy storage converter is electric energy conversion equipment connected between an energy storage battery pack and the micro-grid bus, the bus voltage controller is electric energy conversion equipment connected between different buses of the micro-grid, the power distribution protection device is equipment connected between different buses of the micro-grid to provide safety protection, and the storage battery is energy storage capable of achieving flexible adjustment of the whole electricity utilization of the temporary facility.
As shown in fig. 6, the topology diagram of the optical storage direct-flexible system is that the zero-carbon temporary facility adopts direct-current power supply and distribution, so that repeated conversion between AC/DC is reduced, conversion links are reduced, flexible control is simplified, the purposes of considerable, measurable and adjustable power supply measurement and user side are achieved, and energy efficiency is improved. When the illumination is sufficient, the photovoltaic power generation preferentially supplies power to zero-carbon temporary facilities, such as lighting equipment, office equipment and the like, and the undigested photovoltaic power is input into the energy storage battery. In the period of insufficient illumination or peak load, the energy storage battery releases electric quantity to meet the requirement of zero-carbon temporary facilities, so that the use of commercial power in the period of peak load is reduced. Meanwhile, the zero-carbon temporary facility is provided with a direct-current flexible bidirectional charging pile, and the direct-current flexible bidirectional charging pile participates in flexible adjustment of the zero-carbon temporary facility.
Example 3
The embodiment provides a zero-carbon temporary facility, which is composed of a facility bracket 1, a modularized photovoltaic component 2, an electrical cabinet 3, a spraying system 4, a cleaning device 5, a water recovery device 6 and a sewage treatment device 7 as shown in fig. 1.
The facility support 1 is used as a frame, a plurality of modularized photovoltaic components 2 are arranged on the top surface and the side surface of the facility support 1, and the electrical cabinet 3 is internally provided with electrical energy storage equipment to realize source-net-load-storage interaction and flexible response.
The utility model is characterized in that a spraying system 4 is arranged on the utility bracket 1, a cleaning device 5 for cleaning the modularized photovoltaic component is arranged at the top of the utility bracket 1, and a water recovery device 6 is arranged at the bottom of the utility bracket 1.
The sewage treatment device 7 is connected with the water recovery device 6 and is used for treating sewage in the water recovery device 6. The sewage treatment device can adopt an underground integrated sewage treatment device or an external integrated sewage treatment device on the ground.
As shown in fig. 2-3, the top surface of the facility support 1 is formed by splicing a plurality of top surface beams 13, and the side surface of the facility support 1 is formed by splicing a plurality of side surface beams 11 and a plurality of upright posts 12. The column 12 is provided with a trapezoid buckle interface 121, the side face of the modularized photovoltaic component 2 is provided with a trapezoid buckle 21 matched with the trapezoid buckle interface 121, the side face beam 11 is provided with a cylindrical structure hole 111, and the side face of the modularized photovoltaic component 2 is provided with a cylindrical buckle 22 matched with the cylindrical structure hole 111.
The top surface beam 13 is spliced with the protruding structure on the side surface of the modularized photovoltaic component 2 by adopting a splicing structure. The side cross beam 11 is spliced with the protruding structure on the side surface of the modularized photovoltaic component 2 by adopting a splicing structure. The upright posts 12 are spliced with the protruding structures on the side surfaces of the modularized photovoltaic component 2 by adopting a splicing structure.
The modularized photovoltaic component 2 comprises a finish coat 23, a heat preservation layer 24, a waterproof layer 25, a protective layer 26 and a photovoltaic layer 27 from inside to outside, and a photovoltaic wiring terminal 28 is arranged on the side surface of the modularized photovoltaic component 2. The gaps between the adjacent modularized photovoltaic components 2 are used for wiring of cables, and meanwhile sealing glue and a sealing cover plate are adopted for sealing.
As shown in fig. 4, the spraying system 4 includes a first spraying pipeline 41 disposed at the top of the facility support 1, and a second spraying pipeline 42 and a third spraying pipeline 43 disposed on two sides of the facility support 1, where the spraying pipelines are fixed on the facility support 1 by a clamp, and are used for cleaning and surface cooling of the modularized photovoltaic component 2, and the spraying system 4 adopts dc power distribution.
As shown in fig. 5, the cleaning device 5 includes a movable sliding plate 51, a guide rail 53, and a dc motor, where the movable sliding plate 51 is mounted on the guide rail 53, the dc motor is used to drive the movable sliding plate 51 to slide reciprocally along the guide rail 53, and a brush is fixedly mounted on the inner side of the movable sliding plate 51 and is used to cling to the outer wall of the modularized photovoltaic component 2. The guide rail 53 is mounted on the outer side of the top surface cross beam 13 through bolts 54, and sleeves 52 are arranged at two ends of the movable sliding plate 51 and sleeved on the guide rail 53.
The electric energy storage device comprises a power grid interface converter, a photovoltaic converter, an energy storage converter, a bus voltage controller, a flexible charging pile, a power distribution protection device and a storage battery, wherein flexible supply of temporary electricity utilization is achieved, the power grid interface converter is electric energy conversion equipment connected between an external power grid and a micro-grid bus, the photovoltaic converter is electric energy conversion equipment connected between a photovoltaic cell array and the micro-grid bus, the energy storage converter is electric energy conversion equipment connected between an energy storage battery pack and the micro-grid bus, the bus voltage controller is electric energy conversion equipment connected between different buses of the micro-grid, the power distribution protection device is equipment connected between different buses of the micro-grid to provide safety protection, and the storage battery is energy storage capable of achieving flexible adjustment of the whole electricity utilization of the temporary facility.
As shown in fig. 6, the topology diagram of the optical storage direct-flexible system is that the zero-carbon temporary facility adopts direct-current power supply and distribution, so that repeated conversion between AC/DC is reduced, conversion links are reduced, flexible control is simplified, the purposes of considerable, measurable and adjustable power supply measurement and user side are achieved, and energy efficiency is improved. When the illumination is sufficient, the photovoltaic power generation preferentially supplies power to zero-carbon temporary facilities, such as lighting equipment, office equipment and the like, and the undigested photovoltaic power is input into the energy storage battery. In the period of insufficient illumination or peak load, the energy storage battery releases electric quantity to meet the requirement of zero-carbon temporary facilities, so that the use of commercial power in the period of peak load is reduced. Meanwhile, the zero-carbon temporary facility is provided with a direct-current flexible bidirectional charging pile, and the direct-current flexible bidirectional charging pile participates in flexible adjustment of the zero-carbon temporary facility.
The above examples merely represent embodiments of the utility model, which are described in more detail and are not to be construed as limiting the scope of the utility model. It should be noted that it will be apparent to those skilled in the art that several variations and modifications can be made without departing from the spirit of the utility model, which are all within the scope of the utility model. Accordingly, the scope of the utility model should be assessed as that of the appended claims.
Claims (10)
1. A zero-carbon temporary facility, which comprises a facility bracket (1), a modularized photovoltaic component (2), an electrical cabinet (3), a spraying system (4), a cleaning device (5), a water recovery device (6) and a sewage treatment device (7), and is characterized in that,
The facility support (1) is used as a frame, and a plurality of modularized photovoltaic components (2) are arranged on the top surface and the side surface of the facility support (1), and an electric energy storage device is arranged in the electric cabinet (3) to realize interaction and flexible response of source-net-load-storage;
The device is characterized in that a spraying system (4) is arranged on the facility support (1), a cleaning device (5) for cleaning the modularized photovoltaic component is arranged at the top of the facility support (1), and a water recovery device (6) is arranged at the bottom of the facility support (1);
The sewage treatment device (7) is connected with the water recovery device (6) and is used for treating sewage in the water recovery device (6).
2. The zero-carbon temporary facility according to claim 1, wherein the top surface of the facility support (1) is formed by splicing a plurality of top surface cross beams (13), and the side surface of the facility support (1) is formed by splicing a plurality of side surface cross beams (11) and a plurality of upright posts (12).
3. The zero-carbon temporary facility according to claim 2, wherein the upright post (12) is provided with a trapezoid buckle interface (121), the side face of the modularized photovoltaic component (2) is provided with a trapezoid buckle (21) matched with the trapezoid buckle interface (121), the side face beam (11) is provided with a cylindrical structure hole (111), and the side face of the modularized photovoltaic component (2) is provided with a cylindrical buckle (22) matched with the cylindrical structure hole (111).
4. The zero-carbon temporary facility according to claim 2, wherein the top cross beam (13), the side cross beams (11) and the upright posts (12) are spliced with protruding structures on the side surfaces of the modular photovoltaic component (2) by adopting a splicing structure.
5. The zero-carbon temporary facility according to claim 1, wherein the modular photovoltaic component (2) comprises a finishing layer (23), a heat preservation layer (24), a waterproof layer (25), a protection layer (26) and a photovoltaic layer (27) from inside to outside, and photovoltaic wiring terminals (28) are arranged on the side face of the modular photovoltaic component (2).
6. A zero-carbon temporary installation according to claim 1, characterized in that the gaps between adjacent modular photovoltaic members (2) are used for the cabling of cables, while sealing and sealing are performed with a sealing glue, a sealing cover plate.
7. The zero-carbon temporary facility according to claim 1, wherein the electrical energy storage equipment comprises a power grid interface converter, a photovoltaic converter, an energy storage converter, a bus voltage controller, a flexible charging pile, a power distribution protection device and a storage battery, so that flexible supply of temporary facility electricity is realized;
The power grid interface converter is power conversion equipment connected between an external power grid and a micro-grid bus, the photovoltaic converter is power conversion equipment connected between a photovoltaic cell array and the micro-grid, the energy storage converter is power conversion equipment connected between an energy storage battery pack and the micro-grid bus, the bus voltage controller is power conversion equipment connected between different buses of the micro-grid, the power distribution protection device is equipment connected between different buses of the micro-grid to provide safety protection, and the storage battery is energy storage for realizing flexible adjustment of integral power utilization of temporary facilities.
8. The zero-carbon temporary facility according to claim 1, wherein the spraying system (4) comprises a first spraying pipeline (41) arranged at the top of the facility support (1), a second spraying pipeline (42) and a third spraying pipeline (43) arranged on two side surfaces of the facility support (1), and the spraying pipelines are fixed on the facility support (1) through clamps and are used for cleaning and surface cooling of the modularized photovoltaic components (2), and the spraying system (4) adopts direct-current power distribution.
9. The zero-carbon temporary facility according to claim 1, wherein the cleaning device (5) comprises a movable sliding plate (51), a guide rail (53) and a direct current motor, the movable sliding plate (51) is installed on the guide rail (53), the direct current motor is used for driving the movable sliding plate (51) to slide in a reciprocating manner along the guide rail (53), and a brush is fixedly installed on the inner side of the movable sliding plate (51) and is used for being tightly attached to the outer wall of the modularized photovoltaic component (2).
10. The zero-carbon temporary facility according to claim 9, wherein the guide rail (53) is mounted on the outer side of the top surface beam (13) through bolts (54), and sleeves (52) are arranged at two ends of the movable sliding plate (51) and are sleeved on the guide rail (53).
Priority Applications (1)
| Application Number | Priority Date | Filing Date | Title |
|---|---|---|---|
| CN202421415541.6U CN222667754U (en) | 2024-06-20 | 2024-06-20 | A zero-carbon temporary facility |
Applications Claiming Priority (1)
| Application Number | Priority Date | Filing Date | Title |
|---|---|---|---|
| CN202421415541.6U CN222667754U (en) | 2024-06-20 | 2024-06-20 | A zero-carbon temporary facility |
Publications (1)
| Publication Number | Publication Date |
|---|---|
| CN222667754U true CN222667754U (en) | 2025-03-25 |
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Family Applications (1)
| Application Number | Title | Priority Date | Filing Date |
|---|---|---|---|
| CN202421415541.6U Active CN222667754U (en) | 2024-06-20 | 2024-06-20 | A zero-carbon temporary facility |
Country Status (1)
| Country | Link |
|---|---|
| CN (1) | CN222667754U (en) |
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2024
- 2024-06-20 CN CN202421415541.6U patent/CN222667754U/en active Active
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