Miniaturization equipment system having functions of oxygen generation, water generation and wind-light complementary power generation

Abstract

The invention discloses a miniaturization equipment system having functions of oxygen generation, water generation and wind-light complementary power generation. The system comprises a shelter, a wind-light complementary power generation system, an inverter, an alternating-current load module, a direct-current load module, a storage battery set and a general control host. The wind-light complementary power generation system comprises a wind power generation system, a photovoltaic power generation system and a wind-light complementary controller connected to the wind power generation system and the photovoltaic power generation system. The alternating-current load module comprises a miniaturization oxygen generation system, a miniaturization water generation system and a universal alternating-current interface. The direct-current load module comprises a direct-current load and a universal direct-current interface of the equipment system. The input end of the inverter is connected with the output end of the wind-light complementary controller. The output end of the inverter is connected with the alternating-current load module and the direct-current load module. The wind-light complementary controller is connected with the storage battery set. The general control host is used for acquiring related data, processing the related data and outputting a control signal to the photovoltaic power generation system, the wind power generation system, the alternating-current load module and the direct-current load module. The system disclosed by the invention has high equipment integration.

Description

technical field [0001] The invention belongs to the technical field of mechatronics, and in particular relates to a miniaturized equipment system with the functions of oxygen production, water production and wind-solar complementary power generation. Background technique [0002] When working in unmanned areas such as high-altitude areas, field survey sites, isolated islands, etc., due to the influence of the environment, they usually face difficulties such as no electricity, less electricity, poor communication, lack of drinking water (there will also be hypoxia in plateau areas), and the current Most of the solutions use large-scale generator sets or fixed-installation wind-solar hybrid power generation systems, as well as high-power, large-capacity, and large-volume oxygen and water production equipment. Since the above-mentioned equipment is relatively scattered and functions independently of each other, it brings great challenges to coordinated control and centralized ma...

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Problems solved by technology

[0002] When working in unmanned areas such as high-altitude areas, field survey sites, isolated islands, etc., due to the influence of the environment, they usually face difficulties such as no electricity, less electricity, poor communication, lack of drinking water (there will also be hypoxia in plateau areas), and the current Most of the solutions use large-scale generator sets or fixed-installation wind-solar hybrid power generation systems, as well as high-power, large-capacity, and large-volume oxygen and water production equipment. Since the above-mentioned equipment is relatively scattered and functions independently of each other, it brings great challenges to coordinated control and centralized management. The greater difficulty and inconvenience; at the same time, considering the large volume and quality of the above-mentioned large equipment, it is inconvenient to carry in the field, which also reduces the scope of activities of the operators to a certain extent

[0003] Traditional mobile power generation vehicles usually use diesel generators to generate electricity. However, fuel transportation is difficult, high cost, high consumption, high pollution, loud noise, and it is necessary to carry multiple oil tanks or establish corresponding supply lines during the journey, so it is no longer possible To meet the requirements of low-carbon sustainable development, although the fixed-installation wind-solar hybrid power generation system uses sustainable and clean energy to provide power, its mobility is poor and its volume is large. At present, most of them are only used for communication and lighting, and have not been extended to Other areas

In addition, according to the patent WO / 2009 / 045349, it can be seen that the existing mobile wind-solar hybrid power system proposed for the above-mentioned problems mainly includes photovoltaic power generation systems, wind power generation systems and mobile components, and the above-mentioned equipment can be loaded on trailers or other mobile parts. Since the above-mentioned photovoltaic power generation system uses foldable photovoltaic panels, the wind power generation system adopts fan-blade extension units, and the mobile components adopt trailer-type frame-type vehicles, the equipment is relatively large in size, difficult to integrate equipment, and weak in adaptability to terrain. Poor box versatility and other deficiencies

[0004] The existing water and oxygen production equipment is relatively mature, but due to the constraints of large area and large power consumption, the power required by the above equipment is mainly provided by the city power grid and fuel generators, while the low power generation Small solar and wind power systems struggle to provide sufficient and reliable power supply

[0005] Based on the above problems, when working in remote areas, the shortcomings of existing equipment are mainly manifested in: 1. Lack of small-scale oxygen and water production systems and wind-solar hybrid power systems that meet the requirements of mobile power stations in my country; 2. There is no integrated wind-solar hybrid power and Integrated equipment for oxygen and water systems

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