CN116221026A - Energy-saving method for comprehensive utilization of wind power in a data center - Google Patents

Abstract

The present invention relates to the technical field of data centers, in particular, to an energy-saving method for comprehensive utilization of wind power in a data center, which obtains solar energy from the roof and the outer sunny side of at least one machine room building and converts the solar energy into electrical energy; Obtain wind energy from the shady side outside the machine room building and convert the wind energy into the electric energy; provide a distributed power generation and energy storage system and an energy storage shelter, and the distributed power generation and energy storage system is used to store the electric energy In the energy storage shelter and/or the electric energy in the energy storage shelter is transmitted to the data center for use; the energy-saving method for comprehensive utilization of wind power in the data center of the present application uses solar energy and wind power to cooperate The use of distributed power generation and storage systems can better achieve the purpose of maximizing the use of clean energy and reducing the high energy consumption of data centers, further reducing carbon emissions.

Description

Energy-saving method for comprehensive utilization of wind power in data centers

technical field

The invention relates to the technical field of data centers, in particular to an energy-saving method for comprehensive utilization of wind power in a data center.

Background technique

For the carbon neutrality of the data center, there are two paths to consider: (1) direct use of electricity with zero carbon emissions; (2) offsetting through the carbon trading market or the green power trading market, so as to achieve zero carbon emissions.

At present, electricity supply that can achieve zero carbon emissions mainly refers to electricity produced by non-fossil energy sources, including solar photovoltaic power generation and wind power generation.

In common data center computer room buildings, photovoltaic solar panels are usually installed on the roof to realize the utilization of solar energy. The method is single and the conversion efficiency of solar energy is low, and the effect on reducing carbon emissions is poor.

In view of this, this application proposes an energy-saving method for comprehensive utilization of wind power in data centers. By using solar and wind power generation in conjunction with distributed power generation and storage systems, it is better to maximize the use of clean energy and reduce high energy consumption in data centers. Purpose.

Contents of the invention

Aiming at the above-mentioned problems in the prior art, the present invention provides an energy-saving method for comprehensive utilization of wind power in a data center.

In order to solve the above technical problems, the present invention is solved through the following technical solutions:

An energy-saving method for comprehensive utilization of wind power in a data center, comprising:

Obtaining solar energy from the roof and the outer sunny side of at least one machine room building and converting the solar energy into electrical energy;

Obtaining wind energy on the outside shady side of at least one of the machine room buildings and converting the wind energy into the electrical energy;

Provide a distributed power generation and energy storage system and an energy storage shelter, the distributed power generation and energy storage system is used to store the electric energy in the energy storage shelter and/or store the energy in the energy storage shelter The electric energy is delivered to the data center for use.

Preferably, when performing the step of obtaining solar energy on the roof and the outer sunny side of at least one machine room building and converting the solar energy into electrical energy, it specifically includes:

Provide at least one BIPV photovoltaic solar roof;

The BIPV photovoltaic solar roof is arranged on the roof of the machine room building, so as to obtain the solar energy and convert the solar energy into the electric energy.

Preferably, when performing the step of obtaining solar energy on the roof and the outer sunny side of at least one machine room building and converting the solar energy into electrical energy, it specifically includes:

Provide at least one building photovoltaic wall panel;

The building photovoltaic wall panels are arranged on the outer sunny side of the machine room building, so as to obtain the solar energy and convert the solar energy into the electric energy.

Preferably, when performing the step of obtaining wind energy on the outside shady side of at least one of the machine room buildings and converting the wind energy into the electric energy, it specifically includes:

provide at least one vertical axis wind turbine;

The vertical axis wind power generator is arranged on the outer shaded side of the machine room building, so as to obtain the wind energy and convert the wind energy into the electric energy.

Preferably, a distributed power generation and energy storage system and an energy storage shelter are provided, and the distributed power generation and energy storage system is used to store the electric energy in the energy storage shelter and/or store the energy storage When the electric energy in the shelter is delivered to the data center for use, it specifically includes,

Based on the BIPV photovoltaic solar roof provided on the roof of at least one of the computer room buildings, define different computer room buildings and/or different BIPV photovoltaic solar roofs as a group, and combine them with the distributed power generation and storage The energy system, the energy storage shelter and the data center are connected;

The distributed power generation and energy storage system stores the electric energy converted by each group in the energy storage shelter and/or transmits the electric energy in the energy storage shelter to the data center for use.

Preferably, a distributed power generation and energy storage system and an energy storage shelter are provided, and the distributed power generation and energy storage system is used to store the electric energy in the energy storage shelter and/or store the energy storage When the electric energy in the shelter is delivered to the data center for use, it specifically includes,

Based on the building photovoltaic wall panels provided on the outer sunny side of at least one of the computer room buildings, define different computer room buildings and/or different building photovoltaic wall panels as a group, and The distributed power generation and energy storage system, the energy storage shelter and the data center are connected;

The distributed power generation and energy storage system stores the electric energy converted by each group in the energy storage shelter and/or transmits the electric energy in the energy storage shelter to the data center for use.

Preferably, a distributed power generation and energy storage system and an energy storage shelter are provided, and the distributed power generation and energy storage system is used to store the electric energy in the energy storage shelter and/or store the energy storage When the electric energy in the shelter is delivered to the data center for use, it specifically includes,

Based on the vertical axis wind turbines set on the outer shaded side of at least one of the machine room buildings, define different machine room buildings and/or different vertical axis wind turbines as a group, and The distributed power generation and energy storage system, the energy storage shelter and the data center are connected;

The distributed power generation and energy storage system stores the electric energy converted by each group in the energy storage shelter and/or transmits the electric energy in the energy storage shelter to the data center for use.

Preferably, at least one of said vertical axis wind generators constitutes at least one power generating wind wall;

Provide an overhanging structural beam corresponding to the number of the power generation wind wall; one end of the overhanging structural beam is fixed at the machine room building;

In the state where the wind wall for power generation is arranged at the machine room building, the overhanging structural beam realizes the support for the wind wall for power generation.

Preferably, a reserved distance is set between the vertical axis wind power generator and the machine room building.

The present invention at least has the following beneficial effects:

An energy-saving method for comprehensive utilization of wind power in a data center of the present application, by using solar energy and wind power in conjunction with distributed power generation and storage systems, preferably achieves the purpose of maximizing the use of clean energy and reducing high energy consumption in data centers, and further Reduce carbon emissions.

Description of drawings

Fig. 1 is the schematic diagram of the computer room building in the present application;

Fig. 2 is the flowchart of the energy-saving method for comprehensive utilization of wind power in the present application;

Fig. 3 is the first schematic diagram of the installation of the wind wall for power generation in the machine room in the present application;

Fig. 4 is the second schematic diagram of the installation of the wind wall for power generation in the machine room in the present application;

Figure 5 is a schematic diagram of the first wind wall for power generation in the present application;

Fig. 6 is a schematic diagram of the second wind wall for power generation in this application.

The names of the parts indicated by the numerals in the accompanying drawings are as follows:

110. Machine room building; 111. Outer sunny side; 112. Outer shaded side; 120. BIPV photovoltaic solar roof; 130. Photovoltaic wall panels for buildings; 140. Vertical axis wind power generator; 210. Solar photovoltaic management and monitoring system; 220 , wind power generation management and monitoring system; 230, energy storage shelter; 240, data center; 310, power generation wind wall; 320, overhanging structural beam.

Detailed ways

In order to further understand the content of the present invention, the present invention will be described in detail in conjunction with the accompanying drawings and embodiments. It should be understood that the examples are only for explaining the present invention and not for limiting it.

As shown in Figure 1-2, this embodiment provides an energy-saving method for comprehensive utilization of wind power in a data center, which includes:

Harvesting solar energy on the roof and the outer sunny side 111 of at least one machine room building 110 and converting the solar energy into electrical energy;

Obtaining wind energy on the outer shaded side 112 of at least one of the machine room buildings 110 and converting the wind energy into electrical energy;

Provide a distributed power generation and energy storage system and an energy storage shelter 230, the distributed power generation and energy storage system is used to store the electric energy in the energy storage shelter 230 and/or store the energy storage shelter 230 The electric energy in 230 is delivered to the data center 240 for use.

It should be noted that solar energy belongs to clean and renewable energy. Usually, the roof of the computer room building 110 and the outer sunny surface 111 of the data center 240 will be exposed to sunlight. The solar energy at the surface 111 is collected and converted into electrical energy, which can better achieve the purpose of providing electrical energy for the data center 240, so that the electrical energy used by the data center 240 is basically converted from solar energy, thereby further reducing carbon. emission.

It can be understood that the solar illumination at the outer shady side 112 of the machine room building 110 is relatively poor, so the efficiency of collecting solar energy at the outer shady side 112 is very low. In order to make full use of the space outside the machine room building 110, in this embodiment , the wind energy is collected at the outer shaded side 112, and the wind energy is converted into electrical energy. Similarly, the purpose of providing electrical energy for the data center 240 can be better achieved, so that the electrical energy used by the data center 240 is basically through solar energy and/or Or wind energy conversion, thereby further reducing carbon emissions.

It is worth mentioning that in this embodiment, the space of the roof of the machine room building 110, the outer sunny side 111 and the outer shady side 112 can be fully utilized, and solar energy and wind energy can be maximized; it can be known that the roof and the outer sunny side The collection and transformation of solar energy by 111 can be complementary to the outer shady surface 112. When there is no wind, the roof of the computer room building 110 and the outer sunny surface 111 can collect and transform solar energy, which can realize power supply for the data center 240. When it is cloudy, the outer shaded side 112 of the computer room building 110 collects and converts wind energy, which can also provide power for the data center 240 .

In order to make more rational use of the electric energy converted from solar energy and wind energy, this embodiment is also equipped with a distributed power generation and energy storage system and an energy storage shelter 230. The distributed power generation and energy storage system can convert solar energy and wind energy into The incoming electric energy can be transported to the energy storage shelter 230 for storage, and the electric energy stored in the energy storage shelter 230 can also be delivered to the data center 240 for use. The electric energy stored in the energy shelter 230 is supplied to the data center 240. On the one hand, the goal of reducing carbon emissions is further achieved;

In this embodiment, the process of storing electrical energy in the energy storage shelter 230 and the process of delivering the electrical energy in the energy storage shelter 230 to the data center 240 can be performed simultaneously or independently.

In this embodiment, when performing the steps of obtaining solar energy on the roof and the outer sunny surface 111 of at least one machine room building 110 and converting the solar energy into electrical energy, specifically include:

providing at least one BIPV photovoltaic solar roof 120;

The BIPV photovoltaic solar roof 120 is arranged on the roof of the machine room building 110 to obtain the solar energy and convert the solar energy into electrical energy.

Here is a further introduction to BIPV photovoltaic solar roof 120. It is a new type of building energy-generating material. It can not only be used as a new type of roof material to replace color steel tiles, but also has efficient photovoltaic power generation capabilities; it can be directly covered on concrete roofs when in use. Or on the roof of a modular building, it can also protect the roof without destroying the original roof layer, and enhance the waterproof ability of the roof.

By setting the BIPV photovoltaic solar roof 120 on the roof of the machine room building 110 in this embodiment, the sunlight can be better irradiated on the BIPV photovoltaic solar roof 120, so as to be collected by the BIPV photovoltaic solar roof 120 and converted into electrical energy.

It can be understood that since the roof of the computer room building 110 is directly exposed to the outside and has no shelter, it can be directly irradiated by sunlight. Setting up a BIPV photovoltaic solar roof 120 here can further improve the efficiency of converting solar energy into electrical energy and achieve carbon reduction. Emissions and purposes for use by the data center 240.

In this embodiment, when performing the steps of obtaining solar energy on the roof and the outer sunny surface 111 of at least one machine room building 110 and converting the solar energy into electrical energy, specifically include:

providing at least one architectural photovoltaic wall panel 130;

The building photovoltaic wall panels 130 are arranged on the outer sunny side 111 of the machine room building 110 to obtain the solar energy and convert the solar energy into electrical energy.

The photovoltaic wall panel 130 for building is further introduced here, which is a new type of photovoltaic product with certain fireproof, sealing, heat preservation and waterproof performances.

In this embodiment, the building photovoltaic wall panels 130 are arranged on the outer sunny side 111 of the computer room building 110, so that the sunlight can be better irradiated on the building photovoltaic wall panels 130, so as to be collected by the building photovoltaic wall panels 130. and converted into electricity.

It can be understood that the sun-facing surface 111 on the outside of a general building usually receives sunlight for a long time. In order to further improve the collection and conversion of solar energy and reduce carbon emissions, in this embodiment, the external The sun-facing surface 111 collects and converts solar energy through the photovoltaic wall panels 130 for buildings, which can maximize the use of solar energy and achieve the purpose of reducing carbon emissions and saving energy.

It should be noted that the outer sunny side 111 of a general building usually refers to the south and west sides of a building facing south. Of course, if one side of the building can receive sunlight for a longer period of time, it can also be defined as the outer side. Sunny side 111.

As shown in FIGS. 5-6 , in this embodiment, when performing the steps of obtaining wind energy on the outer shaded side 112 of at least one of the computer room buildings 110 and converting the wind energy into the electric energy, specifically include:

providing at least one vertical axis wind turbine 140;

The vertical axis wind power generator 140 is arranged on the outer shaded side 112 of the machine room building 110 to obtain the wind energy and convert the wind energy into the electric energy.

In this embodiment, vertical axis wind power generators 140 with two different structures as shown in Fig. 5 and Fig. 6 are specifically provided.

The vertical axis wind power generator 140 is further introduced here. The rotation axis of the wind rotor of the vertical axis wind power generator 140 is perpendicular to the ground or the direction of wind flow. Convenience, smaller radius of gyration, wide range of wind speed and long fatigue life, etc., can use lighter materials and make it into wind walls or modules for power generation; it is understandable that wind power can be generated at night without sunlight , rainy days and other times to generate power, the power generation time is longer than that of photovoltaic power generation.

Since the outer shady side 112 of the machine room building 110 is irradiated by sunlight for a short time, the utilization efficiency of photovoltaic power generation is low. 140, so that when there is wind flow, the vertical axis wind generator 140 can be driven by the wind, so the wind energy can be converted into electric energy, so as to achieve the purpose of reducing carbon emission and saving energy.

It should be noted that the outer shady side 112 of a general building usually refers to the north and east sides of a building facing south. Of course, if one side of the building can receive sunlight for a shorter time, it can also be defined as the outer shady side 112.

In this embodiment, a distributed power generation and energy storage system and an energy storage shelter 230 are provided, and the distributed power generation and energy storage system is used to store the electric energy in the energy storage shelter 230 and/or The step of delivering the electric energy in the energy storage shelter 230 to the data center 240 for use specifically includes:

Based on the BIPV photovoltaic solar roof 120 provided on the roof of at least one of the computer room buildings 110, define different computer room buildings 110 and/or different BIPV photovoltaic solar roofs 120 as a group, and with the distribution type power generation and energy storage system, the energy storage shelter 230 and the data center 240 are connected;

The distributed power generation and energy storage system stores the electric energy transformed by each group into the energy storage shelter 230 and/or transmits the electric energy in the energy storage shelter 230 to the data center 240 use.

In this embodiment, the distributed power generation and energy storage system is used to dispatch the electric energy converted by the BIPV photovoltaic solar roof 120;

BIPV photovoltaic solar roof 120 grouping includes at least the following situations:

1) The BIPV photovoltaic solar roofs 120 of different machine room buildings 110 form a group;

2) Single or multiple BIPV photovoltaic solar roofs 120 of different computer room buildings 110 are grouped;

3) The BIPV photovoltaic solar roofs 120 of the same computer room building 110 form a group;

4) The single or multiple BIPV photovoltaic solar roofs 120 of the same computer room building 110 form a group.

According to the above four grouping situations, the distributed power generation and energy storage system can flexibly schedule, store and/or use the electric energy converted by the BIPV photovoltaic solar roof 120 according to the actual situation.

In this embodiment, a distributed power generation and energy storage system and an energy storage shelter 230 are provided, and the distributed power generation and energy storage system is used to store the electric energy in the energy storage shelter 230 and/or The step of delivering the electric energy in the energy storage shelter 230 to the data center 240 for use specifically includes:

Based on the building photovoltaic wall panels 130 provided on the outer sunny side 111 of at least one computer room building 110, different computer room buildings 110 and/or different building photovoltaic wall panels 130 are defined as one group, and connected with the distributed power generation and energy storage system, the energy storage shelter 230 and the data center 240;

The distributed power generation and energy storage system stores the electric energy transformed by each group into the energy storage shelter 230 and/or transmits the electric energy in the energy storage shelter 230 to the data center 240 use.

In this embodiment, the distributed power generation and energy storage system is used to dispatch the electric energy transformed by the building photovoltaic wall panels 130;

The grouping of photovoltaic wall panels 130 for buildings at least includes the following situations:

1) The building photovoltaic wall panels 130 of different machine room buildings 110 form a group;

2) A single or multiple building photovoltaic wall panels 130 in different machine room buildings 110 form a group;

3) The building photovoltaic wall panels 130 of the same computer room building 110 are a group;

4) A single or multiple building photovoltaic wall panels 130 of the same computer room building 110 form a group.

According to the above four grouping situations, the distributed power generation and energy storage system can flexibly schedule, store and/or use the electric energy converted by the building photovoltaic wall panels 130 according to the actual situation.

In this embodiment, a distributed power generation and energy storage system and an energy storage shelter 230 are provided, and the distributed power generation and energy storage system is used to store the electric energy in the energy storage shelter 230 and/or The step of delivering the electric energy in the energy storage shelter 230 to the data center 240 for use specifically includes:

Based on the vertical axis wind turbines 140 provided at the outer shaded surface 112 of at least one machine room building 110, different said machine room buildings 110 and/or different vertical axis wind turbines 140 are defined as one group, and connected with the distributed power generation and energy storage system, the energy storage shelter 230 and the data center 240;

The distributed power generation and energy storage system stores the electric energy transformed by each group into the energy storage shelter 230 and/or transmits the electric energy in the energy storage shelter 230 to the data center 240 use.

In this embodiment, the distributed power generation and energy storage system is used to dispatch the electric energy transformed by the vertical axis wind power generator 140;

The grouping of vertical axis wind turbines 140 includes at least the following conditions:

1) The vertical axis wind turbines 140 of different machine room buildings 110 form a group;

2) Single or multiple vertical-axis wind turbines 140 in different machine room buildings 110 form a group;

3) The vertical axis wind turbines 140 of the same machine room building 110 form a group;

4) Single or multiple vertical-axis wind turbines 140 in the same machine room building 110 form a group.

According to the above four grouping situations, the distributed power generation and energy storage system can flexibly schedule, store and/or use the electric energy converted by the vertical axis wind turbine 140 according to the actual situation.

To further illustrate, the distributed power generation and energy storage system in this embodiment specifically includes a solar photovoltaic management and monitoring system 210 and a wind power generation management and monitoring system 220, wherein the solar photovoltaic management and monitoring system 210 is used to dispatch the BIPV photovoltaic solar roof 120 And building photovoltaic wall panels 130 , wherein the wind power generation management and monitoring system 220 is used to dispatch the vertical axis wind power generator 140 .

As shown in FIGS. 3-4 , in this embodiment, at least one vertical axis wind power generator 140 constitutes at least one power generation wind wall 310 ;

Provide overhanging structural beams 320 corresponding to the number of the power generation wind wall 310; one end of the overhanging structural beams 320 is fixed at the machine room building 110;

When the power generating wind wall 310 is installed at the machine room building 110 , the overhanging structural beam 320 supports the power generating wind wall 310 .

In this embodiment, a power generating wind wall 310 composed of two vertical axis wind power generators 140 with different structures as shown in FIG. 5 and FIG. 6 is specifically provided.

Through the setting of the power generation wind wall 310 in this embodiment, the wind energy can be converted into electric energy in a large range at the outer shaded side 112 of the machine room building 110, thereby improving the amount of power generation and the efficiency of power generation, and meeting the demand for power usage of the data center 240 .

Since the power generation wind wall 310 has a certain weight, it needs to be reinforced when it is installed outside the machine room building 110, so as to improve the stability of the installation of the power generation wind wall 310 and improve the safety. 320, one end of which is fixedly connected to the machine room building 110, and the other end extends outward, and the power generation wind wall 310 is set on the overhanging structural beam 320, so that the power generation wind wall 310 can be supported by the overhanging structural beam 320, Improve the stability of the installation of the wind wall 310 for power generation.

It should be noted that the overhanging structural beam 320 can be a part extended from the main body of the machine room beam, that is, the overhanging structural beam 320 can be integrally formed with the machine room building 110, and its stability is the best. One end of the cantilever beam 320 may be fixedly connected to the machine room building 110 by means of bolts or the like.

In this embodiment, overhanging structural beams 320 are arranged on the upper and lower sides of the power generation wind wall 310, and two adjacent overhanging structural beams 320 can be fixed and connected by bolts to make them integrated, which can correspondingly improve the overhanging structure. The strength of the beam 320 further improves the stability of supporting the wind wall 310 for power generation.

In this embodiment, there is a reserved distance between the vertical axis wind power generator 140 and the machine room building 110 .

By setting a reserved distance between the vertical axis wind generator 140 and the machine room building 110, there is a certain distance between the vertical axis wind generator 140 and the machine room building 110, thereby facilitating the flow of wind and further improving the vertical axis wind turbine. 140 work efficiency.

In a word, the above descriptions are only preferred embodiments of the present invention, and all equivalent changes and modifications made according to the scope of the patent application of the present invention shall fall within the scope of the patent of the present invention.

Claims (9)

1. An energy-saving method for comprehensive utilization of wind power in a data center, characterized in that: Obtaining solar energy from the roof and the outer sunny side of at least one machine room building and converting the solar energy into electrical energy; Obtaining wind energy on the outside shady side of at least one of the machine room buildings and converting the wind energy into the electrical energy; Provide a distributed power generation and energy storage system and an energy storage shelter, the distributed power generation and energy storage system is used to store the electric energy in the energy storage shelter and/or store the energy in the energy storage shelter The electric energy is delivered to the data center for use. 2. The energy-saving method for comprehensive utilization of wind power in a data center according to claim 1, characterized in that: when performing the step of obtaining solar energy from the roof and the outer sunny side of at least one machine room building and converting the solar energy into electrical energy, Specifically include, Provide at least one BIPV photovoltaic solar roof; The BIPV photovoltaic solar roof is arranged on the roof of the machine room building, so as to obtain the solar energy and convert the solar energy into the electric energy. 3. The energy-saving method for comprehensive utilization of wind power in a data center according to claim 1 or 2, characterized in that: the step of obtaining solar energy from the roof and the outer sunny side of at least one machine room building and converting the solar energy into electrical energy , specifically include, Provide at least one building photovoltaic wall panel; The building photovoltaic wall panels are arranged on the outer sunny side of the machine room building, so as to obtain the solar energy and convert the solar energy into the electric energy. 4. The energy-saving method for comprehensive utilization of wind power in a data center according to claim 1, characterized in that: the step of obtaining wind energy on the outside shaded side of at least one of the computer room buildings and converting the wind energy into electrical energy , specifically include, provide at least one vertical axis wind turbine; The vertical axis wind power generator is arranged on the outer shaded side of the machine room building, so as to obtain the wind energy and convert the wind energy into the electric energy. 5. The energy-saving method for comprehensive utilization of wind power in a data center according to claim 2, characterized in that: providing a distributed power generation and energy storage system and an energy storage shelter, and the distributed power generation and energy storage system is used for When storing the electric energy in the energy storage shelter and/or transferring the electric energy in the energy storage shelter to the data center for use, specifically include: Based on the BIPV photovoltaic solar roof provided on the roof of at least one of the computer room buildings, define different computer room buildings and/or different BIPV photovoltaic solar roofs as a group, and combine them with the distributed power generation and storage The energy system, the energy storage shelter and the data center are connected; The distributed power generation and energy storage system stores the electric energy converted by each group in the energy storage shelter and/or transmits the electric energy in the energy storage shelter to the data center for use. 6. The energy-saving method for comprehensive utilization of wind power in a data center according to claim 3, characterized in that: a distributed power generation and energy storage system and an energy storage shelter are provided, and the distributed power generation and energy storage system is used for When storing the electric energy in the energy storage shelter and/or transferring the electric energy in the energy storage shelter to the data center for use, specifically include: Based on the building photovoltaic wall panels provided on the outer sunny side of at least one of the computer room buildings, define different computer room buildings and/or different building photovoltaic wall panels as a group, and The distributed power generation and energy storage system, the energy storage shelter and the data center are connected; The distributed power generation and energy storage system stores the electric energy converted by each group in the energy storage shelter and/or transmits the electric energy in the energy storage shelter to the data center for use. 7. The energy-saving method for comprehensive utilization of wind power in a data center according to claim 4, characterized in that: a distributed power generation and energy storage system and an energy storage shelter are provided, and the distributed power generation and energy storage system is used for When storing the electric energy in the energy storage shelter and/or transferring the electric energy in the energy storage shelter to the data center for use, specifically include: Based on the vertical axis wind turbines set on the outer shaded side of at least one of the machine room buildings, define different machine room buildings and/or different vertical axis wind turbines as a group, and The distributed power generation and energy storage system, the energy storage shelter and the data center are connected; The distributed power generation and energy storage system stores the electric energy converted by each group in the energy storage shelter and/or transmits the electric energy in the energy storage shelter to the data center for use. 8. The energy-saving method for comprehensive utilization of wind power in a data center according to claim 4, characterized in that: At least one of said vertical axis wind turbines constitutes at least one generating wind wall; Provide an overhanging structural beam corresponding to the number of the power generation wind wall; one end of the overhanging structural beam is fixed at the machine room building; In the state where the wind wall for power generation is arranged at the machine room building, the overhanging structural beam realizes the support for the wind wall for power generation. 9 . The energy-saving method for comprehensive utilization of wind power in a data center according to claim 4 , wherein a reserved distance is set between the vertical axis wind power generator and the machine room building. 10 .

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