A pyramid type new energy building system

Abstract

The application discloses a kind of new energy building systems of pyramid, including: pyramid architecture, surface layer is equipped with photovoltaic panel array;Energy storage module, install the bottom layer of ground below pyramid architecture, is equipped with electric energy storage device;Energy conversion module, is equipped with central energy shaft, the central energy shaft is installed in pyramid architecture, located at pyramid architecture central axis, first wire group and electric energy conversion device are equipped in central energy shaft, first wire group is connected photovoltaic panel array and electric energy conversion device respectively, electric energy conversion device is used to convert the electric energy transmitted by photovoltaic panel into the electricity for life, and electric energy conversion device is connected with electric energy storage device;Energy application module, is equipped with commercial architecture, and the electric device is arranged in commercial architecture, and the electric device is connected with energy conversion module and energy storage module;The application realizes the maximization collection of building surface photovoltaic power generation efficiency.

Description

Technical Field

[0001] This invention relates to the field of new energy, and in particular to a pyramid-shaped new energy building system. Background Technology

[0002] New and renewable sources of energy (abbreviated as NRSE

[12] ) refers to energy forms other than traditional energy sources such as coal, oil, and natural gas. It is also known as unconventional energy. It refers to energy sources that have just begun to be developed and utilized or are being actively researched and are yet to be promoted. It includes solar energy, geothermal energy, wind energy, ocean energy, biomass energy, and nuclear fusion energy. It is characterized by being green and low-carbon, not having the risk of resource depletion, and having declining energy prices. It is a key area for future energy development.

[0003] In buildings, the main application of new energy is solar energy, which uses photovoltaic panels to absorb solar energy and convert it into electricity. The most common solar energy application equipment in traditional buildings is solar water heaters, which meet people's daily hot water needs. However, using only solar water heaters results in a low utilization rate of new energy, and it is not possible to make more effective and comprehensive use of new energy. Summary of the Invention

[0004] To overcome the shortcomings of existing technologies that rely solely on solar water heaters, resulting in low renewable energy utilization and an inability to fully and comprehensively utilize renewable energy sources, this invention provides a pyramid-shaped renewable energy building system, comprising:

[0005] The pyramid structure has a photovoltaic panel array on the surface.

[0006] The energy storage module is installed in the underground layer below the pyramid structure and is equipped with an energy storage device.

[0007] The energy conversion module is equipped with a central energy shaft, which is installed inside the pyramid structure and located at the central axis of the pyramid structure. The central energy shaft is equipped with a first conductor group and an energy conversion device. The first conductor group is connected to the photovoltaic panel array and the energy conversion device respectively. The energy conversion device is used to convert the electrical energy transmitted by the photovoltaic panel into electricity that can be used for daily life. The energy conversion device is connected to an energy storage device.

[0008] The energy application module has a commercial architecture, which is installed at the bottom of the pyramid architecture. The commercial architecture is a continuation of the bottom of the pyramid architecture. The commercial architecture contains electrical devices, which are connected to energy storage devices. The commercial architecture is used for commercial activities.

[0009] Optionally, the energy conversion module also includes an inclined plane power transmission network, which is equipped with a second conductor group and a second power conversion device. The second conductor group is connected to the second power conversion device, and the second power conversion device is connected to the power consumption device.

[0010] Optionally, the central energy shaft is also equipped with a hydrogen energy conversion device, and the energy storage module is also equipped with a hydrogen energy storage device. The electrical energy conversion device is connected to the hydrogen energy conversion device, and the hydrogen energy conversion device is connected to the hydrogen energy storage device through a hydrogen energy transmission pipeline.

[0011] Optionally, the central energy shaft is also equipped with a thermal energy conversion device, and the energy storage module is also equipped with a thermal energy storage device. The electrical energy conversion device is connected to the thermal energy conversion device, and the thermal energy conversion device is connected to the thermal energy storage device through a thermal energy transmission pipeline.

[0012] Optionally, the inclined plane energy transmission also includes a third conductor group connected to an energy storage device.

[0013] Optionally, the heat energy conversion device is a heat exchanger, and the heat energy storage device is a water storage tank.

[0014] Optionally, a wind turbine is also installed at the top of the pyramid, with the wind turbine mounted on the pyramid structure and connected to the central energy shaft.

[0015] Optionally, the pyramid structure is divided into an upper and lower part with equal vertical height. The slope angle of the lower part is 53°±1°, and the slope angle of the upper part is 51±1°. A transition zone is provided between the upper and lower parts, and a double-layer ring truss is provided in the transition zone.

[0016] Optionally, the pyramid structure is equipped with a damping device, which includes an annular tuned water tank located at the top of the pyramid and a tuned mass block suspended in the middle.

[0017] Optionally, the photovoltaic panel array is equipped with a heat dissipation pipe assembly at the bottom.

[0018] The beneficial effects of this invention are: it maximizes the collection of photovoltaic power generation efficiency on building surfaces, optimizes the topology of power transmission paths, and establishes a physical proximity relationship between energy storage devices and power-consuming terminals. This system effectively shortens energy transmission distances, reduces line losses, and improves solar energy conversion efficiency. The building spatial layout and energy system form an organic whole, solving the problem of spatial fragmentation in energy production, storage, and application in traditional buildings, and achieving efficient and comprehensive utilization of new energy sources. Attached Figure Description

[0019] The present invention will be further described below with reference to the accompanying drawings and embodiments.

[0020] Figure 1 These are schematic diagrams of the pyramid structure in some embodiments;

[0021] Figure 2 These are schematic diagrams of the pyramid structure in some embodiments;

[0022] Figure 3 These are schematic diagrams of the pyramid structure in some embodiments;

[0023] Figure 4 These are schematic diagrams of the pyramid structure in some embodiments;

[0024] Figure 5 These are system block diagrams from some embodiments;

[0025] Explanation of reference numerals in the attached diagram: 1. Pyramid structure; 2. Photovoltaic panel; 3. Central energy shaft; 4. Energy conversion module; 5. Energy storage module; 6. Ground; 501. Electrical energy storage device; 502. Thermal energy storage device; 503. Hydrogen energy storage device. Detailed Implementation

[0026] The following will clearly and completely describe the concept, specific structure, and technical effects of the present invention in conjunction with embodiments and accompanying drawings, so as to fully understand the purpose, features, and effects of the present invention. Obviously, the described embodiments are only a part of the embodiments of the present invention, not all of them. Other embodiments obtained by those skilled in the art based on the embodiments of the present invention without creative effort are all within the scope of protection of the present invention. Furthermore, all connections / linkages involved in the patent do not simply refer to direct contact between components, but rather to the ability to form a better connection structure by adding or reducing connecting accessories according to specific implementation conditions. The various technical features in this invention can be combined interactively without contradicting each other.

[0027] In existing technologies, the utilization of new energy in traditional buildings is mainly limited to single devices such as solar water heaters, failing to achieve integrated applications of multiple energy forms. Conventional building structures lack systematic energy management design, resulting in low energy harvesting efficiency, high transmission losses, and a disconnect between storage and application. Taking solar energy utilization as an example, dispersed photovoltaic modules struggle to achieve large-scale power generation, and power conversion devices and energy storage equipment are typically separate, leading to lengthy wiring and energy losses. The spatial isolation between electricity demand and energy production in commercial areas further reduces overall energy utilization efficiency.

[0028] To address the aforementioned issues, designers observed that the pyramid shape, with its central symmetry and steeply sloping surfaces, optimizes solar radiation reception efficiency. To address the problem of excessively long energy transmission paths, they considered arranging the energy conversion devices vertically along the building's central axis. By integrating power generation, energy storage, and conversion modules into a spatially coupled system, they explored the collaborative design of the building structure and energy system. The focus was on resolving three core issues: how to achieve efficient photovoltaic power collection, how to shorten energy transmission distances, and how to establish direct connections between energy storage and power consumption.

[0029] like Figure 1 and Figure 5 As shown, this application proposes a pyramid structure 1 with a photovoltaic panel array 2 on its surface; an energy storage module installed in the underground layer below the pyramid structure 1, equipped with an energy storage device 501; an energy conversion module 4 with a central energy shaft 3 installed inside the pyramid structure 1 at its central axis, the central energy shaft 3 containing a first conductor group and an energy conversion device, the first conductor group being connected to the photovoltaic panel array 2 and the energy conversion device respectively, the energy conversion device being used to convert the electrical energy transmitted by the photovoltaic panels 2 into electricity for residential use, the energy conversion device being connected to the energy storage device 501; and an energy application module with a commercial structure containing electrical appliances, the electrical appliances being connected to the energy conversion module 4.

[0030] The photovoltaic panel array 2 refers to the solar energy collection device covering the outer surface of the pyramid. Specifically, it can be formed by splicing monocrystalline silicon solar panels to create a continuous covering layer, maximizing the reception of solar radiation through the inclined surface. The energy storage device 501 refers to the underground energy storage equipment, which can be a lithium-ion battery pack or a flow battery system to store the electrical energy generated by the photovoltaic panels 2. The central energy shaft 3 refers to the tubular structure running through the vertical central axis of the building. Specifically, it can be a vertical channel constructed of reinforced concrete, with large-section copper core cables laid inside as the first conductor group to realize the direct transmission of electrical energy from the top to the bottom. The commercial structure is a continuation of the base of the pyramid structure 1 or the base structure of the pyramid structure 1 itself. Specifically, it can be an expansion of the building's base area using a steel structure frame, with lighting systems, air conditioning units, and other electrical terminals installed inside for commercial use.

[0031] Specifically, the photovoltaic panel array 2 converts solar energy into direct current (DC), which is then vertically transmitted along the central energy shaft 3 to the power conversion device via the first conductor group. The power conversion device converts the DC to alternating current (AC), with some power directly supplying the electrical equipment in the commercial building, and the remaining power stored in an energy storage device at the underground level. When sunlight is insufficient, the energy storage device supplies power to the commercial building via the shortest path. The pyramid's geometry not only provides the optimal tilt angle for the photovoltaic panels 2, but its centrally symmetrical structure also makes the energy shaft the shortest power convergence point for all photovoltaic units, reducing line resistance losses. The underground energy storage module is located close to the commercial area at the bottom, avoiding energy losses caused by long-distance power transmission.

[0032] Compared to existing technologies, traditional photovoltaic (PV) systems in buildings are typically distributed across rooftops or walls, requiring complex wiring to collect electricity at conversion devices. This solution, through a pyramid-structured overall design, expands the PV coverage area to the entire exterior surface of the building and utilizes a central shaft for vertical power transmission. Traditional energy storage devices are mostly located above ground within the building; this solution buries them underground, saving space and maintaining temperature stability. Conventional commercial buildings rely on external power grids for energy supply; this solution integrates power generation, storage, and consumption functions within the building itself, forming a self-sufficient energy cycle system.

[0033] Through the above technical solutions, this application maximizes the collection of photovoltaic power generation efficiency on building surfaces, optimizes the topology of power transmission paths, and establishes a physical proximity relationship between energy storage devices and power-consuming terminals. This system effectively shortens energy transmission distances, reduces line losses, and improves solar energy conversion efficiency. The building spatial layout and energy system form an organic whole, solving the spatial fragmentation problem of energy production, storage, and application in traditional buildings, and achieving efficient and comprehensive utilization of new energy sources.

[0034] Furthermore, the pyramid-shaped new energy building system can be used in a variety of commercial applications, as well as residential or industrial applications, such as... Figure 2 , Figure 3 , Figure 4 As shown, Figure 2 This invention showcases a pyramid-shaped renewable energy building. The photovoltaic panels 2 on the pyramid structure 1 are arranged along the sloping face of the pyramid, with multiple rows of photovoltaic panels 2 thus arranged on the surface of the pyramid structure 1. Figure 3 and Figure 4 As shown, two different pyramid structures are illustrated.

[0035] For industrial manufacturing applications, the dimensions of a pyramid-shaped new energy building are 100-150 meters long, 100-150 meters wide, and 100-150 meters high. A specific example is a pyramid-shaped new energy building with dimensions of 148 meters long, 148 meters wide, and 148 meters high. For general commercial applications, the dimensions are 30-70 meters long, 30-70 meters wide, and 30-70 meters high. A specific example is a pyramid-shaped new energy building with dimensions of 66 meters long, 66 meters wide, and 66 meters high. For small-scale commercial applications, the dimensions are 3-10 meters long, 3-10 meters wide, and 3-10 meters high. A specific example is a pyramid-shaped new energy building with dimensions of 5 meters long, 5 meters wide, and 5 meters high.

[0036] This application further proposes that the energy conversion module 4 be equipped with an inclined plane power transmission network, including a second conductor group and a second power conversion device, wherein the second conductor group is connected to the second power conversion device, and the second power conversion device is connected to the power consumption device.

[0037] The inclined plane power transmission network refers to the power transmission channel laid along the inclined plane structure of the pyramid. Specifically, it can be implemented using parallel arrangement of multi-strand stranded copper wires, extending along the pyramid's inclined plane to shorten the power transmission path. The second conductor group refers to the transmission line independent of the first conductor group within the central energy shaft 3. Specifically, it can use copper core cables with a cross-sectional area of ​​10 to 25 square millimeters to construct multi-path transmission and avoid overloading of a single line. The second power conversion device refers to the power processing unit located at the end of the inclined plane transmission network. Specifically, it can use inverter modules with multi-stage voltage transformation and AC / DC conversion functions to adapt and adjust according to the voltage and frequency requirements of commercial electrical equipment.

[0038] Specifically, the direct current (DC) generated by the photovoltaic panel array 2 is transmitted to the second power conversion device via a second conductor group, where it is converted into alternating current (AC) to meet the needs of commercial equipment after inversion. This device operates independently of the power conversion device within the central energy shaft 3, and for example, corresponding conversion parameters can be configured for the 220V / 50Hz equipment in the catering area and the 110V / 60Hz equipment in the office area. The second conductor group connects the photovoltaic panel array 2 to the commercial structure along the pyramid slope using the shortest path, avoiding line losses caused by the power detouring through the central shaft. The slope transmission network complements the shaft transmission, diverting at least 30% of the power load during peak electricity consumption periods.

[0039] This application further proposes to add a hydrogen energy conversion device to the central energy shaft 3, add a hydrogen energy storage device 503 to the energy storage module 5, connect the electrical energy conversion device to the hydrogen energy conversion device, and connect the hydrogen energy conversion device to the hydrogen energy storage device 503 through a hydrogen energy transmission pipeline.

[0040] The hydrogen energy conversion device refers to a device that converts electrical energy into hydrogen energy. Specifically, it can be implemented using a water electrolysis hydrogen production device, used to convert excess electrical energy generated by the photovoltaic panel array 2 into hydrogen energy for storage. The hydrogen energy storage device 503 refers to a container for storing hydrogen gas, specifically a high-pressure hydrogen storage tank or solid hydrogen storage material, used to provide backup energy storage space when the electrical energy storage device 501 is saturated. The hydrogen energy transmission pipeline refers to a pipeline system for transporting hydrogen gas, specifically made of an alloy material with hydrogen embrittlement resistance, used for directional transmission of hydrogen energy in a closed environment to prevent leakage risks.

[0041] Specifically, when the electricity generated by the photovoltaic panel array 2 exceeds immediate consumption needs, the power conversion device transfers a portion of the electricity to the hydrogen conversion device, where hydrogen is generated through water electrolysis. The generated hydrogen is then transported via a hydrogen transmission pipeline to the underground hydrogen storage device 503 for compression and storage. At night or when sunlight is insufficient, the stored hydrogen can be converted back into electricity via fuel cells to supply electrical equipment within the commercial building. This solution, by constructing a two-way conversion chain between electricity and hydrogen, solves the capacity limitation problem of single-battery energy storage in traditional buildings, while simultaneously achieving diversified energy storage.

[0042] This application further proposes that a thermal energy conversion device is provided in the central energy shaft 3, and a thermal energy storage device 502 is provided in the energy storage module 5. The electrical energy conversion device is connected to the thermal energy conversion device, and the thermal energy conversion device is connected to the thermal energy storage device 502 through a thermal energy transmission pipeline.

[0043] The thermal energy conversion device refers to the equipment that converts electrical energy into thermal energy. Specifically, it can be implemented using a resistance heater or an electromagnetic induction heater, used to store excess electrical energy as heat, thus avoiding energy waste. The thermal energy storage device 502 refers to the equipment that stores thermal energy, specifically using a phase change material thermal storage tank or an underground hot water storage tank, used to preserve the converted thermal energy and release it when needed. The thermal energy transmission pipeline refers to the pipeline that transports thermal energy, specifically using insulated metal pipes or vacuum insulated pipes, used to reduce losses during thermal energy transmission and ensure efficient delivery of thermal energy to the storage device.

[0044] Specifically, a portion of the electrical energy output from the power conversion device is transmitted to a thermal energy conversion device within the central energy shaft 3, where it is converted into heat energy through resistance heating or electromagnetic induction. The generated heat energy is then transported via insulated pipes to an underground thermal energy storage device 502, where it is stored in a phase change material or heat storage medium. When electrical appliances within the commercial building require heating, the stored heat energy can be extracted for heating or hot water supply. The thermal energy conversion device within the central energy shaft 3 is directly connected to the power conversion device, achieving a directional conversion of electrical energy into heat energy and avoiding the energy surplus problem caused by solely storing electrical energy.

[0045] This application further proposes that the inclined plane energy transmission also includes a third conductor group, which is connected to the energy storage device 501.

[0046] The third conductor group refers to a set of conductors independent of the central energy shaft 3. It can be implemented using copper core cables or aluminum conductors and serves to establish a direct power transmission channel between the inclined energy transmission network and the energy storage device 501. This conductor group directly transmits the electricity generated by the inclined photovoltaic panels 2 to the energy storage device through a physical connection, without needing to pass through the conversion device in the central shaft. The energy storage device 501 is a device for storing electrical energy, specifically implemented using lithium-ion battery packs or flow battery systems. It receives and stores the electrical energy from the third conductor group, providing a stable power supply for subsequent energy applications.

[0047] Specifically, the third conductor group added to the inclined energy transmission network is directly connected to the energy storage device 501, forming an energy storage path independent of the central energy shaft 3. The electricity generated by the inclined photovoltaic panels 2 is directly input to the energy storage device through the third conductor group, avoiding the intermediate link of the conversion device within the central shaft. This design creates an independent channel between the inclined energy transmission network and the energy storage module, reducing energy loss during power transmission. In the event of a failure in the central shaft, the third conductor group can still maintain the continuous transmission of inclined photovoltaic power to the energy storage device, ensuring system redundancy.

[0048] This application further proposes that the heat energy conversion device is a heat exchanger and the heat energy storage device 502 is a water storage tank.

[0049] The heat exchanger is used to convert electrical energy into heat energy to heat the water in the heat transmission pipeline, and the water storage tank is used to store water.

[0050] Specifically, the heat exchanger heats the water in the heat transfer pipe, which then transfers the hot water to a storage tank. The hot water in the storage tank can be used for domestic or commercial purposes.

[0051] This application further proposes that a wind turbine generator is also installed at the top of the pyramid, the wind turbine generator is installed on the pyramid structure 1, and the wind turbine generator is connected to the central energy shaft 3.

[0052] The wind turbine generator set refers to a collection of devices that convert wind energy into electrical energy. Specifically, it can be implemented using horizontal-axis or vertical-axis wind turbine generators. Its output end is connected to the power transmission system within the central energy shaft 3 via cables. The pyramid apex refers to the highest point of the building, which can be installed using a steel-reinforced platform. This location leverages the building's height difference to create a natural wind tunnel acceleration effect. The central energy shaft 3 is a vertical energy channel running through the main building structure. It can be implemented using a concrete shaft structure, integrating power transmission lines and energy conversion devices to collect electrical energy output from various energy generation devices.

[0053] Specifically, the wind turbines are installed at the intersection of the sloping surfaces at the top of the pyramid, where the airflow convergence effect created by the building's shape significantly increases wind speed. The turbine tower base is directly embedded inside the pyramid's main steel frame, rigidly fixed to the building's load-bearing structure via pre-embedded connectors. The three-phase AC power output from the turbines is transmitted downwards via copper core cables laid within the shaft, where an inverter in the middle converts it to DC power before connecting it to the energy storage module. At night or under low-light conditions, the wind turbines and photovoltaic arrays form a complementary power supply mode; when photovoltaic power generation decreases, wind power can maintain the base load.

[0054] This application further proposes a pyramid structure 1 that is divided into an upper part and a lower part with equal vertical height. The slope angle of the lower part is 53°±1° and the slope angle of the upper part is 51°±1°. A transition zone is provided between the upper and lower parts, and a double-layer ring truss is provided in the transition zone.

[0055] The vertical height equal division refers to dividing the total building height into two equal parts, for example, by using building axis positioning to achieve segmented construction. This division method can optimize the distribution of structural loads and reduce mechanical differences between different sections. The inclined plane angles of 53°±1° and 51°±1° refer to controlling the building's shape using a specific angular deviation range, for example, using a steel structure support system combined with formwork positioning to achieve inclination accuracy. A larger lower inclination angle can enhance the foundation's bearing capacity, while a smaller upper inclination angle can adapt to the solar altitude angle in different latitude regions. The transition zone refers to the annular strip-shaped area formed at the connection between the upper and lower parts, for example, by using pre-embedded connectors to achieve structural transition. This area eliminates stress abrupt changes through geometric gradual change, while providing space for the layout of internal energy pipelines. The double-layer annular truss refers to a support system composed of two sets of concentric circular trusses, for example, using a steel structure combining cross bracing and ring beams. The double-layer structure can improve the truss's torsional stiffness, and the annular layout can evenly transfer horizontal loads.

[0056] Specifically, when the lower section adopts a larger tilt angle design, its reduced slope projection area decreases the wind load effect while increasing the foundation contact area to improve overturning resistance. The smaller tilt angle of the upper section facilitates the arrangement of the photovoltaic panel array 2; for example, in the 35°N latitude region, the deviation between the photovoltaic panel 2 and the noon sunlight incident angle can be less than 5°. The transition zone forms a rigid connection node through a double-layer ring truss, for example, by setting sliding supports at the truss nodes to release temperature stress while maintaining the continuity of the overall structure. This construction allows the bending moment caused by the difference in tilt angle between the upper and lower sections to be converted into axial force through the truss chords, avoiding material fatigue caused by local stress concentration.

[0057] This application further proposes a damping device on the pyramid structure 1, the damping device including an annular tuned water tank set at the top of the pyramid and a tuned mass block suspended in the middle.

[0058] The annular tuning water tank refers to a ring-shaped liquid container surrounding the top of the building. It can be made of stainless steel or a cast-in-place concrete annular tank. The reciprocating flow of the internal liquid under vibration generates a reverse inertial force to counteract horizontal vibration energy. The tuning mass block refers to a counterweight structure fixed to the middle of the building via an elastic suspension system. It can be implemented using a combination of a steel mass block and high-damping rubber supports. By matching the swing amplitude of the mass block with the building's vibration frequency, it absorbs vertical vibration energy.

[0059] Specifically, the annular tuned water tank is positioned at the top of the building where vibration amplitude is greatest, utilizing the dynamic pressure generated by liquid sloshing to counteract horizontal vibrations caused by lateral wind loads or seismic waves. A tuned mass block is suspended in the middle region where the building's dynamic response is significant. By tuning the mass block to the resonant frequency of the building's main structure, the mechanical energy of vertical vibration is converted into internal energy dissipation within the suspension system. Both devices are optimized for different vibration modes of the building. The annular water tank adjusts the lateral vibration suppression effect through liquid mass distribution, while the tuned mass block enhances longitudinal damping performance by matching the counterweight mass with the suspension stiffness parameters, forming a spatially distributed, multi-dimensional damping system.

[0060] In some specific implementations, the annular tuning tank can be integrated with the building's water supply and drainage system. For example, a circulation pipe can be installed at the bottom of the tank to connect to the thermal energy storage device 502, achieving both vibration damping and thermal energy recovery functions. The tuning mass block can be installed within the building's equipment mezzanine, for example, by fixing it to the transition area between the core tube and the outer wall using a pre-embedded steel structure support, thus avoiding the occupation of main usable space.

[0061] This application further proposes that the bottom of the photovoltaic panel array 2 is provided with a heat dissipation pipe group.

[0062] The heat dissipation pipe assembly refers to the structure installed at the bottom of the photovoltaic panel array 2 for heat conduction. Specifically, it can be implemented using tubular channels made of metal or high thermal conductivity composite materials. These channels are connected to the bottom surface of the photovoltaic panel array 2 via fixed supports, forming a closed or semi-closed airflow channel. This structure directly contacts the photovoltaic panel 2 substrate, guiding heat into the internal circulation system of the pipes, achieving active heat transfer. The layout of the heat dissipation pipe assembly is adapted to the sloping space of the pyramid-shaped building. Specifically, it can be arranged in parallel or in a staggered mesh pattern, allowing the pipe assembly to complement and nest with the building's slope, thus not occupying additional space while utilizing the building's internal structure to construct a heat dissipation loop.

[0063] Specifically, the heat generated during the photovoltaic panel 2's power generation process is conducted through the substrate to the heat dissipation pipe assembly, where it is then introduced into the internal circulation system. Natural air convection or forced ventilation devices can be installed within the pipes, such as using fans to drive airflow or employing a liquid circulation medium like cooling water to transfer heat to the exterior of the building or underground storage devices. The spatial coupling design of the heat dissipation pipe assembly with the pyramid-shaped sloping structure allows the pipe assembly to be embedded within the building's internal cavity, avoiding obstruction of the photovoltaic panel 2's light-receiving angle, while simultaneously utilizing the building's internal ventilation paths to form a heat dissipation airflow channel.

[0064] The above is a detailed description of the preferred embodiments of the present invention. However, the present invention is not limited to the embodiments described. Those skilled in the art can make various equivalent modifications or substitutions without departing from the spirit of the present invention. All such equivalent modifications or substitutions are included within the scope defined by the claims of this application.

Claims

1. A pyramid-shaped new energy building system, characterized in that, include: The pyramid structure has a photovoltaic panel array on its surface. The pyramid structure is equipped with a damping device, which includes an annular tuned water tank at the top of the pyramid and a tuned mass block suspended in the middle. The annular tuned water tank is used to counteract the horizontal vibration caused by lateral wind loads or seismic waves by using the dynamic pressure generated by liquid sloshing. The tuned mass block is made of steel mass block and high-damping rubber support. The tuned mass block enhances the longitudinal vibration reduction performance of the pyramid structure by matching the counterweight mass with the suspension stiffness parameters. The energy storage module is installed in the ground layer below the pyramid structure and contains electrical energy storage devices, thermal energy storage devices and hydrogen energy storage devices. The energy conversion module is equipped with a central energy shaft, which is installed inside the pyramid structure and located at the central axis of the pyramid structure; The central energy shaft is equipped with a first conductor group and an energy conversion device. The first conductor group is connected to the photovoltaic panel array and the energy conversion device respectively. The energy conversion device is used to convert the electrical energy transmitted by the photovoltaic panel into electricity that can be used for daily life. The energy conversion device is connected to an energy storage device. The central energy shaft is also equipped with a thermal energy conversion device and a hydrogen energy conversion device. The hydrogen energy conversion device is connected to the electrical energy conversion device and is connected to the hydrogen energy storage device through a hydrogen energy transmission pipeline. The thermal energy conversion device is connected to the electrical energy conversion device and is connected to the thermal energy storage device through a thermal energy transmission pipeline. The energy application module has a commercial architecture, which contains electrical devices that connect to the energy conversion module and the energy storage module. The commercial architecture is either a continuation of the pyramid architecture or the base architecture of the pyramid architecture itself. The energy conversion module also includes an inclined plane power transmission network, which is equipped with a second conductor group and a second power conversion device. The second conductor group is connected to the second power conversion device, and the second power conversion device is connected to the power consumption device. The inclined plane power transmission network also includes a third conductor group, which is connected to the energy storage device. The power generated by the photovoltaic array is directly input into the energy storage device through the third conductor group.

2. The pyramid-shaped new energy building system according to claim 1, characterized in that, The heat energy conversion device is a heat exchanger, and the heat energy storage device is a water storage tank.

3. The pyramid-shaped new energy building system according to claim 1, characterized in that, At the top of the pyramid are wind turbines, which are mounted on the pyramid structure and connected to the central energy shaft.

4. The pyramid-shaped new energy building system according to claim 1, characterized in that, The pyramid structure is divided into upper and lower parts with equal vertical height. The slope angle of the lower part is 53°±1°, and the slope angle of the upper part is 51±1°. There is a transition zone between the upper and lower parts, and a double-layered ring truss is set in the transition zone.

5. The pyramid-shaped new energy building system according to claim 1, characterized in that, The photovoltaic panel array is equipped with a heat dissipation pipe assembly at the bottom.

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