Intelligent photovoltaic multifunctional shared space system and operation method

Abstract

The invention provides an intelligent photovoltaic multifunctional shared space system and an operation method, and belongs to the technical field of photovoltaic application. Comprising a container module, an intelligent environment control module, an internet-of-things access control module, a monitoring module, an unmanned retail terminal, an advertisement display module, an off-grid photovoltaic power generation module and a central server. The container module comprises at least one standard container, the container module is divided into a plurality of functional areas through partitions, and the functional areas are provided with inlets and outlets. The main body structure of the house is formed through the standardized containers, spaces with different scales and functional areas are constructed according to different requirements, combination and transformation are facilitated, and therefore the house can be rapidly deployed in various idle spaces of a city, the originally wasted space is converted into an all-weather and multifunctional shared fitness and leisure space with great value, and the space utilization rate is increased. Not only is the efficient utilization of urban space realized, but also a more convenient and comfortable fitness and leisure environment is provided for residents.

Description

Technical Field

[0001] This invention belongs to the field of photovoltaic application technology, specifically relating to an intelligent photovoltaic multifunctional shared space system and its operation method. Background Technology

[0002] With the continuous acceleration of urbanization, urban land resources are becoming increasingly scarce, yet a large number of idle vacant lots remain scattered throughout, failing to be fully and effectively utilized. These idle lots not only affect the overall aesthetics of the city but also waste spatial resources. As people's living standards gradually improve, their pursuit of health and leisure is becoming increasingly strong, and the demand for fitness and leisure spaces is also growing daily. Due to the uneven distribution of urban community sports facilities, which are often far apart, and the vulnerability of outdoor ping-pong tables to weather conditions, while indoor professional venues are expensive, traditional tea rooms or leisure spaces cannot be effectively integrated with sports functions and have high construction and operating costs. How to efficiently utilize limited space to meet diverse lifestyle needs has become an urgent problem to be solved. Summary of the Invention

[0003] (1) Technical problems to be solved To address the shortcomings of existing technologies, the present invention aims to provide an intelligent photovoltaic multifunctional shared space system and operation method to solve the problems of uneven distribution of sports facilities in existing urban communities, the inability of traditional tea rooms or leisure spaces to effectively combine with sports functions, and how to efficiently utilize limited space to meet diverse living needs.

[0004] (2) Technical solution To address the aforementioned technical problems, this invention provides an intelligent photovoltaic multifunctional shared space system, comprising a container module, an intelligent environmental control module, an IoT access control module, a monitoring module, an unmanned retail terminal, an advertising display module, an off-grid photovoltaic power generation module, and a central server. The container module includes at least one standard container, which is divided into multiple functional areas by partitions. Each functional area has an entrance / exit. The intelligent environmental control module maintains a comfortable indoor environment in the multiple functional areas. The IoT access control module is installed at the entrances / exits to control user access. The monitoring module monitors the multiple functional areas. The unmanned retail terminal sells goods. The advertising display module plays advertisements. The off-grid photovoltaic power generation module supplies power to the intelligent environmental control module, the IoT access control module, the monitoring module, the unmanned retail terminal, the advertising display module, and the central server.

[0005] Preferably, the functional areas include a table tennis area, a chess and card room, a tea room / relaxation area, and an unmanned retail area.

[0006] Preferably, the intelligent environmental control module includes air conditioning, lighting and ventilation equipment installed in multiple functional areas.

[0007] Preferably, the IoT access control module includes a reading device, a network module, and an access lock installed at the entrance / exit.

[0008] Preferably, the monitoring module includes surveillance cameras installed in multiple functional areas, the unmanned retail terminal includes multiple vending machines set in the unmanned retail area, and the advertising display module includes multiple digital advertising screens installed on the inner and outer sides of a standard container.

[0009] Preferably, the off-grid photovoltaic power generation module includes an energy storage battery, an energy management controller, and photovoltaic panels installed on the top of the container.

[0010] Preferably, the off-grid photovoltaic power generation module uses ≥3kW components and is equipped with a 10kWh lithium battery.

[0011] Preferably, an operation method for the intelligent photovoltaic multifunctional shared space system as described above is as follows: Step 1: The central server receives the user's request, verifies the user's permissions, and then sends an electronic key to the IoT access control module, authorizing the user to enter the functional area of ​​the container module from the entrance / exit. Step 2: The IoT access control module acquires pedestrian flow data and user profiles for entering the container module's functional area, and transmits future weather forecast data to the central server. Step 3: The central server monitors the energy storage status and photovoltaic power generation efficiency of the off-grid photovoltaic power generation module in real time, and dynamically allocates power priority to the intelligent environmental control module in the container module functional area based on weather forecast data. Step 4: The central server monitors the inventory of the unmanned retail terminals in the container module functional area and automatically replenishes the stock when the inventory of any product falls below the threshold N. Step 5: The central server receives advertising orders and automatically distributes the advertising content to the advertising display module that best matches the advertiser's user profile for playback.

[0012] Preferably, the power priority is specifically: prioritizing the maintenance of a comfortable indoor environment in the functional areas with users within the container module.

[0013] Preferably, in step five, after the IoT access control module detects that a user has entered the functional area of ​​the container module, the indoor advertising display module starts playing advertisements, and when it detects that no one is in the functional area of ​​the container module, the advertising display module turns off.

[0014] Beneficial effects Compared with the prior art, the beneficial effects of the present invention are as follows: The above solution uses standardized shipping containers as the main structure of the houses. Due to the excellent scalability of the container modules, multiple container modules can be combined through simple connection methods to construct spaces of different sizes and functional areas according to different needs. Whether it is a table tennis area and a chess and card room, or a tea room and a leisure area and an unmanned retail area, all can be realized through reasonable container combinations. Furthermore, the high degree of standardization of the containers makes the integrated houses easy to transport, load, unload, and store, and also convenient to combine and modify. This allows for rapid deployment in various idle vacant lands in the city, transforming the originally wasted space into a highly valuable all-weather, multi-functional shared fitness and leisure space. This not only achieves efficient use of urban space, but also provides residents with a more convenient and comfortable fitness and leisure environment. The above solution combines multiple containers to organically integrate various functions such as sports, leisure, retail, and advertising into container houses, meeting people's needs. Furthermore, the off-grid photovoltaic power generation modules installed on the containers can reduce dependence on traditional fossil fuels, reduce emissions of greenhouse gases such as carbon dioxide, and promote sustainable development. Based on weather forecast data, the central server prioritizes maintaining the indoor comfort environment of functional areas with users within the container modules when the weather is bad and the power generation is insufficient for the use of the house. At the same time, when no one is detected in the functional areas of the container modules, the advertising display modules are turned off, achieving precise control of energy consumption and improving energy efficiency. Attached Figure Description

[0015] Figure 1 A schematic diagram of a container's three-dimensional structure for an intelligent photovoltaic multifunctional shared space system and its operation method.

[0016] Figure 2 A front view structural diagram of a container for an intelligent photovoltaic multifunctional shared space system and its operation method.

[0017] Figure 3 A schematic diagram of the container's rear view structure for an intelligent photovoltaic multifunctional shared space system and its operation method.

[0018] Figure 4 A schematic diagram of the left-hand structure of a container for an intelligent photovoltaic multi-functional shared space system and its operation method.

[0019] Figure 5 This is a schematic diagram of the right-side structure of a container for an intelligent photovoltaic multifunctional shared space system and its operation method.

[0020] Figure 6 A top-view structural diagram of a container for an intelligent photovoltaic multifunctional shared space system and its operation method.

[0021] Figure 7A schematic diagram of the container structure from below, illustrating the intelligent photovoltaic multifunctional shared space system and its operation method.

[0022] Figure 8 This is a schematic diagram of the process structure of an intelligent photovoltaic multifunctional shared space system and its operation method.

[0023] The labels in the attached diagram are: 1. Container module; 2. Intelligent environmental control module; 3. IoT access control module; 4. Monitoring module; 5. Unmanned retail terminal; 6. Advertising display module; 7. Off-grid photovoltaic power generation module; 8. Central server. Detailed Implementation

[0024] An embodiment of the present invention provides an intelligent photovoltaic multifunctional shared space system, including a container module 1, an intelligent environmental control module 2, an IoT access control module 3, a monitoring module 4, an unmanned retail terminal 5, an advertising display module 6, an off-grid photovoltaic power generation module 7, and a central server 8; Container module 1 includes at least one standard container. Container module 1 is divided into multiple functional areas by partitions, including a table tennis area, a chess and card room, a tea room / relaxation area, and an unmanned retail area. Each functional area has entrances and exits. Intelligent environmental control module 2 includes air conditioning, lighting, and ventilation equipment installed in each functional area. Intelligent environmental control module 2 is intelligently driven by an energy management controller and is used to maintain a comfortable indoor environment in each functional area. IoT access control module 3 includes reading devices, a network module, and access locks installed at the entrances and exits. The reading devices collect user identity information, such as cards or biometric data. The network module supports reservations via mini-programs and apps, transmitting user identity information to a central server 8. It also collects the number of people using cameras and transmits this information to the central server 8. 3 is installed at the entrance and exit to control user access. Both entrances and exits are equipped with sealed doors, and access control locks are installed on the sealed doors to ensure spatial isolation of multiple functional areas. Monitoring module 4 is used to monitor multiple functional areas. Unmanned retail terminal 5 is used to sell beverages, sporting goods and other products. Advertising display module 6 is used to play advertisements. Off-grid photovoltaic power generation module 7 is used to power intelligent environmental control module 2, IoT access control module 3, monitoring module 4, unmanned retail terminal 5, advertising display module 6 and central server 8. Central server 8 contains identity carriers, which are user identity credentials, including IC cards, ID cards, fingerprints and faces. Central server 8 processes verification requests, compares them with identity carriers in the database, and issues control commands to access control locks. At the same time, the intelligent environmental control module 2 of the corresponding functional area of ​​container module 1 is automatically powered on and operated. The monitoring module 4 includes surveillance cameras installed in multiple functional areas; the unmanned retail terminal 5 includes multiple vending machines set up in the unmanned retail area; and the advertising display module 6 includes multiple digital advertising screens installed on the inner and outer sides of the standard container. Vending machines are a common type of unmanned retail terminal equipment that can complete the sale of goods without human intervention. In terms of appearance, the outer wall of the standard container can serve as a large advertising display space, using methods such as inkjet printing and LED displays to display various advertising content and attract the attention of passersby. Inside the standard container, advertising spaces can be reasonably set up on the walls, floors, and electronic device screens in the sports and fitness area, leisure and entertainment area, and unmanned retail area. In this embodiment, the off-grid photovoltaic power generation module 7 includes an energy storage battery, an energy management controller, and photovoltaic panels installed on the top of a standard container. The off-grid photovoltaic power generation system is an independent photovoltaic power generation system that uses solar energy to convert into electrical energy for power supply.

[0025] In this embodiment, the off-grid photovoltaic power generation module 7 uses ≥3kW components, paired with a 10kWh lithium battery, and the energy storage battery is connected to the grid. When continuous rainy days lead to insufficient power generation, the grid charges the energy storage battery to ensure power supply, which can meet the operation of the intelligent environmental control module 2, IoT access control module 3, monitoring module 4, unmanned retail terminal 5, advertising display module 6 and central server 8.

[0026] This invention also proposes an operation method for the intelligent photovoltaic multifunctional shared space system as described above, the operation method being as follows: Step 1: The central server 8 receives the user's request and, after verifying the user's permissions, sends an electronic key to the IoT access control module 3, authorizing the user to enter the functional area of ​​the container module 1 from the entrance / exit. Step 2: The IoT access control module 3 acquires the flow data and user profiles of people entering the functional area of ​​the container module 1, and transmits the future weather forecast data to the central server 8 through a network connection. Step 3: The central server 8 monitors the energy storage status and photovoltaic power generation efficiency of the off-grid photovoltaic power generation module 7 in real time, and dynamically allocates power priority to the intelligent environmental control module 2 of the container module 1 functional area based on weather forecast data. The weather forecast data includes light conditions, external ambient temperature and humidity. The external ambient temperature and humidity can be obtained in real time through external sensors. Step 4: The central server 8 monitors the inventory of the unmanned retail terminal 5 in the functional area of ​​the container module 1. When the inventory of any product is lower than the threshold N, for example, N is less than 3 bottles, the product is automatically replenished. Step 5: The central server 8 receives advertising orders and automatically distributes the advertising content to the advertising display module 6 that is closest to the advertiser's user profile for playback. By matching user profiles, precise advertising can be achieved, displaying different advertising content to people of different ages, genders, and interests, thereby improving the conversion rate of advertising.

[0027] In order to achieve precise control of energy consumption and improve energy utilization efficiency, in this embodiment, the power priority is specifically as follows: prioritize maintaining the indoor comfort environment of the functional area with users in the container module 1. In step five, after the IoT access control module 3 detects that a user has entered the functional area of ​​the container module 1, the indoor advertising display module 6 starts playing advertisements. When it is detected that there is no one in the functional area of ​​the container module 1, the advertising display module 6 turns off.

[0028] The technical solution provided by this invention uses standardized shipping containers to form the main structure of a house. Due to the excellent scalability of the container modules, multiple modules can be combined through simple connections to create spaces of different sizes and functional areas according to different needs. Whether it's a table tennis area and a chess and card room, or a tea room and a retail area, all can be realized through reasonable container combinations. Furthermore, the high degree of standardization of the containers makes the integrated houses easy to transport, load, unload, and store, and also convenient to combine and modify. This allows for rapid deployment in various idle urban spaces, transforming previously wasted space into highly valuable, all-weather, multi-functional shared fitness and leisure spaces, not only realizing the transformation of urban space... The efficient use of containers also provides residents with a more convenient and comfortable environment for fitness and leisure. By combining multiple containers, various functions such as sports, leisure, retail, and advertising are organically integrated into the container house, meeting people's needs. Furthermore, the off-grid photovoltaic power generation module 7 installed on the container can reduce dependence on traditional fossil energy, reduce emissions of greenhouse gases such as carbon dioxide, and promote sustainable development. Based on weather forecast data, the central server 8 prioritizes maintaining the indoor comfort environment of the functional areas with users in the container module 1 when the weather is bad and the power generation is insufficient for the use of the house. At the same time, when it is detected that no one is in the functional area of ​​the container module 1, the advertising display module 6 is turned off, realizing precise control of energy consumption and improving energy utilization efficiency.

[0029] All technical features in this embodiment can be freely combined according to actual needs.

[0030] The above embodiments are preferred implementations of the present invention. In addition, the present invention can be implemented in other ways. Any obvious substitutions without departing from the concept of the present technical solution are within the protection scope of the present invention.

Claims

1. A smart photovoltaic multifunctional shared space system, characterized in that, It includes a container module (1), an intelligent environmental control module (2), an IoT access control module (3), a monitoring module (4), an unmanned retail terminal (5), an advertising display module (6), an off-grid photovoltaic power generation module (7), and a central server (8). The container module (1) includes at least one standard container. The container module (1) is divided into multiple functional areas by partitions. Each of the multiple functional areas has an entrance and exit. The intelligent environmental control module (2) is used to maintain the indoor comfortable environment of the multiple functional areas. The IoT access control module (3) is installed at the entrance and exit to control the entry and exit of users. The monitoring module (4) is used to monitor the multiple functional areas. The unmanned retail terminal (5) is used to sell goods. The advertising display module (6) is used to play advertisements. The off-grid photovoltaic power generation module (7) is used to supply power to the intelligent environmental control module (2), the IoT access control module (3), the monitoring module (4), the unmanned retail terminal (5), the advertising display module (6), and the central server (8).

2. The intelligent photovoltaic multifunctional shared space system according to claim 1, characterized in that, The functional areas include a table tennis area, a chess and card room, a tea room and relaxation area, and an unmanned retail area.

3. The intelligent photovoltaic multifunctional shared space system according to claim 2, wherein the intelligent environmental control module (2) includes air conditioning, lighting and ventilation equipment installed in multiple functional areas.

4. The intelligent photovoltaic multifunctional shared space system according to claim 3, characterized in that, The IoT access control module (3) includes a reading device, a network module, and an access lock installed at the entrance and exit.

5. The intelligent photovoltaic multifunctional shared space system according to claim 4, characterized in that, The monitoring module (4) includes monitoring cameras installed in multiple functional areas, the unmanned retail terminal (5) includes multiple unmanned vending machines set up in the unmanned retail area, and the advertising display module (6) includes multiple digital advertising screens installed on the inside and outside of the standard container.

6. The intelligent photovoltaic multifunctional shared space system according to claim 5, characterized in that, The off-grid photovoltaic power generation module (7) includes an energy storage battery, an energy management controller, and photovoltaic panels installed on the top of the container.

7. The intelligent photovoltaic multifunctional shared space system according to claim 6, characterized in that, The off-grid photovoltaic power generation module (7) uses ≥3kW components and is equipped with a 10kWh lithium battery.

8. An operation method for an intelligent photovoltaic multifunctional shared space system as described in claims 1-8, characterized in that, The operating method is as follows: Step 1: The central server (8) receives the user's request and verifies the permissions. Then, the central server (8) sends an electronic key to the IoT access control module (3) to authorize the user to enter the functional area of ​​the container module (1) from the entrance and exit. Step 2: The IoT access control module (3) obtains the flow data and user profiles of people entering the functional area of ​​the container module (1), and obtains future weather forecast data to transmit to the central server (8). Step 3: The central server (8) monitors the energy storage status and photovoltaic power generation efficiency of the off-grid photovoltaic power generation module (7) in real time, and dynamically allocates power priority to the intelligent environmental control module (2) of the container module (1) functional area based on weather forecast data. Step 4: The central server (8) monitors the inventory of the unmanned retail terminal (5) in the functional area of ​​the container module (1), and automatically replenishes the stock when the inventory of any product is lower than the threshold N. Step 5: The central server (8) receives advertising orders and automatically distributes the advertising content to the advertising display module (6) that is closest to the advertiser's user profile for playback.

9. The operation method of the intelligent photovoltaic multifunctional shared space system according to claim 8, characterized in that, The power priority is specifically: to prioritize maintaining the indoor comfort environment of the functional areas with users inside the container module (1).

10. The operation method of the intelligent photovoltaic multifunctional shared space system according to claim 9, characterized in that, In step five, after the IoT access control module (3) detects that a user has entered the functional area of ​​the container module (1), the indoor advertising display module (6) starts playing advertisements. When it is detected that no one is in the functional area of ​​the container module (1), the advertising display module (6) turns off.

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