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Structural design of greenhouse

Whether you are a personal gardening enthusiast, farmer, agricultural company, or research institution, we can design a greenhouse that best fits your scale, budget, and usage purpose for your activities (such as producing vegetables, flowers, fruits, or conducting scientific experiments).

We will provide you with the desired greenhouse design solution based on your geographical location, budgeted return on investment (ROI), and greenhouse type.

A large greenhouse for growing vegetables

A large greenhouse for growing vegetables

Greenhouse for planting flowers

Greenhouse for planting flowers

How can we find the most suitable greenhouse design in a geographical environment

In the process of greenhouse design, geographical environment is one of the key factors affecting the design scheme. It not only determines the location and structure of the greenhouse, but also directly affects aspects such as lighting, ventilation, temperature and humidity regulation, and energy efficiency management of the greenhouse. The following will elaborate on the specific impact of geographical environment on greenhouse design:

1. Geographical location and greenhouse site selection

Sunshine conditions

Light duration and intensity: Light is the basis of plant photosynthesis and affects crop growth and yield. Different geographical locations will have varying sunshine duration and intensity. In areas with higher latitudes, the winter sunshine duration is shorter, so greenhouse design needs to consider higher light transmittance; In low latitude areas with sufficient sunshine, shading facilities need to be equipped to prevent excessive sunlight.

Orientation selection: The orientation of the greenhouse should also be determined based on the sunlight conditions. Usually, a north-south layout is chosen to achieve more uniform lighting. The east-west greenhouse is suitable for some low latitude areas because it allows for longer periods of sunlight exposure in winter.

External shade greenhouse
Greenhouse for research

Temperature and Climate Zones

Temperature difference: The geographical location determines the climate zone in which the greenhouse is located, and the temperature difference between different climate zones will directly affect the insulation and cooling design of the greenhouse. For example, in cold regions such as high latitudes or mountainous areas, stronger insulation measures need to be considered, using multi-layer insulation materials or designing double-layer glass greenhouses to reduce heat loss. In tropical or subtropical regions, ventilation and cooling are the focus of design.

Extreme climate response: In some geographical locations, there may be extreme weather conditions such as frost, heat waves, sandstorms, etc., which require targeted adjustments to greenhouse design. For example, in areas with frequent frost, it is possible to consider adding heating equipment in greenhouses; In areas with frequent sandstorms, it is necessary to strengthen the stability of greenhouse structures and dust prevention measures.

Desert Greenhouse
Greenhouse in cold region
Mountain Greenhouse

Precipitation and humidity

Annual precipitation and seasonal distribution: Precipitation conditions affect the drainage design and irrigation system configuration of greenhouses. In areas with high precipitation and concentrated distribution (such as monsoon climate zones), it is necessary to design a reasonable drainage system to prevent indoor water accumulation during heavy rain. In addition, the design of the roof also needs to consider rainwater diversion to avoid the impact of rainwater on the greenhouse structure.

Air humidity: In areas with high humidity (such as coastal areas), greenhouse design should pay special attention to ventilation and dehumidification to prevent diseases caused by high humidity. In dry areas such as inland or desert regions, humidification equipment needs to be installed to maintain appropriate air humidity.

2. The impact of terrain and landforms on greenhouses

glass greenhouse (2)
glass greenhouse

Terrain selection

Priority for flat terrain: Greenhouses are usually built in areas with flat terrain for ease of construction and management. But if it is a mountainous or hilly area, it is necessary to level and reinforce the foundation, which increases the construction cost.

Sloping ground and drainage design: For sloping terrain, greenhouse design needs to consider drainage issues to prevent rainwater or irrigation water from flowing into the interior of the greenhouse. In addition, terrain slope can help achieve natural drainage, thereby reducing the construction cost of drainage facilities.

Wind direction and speed

Perennial dominant wind direction:

Wind direction and speed have a significant impact on the ventilation and heat dissipation of greenhouses. When designing a greenhouse, it is important to understand the prevailing wind direction throughout the year and strategically position the ventilation openings to improve natural ventilation. For example, installing a skylight at the downwind of the prevailing wind direction in summer can help quickly expel hot air.

Windproof measures:

In areas with high wind speeds, such as coastal or plateau regions, greenhouses need to consider wind resistant design, including selecting more stable frame structures, thickening covering materials, and adding windbreak walls to prevent damage to the greenhouse under strong winds.

Greenhouse base construction
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Soil conditions

Soil type and adaptability:

The geographical location determines the soil type, and the drainage, fertility, acidity, and alkalinity of different soils can affect crop growth in greenhouses. Therefore, soil testing is necessary before selecting a greenhouse site, and suitable crop planting or soil improvement (such as increasing organic fertilizer, improving pH value, etc.) should be selected based on the test results.

Foundation stability:

The basic design of a greenhouse needs to consider the bearing capacity and stability of the soil to prevent foundation subsidence or structural deformation of the greenhouse. In soft soil or areas prone to settlement, it is necessary to reinforce the foundation or use concrete foundations.

3. Regional Water Source and Irrigation Design

Greenhouse outdoor irrigation pond
Small greenhouse irrigation equipment

Accessibility of water sources

Water source distance and water quality:

The location of the greenhouse should be close to a stable water source (such as rivers, lakes, or groundwater) for irrigation purposes. At the same time, the pH value, hardness, and pollution level of water quality will directly affect crop growth, and it is necessary to increase water treatment facilities (such as filtration, disinfection, etc.) when necessary.

Rainwater collection system:

In areas with high precipitation, rainwater collection systems can be designed to store rainwater for irrigation and reduce water resource costs.

Regional water shortage problem

In some geographical locations, due to climate drought or scarce groundwater resources, it is necessary to choose efficient irrigation systems (such as drip irrigation or micro sprinkler irrigation) to save water. At the same time, it is possible to consider using reservoirs or water towers to ensure sufficient irrigation water sources during droughts.

4. The impact of geographical environment on greenhouse energy utilization

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solar greenhouse2

Solar energy utilization

In areas with sufficient sunlight, solar energy can be used for greenhouse heating or supplementary lighting systems by designing transparent covering materials and using solar panels, thereby reducing energy costs.

In areas with poor lighting conditions, it may be necessary to use artificial light sources (such as LED plant lights) to supplement lighting, while considering how to reduce electricity consumption.

Geothermal and Wind Energy Utilization

In areas with abundant geothermal resources, geothermal energy can be used to heat greenhouses and improve energy efficiency. At low temperatures at night, geothermal systems can provide a stable heat source.

In areas with abundant wind resources, wind power generation can be considered to provide electricity for greenhouses, especially in greenhouses that require large-scale ventilation equipment, which can reduce electricity costs.

5. What kind of design can we provide for you

The impact of geographical environment on greenhouse design is multifaceted. It not only affects the location and structure of the greenhouse, but also determines the difficulty and cost of regulating the internal environment of the greenhouse. Scientifically and reasonably considering geographical environmental factors can enable greenhouses to better adapt to the external environment, improve crop yield and quality, reduce energy consumption and maintenance costs.

Therefore, during the greenhouse design phase, we will conduct thorough research and analysis based on the geographical environment of the project location. Taking advantage of the geographical environment, avoiding potential environmental threats, designing efficient and sustainable greenhouses to help you achieve long-term stable production goals.

Choose the most suitable type of greenhouse

Single-arch greenhouse

Single-arch greenhouse

Characteristics: Adopting an arched structure with a span of generally 6-12 meters, plastic film is often used as the covering material.

Advantages: Low construction cost, simple installation, suitable for small and medium-sized planting projects.

Scope of application: Production of major crops such as vegetables, fruits, and melons.

Linked greenhouse

Characteristic: Connected by multiple single greenhouse buildings, forming a large planting space. Can be covered with film, glass, or polycarbonate sheet (PC board).

Advantages: Large footprint, suitable for automated management, improves space utilization and production efficiency.

Scope of application: Large scale commercial planting, flower planting bases, scientific research purposes.

Linked greenhouse
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Glass greenhouse

Features: Made of glass as the covering material, with good transparency, and typically constructed of steel.

Advantages: Excellent transparency, strong durability, suitable for high-precision environmental control.

Scope of application: High value-added crop cultivation (such as flowers and medicinal plants), scientific research experiments, and sightseeing agriculture.

PC board greenhouse

Features: Using PC board as covering material, double-layer hollow design, good insulation performance.

Advantages: Durable, strong impact resistance, and better insulation effect than film greenhouses.

Scope of application: Suitable for flower planting, sightseeing greenhouses, and production in cold regions.

PC board greenhouse
Plastic thin film greenhouse

Plastic thin film greenhouse

Features: Covered with plastic film, single or double layered design, lightweight structure.

Advantages: Low cost, easy installation, suitable for various climatic conditions.

Scope of application: Suitable for the production of bulk crops, small-scale planting projects, and temporary planting.

Solar Greenhouse

Features: Thick north wall, transparent south side, utilizing solar energy for insulation, commonly found in cold regions.

Advantages: Energy saving and environmentally friendly, suitable for winter production, good insulation effect.

Scope of application: Suitable for vegetable cultivation in cold northern regions, especially in winter.

Solar Greenhouse

If you have more questions about greenhouses, please feel free to have more detailed discussions with us. We are honored to be able to address your concerns and issues.

If you would like to learn more about our tent solutions, you can check the production and quality of the greenhouse, the upgrade of greenhouse accessories, the service process and after-sales service of the greenhouse.

To create a green and intelligent greenhouse, we are more concerned about the harmonious coexistence between agriculture and nature, making our customers make the world greener and creating the best solution for efficient production and sustainable development.


Post time: Oct-26-2024