• ground system--solar mounting system System 1
ground system--solar mounting system

ground system--solar mounting system

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Packaging & Delivery

Packaging Detail:Normal package seaworthy

Delivery Detail:15 days

Specifications

Easy installation Competitive price TUV&SGS test report & CSA certification 15-warranty

Specifications

1) Super smooth beautiful appearance,outstanding quality,large supply.

2) Available in customized surface finishes.

3) Well machined,for example,cutting,drilling and milling with excellent tolerance.

4) Meet with customer’s designs and supply you best price.

5)Usages:Supply for solar panel modules.

Technical characteristics

Installation site:

ground,hillside,and grassland

Installation angle

it is based on customers’ requirements

Installation height

it is  basedon customers’ requirements

Solar panel type; with or without frame

Components arrangement    :horizontal or vertical

Support track

aluminum alloy extrusion

Quality warranty

15 years

Advantages

1)Quick installation: with high degree of pre-installed rate, the system could be easily installed by using galvanized carbon steel rails for PV Stent, and specially designed  connection parts of the PV bracket, which could reduce installation time and cost greatly.

2)Offer unmatched durability: with all structural components comprised of high class stainless steel and anodized aluminum alloy, it is designed for 25 years service life and backed by 15 years warranty.

3)Stand up to extreme weather: The SuninTek solar mount is designed to stand up to the extreme weather complied with the AS/NZ 1170 and other international structure load standard by the skilled engineer. The main support components also have been tested to guarantee its structure and load-carrying capacity.

4)Provide broad installation flexibility: These systems accommodate most commercially available framed solar panels , and they can scale easily from small to large, multi-megawatt installations.

5)Diversified Application: The PV mounting system produced can be adopted by various types of PV cells panels which you can find in the market. It can serve for both mini solar power system and huge plant with megawatt capability.

Main features

1. Installation cost savings.

2. Save installation time.

3. Increase the mechanical strength of solar energy mounting to ensure that wind requirements.

4. The outdoor for installation of solar energy.

5. Length can be customized according to customers.

6. Service life of up to 25 years.

7. Products through the international certification.

8. Stent material composition of the galvanized steel and aluminum.

9. 15 years system and structural guarantee.

10.Flexible post spacing withstands different wind & snow loads.

11. High quality material in Aluminium 6005-T5 and SUS 304.

12.Screws and nuts go with every components needed.

13.Mechanical calculation and reliability tested to ensure highest product quality.


Q:Can solar energy systems be used in areas with limited financial resources?
Yes, solar energy systems can be used in areas with limited financial resources. In fact, solar energy is often a more cost-effective solution in these areas as it eliminates the need for expensive fuel sources. Additionally, there are various financing options available such as grants, subsidies, and microfinance programs that help make solar energy systems more affordable and accessible to communities with limited financial resources.
Q:What is the future of solar energy technology?
The future of solar energy technology is promising and holds immense potential. With ongoing advancements in solar panel efficiency, energy storage, and grid integration, solar power is poised to become a major contributor to global energy production. As the cost of solar installations continues to decline, coupled with increased government support and public awareness of the environmental benefits, solar energy is expected to witness exponential growth in the coming years. Additionally, emerging technologies like perovskite solar cells and solar-powered water splitting hold the promise of further enhancing solar energy efficiency and expanding its applications. Ultimately, solar energy technology is likely to play a crucial role in transitioning towards a sustainable and renewable energy future.
Q:How does the efficiency of solar panels affect a solar energy system?
The efficiency of solar panels directly impacts the overall performance and output of a solar energy system. Higher efficiency panels convert a greater percentage of sunlight into usable electricity, resulting in increased energy production. This means that with more efficient solar panels, a solar energy system can generate more power, potentially reducing the need for additional panels and increasing the system's overall effectiveness in meeting energy demands.
Q:How does the age of a solar energy system affect its performance?
The age of a solar energy system can affect its performance in several ways. Over time, the efficiency of solar panels can decrease due to wear and tear, resulting in a decrease in power output. Additionally, older systems may not have the same technological advancements and improvements that newer systems possess, leading to lower overall performance. Regular maintenance and monitoring can help mitigate some of these effects, but generally, the age of a solar energy system can have a negative impact on its performance.
Q:What is the difference between a monofacial and bifacial solar panel?
A monofacial solar panel is a traditional solar panel that only utilizes one side of the panel to capture sunlight and convert it into electricity. The single side of the panel is covered with photovoltaic (PV) cells that absorb sunlight and produce electrical current. Monofacial panels are the most common and widely used type of solar panels. On the other hand, a bifacial solar panel is designed to capture sunlight from both sides of the panel. It has PV cells on both the front and back sides, allowing it to generate electricity from sunlight that is reflected or scattered onto the back side. This design offers an advantage over monofacial panels as it can generate more energy by harnessing light that would have otherwise been wasted. The main difference between monofacial and bifacial solar panels lies in their efficiency and energy output. Bifacial panels can produce more electricity per unit area than monofacial panels due to their ability to capture light from both sides. This makes bifacial panels a suitable choice for situations where space is limited, and maximizing energy production is crucial. Furthermore, bifacial panels can benefit from certain installation configurations that allow light to bounce off the ground or other nearby surfaces onto the backside of the panel, further increasing their energy output. This makes them particularly effective in environments with high levels of ground reflectance, such as snow-covered areas or locations with white rooftops. However, it is important to note that the increased efficiency and energy output of bifacial panels come at a higher cost compared to monofacial panels. Bifacial panels require more complex design and manufacturing processes, which contribute to their higher price. Additionally, the installation of bifacial panels may require specialized mounting systems to ensure proper exposure to both sides of the panel. In summary, the main difference between monofacial and bifacial solar panels lies in their ability to capture sunlight. Monofacial panels use only one side of the panel to generate electricity, while bifacial panels utilize both sides, resulting in higher efficiency and energy output. However, the higher cost and specific installation requirements make bifacial panels a more specialized choice compared to the widely used monofacial panels.
Q:Do solar energy systems work at night?
Solar energy systems do not work at night because they rely on sunlight to generate electricity. Solar panels convert sunlight into electricity through the photovoltaic effect, where photons from the sun's rays knock electrons loose from atoms, creating a flow of electricity. Without sunlight, there is no source of energy to power the system. However, it is worth mentioning that some solar energy systems can store excess energy produced during the day in batteries, which can be used to power appliances or lights at night.
Q:What is the impact of roof orientation on the performance of solar panels?
The impact of roof orientation on the performance of solar panels is significant and can greatly affect their overall efficiency and energy generation. The orientation of the roof refers to the direction in which it faces, whether it is towards the south, east, west, or north. Ideally, solar panels perform best when they are installed on a roof that faces south, as it allows them to receive the maximum amount of sunlight throughout the day. South-facing roofs receive direct sunlight for the longest duration, which means the solar panels can capture more solar energy. If the roof faces east or west, the solar panels will still receive sunlight, but their energy generation may be reduced. East-facing roofs receive morning sunlight, which is beneficial in regions where there is a higher demand for electricity during the morning hours. However, the overall energy production may be lower compared to south-facing roofs, as they do not receive sunlight for the entire day. Similarly, west-facing roofs receive afternoon sunlight, which may be advantageous in areas with a higher electricity demand during the afternoon. North-facing roofs generally have the least favorable orientation for solar panels. They receive the least amount of direct sunlight and, as a result, have lower energy generation potential. In regions with a predominantly northern orientation, solar panels may not be the most efficient or cost-effective solution for renewable energy generation. Apart from orientation, the angle of the roof, known as the tilt, also plays a role in solar panel performance. The ideal tilt angle for solar panels is typically determined based on the latitude of the location. Adjusting the tilt angle can optimize the solar panel's exposure to sunlight and maximize energy generation. In conclusion, roof orientation has a significant impact on the performance of solar panels. South-facing roofs offer the highest energy generation potential, while east, west, and north-facing roofs may have varying levels of efficiency. Considering the orientation and tilt of the roof is crucial when installing solar panels to ensure optimal energy production and maximize the benefits of solar power.
Q:Can a solar energy system be integrated with other renewable energy sources?
Yes, a solar energy system can be integrated with other renewable energy sources. This integration, often referred to as hybrid renewable energy systems, allows for a more reliable and efficient energy generation. By combining solar energy with other sources like wind, hydro, or geothermal, the system can compensate for fluctuations in generation and provide a consistent power supply. This integration helps maximize renewable energy utilization and promotes a sustainable energy mix.
Q:Are solar energy systems environmentally friendly?
Yes, solar energy systems are environmentally friendly. They produce clean and renewable energy by harnessing the power of the sun, which reduces the reliance on fossil fuels. Solar energy systems do not emit greenhouse gases or other harmful pollutants during operation, making them a sustainable and environmentally responsible choice for generating electricity.
Q:What is the difference between a solar thermal system and a photovoltaic system?
A solar thermal system and a photovoltaic system are both forms of solar energy systems, but they function differently and have distinct purposes. A solar thermal system is primarily used for heating purposes. It harnesses the sun's energy to heat water or air directly. This is achieved by using solar collectors, which absorb sunlight and convert it into heat. The heated water or air is then used for various applications like space heating, water heating, or even for powering turbines to generate electricity. Solar thermal systems are commonly used in residential, commercial, and industrial settings to provide hot water or heating solutions. On the other hand, a photovoltaic system, commonly known as solar panels, is designed to generate electricity from sunlight. It utilizes photovoltaic cells, typically made of silicon, to directly convert sunlight into electricity through the photovoltaic effect. These cells are interconnected in solar panels, and multiple panels can be combined to form an entire photovoltaic system. The electricity generated by a photovoltaic system can be used to power various electrical devices, appliances, or even feed into the grid to offset energy consumption. In summary, the main difference between a solar thermal system and a photovoltaic system lies in their respective purposes. Solar thermal systems primarily focus on heating applications, utilizing the sun's energy to heat water or air directly. On the other hand, photovoltaic systems are designed to produce electricity by converting sunlight into electrical energy using solar panels.

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