The inverter plays a key role in the solar power generation system, which is responsible for converting the direct current output of the solar panel into alternating current for the use of various electrical equipment. Choosing suitable inverters and applying them correctly is crucial to the performance and efficiency of solar power generation systems. The following are some suggestions for inverter selection and application: Power matching: When selecting an inverter, it is necessary to match the capacity of the inverter according to the total capacity and output power of the solar panel. The rated power of the inverter should be at least equal to the output power of the solar panel to give full play to the performance of the solar power generation system. Efficiency and quality: The efficiency of the inverter is an important factor affecting the power generation performance of the system. Higher efficiency inverters can convert more solar energy into electricity and reduce energy loss. In addition, choosing a reliable inverter brand and products with good quality assurance can ensure the stability and long-term reliable operation of the system. Inverter protection function: It is also important to consider the protection function of the inverter. Inverter should usually have overvoltage, overcurrent, short circuit and inverter temperature too high protection functions. These protection features prevent equipment damage and security risks, and increase system reliability. Data monitoring and communication: Modern inverters usually have data monitoring and communication functions, which can monitor the power generation, voltage, current and power of the system in real time. This information helps analyze system performance and troubleshooting, and provides a comprehensive understanding of system operation. Ease of installation and maintenance: When choosing an inverter, it is also important to consider the ease of installation and maintenance. The inverter should have appropriate wiring terminals and external connection interfaces for easy installation and wiring. In addition, choosing an inverter with a user-friendly interface and mode of operation can simplify the operation and maintenance process of the system. It is necessary to match the capacity and type of the inverter according to the demand and scale of the solar power system. In addition to power matching, factors such as the efficiency, quality, protection function, data monitoring and communication, installation and maintenance ease of the inverter also need to be considered. The correct selection and application of inverters can ensure the efficient operation of solar power generation systems, improve energy efficiency, and extend the service life of the system.

Solar Agricultural greenhouse are an innovative facility that combines solar power generation and farming with several significant advantages: Renewable energy: Solar Agricultural greenhouse use solar power to generate electricity, converting sunlight into electricity to support the facilities and equipment in the farm shed. Solar energy is an unlimited renewable energy, the use of solar power will not cause additional energy consumption and pollution to the environment, in line with the principle of sustainable development. High land use efficiency: Solar Agricultural greenhouse use solar panels as the cover of farm sheds, which can make full use of rain and sunlight radiation, while providing sufficient sunlight supply for crops. Through reasonable planning and design, photovoltaic farm sheds can maximize the use of limited land resources to achieve the dual goals of agricultural production and solar power generation. Improve crop quality and yield: Panels covered by solar PV sheds can act as shading and insulation, helping to regulate the temperature, humidity and light conditions inside the sheds. This is conducive to providing a good growing environment, extending the growing season, improving crop quality and increasing yield. In addition, the photovoltaic farm shed can also shade crops, reduce ultraviolet radiation, reduce temperatures, and inhibit the propagation of harmful insects and the occurrence of diseases. Economic benefits: Solar Agricultural greenhouse can not only meet the needs of agricultural production, but also connect excess solar power to the grid for sale and obtain economic benefits. The cost of solar power systems is gradually decreasing, and the payback period of electricity revenue is also shortening, making photovoltaic farms more competitive economically. Through diversified business models, photovoltaic farm sheds can increase farmers' sources of income and improve rural economic development. Environmentally friendly and sustainable: Solar Agricultural greenhouse not only reduce dependence on fossil fuels and reduce greenhouse gas emissions, but also provide rural areas with clean, renewable energy options. It has less impact on environmental pollution and ecological damage, in line with the initiative to build green agriculture and sustainable rural development. In summary, the Solar agricultural greenhouse integrates solar power generation and agricultural production, with multiple advantages such as renewable energy, efficient land use, improved crop yield and quality, economic efficiency and environmental friendliness. It is an innovative agricultural development model, which helps to promote the realization of green agriculture and sustainable rural development.

Aluminum alloy photovoltaic mounting bracket and Zinc-coated steel photovoltaic mounting bracket are two common solar mounting structures. They have different characteristics and advantages, the following is a brief introduction to their characteristics: Aluminum alloy photovoltaic mounting bracket: Light and strong: Aluminum alloy is lightweight and high strength, providing good structural support and making installation easier. Corrosion resistance: Aluminum alloy has strong resistance to oxidation and corrosion, and will not be corroded by atmospheric oxygen, humid environment and other factors, thus extending the service life of the bracket. Recyclable: Aluminum alloy is a recyclable material that meets environmental protection requirements and helps to reduce resource consumption and environmental pollution. Good thermal conductivity: Aluminum alloy has good thermal conductivity, which helps to heat dissipation, reduce the temperature of solar panels, and improve the efficiency of power generation. Aesthetics: The appearance of aluminum alloy is smooth and beautiful, and after excellent surface treatment, it can be integrated with the facade of the building to improve the overall beauty of the building. Zinc-coated steel photovoltaic installation bracket: High weather resistance: Zinc-coated steel has excellent corrosion resistance, can resist the corrosion under harsh weather conditions, such as wind sand, acid rain, etc., can extend the service life of the support. High strength: Galvanized aluminum-magnesium bracket through the galvanized process, a layer of zinc magnesium alloy layer is formed on the surface, which further enhances the structural strength of the bracket. Adjustment performance: Galvanized aluminum magnesium bracket can be flexibly adjusted according to the requirements of different installation sites to adapt to the installation needs of a variety of solar panels. Easy maintenance: Galvanized aluminum magnesium brackets generally require less maintenance, reducing maintenance costs and workload. Sustainability: Galvanized aluminum magnesium material can be recycled, in line with the concept of environmental protection, is conducive to saving resources. It is important to note that the selection of support materials should take into account the requirements of the installation environment, budget, and durability needs. Aluminum alloy and galvanized aluminum magnesium are feasible options, the specific choice of which depends on the specific situation and needs.

Solar mounting system is an important part of the solar photovoltaic power generation system, and its choice has a crucial impact on the operation effect and power generation of the entire solar photovoltaic power generation system. This article will introduce how to choose a suitable photovoltaic bracket from the following points. First, consider the quality and stability of the photovoltaic bracket The quality and stability of the photovoltaic bracket is one of the important factors to be considered when selecting. In the selection process, it is necessary to understand the quality control system of the product and the rigor of the product production process, as well as the relevant certifications and qualifications. In addition, the structural design of the product also needs attention. Appropriate design can make the structure of the photovoltaic bracket more stable, so as to effectively improve the stability and efficiency of the solar photovoltaic power generation system. Second, consider the adaptability of photovoltaic brackets Different solar photovoltaic power generation systems require different types of photovoltaic brackets. Therefore, when choosing a photovoltaic bracket, it is necessary to consider the type of bracket and its adaptability. Specific circumstances include: geographical conditions, ambient temperature and so on. For example, for solar photovoltaic power generation systems in regions with variable climates, it is necessary to choose a bracket type suitable for natural conditions such as strong winds, cold and heavy rain. At the same time, it is also necessary to ensure that the corrosion resistance of the product is good and can withstand the test of the complex and changeable natural environment. Third, consider the power output and support design The design and type of the bracket will directly affect the power output effect of the solar photovoltaic power generation system, and ultimately affect the power generation effect and income of the photovoltaic system. The suitable photovoltaic bracket should provide enough support for the solar photovoltaic panels, be able to resist the load, and should also have the effect of preventing risks and strengthening durability. In addition, the multi-shaped steel bracket can provide greater support and area for the power generation system. When purchasing, the appropriate bracket should be selected according to the specific situation. Fourth, consider the service life and maintenance costs In practical applications, photovoltaic support requires long-term stability to support the output of solar power panels, so its service life and maintenance costs are also important factors to consider when purchasing. When choosing a photovoltaic bracket, it is necessary to investigate the durability of the photovoltaic bracket and clarify its service life. At the same time, it is also necessary to understand its maintenance costs and cycles to avoid additional losses in the subsequent use ...

In recent days, accordingly to Wood Mackenzie, a global research and consultancy group, mentioned that global solar photovoltaic (PV) installations will grow with an annual rate of 8%, during the period from 2022 to 2031 to over 3500 GW of total installed capacity. However, there are still a lot of challenges at the same time. The global trends to phase out fossil fuels and move to cleaner energy sources have driven innovation and policies that have resulted in enormous cost reduction in the solar PV sector over the last two decades. However, with the outbreak of COVID-19 around the globe, rapid recovery in demand from solar installations, fast-increasing freight rates, and high solar raw materials prices have pushed module prices more than 20% higher. Global prices for key raw materials such as polysilicon, silver, aluminium, copper, and steel have all reached new high levels. Europe is transforming its energy system due to the Russia-Ukraine war, with the REPowerEU initiative envisioning at least 420 GW of new solar capacity by 2030. But as more sanctions are on the way against Russia, and with electricity and fuel prices soaring up, Europe needs to navigate this high price environment and act fast to develop a local solar supply chain to achieve its targets.

SOLAR PANELS Solar panels are the most recognizable component of a solar power system. Solar panels convert sunlight into electricity through a process called the photovoltaic effect. Individual panels are made of up several solar cells, which are silicon wafers that are wired together and held in place by the backsheet, frame, and a pane of glass. A panel string is a group of (typically 4-10) panels wired together in series, which then plugs into an input on a string inverter. Your solar array refers to all the panels that make up your system. An array may contain one or more panel strings wired into a string inverter, or any number of panels individually paired with microinverters. When you’re browsing solar panels, you’ll come across two types: monocrystalline or polycrystalline, and two different sizes. Monocrystalline vs. polycrystalline Monocrystalline (mono) solar panels contain solar cells which are cut from a single source of silicon. Polycrystalline (poly) solar panels are created by melting smaller silicon fragments and blending them to create solar cells. The blended nature of poly cells makes them slightly less efficient than mono cells, which means mono panels allow you to fit more solar in a smaller space. While mono panels used to carry a higher price tag due to their increased efficiency, that is no longer the case. As companies have geared their production lines to focus on mono panels, more efficient manufacturing processes have brought the cost of mono and poly panels right in line with each other. Mono cells now represent about 75% of the panels on the market. 60 / 120-cell vs 72 / 144-cell Full-sized solar panels come in two standardized sizes: 60-cell and 120-cell panels are about 40” by 66”, give or take an inch depending on the manufacturer. 60-cell panels contain 10 rows of 6 cells each. 120-cell panels are the same size and configuration, but the cells are cut in half, which boosts panel efficiency slightly. 72-cell and 144-cell panels are about 40” by 78”, again with small variations depending on the manufacturer. 72-cell panels contain 12 rows of 6 cells each. 144-cell panels are the same form factor, but with half-cut cells. Larger solar panels are about a foot taller and 8 pounds heavier, which can make them a bit harder to carry during installation, especially if you are installing a system on your roof. Regardless, it should be easily doable with 2+ people assisting the install. Larger panels can be slightly more cost effective, however your choice often comes down to whichever one will fit best on your rooftop. If you have a tall roof, you may be able to fit two rows of 60-cell panels, whereas a smaller roof may need 72-cell panels to fit as much solar as possible into a limited space.

STEP 1:  SUNLIGHT ACTIVATES THE PANELS. Each solar panel is constructed of a layer of silicon cells, a metal frame, a glass casing surrounded by a special film, and wiring.  For maximum effect, the panels are grouped together into “arrays” (an ordered series) and placed on rooftops or in large outdoor spaces.  The solar cells, which are also referred to as photovoltaic cells, absorb sunlight during daylight hours. STEP 2:  THE CELLS PRODUCE ELECTRICAL CURRENT. Within each solar cell is a thin semiconductor wafer made from two layers of silicon. One layer is positively charged, and the other negatively charged, forming an electric field. When light energy from the sun strikes a photovoltaic solar cell, it energizes the cell and causes electrons to ‘come loose’ from atoms within the semiconductor wafer. Those loose electrons are set into motion by the electric field surrounding the wafer, and this motion creates an electrical current. STEP 3: THE ELECTRICAL ENERGY IS CONVERTED. You now have solar panels working efficiently to transform sunlight into electricity, but the electricity generated is called direct current (or DC) electricity, which is not the type of electricity that powers most homes, which is alternating current (or AC) electricity. Fortunately, DC electricity can easily be changed into AC electricity by a gadget called an inverter. In modern solar systems, these inverters can be configured as one inverter for the entire system or as individual microinverters attached behind the panels. STEP 4:  THE CONVERTED ELECTRICITY POWERS YOUR HOME. Once the solar energy has been converted from DC to AC electricity, it runs through your electrical panel and is distributed within the home to power your appliances. It works exactly the same way as the electrical power generated through the grid by your electric utility company, so nothing within the home needs to change. Since you still remain connected to your traditional power company, you can automatically draw additional electricity to supplement any solar shortages from the grid. STEP 5:  A NET METER MEASURES USAGE. On cloudy days and overnight, your solar shingles or panels may not be able to capture enough sunlight to use for energy; conversely, in the middle of the day when nobody is home, they may collect surplus energy—more than you need to operate your home. That’s why a meter is used to measure the electricity flowing in both directions—to and from your home.Your utility company will often provide credits for any surplus power you send back to the grid. This is known as net metering. CONCLUSION Now that you know the basics about solar energy, you can marvel at how today’s photovoltaic technology can capture the vast power of the sun to operate a home. It may not be rocket science—but it definitely is human ingenuity at its best.

Advantages of Solar Energy Energy independence Eliminate electric bill Profitable investment Strong government incentives Sustainable Low maintenance 1. Energy independence Traditionally, most people depend on the utility company to supply them with power. When the grid goes down, If you own a solar system with energy storage, you can keep generating power during emergencies. That peace of mind is invaluable if you live in a place with an unreliable power grid, or are regularly threatened by severe weather conditions like tornadoes and hurricanes. Utility power also restricts people who want to live off the grid, like a remote hunting cabin. Solar can generate energy where it would be too expensive to run power lines. 2. Eliminate your electric bill With a properly sized system, you can drastically reduce or completely eliminate your electric bill. Even if you extend your payback period by taking out a loan to finance your project, you still enjoy reduced electricity costs from the moment you flip the switch on your PV system. 3. (Grid-tied) solar is a profitable investment If you buy a grid-tie system (the type of system you build if you have access to power lines), you can expect your investment into solar to turn a profit in the long run. In fact, over the 25-year life of the solar panel warranty, we estimate you would earn $31,031 on energy bills after clearing the initial payback period. 4. Lucrative government incentives The investment into solar becomes even more appealing when you take government incentives into account. State and federal programs are in place to encourage people to invest in renewable energy. Claiming these can put a ton of cash back in your pocket. 5. Sustainability A sustainable energy source is one that we can use without depleting the source of power. Oil and gas are not sustainable, because we consume those resources as we use them. In contrast, solar is sustainable because the source of energy (sunlight) is constantly replenished. We can use solar energy without worrying about whether we will deplete the Earth’s natural resources for future generations. 6. Low maintenance Solar systems don’t have a lot of moving parts. As a result, they rarely break down or require maintenance to keep them running optimally.Panels are warrantied to last 25 years, but many have a much longer lifespan. It’s common to replace your inverter at least once over the life of your system. But that’s about the only scheduled maintenance you will encounter for grid-tied systems. Off-grid systems are a bit more complex because they must include batteries, which often require routine maintenance. Specifically, flooded lead-acid batteries (the cheapest option available) must be checked and refilled with water regularly to keep them functioning properly.