• Greenlogic Solar Energy Systems - Off-Grid Solar Power System JS-SPS-300 System 1
  • Greenlogic Solar Energy Systems - Off-Grid Solar Power System JS-SPS-300 System 2
  • Greenlogic Solar Energy Systems - Off-Grid Solar Power System JS-SPS-300 System 3
Greenlogic Solar Energy Systems - Off-Grid Solar Power System JS-SPS-300

Greenlogic Solar Energy Systems - Off-Grid Solar Power System JS-SPS-300

Ref Price:
$490.00 - 580.00 / set get latest price
Loading Port:
Tianjin
Payment Terms:
TT or LC
Min Order Qty:
10 set
Supply Capability:
10000 set/month

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General Introduction
Solar power system provides alternating current and direct current, which is produced by the modules transforming solar power into power, to home lighting, household appliance and other DC appliance, such as cell phone and laptop.
Solar power system is widely used in area lack of power, for example house power supplying, monitoring, communication base, fire prevention in forest area, pasture and meadow, aquaculture etc.

We are dedicated to provide high quality off-grid PV products and systems to customers and has received a series of certificate, including ISO9001, TUV, UL, CE, CQC and RoHS.

Off-grid Solar Power System
High efficent PV module can produce more power.
Sine wave output is suitable for all kinds of load. Varieties of DC output, let it more convenient for users.
The multifunction design make it easy to operation and maintenance.

 

Off-grid Solar Power System Parameters

Off-grid Solar Power System JS-SPS-300

Off-grid Solar Power System Application

Off-grid Solar Power System JS-SPS-300

Our Factory

Off-grid Solar Power System JS-SPS-300

Q:How much does a solar energy system cost?
The cost of a solar energy system can vary depending on various factors such as the size of the system, location, government incentives, and installation costs. On average, a residential solar energy system can range from $10,000 to $30,000, but it is recommended to get a personalized quote from a solar installer for an accurate cost estimation.
Q:Can solar energy systems be used in powering traffic signals?
Indeed, traffic signals can be powered by solar energy systems. Photovoltaic (PV) modules, also known as solar panels, have the capability to convert sunlight into electricity, which can then be utilized to operate various devices, including traffic signals. This alternative approach to powering traffic signals presents several advantages when compared to the traditional grid-powered method. Firstly, solar-powered traffic signals are environmentally friendly as they do not rely on fossil fuels or emit greenhouse gases while in operation. This is advantageous in terms of reducing carbon footprint and addressing the issue of climate change. Secondly, solar-powered traffic signals are not reliant on the electrical grid, thereby ensuring a higher level of reliability during instances of power outages or grid failures. They can continue to function even when the main power supply is disrupted, therefore ensuring the smooth flow of traffic and maintaining road safety. Furthermore, solar-powered traffic signals necessitate minimal upkeep in comparison to their grid-powered counterparts. Once installed, solar panels have a long lifespan and only require periodic cleaning to ensure optimal performance. This minimizes the need for frequent repairs and maintenance, leading to cost savings for traffic management authorities. Lastly, solar-powered traffic signals can be conveniently installed in remote or off-grid locations where it would be difficult or expensive to extend the electrical grid. This makes them a viable solution for rural areas or areas with limited infrastructure. In conclusion, solar energy systems offer an effective and sustainable solution for powering traffic signals. They offer numerous benefits, including environmental friendliness, reliability, low maintenance, and suitability for remote locations. With the continual advancement of solar technology, the utilization of solar-powered traffic signals is expected to increase, contributing to a more environmentally conscious and efficient transportation system.
Q:What is solar battery storage?
Solar battery storage refers to the technology that allows energy generated from solar panels to be stored in batteries for later use. It is a system that captures excess electricity produced by solar panels during the day and stores it in batteries, instead of sending it back to the grid. This stored energy can then be utilized during times when the solar panels are not producing enough electricity, such as at night or during cloudy days. Solar battery storage has several benefits. Firstly, it enables homeowners and businesses to become more self-sufficient and reduce their reliance on the traditional electrical grid. By storing excess energy, they can use it during peak demand periods or when there is a power outage, ensuring a constant and uninterrupted power supply. Additionally, solar battery storage helps optimize the use of solar energy. As solar panels often produce more electricity than what is immediately needed, the excess energy would typically be wasted or sent back to the grid. With battery storage, this excess energy can be stored and used later, maximizing the utilization of solar power and reducing the need for fossil fuel-based electricity. Furthermore, solar battery storage can also help in reducing electricity bills. By using stored energy during peak demand periods when electricity rates are higher, users can avoid paying higher prices for electricity from the grid. This can result in significant cost savings over time. Overall, solar battery storage is an innovative technology that enhances the efficiency and reliability of solar energy systems. It enables users to store excess energy for later use, reducing reliance on the grid, optimizing solar power utilization, and potentially saving money on electricity bills.
Q:Can solar panels be installed on different types of roofs?
Yes, solar panels can be installed on different types of roofs, including flat, sloped, metal, shingle, tile, and even slate roofs. The installation process may vary slightly depending on the roof type, but solar panels can generally be adapted to fit and generate renewable energy regardless of the roof material or design.
Q:Can solar energy systems be used in powering research farms or agricultural laboratories?
Certainly, research farms and agricultural laboratories can utilize solar energy systems to power their operations. Solar energy presents a clean and renewable power source that can be harnessed through the installation of solar panels. These panels convert sunlight into electricity, which can then be utilized to operate various equipment and facilities. The electricity needs of research farms and agricultural laboratories are often substantial, encompassing lighting, heating, cooling, and the operation of agricultural machinery. By making use of solar energy systems, these facilities can reduce their dependence on fossil fuels and diminish their carbon footprint. The installation of solar energy systems can occur on building rooftops or open land adjacent to the research farm or laboratory. The amount of solar energy generated is contingent on factors such as facility location, solar panel size, and sunlight exposure. Nonetheless, advancements in solar technology have made it possible for even areas with limited sunlight to benefit from solar energy systems. Apart from their environmental friendliness, solar energy systems can also yield long-term cost savings for research farms and agricultural laboratories. Once installed, solar panels have a lifespan of 25-30 years and require minimal maintenance. This translates to significant reductions in electricity bills, particularly in rural areas where grid connectivity may be unreliable or costly. Moreover, solar energy systems can provide a dependable power source, especially during peak demand periods or power outages. By incorporating battery storage systems, surplus energy generated during the day can be stored and utilized during nighttime or cloudy days, guaranteeing a continuous power supply for research activities. In summary, solar energy systems offer a feasible and sustainable solution for powering research farms and agricultural laboratories. They boast multiple advantages, including decreased environmental impact, long-term cost savings, and a reliable power supply. As the demand for renewable energy continues to surge, the integration of solar energy systems into agricultural facilities can contribute to a greener and more sustainable future.
Q:How long does it take to install a solar energy system?
The time it takes to install a solar energy system can vary depending on factors such as the size of the system, complexity of the installation, and the availability of equipment and manpower. However, on average, a typical residential solar panel installation can take anywhere from one to three days.
Q:How do solar energy systems impact the reduction of nuclear power reliance?
Solar energy systems play a crucial role in reducing reliance on nuclear power by providing a clean and renewable alternative. One of the main impacts of solar energy on the reduction of nuclear power reliance is the significant decrease in greenhouse gas emissions. Nuclear power plants emit virtually no carbon dioxide during operation, but the process of mining, refining, and transporting uranium, as well as the construction and decommissioning of nuclear plants, contribute to a considerable carbon footprint. On the other hand, solar energy systems generate electricity without any direct emissions, ensuring a sustainable and environmentally friendly energy source. Furthermore, solar energy systems contribute to the diversification of the energy mix. Relying solely on nuclear power for electricity generation presents a potential risk in terms of safety and security. Nuclear accidents, such as the Chernobyl and Fukushima disasters, have highlighted the dangers associated with nuclear power plants. By adopting solar energy systems, countries can reduce their dependence on a single energy source and mitigate the risks associated with nuclear power. Another significant impact of solar energy systems on reducing nuclear power reliance is the decentralization of energy production. Nuclear power plants are often large-scale centralized facilities that require vast investments and long construction periods. In contrast, solar energy systems can be deployed at various scales, from rooftop installations to large solar farms. This decentralization allows for a more distributed and resilient energy system, reducing the need for large-scale nuclear power plants. Moreover, solar energy systems offer a readily available and abundant energy resource. The sun provides an infinite supply of energy, whereas the availability of uranium, the primary fuel for nuclear power, is limited. As uranium deposits are depleted, the cost and environmental impact of extracting and processing this resource increase. Solar energy, in comparison, requires only initial investment in equipment and infrastructure, and the operating costs are relatively low. This cost-effectiveness contributes to reducing the reliance on expensive and finite nuclear power resources. In conclusion, solar energy systems have a significant impact on reducing reliance on nuclear power by providing a clean, sustainable, and abundant alternative. Solar power systems minimize greenhouse gas emissions, diversify the energy mix, decentralize energy production, and utilize an infinite energy resource. By embracing solar energy, we can reduce the risks, costs, and environmental impacts associated with nuclear power, ultimately leading to a more sustainable and secure energy future.
Q:What is the expected maintenance cost of a solar energy system?
The expected maintenance cost of a solar energy system can vary depending on several factors. However, on average, the maintenance cost of a solar energy system is relatively low compared to other forms of energy generation. Solar panels, which are the most crucial component of a solar energy system, are typically designed to be durable and require minimal maintenance. They are built to withstand various weather conditions and can last for decades with proper care. However, occasional maintenance may be required to ensure optimal performance. The maintenance requirements for a solar energy system usually involve cleaning the panels to remove any dirt, dust, or debris that may accumulate over time. This can be done using water and a soft brush or with the help of automated cleaning systems. It is recommended to clean the panels at least once or twice a year, but this can vary depending on the location and environmental factors. In addition to cleaning, regular inspections of the solar energy system are also necessary. This includes checking for any signs of damage, loose connections, or potential issues with the electrical wiring. Inspections can be conducted by the system owner or a professional solar installer, and they are usually done on an annual basis. Overall, the expected maintenance cost of a solar energy system can be relatively low, typically ranging from 0.5% to 1% of the total installation cost per year. This cost primarily includes the expenses for cleaning, inspections, and any minor repairs that may be required. However, it is important to note that the actual maintenance cost can vary depending on the size of the system, its location, and the specific maintenance requirements. In conclusion, while there are some maintenance tasks associated with a solar energy system, the expected cost is generally low compared to other energy systems. With proper care and regular inspections, a solar energy system can continue to generate clean and renewable energy for many years with minimal maintenance expenses.
Q:What is the difference between a grid-tied and off-grid solar energy system?
A grid-tied solar energy system connects to the local electricity grid, while an off-grid solar energy system operates independently and is not connected to the grid. In a grid-tied system, electricity is generated from the sun by solar panels and converted into usable AC power through an inverter. This power is used by the household or business where the system is installed. If the solar panels produce more electricity than is consumed, the excess power is sent back to the grid, resulting in possible credit or payment from the utility company. When the solar panels do not generate enough power, electricity is drawn from the grid, ensuring a continuous and reliable power supply with the grid serving as a backup. On the other hand, an off-grid solar energy system is designed to operate independently from the grid. It typically includes a battery bank to store surplus electricity generated by the solar panels. This stored power can be used when the panels do not produce enough. An inverter is also required to convert the solar panels' DC power into usable AC power. Off-grid systems are commonly used in remote areas where connecting to the grid is expensive or impractical. The main difference between the two systems lies in their level of independence and connection to the grid. Grid-tied systems offer the advantage of selling excess electricity back to the utility company, potentially saving costs or generating revenue. They also provide a reliable power supply by using grid power when solar production is low. On the other hand, off-grid systems provide complete energy independence and do not rely on the grid. However, they require careful planning and sizing to ensure sufficient power availability at all times since there is no grid backup. Additionally, off-grid systems often necessitate more complex equipment, such as batteries, for storing and managing electricity.
Q:Is it possible to sell excess electricity generated by a solar energy system?
Yes, it is possible to sell excess electricity generated by a solar energy system. This can be done through net metering or feed-in tariff programs, where surplus electricity is fed back into the grid and credited or compensated by the utility company.

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