Complete Solar System for Home Solar Panel System Home 5KW
- Ref Price:
-
$4,000.00 - 5,000.00
/ set
- Loading Port:
- Guangzhou
- Payment Terms:
- TT or LC
- Min Order Qty:
- 10 set
- Supply Capability:
- 100000 set/month
OKorder Service Pledge
OKorder Financial Service
You Might Also Like
Complete Solar System for Home Solar Panel System Home 5kw
Features of Complete Solar System
Solar module:solar battery module(also called photovoltaic battery module)in series or in parallel according to the system requirements,the solar energy will change into electrical energy in the light of the sun and then output,it is the core component of solar photovoltaic system.
Controller: solar power controller is an important part of the solar power system, System of charging and discharging and load work automatically by its intelligent control and protection. Its performance directly affects the reliability of the system. Especially the battery life, overcharge or over discharge will be cause damage and even lethal damage for the battery.
Inverter: in solar photovoltaic power supply system, if it has the AC load, it is necessary to use the devices of the inverter. The direct current generated by solar modules or the battery release of DC into AC for load.
Battery:Stored up the electricity produced by the solar cell module produce,When illumination is insufficient or night or load demand is greater than the power produced by the solar cell module.Stored energy will be released in order to meet the load demand of energy,It is the solar energy photovoltaic system energy storage unit.Currently solar pv system commonly used is lead acid battery,For higher requirements of the system,Usually adopt deep discharge vrla battery ,deep discharge suction fluid type lead-acid battery,etc
Product Parameter
Model XD- | TNY50112-10 | TNY70112-50 | TNY10224-50 | TNY20248-40 | TNY50296-50 | |||
Solar Energy Module | Type | Monocrystalline silicon A level | ||||||
Power | 100W | 500W | 1100W | 1800W | 4400W | |||
Daily Power generation | 0.5KWH | 2.5KWH | 5.5KWH | 9KWH | 22KWH | |||
Size(mm) | 1160×660×35×1 | 1250*660*35*4 | 1360*900*40*6 | 1620*990*40*8 | 1955*990*45*16 | |||
PV Controller | Control mode | Direct charge/PWM/MPPT | ||||||
Charge current | 10A | 50A | 50A | 40A | 50A | |||
Rated charging voltage | 12VDC | 12VDC | 24VDC | 48VDC | 96VDC | |||
Compulsive charging voltage | 14.8V | 29.6V | 59.2V | 118.4V | ||||
Balanced charging voltage | 14.4V | 28.8V | 57.6V | 115.2V | ||||
Floating charging voltage | 13.8V | 27.6V | 55.2V | 110.4V | ||||
Recovery charging voltage | 13.3 | 26.6V | 53.2V | 106.4V | ||||
Battery overvoltage protection/recovery | 16.5V/15V | 33V/30V | 66V/60V | 132V/120V | ||||
Protection function | Reverse connection, short circuit, overcharge, anti charge protection | |||||||
Display | LED | |||||||
PV Inverter | Rated Capacity | 500W | 700W | 1000W | 2000W | 5000W | ||
DC voltage | 12V | 24V | 48V | 96V | ||||
Undervoltage protection | 10.5V | 21V | 42V | 84V | ||||
Inverter structure | Low frequency structure | |||||||
Mains input | 75VAC-125VAC or 145VAC-275VAC | |||||||
Inverter output | 110VAC+/-2% or 220VAC+/-2% | |||||||
Mains input charging current | 10A | |||||||
Working way | Mains priority/solar power priority (optional) | |||||||
Conversion time | ≤4ms | |||||||
Overload capacity | Overload 110% 30 seconds the machine automatically shut down; overload shutdown 120% 2 seconds; mains mode overload do not shutdown | |||||||
Conversion efficiency | ≥80% | |||||||
Output waveform | Pure sine wave | |||||||
Work environment | Temperature0-40℃,Humidity10-90% | |||||||
Cooling mode | Forced air cooling | |||||||
Protection function | Mains over / under-voltage, direct current is too high / undervoltage, the inverter output short circuit | |||||||
Display | LCD | |||||||
Output waveform distortion | ≤±0.3% | |||||||
Input and output frequency | The same with power system | |||||||
Battery | Battery Type | Deep cycle maintenance-free lead-acid battery | ||||||
Battery capacity | 100AH/12V×1 | 200AH/12V×1 | 100AH/12V×2 | 200AH/12V×4 | 100AH/12V×8 | |||
Discharge time(full Load calculation) | 1.3H | 1.8H | 1.3H | 2.8H | 1.1H | |||
Machine specifications | Size(mm) | 465×245×465 | 580×280×470 | 580×300×610 | 600×540×940 | |||
Weight | 48KG | 81KG | 7KG | 302KG | 332KG | |||
Remarks | Specification for reference.Subject to change without prior notice | |||||||
- Q: Can solar energy systems be used in powering religious institutions like churches or temples?
- Certainly, churches or temples can utilize solar energy systems to power their operations. These buildings are particularly suitable for solar power due to their spacious roofs that can accommodate solar panels. By installing these systems, religious institutions can significantly decrease their electricity expenses, save money, and become more sustainable. Sunlight is converted into usable energy by solar panels, which can then be employed to fulfill the religious institution's lighting, heating, cooling, and other electrical requirements. Recent advancements in solar technology have made it possible to store surplus energy in batteries, ensuring uninterrupted power even on cloudy days or during the night. The usage of solar energy not only reduces the operational costs of religious institutions but also aids in reducing their carbon footprint. By minimizing reliance on fossil fuels, solar power systems contribute to mitigating climate change and advocating for environmental stewardship. This resonates with the core principles of numerous religious organizations that emphasize the significance of environmental sustainability and responsible Earth stewardship. Moreover, solar energy systems can serve as visible demonstrations of the religious institution's dedication to sustainable practices, inspiring both members and the wider community to adopt renewable energy solutions. By embracing solar power, religious institutions can showcase their commitment to caring for the planet and encourage others to do the same. To summarize, solar energy systems can effectively power religious institutions such as churches or temples. They present an eco-friendly and economical solution that aligns with the values of many religious organizations. By embracing solar power, these institutions can reduce their energy costs, promote sustainability, and inspire their members and the community to embrace clean energy solutions.
- Q: How does the efficiency of solar panels vary across different temperatures?
- Solar panel efficiency can vary depending on temperature due to the materials used in their construction. Typically, as temperature rises, the efficiency of solar panels decreases. This phenomenon is known as the temperature coefficient. The temperature coefficient measures how much a solar panel's efficiency decreases with every degree Celsius increase in temperature. Manufacturers provide different temperature coefficients for various types of solar panels. One of the main reasons for reduced efficiency at higher temperatures is the impact on semiconducting materials, like silicon, used in solar panels. These materials are sensitive to temperature changes and can experience increased resistance, resulting in less electricity generation from sunlight. Another factor affecting efficiency at higher temperatures is the decrease in open-circuit voltage, which is the maximum voltage obtained from a solar panel when no load is connected. As temperature rises, open-circuit voltage tends to decrease, affecting overall efficiency. It's important to note that the decrease in efficiency is not necessarily linear. At extremely high temperatures, the decrease may be more significant, while at moderately high temperatures, it may be relatively small. Manufacturers employ various design features to mitigate the impact of temperature on solar panel efficiency. These include using materials with lower temperature coefficients, incorporating cooling mechanisms like heat sinks or ventilation, and utilizing tracking systems to maximize sunlight exposure while minimizing temperature effects. In conclusion, while solar panels still generate electricity effectively at higher temperatures, it is crucial to consider the temperature coefficient and design features for optimal efficiency and performance.
- Q: Do solar energy systems require grounding?
- Yes, solar energy systems do require grounding. Grounding is an essential safety measure for any electrical system, including solar energy systems. Grounding helps to protect the system from electrical faults, lightning strikes, and other potential hazards. In a solar energy system, grounding is typically done by connecting all metal components, such as solar panels, inverters, and racking systems, to a common ground. This is achieved by using grounding wires or cables that are connected to a grounding electrode, such as a grounding rod or a metal water pipe. Grounding serves several important purposes in solar energy systems. Firstly, it helps to protect against electrical shock hazards by providing a safe path for electrical currents in the event of a fault or malfunction. Grounding also helps to prevent damage to the system by redirecting lightning strikes or other electrical surges away from sensitive components. Furthermore, grounding is required by electrical codes and regulations. These codes ensure that solar energy systems are installed and operated safely and in compliance with industry standards. Failure to comply with grounding requirements can result in safety hazards, equipment damage, or even legal consequences. In summary, grounding is a necessary and important aspect of solar energy systems. It ensures the safety of the system and its operators, protects against electrical faults and lightning strikes, and ensures compliance with electrical codes and regulations.
- Q: Can solar energy systems be used in educational settings for teaching purposes?
- Yes, solar energy systems can definitely be used in educational settings for teaching purposes. They provide hands-on learning experiences for students to understand the principles of renewable energy, sustainability, and environmental conservation. Solar energy systems can be integrated into science, technology, engineering, and math (STEM) curricula, allowing students to explore concepts such as photovoltaics, solar panels, energy conversion, and energy efficiency. Additionally, these systems offer practical applications that engage students in real-world problem-solving and empower them to become environmentally conscious individuals.
- Q: Can solar energy systems be used for powering industrial manufacturing plants?
- Yes, solar energy systems can be used for powering industrial manufacturing plants. With advancements in solar technology and the availability of large-scale solar panels, industrial manufacturing plants can harness solar power to meet their energy needs. This not only helps reduce reliance on fossil fuels but also contributes to cost savings and environmental sustainability in the long run.
- Q: Can solar energy systems be used in powering banks or financial institutions?
- Yes, solar energy systems can certainly be used to power banks or financial institutions. Solar panels can be installed on the rooftops or premises of these establishments to generate electricity from sunlight. This renewable energy source can help reduce the reliance on traditional fossil fuel-based power, lower energy costs, and contribute to a greener and more sustainable operation for banks and financial institutions.
- Q: How do solar energy systems affect the grid?
- The grid can be affected both positively and negatively by solar energy systems. On the positive side, these systems can decrease the demand for electricity from traditional power plants, particularly during peak hours. This can alleviate strain on the grid and lessen the need for additional generation capacity. Furthermore, the decentralization of the grid can be facilitated by solar energy systems. Generating electricity at the point of use can reduce transmission and distribution losses, resulting in a more efficient energy system. Additionally, grid resilience can be enhanced as power can be produced locally, reducing vulnerability to disruptions in the transmission and distribution infrastructure. However, challenges can arise when it comes to solar energy systems and the grid. One of the main issues is intermittency, as solar energy generation depends on the availability of sunlight, which varies throughout the day and is absent at night. This can lead to fluctuations in the supply of electricity, necessitating the balancing of the system by grid operators to ensure a stable supply. To tackle this issue, energy storage systems, such as batteries, may need to be invested in by grid operators. These systems can store excess solar energy during peak production and release it during periods of low production, thereby smoothing out the intermittent nature of solar energy and improving grid stability. Additionally, the integration of large-scale solar energy systems into the grid may require significant upgrades to the transmission and distribution infrastructure. These upgrades are essential to accommodate the increased flow of electricity from distributed generation sources and guarantee the reliable and safe operation of the grid. In conclusion, solar energy systems can have a positive impact on the grid by reducing demand from traditional power plants and decentralizing the energy system. However, challenges related to intermittency and the need for grid upgrades must be addressed. Overall, with proper planning and investment, solar energy systems can play a crucial role in transitioning towards a more sustainable and resilient grid.
- Q: Can a solar energy system be installed on a building with multiple levels?
- Yes, a solar energy system can be installed on a building with multiple levels. The installation process may vary depending on the specific layout and structure of the building, but with proper planning and design, solar panels can be successfully installed on roofs, walls, or even as shading structures on multiple levels of a building to generate renewable energy from the sun.
- Q: Can solar energy systems be integrated with other energy sources?
- Integrating solar energy systems with other energy sources is a widely adopted approach in various applications to guarantee a dependable and steady provision of electricity. Given that solar energy is intermittent and reliant on sunlight availability, combining solar energy systems with alternative sources, such as batteries or the power grid, facilitates the storage of surplus energy generated during sunny periods and enables the provision of electricity during sunlight scarcity. A prevalent method of integration involves the use of hybrid systems, where solar panels are amalgamated with other renewable energy sources like wind or hydroelectric power. This integration allows for a more consistent and reliable energy supply since the different sources can compensate for fluctuations in one another. Moreover, solar energy systems can be integrated with traditional energy sources like natural gas or coal-based power plants. This integration contributes to the reduction of carbon emissions and aids in the shift towards a cleaner and more sustainable energy mix. By combining solar energy with other sources, the overall energy generation capacity is augmented, resulting in a more stable and secure energy supply. In conclusion, integrating solar energy systems with other energy sources is a pragmatic and efficient approach to maximize the advantages of renewable energy while ensuring a continuous and dependable electricity supply.
- Q: Can a solar energy system be installed on a metal roof?
- Yes, a solar energy system can be installed on a metal roof. In fact, metal roofs are often considered ideal for solar panel installations due to their durability, ease of installation, and compatibility with mounting systems. The metal roof provides a sturdy and secure foundation for the solar panels, allowing for a reliable and long-lasting solar energy system.
Send your message to us
Complete Solar System for Home Solar Panel System Home 5KW
- Ref Price:
-
$4,000.00 - 5,000.00
/ set
- Loading Port:
- Guangzhou
- Payment Terms:
- TT or LC
- Min Order Qty:
- 10 set
- Supply Capability:
- 100000 set/month
OKorder Service Pledge
OKorder Financial Service
Similar products
Hot products
Hot Searches
Related keywords
