Solar Energy Systems Maine:Solar Generator Intelligent Inverter with Charger
- Loading Port:
- Guangzhou
- Payment Terms:
- TT OR LC
- Min Order Qty:
- 50 pc
- Supply Capability:
- 100000 pc/month
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Solar Generator Intelligent Inverter with Charger
Feature
XZ-NK New intelligent inverter with built in controller realize to combine display of inverter and solar controller, which is different with tranditional solar generator.
2.With great function,display the parameter of solar controller and inverter at the same time, includes grid voltage, frequency, input voltage, input frequency, input wattage,output load precent,battery capacity precent,PV voltage, battery voltage, charge current,PV power, daily power generation, total power generation etc;
3.Realize customer self setting PV priority or Battery priority, setting of battery type,charge voltage, charge current, charge limit and so on;
4.Have time colock, timing turn on and off, keep record of fault, fault query more function.
5.Also with normal funtion of inverter, like protection against battery under voltage,over-voltage,overload,short circuit.
Aplication:
Mobile Charge,PC,Lighting Fixture,TV, Fan,Refrigerator,washing machine,air condition, water pump,safety products, professional tool, equipment etc any wattage electrical appliance.
Product Parameter
Specification: | ||||||||||
Model XZ-NK | 50112-20 | 10224-30 | 20248-50 | 50296-50 | 70296-50 | 103192-50 | 153192-100 | 203192-100 | ||
PV Charging Method | Direct Charge/PWM/MPPT | |||||||||
PV Max input current | 20A | 30A | 50A | 50A | 50A | 50A | 100A | 100A | ||
PV Rated input voltage | 12VDC | 24VDC | 48VDC | 96VDC | 96VDC | 192VDC | 192VDC | 192VDC | ||
PV Max input wattage | 240W | 720W | 2400W | 4800W | 4800W | 9600W | 19200W | 19200W | ||
PV Max input voltage | 18VDC | 36VDC | 72VDC | 144VDC | 144VDC | 288VDC | 288VDC | 288VDC | ||
PV Charging efficiency | 99% | 99% | 99% | 99% | 99% | 99% | 99% | 99% | ||
Battery Rated input voltage | 12VDC | 24VDC | 48VDC | 96VDC | 96VDC | 192VDC | 192VDC | 192VDC | ||
Battery input voltage range | 9VDC-18VDC | 18VDC-36VDC | 36VDC-72VDC | 84VDC-120VDC | 84VDC-120VDC | 168VDC-240VDC | 168VDC-240VDC | 168VDC-240VDC | ||
Protection function (PV Charge part) | Reverse connection, short circuit, overcharge, anti charge protection | |||||||||
AC input voltage | 75VAC-125VAC Or 145VAC-275VAC | |||||||||
AC input frequency | 45HZ-65HZ | |||||||||
Invert output | 110VAC±2% Or 220VAC±2% | |||||||||
Invert output Frequency | 50HZ±0.5HZ Or 60HZ±0.5HZ | |||||||||
Display | LCD | |||||||||
Rated Capacity | 500W | 1000W | 2000W | 5000W | 7000W | 10000W | 15000W | 20000W | ||
Inverter structure | Low Frequency Structure | |||||||||
no-load power consumption | 8W | 15W | 30W | 75W | 75W | 150w | 150W | 150W | ||
Conversion efficiency | ≥85% | |||||||||
Mains input charging current | 0-15A(Adjustable) | |||||||||
Working mode | AC first /PV first(Optional) | |||||||||
Conversion time | ≤4ms | |||||||||
Overload capacity | Overload exceeds 110%,automatic shutdown in 30 secs;Overload exceeds 120%,automatic shutdown in 2 secs;Under mains supply mode, it will not shutdown. | |||||||||
Output waveform | Pure sine wave | |||||||||
Work environment | Temperature0-40℃,Humidity10-90% | |||||||||
Thermal methods | Forced Air Cooling | |||||||||
Protection function (inverter part) | mains over / under-voltage, higher DC current/ under-voltage, short circuit of inverter output | |||||||||
Output waveform distortion | ≤3% | |||||||||
Size | Product Size(mm) | 300×170×280 | 422×225×360 | 491×281×430 | 580×350×700 | |||||
Packing Size(mm) | 350×220×330 | 472×275×410 | 551×341×490 | 660×410×740 | ||||||
KG | 8KG | 10KG | 18KG | 36KG | 48KG | 55KG | 75KG | 95KG | ||
Note | All specifications are subject to change without prior notice | |||||||||
- Q:Can solar energy systems be used in agricultural applications?
- Yes, solar energy systems can be used in agricultural applications. They can power irrigation systems, provide electricity for remote farms, run livestock operations, and support various other farming activities. Solar panels can be installed on rooftops, on the ground, or integrated into agricultural structures like greenhouses, providing a sustainable and reliable source of energy for the agricultural sector.
- Q:How does the temperature affect the performance of solar panels?
- The temperature has a direct impact on the performance of solar panels. Generally, higher temperatures can cause a decrease in the efficiency of solar panels. This is because as the temperature rises, the electrical conductivity of the materials used in the panels decreases, leading to a reduction in the conversion of sunlight into electricity. Additionally, higher temperatures can increase the resistance within the solar cells, resulting in a decrease in the overall power output. However, it is important to note that solar panels are designed to tolerate a wide range of temperatures and their performance can still be significant even in hot weather.
- Q:Can solar energy systems be used in areas with limited access to the electrical grid?
- Yes, solar energy systems can definitely be used in areas with limited access to the electrical grid. In fact, solar power is an ideal solution for such areas as it offers a decentralized and sustainable source of electricity. Solar energy systems, such as photovoltaic panels, harness the energy from the sun and convert it into usable electricity. These systems can be installed in remote locations without the need for extensive electrical infrastructure. By utilizing solar energy systems, areas with limited access to the electrical grid can become self-sufficient in meeting their energy needs. These systems can power essential appliances, such as lighting, communication devices, and small-scale machinery, providing reliable energy even in areas where traditional grid connections are not available or unreliable. Moreover, solar energy systems can bring numerous benefits to areas with limited grid access. They offer an environmentally friendly alternative to traditional fossil fuel-dependent energy sources, thereby reducing carbon emissions and combating climate change. Solar power systems also provide a reliable and consistent source of energy, reducing the dependence on diesel generators or other costly and polluting forms of energy. Additionally, solar energy can promote economic growth and development in remote areas. By powering essential infrastructure like schools, hospitals, and businesses, solar systems can improve education, healthcare, and economic opportunities. Moreover, the installation and maintenance of solar energy systems can create local jobs and foster entrepreneurship. To ensure the successful implementation of solar energy systems in areas with limited grid access, it is crucial to address challenges such as initial costs, technical expertise, and maintenance. However, with advancements in technology and decreasing costs, solar power has become increasingly accessible and affordable. Various organizations, governments, and non-profit entities are actively working to promote solar energy adoption in such areas and provide necessary assistance. In conclusion, solar energy systems are a viable and sustainable solution for areas with limited access to the electrical grid. They offer a decentralized, reliable, and environmentally friendly source of electricity, bringing numerous benefits to these regions. By harnessing the power of the sun, these systems can empower communities, promote economic development, and improve the quality of life for those living in remote areas.
- Q:Can solar energy systems be used for powering remote monitoring systems?
- Yes, solar energy systems can be used for powering remote monitoring systems. Solar panels can generate electricity from sunlight, which can then be stored in batteries for use during non-sunny periods. This makes solar energy a reliable and sustainable power source for remote monitoring systems, allowing them to operate off-grid and in remote locations without access to traditional electrical infrastructure.
- Q:What is the role of solar energy forecasting in grid integration?
- The role of solar energy forecasting in grid integration is crucial for effectively managing and integrating solar energy into the power grid. Accurate and reliable solar energy forecasts help grid operators and utilities in making informed decisions about the available solar power supply and its variability. This information enables them to balance the electricity supply and demand, optimize grid stability, and efficiently integrate solar energy into the grid alongside other energy sources. Solar energy forecasting also assists in planning and scheduling energy generation, improving grid reliability, and reducing the need for costly backup power sources.
- Q:Can solar energy systems be used in areas with limited water supply?
- Yes, solar energy systems can be used in areas with limited water supply. Solar energy systems, such as photovoltaic panels, do not require water for their operation. Unlike other forms of energy generation like thermal power plants, which rely on water for cooling and steam generation, solar energy systems can function efficiently with no or minimal water usage. This makes solar energy a viable and sustainable option for areas facing water scarcity or limited water supply.
- Q:Can solar energy systems be used for powering military or defense installations?
- Yes, solar energy systems can definitely be used for powering military or defense installations. In fact, many military and defense organizations around the world are increasingly adopting solar energy systems as a reliable and sustainable source of power for their operations. There are several reasons why solar energy systems are suitable for military and defense installations. Firstly, solar power is a renewable energy source that is abundant and widely available. This means that military installations located in remote or off-grid areas can still have access to electricity without relying on traditional fossil fuel-based generators, which can be expensive and logistically challenging to transport and maintain. Secondly, solar energy systems offer a decentralized power supply option. This means that military installations can become less reliant on vulnerable and centralized power grids, reducing their susceptibility to power outages or attacks on critical infrastructure. Solar panels can be installed on rooftops, parking lots, or unused land within the military base, making effective use of available space. Furthermore, solar energy systems require minimal maintenance compared to traditional power generation methods. This is particularly advantageous for military or defense installations located in remote or hostile environments, where regular maintenance and fuel supply for generators may be difficult or risky. Solar panels are durable and have a long lifespan, requiring only periodic cleaning and routine inspections. In addition to their reliability and resilience, solar energy systems also offer economic benefits. By reducing reliance on fossil fuels, military installations can lower their operational costs and potentially save significant amounts of money in the long run. The funds saved can then be allocated to other critical defense needs or used for research and development of advanced military technologies. Moreover, deploying solar energy systems for military installations aligns with the global trend towards clean and sustainable energy solutions. It demonstrates a commitment to reducing greenhouse gas emissions and mitigating the impact of climate change, contributing to the overall sustainability goals of military organizations. Overall, solar energy systems are a viable and practical option for powering military or defense installations. They offer reliability, resilience, cost savings, and environmental benefits, making them an attractive choice for military organizations seeking to optimize their energy supply and reduce their carbon footprint.
- Q:What is the impact of temperature on solar energy system performance?
- Temperature can have a significant impact on solar energy system performance. As the temperature increases, the efficiency of solar panels tends to decrease. This is because higher temperatures can cause the panels to operate at a higher voltage, resulting in a drop in overall efficiency. Additionally, excessive heat can also lead to a decrease in the lifespan of solar panels. However, it is worth noting that cold temperatures can actually benefit solar panels, as they tend to increase their efficiency. Therefore, temperature variations need to be carefully considered when designing and maintaining solar energy systems for optimal performance.
- Q:Are there any risks of electromagnetic radiation with solar energy systems?
- Yes, there are potential risks of electromagnetic radiation associated with solar energy systems. Solar energy systems use photovoltaic (PV) panels to convert sunlight into electricity. These panels generate direct current (DC) electricity, which is then converted into alternating current (AC) electricity for use in our homes and businesses. One potential source of electromagnetic radiation is the inverter, which is responsible for converting DC electricity into AC electricity. In some cases, these inverters can produce electromagnetic fields (EMFs) that may emit low-frequency radiation. While these EMFs are generally considered to be low and within acceptable limits, there is ongoing research to better understand any potential health effects associated with long-term exposure to these fields. Another potential risk is the presence of high-frequency electromagnetic radiation from radio frequency (RF) communication devices, such as wireless monitoring systems or communication modules used in solar energy systems. These devices transmit and receive signals wirelessly, and there is some concern about the potential health effects of long-term exposure to RF radiation. However, the power levels of these devices are generally low, and they are designed to comply with safety standards and regulations. It is important to note that the risks associated with electromagnetic radiation from solar energy systems are generally considered to be low compared to other sources of electromagnetic radiation in our everyday lives, such as cell phones, Wi-Fi routers, or power lines. Nonetheless, it is always recommended to follow safety guidelines provided by manufacturers and industry standards to minimize any potential risks.
- Q:What are the different financing models for installing solar energy systems?
- Installing solar energy systems offers various financing models to cater to individual preferences and financial capabilities. Here are some commonly used financing options: 1. Complete Purchase: The most direct approach is to outright purchase the solar energy system. Although it requires a significant upfront investment, it grants the homeowner or business owner full access to the benefits and incentives associated with solar energy, such as tax credits and reduced utility bills. 2. Solar Loans: Many financial institutions provide specialized loans for solar installations, offering lower interest rates and longer repayment terms compared to conventional loans. With a solar loan, the system owner makes monthly payments to the lender while enjoying the financial advantages of lower utility bills and potential tax credits. 3. Power Purchase Agreements (PPAs): A PPA involves a contract between the solar system owner and a third-party solar provider. Under this agreement, the solar provider installs and maintains the system on the customer's property, and the customer agrees to purchase the electricity generated by the system at a predetermined rate. This eliminates the need for upfront costs and allows immediate savings on the electricity bill. 4. Solar Leases: Similar to PPAs, solar leases involve a third-party solar provider installing and maintaining the system. However, instead of purchasing the electricity, the customer pays a fixed monthly lease payment for the use of the solar energy system. While this option may not provide as much savings as other financing models, it requires minimal upfront investment. 5. Property Assessed Clean Energy (PACE) Financing: PACE financing enables property owners to finance the installation of solar energy systems through an assessment on their property tax bill. The loan is repaid over a period of time, typically 10 to 20 years, through an additional assessment on the property taxes. PACE financing is particularly advantageous for property owners who may not qualify for traditional loans or prefer to spread out the cost of the solar installation over a longer duration. These examples highlight the different financing models available for installing solar energy systems. It is crucial to carefully evaluate each option, considering factors such as upfront costs, long-term savings, and individual financial goals, to determine the most suitable financing arrangement for specific circumstances.
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Solar Energy Systems Maine:Solar Generator Intelligent Inverter with Charger
- Loading Port:
- Guangzhou
- Payment Terms:
- TT OR LC
- Min Order Qty:
- 50 pc
- Supply Capability:
- 100000 pc/month
OKorder Service Pledge
OKorder Financial Service
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