Arinna Solar Energy Systems Pure Sine Wave Inverter/DC AC Inverter 5KVA 48V with Isolate Transformer

Arinna Solar Energy Systems Pure Sine Wave Inverter/DC AC Inverter 5KVA 48V with Isolate Transformer

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Loading Port:: Qingdao

Payment Terms:: TT or LC

Min Order Qty:: 1 unit

Supply Capability:: 800 unit/month

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Specifications

1.using IGBT from Mitsubishi company
2.using American ATEMEL company microprocessor
3.Max. Efficiency>94%

Features:

1. using IGBT from Mitsubishi company as the power components
2. using American ATEMEL company microprocessor as figure controller
3. perfect protection and warning functions
4. circuit frame compact,Max. Efficiency≥94%
5. with wide input voltage range

Off Grid Pure Sine Wave Inverter 5KW 48V for wind power and PV power with factory price

Pure Sine Wave Inverter/DC AC Inverter 5KVA 48V with Isolate Tranformer

Technical Data Sheet

Type		ND48-5KD
DC input	Input rated voltage	48 V_DC
	Input rated current	119 A
	Input DC voltage range	40-60 Vdc
AC input	Allow input voltage range	110 V_AC / 120 V_AC / 220 V_AC/ 240 V_AC ± 15%
	Input rated current	45.5A / 41.7A / 22.5 A / 21A
	Bypass transfer time	≦4 ms
AC output	Rated capacity	5KVA
	Output rated power	4KW
	Output rated voltage and frequency	110 V_AC / 120 V_AC / 220 V_AC/ 240 V_AC，50Hz / 60Hz
	Output rated current	45.5A / 41.7A / 22.5 A / 21A
	Output voltage accuracy	110 V_AC / 120 V_AC / 220 V_AC / 240 V_AC± 2%
	Output frequency accuracy	50Hz / 60Hz ± 0.05%
	Waveform distortion (THD). (Linear load)	≤3%
	Dynamic response time (Load 0←→100%)	5%
	Power factor (PF)	0.8
	Overload capacity	120%,3minutes,150%,10second
	Crest factor (CF)	3:1
	Inverter efficiency	90%
Working Environment	Dielectric strength	1500VAC,1minute
	Noise (1m)	≤50dB
	Ambient temperature	-10℃~+50℃
	Humidity	0~90%,No condensation
	Altitude	≤5000 m
Industrial Frequency Transformer		Yes
Production function	Input reverse protection, input under-voltage protection, output overload protection, output short circuit protection, thermal protection
Dimensions	482420223mm
Weight	52kg

FAQ

Q1:Can we visit your factory?

A1:Sure,welcome at any time,seeing is believing.

Q2:Which payment terms can you accept?

A2:T/T,L/C,Moneygram,Paypal are available for us.

Q: Can solar energy systems be used for powering electric vehicle solar charging stations at highways?: Certainly, solar charging stations for electric vehicles (EVs) can be powered by solar energy systems on highways. Solar power, a clean and renewable energy source, can be harnessed through photovoltaic (PV) panels that convert sunlight into electricity, which can then be used to charge EVs. Highways, with their ample sunlight exposure, make ideal locations for solar charging stations. By utilizing solar energy, these charging stations can operate independently from the electrical grid, reducing reliance on traditional power sources and minimizing environmental impact. Additionally, solar charging stations can be installed along highways without the need for extensive infrastructure development since they do not require grid connection. Solar-powered EV charging stations offer several advantages. Firstly, they provide a sustainable and carbon-free means of charging EVs, aiding in the reduction of greenhouse gas emissions and the fight against climate change. Secondly, they contribute to the establishment of a decentralized energy system as they operate independently from the electrical grid. This decentralization enhances energy security and resilience while improving the overall reliability of the charging infrastructure. Furthermore, solar charging stations can bring economic benefits. As the cost of solar panels decreases and PV technology becomes more efficient, the installation and maintenance costs of solar charging stations become increasingly competitive with traditional charging infrastructure. Additionally, excess energy produced by solar charging stations can generate additional revenue by selling it back to the grid. In conclusion, solar energy systems are a practical and sustainable solution for powering EV solar charging stations on highways. They offer environmental advantages, promote energy independence, and can result in cost savings. With the growing adoption of EVs, integrating solar energy into the charging infrastructure will play a vital role in creating a greener and more sustainable transportation system.

Q: Can solar energy systems be used for water purification?: Yes, solar energy systems can be used for water purification. Solar-powered systems, such as solar stills or solar water disinfection units, can harness the sun's energy to purify water by removing contaminants and killing harmful microbes. These systems are particularly useful in remote areas where access to clean water is limited but sunlight is abundant. By utilizing solar energy, these systems offer a sustainable and environmentally friendly solution to water purification.

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Q: How do solar energy systems affect the reliability of the electrical grid?: The electrical grid's reliability can be influenced both positively and negatively by solar energy systems. On the positive side, these systems can assist in diversifying the sources of energy used for generating electricity, ultimately reducing reliance on traditional fossil fuels. This diversification has the potential to enhance the overall stability and reliability of the electrical grid. Moreover, solar energy systems can aid in decreasing the demand peak on the grid. When solar panels are most productive during daylight hours, they generate electricity that can be directly utilized by nearby buildings or fed back into the grid. This helps alleviate stress on the grid during periods of high demand, subsequently reducing the likelihood of power outages or blackouts. However, solar energy systems do present challenges to grid reliability. One of the primary concerns is the intermittent nature of solar power generation. Solar panels only produce electricity when the sun is shining, which means that their output is subject to variations caused by weather conditions and the time of day. This intermittency makes it difficult to match supply with demand, especially during cloudy or nighttime hours, resulting in potential imbalances or fluctuations in the grid. To tackle this issue, grid operators must carefully manage the integration of solar energy systems into the electrical grid. This involves using advanced forecasting and monitoring technologies to accurately predict solar power generation and plan for any potential fluctuations. Additionally, energy storage systems, such as batteries, can be deployed to store excess solar energy during periods of high generation and release it during times of low generation, thereby smoothing out the intermittent nature of solar power. Overall, although solar energy systems bring numerous benefits to the electrical grid, such as diversifying energy sources and reducing peak demand, they also present challenges related to intermittency. By embracing advanced technologies and implementing effective grid management strategies, these challenges can be mitigated, ultimately ensuring a reliable and resilient electrical grid.

Q: Can solar energy systems be used in powering art galleries or museums?: Yes, solar energy systems can indeed be used to power art galleries or museums. Solar panels can be installed on the rooftops or surrounding areas of these buildings to capture sunlight and convert it into electricity. This renewable energy source can provide a sustainable and cost-effective solution for powering lighting, climate control systems, and other electrical needs within art galleries and museums. Additionally, using solar energy can contribute to reducing the carbon footprint of these institutions, making them more environmentally friendly.

Q: Can solar energy systems be used for large-scale power generation?: Yes, solar energy systems can be used for large-scale power generation. Advances in technology and decreasing costs have made it increasingly feasible to deploy solar panels on a larger scale, such as solar farms or utility-scale solar power plants. These systems utilize multiple solar panels to capture sunlight and convert it into electricity, which can then be integrated into the grid to meet the power needs of a significant number of homes, businesses, or even entire communities. Additionally, the scalability of solar energy systems allows for their implementation in various geographical locations, making them a viable option for large-scale power generation worldwide.

Q: Can solar energy systems be used in disaster-prone areas?: Certainly, solar energy systems have the potential to be utilized in areas prone to disasters. In reality, they can prove particularly advantageous in such regions. Conventional power grids often prove to be fragile and susceptible to damage during natural calamities such as hurricanes, earthquakes, or floods. Consequently, these events can result in prolonged periods without electricity, hindering relief and recovery efforts. On the other hand, solar energy systems are decentralized and can operate independently from the grid. These systems consist of solar panels that convert sunlight into electricity, which can then be stored in batteries for use during power outages. This enables critical facilities, including hospitals, emergency response centers, and shelters, to function even when the grid is not operational. Solar energy systems can provide a reliable source of power for lighting, communication, refrigeration, and medical equipment, significantly enhancing the resilience and efficacy of disaster response. Moreover, solar energy systems can also be employed to power water pumps, ensuring that communities have access to clean water during crises. This is particularly crucial in disaster-prone areas where access to safe drinking water can be severely compromised. Solar-powered pumps can extract water from wells, rivers, or other sources, ensuring a consistent supply for drinking, sanitation, and hygiene purposes. Additionally, solar energy systems can contribute to long-term recovery efforts in disaster-prone areas. By reducing reliance on fossil fuels and conventional power grids, they can aid in the creation of sustainable and resilient communities. Solar panels can be installed on rooftops or in open spaces, utilizing the abundance of sunlight resources. This not only reduces greenhouse gas emissions and mitigates climate change but also provides a dependable and cost-effective source of energy for homes, businesses, and public infrastructure. In conclusion, solar energy systems can effectively serve disaster-prone areas by providing dependable power, supporting critical services, and promoting long-term resilience. By harnessing the power of the sun, these systems offer a sustainable and decentralized solution to energy needs, ensuring that communities can withstand and recover from natural disasters more effectively.

Q: What is a photovoltaic solar energy system?: A photovoltaic solar energy system is a type of renewable energy system that converts sunlight into electricity. It involves the use of solar panels, which are made up of numerous solar cells. These solar cells are comprised of semiconductors, typically made of silicon, that absorb photons from sunlight. When sunlight hits the solar panels, the photons transfer their energy to the electrons in the semiconductors, causing them to become energized and generate an electric current. This direct current (DC) is then converted into alternating current (AC) through an inverter, making it suitable for usage in homes, businesses, or the electrical grid. The main components of a photovoltaic solar energy system include the solar panels, which are usually mounted on rooftops or in open areas to maximize exposure to sunlight. There are also different types of solar panel technologies, such as monocrystalline, polycrystalline, or thin-film, each with its own efficiency levels and costs. To ensure maximum efficiency, solar panels are often positioned at an optimal angle and direction to capture as much sunlight as possible throughout the day. Additionally, inverters are used to convert the generated DC electricity into AC electricity, which is the standard form of electricity used in most electrical appliances and devices. Photovoltaic solar energy systems have numerous advantages, including environmental benefits as they produce clean and renewable energy, reducing greenhouse gas emissions. They also offer potential cost savings by reducing or eliminating reliance on traditional energy sources. Furthermore, they require minimal maintenance and have a long lifespan, typically ranging from 25 to 30 years. Overall, a photovoltaic solar energy system harnesses the power of the sun to produce electricity, providing a sustainable and environmentally friendly alternative to conventional energy sources.

Q: Are there any risks of electrical malfunction or failure with solar energy systems?: Solar energy systems come with certain risks of electrical malfunction or failure. One of the primary concerns revolves around faulty or damaged electrical connections, which can cause a loss of power generation or even spark electrical fires. Moreover, extreme weather conditions like lightning strikes or strong winds have the potential to harm solar panels or inverters, resulting in either temporary or permanent system failure. Another issue lies in the gradual degradation of solar panels over time, leading to reduced efficiency and eventual replacement. Furthermore, inadequate installation or maintenance practices may contribute to system failure or electrical malfunctions. To mitigate these risks, it is crucial to have solar energy systems installed by qualified professionals and ensure regular inspections and maintenance are conducted.

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