• 3.6 Kw Solar Inverter Sunteams 4000-5000 (US) ETL with Wirebox System 1
  • 3.6 Kw Solar Inverter Sunteams 4000-5000 (US) ETL with Wirebox System 2
  • 3.6 Kw Solar Inverter Sunteams 4000-5000 (US) ETL with Wirebox System 3
3.6 Kw Solar Inverter Sunteams 4000-5000 (US) ETL with Wirebox

3.6 Kw Solar Inverter Sunteams 4000-5000 (US) ETL with Wirebox

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Loading Port:
Shanghai
Payment Terms:
TT OR LC
Min Order Qty:
5 watt
Supply Capability:
3000 watt/month

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The Sunteams (US) 1500 ~5000 series isapplicable to various rooftops and small scale photovoltaic grid connected power plants. Their nominal output powers are 1.5 kW, 2 kW, 2.5 kW, 3 kW, 4 kW and 5kW respectivelywith Certificate ETL (220V/60HZ).


This series is transformerless and has a wide range of MPPT input voltage. Itsmaximum conversion efficiency and MPPT tracking accuracy reach 97.6 % and 99.5% respectively.  The maximum DC voltage reaches 550 V. Its multilingualLCD display facilitates easy operation. It has waterproof direct plug interminals. It has overvoltage, islanding, short circuit, overloading andoverheating protection functions. Its IP65 protection degree will ensure itruns well in various tough environments.


These units are available with wirebox (DC Switch).


UL certified
■  For countries with UL certification (UL 1741 / IEEE 1547)

 

Efficient
■  The CEC efficiency of the inverter can reach 95.0 %-97.5 %
■  Transformerless desi

 

Simple
■  ‘Plug and play’connection for easy installation and maintenance
■  Designed for hanging with simple and easy installation
■  Fanless cooling concept

 

Communicative
■  RS232/RS485 interfaces as standard
■  Optional Bluetooth technology




Q: How does a solar inverter handle variations in battery charge levels?
A solar inverter typically handles variations in battery charge levels by constantly monitoring the charge level of the battery. It adjusts the energy flow from the solar panels to the battery based on its charge level. When the battery charge is low, the inverter increases the energy flow from the solar panels to charge the battery. Conversely, when the battery charge is high, the inverter reduces the energy flow to prevent overcharging. This dynamic control ensures efficient use of the available solar energy and optimal charging of the battery.
Q: Can a solar inverter be used with concentrated solar power systems?
Yes, a solar inverter can be used with concentrated solar power systems. Concentrated solar power (CSP) systems use mirrors or lenses to concentrate sunlight onto a receiver, which then converts the sunlight into heat. This heat can then be used to generate electricity through various means, including steam turbines. In order to convert this heat-generated electricity into the required alternating current (AC) for use in homes and businesses, a solar inverter is needed. Therefore, a solar inverter is an essential component in connecting and integrating the electricity generated by concentrated solar power systems into the power grid.
Q: Can a solar inverter be used with a solar-powered backup generator?
Certainly, a solar-powered backup generator can indeed be utilized in conjunction with a solar inverter. The solar inverter's primary function is to convert the DC electricity generated by solar panels into AC electricity, which is suitable for powering household appliances and various electrical devices. Conversely, a solar-powered backup generator harnesses solar energy to either charge its batteries or store any surplus electricity. When the solar panels are actively generating electricity, the solar inverter will convert the DC electricity into AC electricity. This AC electricity can then be directly employed within the household or redirected back to the grid, assuming the system is interconnected. Should there be an excess of electricity being produced and the batteries of the solar-powered backup generator are fully charged, the solar inverter has the capability to divert this surplus electricity to other loads or devices. During periods when solar energy is either insufficient or unavailable, the solar-powered backup generator can seamlessly activate and provide the requisite electricity to power the house or recharge the batteries. In such cases, the solar inverter remains responsible for the conversion of the DC electricity generated by the solar-powered backup generator into AC electricity. To summarize concisely, employing a solar inverter alongside a solar-powered backup generator guarantees a continuous supply of electricity, even during instances of limited solar energy availability.
Q: What is the operating temperature range of a solar inverter?
The operating temperature range of a solar inverter typically varies between -20°C to 60°C (-4°F to 140°F).
Q: What are the different output waveforms of a solar inverter?
The different output waveforms of a solar inverter can vary depending on the type of inverter being used. The most common types include pure sine wave, modified sine wave, and square wave. Pure sine wave inverters produce an output waveform that closely resembles the standard AC power provided by utility companies, making them ideal for powering sensitive electronics. Modified sine wave inverters produce a stepped waveform that may not be as smooth as a pure sine wave, but can still power most household appliances. Square wave inverters produce a more basic waveform with abrupt transitions between positive and negative voltage, typically used for powering simple devices or tools.
Q: Are there any disadvantages of using a solar inverter?
Yes, there are a few disadvantages of using a solar inverter. Firstly, solar inverters are sensitive to extreme temperature variations, and their efficiency can be affected in very high or low temperature conditions. Secondly, solar inverters require regular maintenance and occasional replacement, which adds to the overall cost of the system. Additionally, solar inverters produce a small amount of electromagnetic interference (EMI) which can interfere with nearby electronic devices if not properly shielded. Lastly, solar inverters are grid-tied systems, meaning they rely on a stable electrical grid to function. In case of power outages or grid malfunctions, solar inverters may shut down and stop supplying power to the connected devices.
Q: What are the potential risks of overcharging a battery connected to a solar inverter?
Overcharging a battery connected to a solar inverter can lead to several potential risks. Firstly, it can cause excessive heat buildup in the battery, which can lead to reduced battery life and even damage the internal components. Secondly, overcharging can cause electrolyte leakage or gas buildup within the battery, increasing the risk of explosion or fire hazard. Additionally, overcharging can result in the release of toxic gases, such as hydrogen, which can be harmful if not properly ventilated. Finally, overcharging can also have an adverse effect on the overall efficiency of the solar system, as excess energy is wasted during the charging process.
Q: Can a solar inverter be used with different types of communication interfaces?
Yes, a solar inverter can be used with different types of communication interfaces. Many modern solar inverters are designed to be compatible with various communication protocols such as Wi-Fi, Ethernet, RS485, and Zigbee. This allows for easy integration and monitoring of the inverter with different types of communication systems and devices.
Q: What is the maximum efficiency rating of a solar inverter?
The maximum efficiency rating of a solar inverter can vary depending on the model and manufacturer, but typically it ranges from 95% to 98%.
Q: What is the role of isolation in a solar inverter?
The role of isolation in a solar inverter is to provide electrical safety and protect sensitive electronic components. It helps to separate the direct current (DC) input from the alternating current (AC) output, ensuring that any faults or fluctuations in one do not affect the other. Isolation also prevents any potential ground faults, reducing the risk of electric shock and improving system reliability.

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