• Outdoor Solar Inverter 3600W Grid Connected System 1
  • Outdoor Solar Inverter 3600W Grid Connected System 2
  • Outdoor Solar Inverter 3600W Grid Connected System 3
Outdoor Solar Inverter 3600W Grid Connected

Outdoor Solar Inverter 3600W Grid Connected

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Grid connected solar inverter 3600W

  ◆ Compact size and high power density

  ◆ High speed MPPT for real time power tracking and improved energy harvesting

  ◆ Transformerless operation for highest efficiency 97%

  ◆ High overload capability under most ambient conditions

  ◆ Certified grid connected operation according to the international standards

  ◆ True sine wave output

  ◆ Integrated RS485/RS232 serial communications

  ◆ Multi-language LCD display


MODEL1100TL1500TL2000TL2500TL3000TL3600TL5000TL6000TL
Max. DC Input Power(W)12001750230027003660375053006400
Max DC Voltage(Vdc)450450500550
MPPT Operating Range(Vdc)60~450100~450100~500
Number of Parallel Inputs123
Number of MPPT Trackers1
Max. Input Current(A)11.7101314.5202022.527.5
Nominal Output Power(W)11001500200024903000360046006000
Max. Output Power(W)11001650220024903400360050006000
Nominal Output Current(A)4.86.58.710.81315.72026
Max. Output Current(A)5.77.910.51215.7162429.3
Nominal AC Output Voltage(Vac)230
AC Output voltage range (Vac)*190~265
AC Grid frequency range (Hz)*50±5
Power Factor (cosφ)>0.99
THDI<3%(at nominal output power)
Max.efficiency96.50%96.50%97.00%97.10%97.20%97.30%97.40%97.40%
Euro.efficiency95.40%95.50%96.20%96.30%96.40%96.60%96.80%96.80%
MPPT. efficiency99.60%99.60%99.60%99.60%99.60%99.60%99.60%99.60%
Operating Temperature()-25~+60
Noise typical[dB(A)]≤20dB(A)
Operating Consumption(W)0
Electrical IsolationTransformerless
Cooling ConceptNatural cooling
Protect LevelIP65
CommunicationRS232(WiFi optional)
Dimension (W×D×H)(mm)345*152*315345*152*355345*152*385345*152*505345*162*573
Weight (Kg)1213151924
*AC grid voltage range and frequency range depend on local standards



Q:What is the maximum operating temperature of a solar inverter?
The maximum operating temperature of a solar inverter can vary depending on the specific model and brand. However, most solar inverters are designed to operate within a temperature range of -20°C to 60°C (-4°F to 140°F). It is important to check the manufacturer's specifications to determine the exact maximum operating temperature for a particular solar inverter.
Q:Can a solar inverter be used in conjunction with a power factor correction device?
Yes, a solar inverter can be used in conjunction with a power factor correction device. Power factor correction devices are designed to improve the power factor of electrical systems by reducing reactive power and improving overall efficiency. Since solar inverters convert DC power from solar panels into AC power for use in electrical systems, they can benefit from the use of power factor correction devices to optimize power quality and reduce energy waste. By combining a solar inverter with a power factor correction device, both the generation and consumption of electricity can be more efficient and environmentally friendly.
Q:Can a solar inverter be used in parallel configurations for increased power output?
Yes, a solar inverter can be used in parallel configurations for increased power output. By connecting multiple inverters in parallel, the overall power output can be increased, allowing for the utilization of larger solar arrays and maximizing the energy generation capacity.
Q:How does a solar inverter handle anti-islanding protection?
A solar inverter handles anti-islanding protection by continuously monitoring the grid's voltage and frequency. If the grid's voltage or frequency deviates from the predetermined range, indicating a potential islanding condition, the inverter quickly disconnects from the grid to prevent energy flow. This ensures the safety of utility workers and prevents damage to the electrical grid.
Q:Can a solar inverter be used in a building-integrated photovoltaic system?
Yes, a solar inverter can be used in a building-integrated photovoltaic system. The solar inverter is an essential component that converts the DC (direct current) electricity produced by the photovoltaic panels into AC (alternating current) electricity that can be used to power electrical devices and appliances in a building. Therefore, it plays a crucial role in ensuring the seamless integration of solar energy into the building's electrical system.
Q:What is the impact of temperature on the performance of a solar inverter?
The impact of temperature on the performance of a solar inverter is significant. As temperature increases, the efficiency of the inverter tends to decrease. This is because higher temperatures can lead to increased resistive losses, increased internal losses, and decreased power conversion efficiency. Additionally, overheating can cause the inverter to shut down or operate at reduced capacity to prevent damage. Therefore, it is important to consider temperature management and cooling strategies to optimize the performance and lifespan of a solar inverter.
Q:How does a solar inverter handle voltage fluctuation during cloud cover?
A solar inverter handles voltage fluctuation during cloud cover by continuously monitoring the output voltage of the solar panels. When cloud cover causes a decrease in sunlight and therefore a drop in voltage, the inverter adjusts its operation to maintain a stable output voltage. It does this by employing various techniques such as maximum power point tracking (MPPT) to optimize power generation, and voltage regulation to ensure the output voltage remains within the desired range. This helps to minimize the impact of voltage fluctuations and ensure the solar system continues to operate efficiently even during cloud cover.
Q:How does a solar inverter handle variations in solar panel cleanliness?
A solar inverter can handle variations in solar panel cleanliness by continuously monitoring the output power and adjusting the operating parameters accordingly. If the panels are dirty, the inverter will detect a decrease in the output power and adjust the voltage and current to maintain optimal performance. However, if the panels are excessively dirty, it can significantly impact the overall energy production and may require manual cleaning to ensure maximum efficiency.
Q:What are the key differences between a central inverter and a string inverter?
The key differences between a central inverter and a string inverter lie in their design and functionality. A central inverter is a large, centralized unit that converts the DC electricity generated by a solar array into AC electricity. It is typically installed in a central location, such as a utility room, and is responsible for converting the power from multiple strings of panels simultaneously. On the other hand, a string inverter is a smaller unit that is installed close to the solar panels and converts the DC power from each individual string into AC power. One major difference is the level of scalability. Central inverters are typically used in larger solar installations, such as commercial or utility-scale projects, where a large number of panels are connected in parallel. They can handle high power capacities and are highly efficient. In contrast, string inverters are commonly used in smaller residential or small-scale commercial installations, where a smaller number of panels are connected in series. They offer flexibility in system design and can be easily expanded or modified. Another difference is the impact of shading or module mismatch. In a string inverter system, if one panel in a string is shaded or experiences reduced performance, it can affect the overall output of the entire string. This is because all panels in a string are connected in series, and the output is limited by the weakest performing panel. In a central inverter system, however, the impact of shading or module mismatch is minimized as each string operates independently, allowing for better performance optimization. Additionally, maintenance and monitoring differ between the two types. Central inverters are easier to access and maintain as they are typically installed in a dedicated location. They also offer advanced monitoring capabilities, allowing for centralized tracking of system performance. String inverters, being installed close to the panels, require more individual maintenance and monitoring efforts. Both central and string inverters have their own advantages and disadvantages, and the choice between them depends on factors such as project size, system design, shading conditions, and budget.
Q:Are there any safety risks associated with solar inverters?
Yes, there are some safety risks associated with solar inverters. These risks primarily include electric shock and fire hazards. It is important to ensure proper installation, grounding, and maintenance of solar inverters to minimize these risks. Additionally, regular inspections and adherence to safety guidelines are crucial to mitigate any potential hazards.

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