• Easy Solar Inverter - Goodrive10 Series Mini Inverter with Full Certification System 1
  • Easy Solar Inverter - Goodrive10 Series Mini Inverter with Full Certification System 2
  • Easy Solar Inverter - Goodrive10 Series Mini Inverter with Full Certification System 3
Easy Solar Inverter - Goodrive10 Series Mini Inverter with Full Certification

Easy Solar Inverter - Goodrive10 Series Mini Inverter with Full Certification

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Loading Port:
China main port
Payment Terms:
TT OR LC
Min Order Qty:
100 pc
Supply Capability:
10000 pc/month

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Goodrive10 Mini economic inverters are developed for general applications of small power and OEM market. It applies V/f control technology, making the functions of PID, multiple-speed step, DC braking, Modbus communication, as well as less installation space (15% smaller than the counterparts) available. 

Goodrive10 Mini economic inverters are developed for general applications of small power and OEM market. It applies V/f control technology, making the functions of PID, multiple-speed step, DC braking, Modbus communication, as well as less installation space (15% smaller than the counterparts) available.

1AC 220V -15% ~ +10%, 0.2KW – 2.2KW

3AC 220V -15% ~ +10%, 0.2KW – 2.2KW

 

Goodrive10 series mini inverter with full certification

FAQ:

Q: Can you help us install the module if we cooperate with you?

A: We haven’t entered into installation sector, but we have the plan in near future.

Q: How do you pack your products?

A: We have rich experience on how to pack the panels to make sure the safety on shipment when it arrives at the destination.

Q: Can you do OEM for us?

A: Yes, we can.

Q: Can we visit your factory?

A: Surely, I will arrange the trip basing on your business schedule.

Q: What is the maximum number of MPPT inputs in a solar inverter?
The maximum number of MPPT (Maximum Power Point Tracking) inputs in a solar inverter can vary depending on the specific model and brand. However, some larger and more advanced solar inverters can have up to 12 or more MPPT inputs, allowing for greater flexibility and optimization in harnessing solar power from multiple arrays or orientations.
Q: Are there any government regulations or certifications for solar inverters?
Yes, there are government regulations and certifications for solar inverters. In many countries, solar inverters must comply with specific standards and regulations set by government bodies. Additionally, various certifications such as International Electrotechnical Commission (IEC) standards, UL listing, and CE marking are commonly required to ensure the safety, performance, and interoperability of solar inverters.
Q: Can a solar inverter be used with a solar-powered air conditioning system?
Yes, a solar inverter can be used with a solar-powered air conditioning system. The solar inverter converts the direct current (DC) electricity generated by the solar panels into alternating current (AC) electricity, which is used to power the air conditioning system. This allows the air conditioning system to run efficiently and effectively using solar energy.
Q: How does shade affect the performance of a solar inverter?
Shade has a significant impact on the performance of a solar inverter. When a solar panel is partially shaded, it reduces the amount of sunlight reaching the panel, resulting in a decrease in power generation. This leads to a decrease in the overall performance of the solar system, as the inverter's efficiency is directly linked to the amount of power it receives from the panels. Additionally, shade can also cause voltage fluctuations and imbalances, potentially damaging the inverter. Therefore, avoiding shade and ensuring unobstructed sunlight is crucial for optimal performance of a solar inverter.
Q: How does a solar inverter handle voltage and frequency variations caused by sudden load changes?
A solar inverter is designed to handle voltage and frequency variations caused by sudden load changes in an efficient and reliable manner. When sudden load changes occur, the solar inverter employs various control mechanisms to regulate and stabilize the voltage and frequency output. Firstly, the inverter continuously monitors the voltage and frequency of the incoming solar power. If there are any variations due to sudden load changes, the inverter adjusts its internal control systems accordingly. It uses advanced power electronics and control algorithms to maintain the voltage and frequency within the desired range. To handle voltage variations caused by sudden load changes, the solar inverter employs a technique called voltage regulation. It automatically adjusts the output voltage by either boosting or reducing it as needed. This ensures that the inverter provides a stable and consistent voltage supply to the load, preventing any damage or malfunction. Similarly, to handle frequency variations caused by sudden load changes, the solar inverter employs a technique called frequency regulation. It adjusts the output frequency to match the grid frequency or the specified frequency requirements. By maintaining the desired frequency, the inverter ensures compatibility and synchronization with the grid or other connected devices. In addition to voltage and frequency regulation, solar inverters also have protective features to handle sudden load changes. They have built-in overload protection mechanisms that can detect excessive loads and prevent any damage to the inverter or the connected devices. These protective features can include overcurrent protection, short-circuit protection, and temperature monitoring. Overall, a solar inverter is designed to handle voltage and frequency variations caused by sudden load changes through its voltage and frequency regulation capabilities, as well as its protective features. These technologies ensure stable and reliable operation, allowing the inverter to efficiently adapt to changing load conditions while maintaining the integrity of the power supply.
Q: Three-phase photovoltaic inverter grid, the use of phase-locked loop is what?
Photovoltaic inverters for grid-connected photovoltaic power generation systems are primarily capable of receiving DC power from photovoltaic arrays and converting them into sine-wave currents of the same frequency and in phase with the access grid for powering the grid or local loads.
Q: How does a solar inverter handle voltage and frequency variations caused by grid disturbances?
A solar inverter is designed to handle voltage and frequency variations caused by grid disturbances by employing various control mechanisms and protection features. Firstly, the inverter continuously monitors the voltage and frequency levels of the grid, and it adjusts its output accordingly to match the grid's requirements. If there is a voltage or frequency fluctuation, the inverter will either increase or decrease the output power to maintain the desired voltage and frequency levels. To handle voltage variations, the solar inverter utilizes a voltage regulation mechanism. If the grid voltage increases or decreases beyond a certain threshold, the inverter adjusts its internal voltage regulation circuitry to ensure a stable and regulated output voltage. This helps protect the inverter and connected devices from potential damage due to overvoltage or undervoltage conditions. Similarly, to handle frequency variations, the solar inverter incorporates a frequency control mechanism. If the grid frequency deviates from the specified range, the inverter adjusts its internal frequency control circuitry to maintain a stable and accurate output frequency. This ensures that the power generated by the solar panels remains synchronized with the grid, allowing for efficient power transfer and preventing any damage to the inverter or connected devices. Furthermore, solar inverters often include advanced features such as anti-islanding protection. This feature detects any abnormal grid conditions, such as voltage or frequency fluctuations beyond a safe limit. If an islanding condition is detected, where the solar system continues to generate power even when the grid is down, the inverter will disconnect from the grid to prevent any potential safety hazards for utility workers. Overall, a solar inverter is designed to handle voltage and frequency variations caused by grid disturbances through continuous monitoring, voltage regulation, frequency control, and protective features. These capabilities ensure reliable and safe operation of the solar power system while maintaining a stable connection with the utility grid.
Q: Can a solar inverter be used with a solar water heating system?
No, a solar inverter cannot be directly used with a solar water heating system. A solar inverter is specifically designed to convert the direct current (DC) electricity generated by solar panels into alternating current (AC) that can be used to power household appliances or fed into the grid. On the other hand, a solar water heating system utilizes the sun's energy to heat water directly, without the need for an electrical conversion process. Therefore, they are two distinct technologies with different purposes and cannot be directly combined.
Q: How does a solar inverter handle electromagnetic interference (EMI)?
A solar inverter typically handles electromagnetic interference (EMI) by incorporating various measures and technologies to minimize its impact. This includes using shielding materials and techniques to prevent EMI from affecting the internal electronics of the inverter. Additionally, filters and surge suppressors are employed to reduce EMI generated by the inverter from interfering with other electronic devices. Overall, the solar inverter aims to mitigate EMI issues to ensure optimal performance and minimize disruptions.
Q: What is the difference between a single-phase and three-phase solar inverter?
A single-phase solar inverter is designed to convert the DC power generated by solar panels into AC power for use in a single-phase electrical system. It is suitable for smaller residential installations. On the other hand, a three-phase solar inverter is capable of converting DC power into AC power for use in a three-phase electrical system. It is typically used in larger commercial or industrial solar installations. The main difference lies in the electrical system they are compatible with and the scale of the solar installation they can support.

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