3000W Solar Inverter - sun-4/5/6/7/8/10/12k-g05-p | 4-12kW | Three Phase | 2 MPPT

3000W Solar Inverter - sun-4/5/6/7/8/10/12k-g05-p | 4-12kW | Three Phase | 2 MPPT System 1

3000W Solar Inverter - sun-4/5/6/7/8/10/12k-g05-p | 4-12kW | Three Phase | 2 MPPT System 2

3000W Solar Inverter - sun-4/5/6/7/8/10/12k-g05-p | 4-12kW | Three Phase | 2 MPPT

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Loading Port:: Ningbo

Payment Terms:: TT OR LC

Min Order Qty:: 100 pc

Supply Capability:: 5000 pc/month

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Specification

Output Power:

4kw-12kw

Inveter Efficiency:

97.5%

Output Voltage(V):

380

Input Voltage(V):

550

Output Current（A）:

5.8-17.4

Output Frequency:

50/60Hz

Model	SUN-4K-G05-P	SUN-6K-G05-P	SUN-7K-G05-P	SUN-7K-G05-P	SUN-8K-G05-P	SUN-10K-G05-P	SUN-12K-G05-P
Input Side
Max. DC Input Power (kW)	5.2	6.5	7.8	9.1	10.4	13	15.6
Max. DC Input Voltage (V)	1000
Start-up DC Input Voltage (V)	140						250
MPPT Operating Range (V)	120~850						200~850
Max. DC Input Current (A)	20+20
Max. Short Circuit Current (A)	30+30
No.of MPP Trackers	2
No.of Strings per MPP Tracker	1
Output Side
Rated Output Power (kW)	4	5	6	7	8	10	12
Max. Active Power (kW)	4.4	5.5	6.6	7.7	8.8	11	13.2
Nominal Output Voltage / Range (V)	3L/N/PE 380V/0.85Un-1.1Un, 400V/0.85Un-1.1Un
Rated Grid Frequency (Hz)	50 / 60 (Optional)
Operating Phase	Three phase
Rated AC Grid Output Current (A)	5.8	7.2	8.7	10.1	11.6	14.5	17.4
Max. AC Output Current (A)	6.4	8	9.6	11.1	12.8	15.9	19.1
Output Power Factor	0.8 leading to 0.8 lagging
Grid Current THD	<3%
DC Injection Current (mA)	<0.5%
Grid Frequency Range	47~52 or 57~62 (Optional)
Efficiency
Max. Efficiency	98.3%
Euro Efficiency	97.5%
MPPT Efficiency	>99%
Protection
DC Reverse-Polarity Protection	Yes
AC Short Circuit Protection	Yes
AC Output Overcurrent Protection	Yes
Output Overvoltage Protection	Yes
Insulation Resistance Protection	Yes
Ground Fault Monitoring	Yes
Anti-islanding Protection	Yes
Temperature Protection	Yes
Integrated DC Switch	Yes
Remote software upload	Yes
Remote change of operating parameters	Yes
Surge protection	DC Type II / AC Type II
General Data
Size (mm)	330W×457H×185D						330×457×205
Weight (kg)	10						11
Topology	Transformerless
Internal Consumption	<1W (Night)
Running Temperature	-25~65℃, >45℃ derating
Ingress Protection	IP65
Noise Emission (Typical)	<30 dB
Cooling Concept	Natural cooling
Max. Operating Altitude Without Derating	2000m
Warranty	5 years
Grid Connection Standard	CEI 0-21, VDE-AR-N 4105, NRS 097, IEC 62116, IEC 61727, G99, G98, VDE 0126-1-1, RD 1699, C10-11
Operating Surroundings Humidity	0-100%
Safety EMC / Standard	IEC/EN 61000-6-1/2/3/4, IEC/EN 62109-1, IEC/EN 62109-2
Features
DC Connection	MC-4 mateable
AC Connection	IP65 rated plug
Display	LCD1602
Interface	RS485/RS232/Wifi/LAN

This series inverter is specially designed for three-phase PV systems, covering a wide power range of 4kW, 5kW, 6kW, 7kW, 8kW, 10kW, 12kW. With compactness design, it is easy to install and operate. It supports wide AC output voltage to ensure longer working hour.

· 2 MPP tracker, Max. efficiency up to 98.3%

· Zero export application, VSG application

· String intelligent monitoring (optional)

· Wide output voltage range

· Anti-PID function (Optional)

Q: What is the role of a grid-tie inverter in a solar PV system?: The main purpose of a grid-tie inverter in a solar PV system is to convert the DC electricity produced by the solar panels into AC electricity that can be utilized to supply power to electrical devices in homes or businesses. In a solar PV system, the solar panels generate DC electricity when exposed to sunlight. However, most residential and commercial establishments require AC electricity, which is the standard form of electricity provided by utility companies. This is where the grid-tie inverter comes into play. The grid-tie inverter takes the DC electricity generated by the solar panels and transforms it into AC electricity that is compatible with the electrical grid. It ensures that the electricity produced by the solar panels is synchronized with the utility power and can be seamlessly integrated into the existing electrical system. One of the primary functions of a grid-tie inverter is to match the frequency, voltage, and phase of the AC electricity generated by the solar panels with that of the utility power. This synchronization is crucial to guarantee a smooth flow of electricity between the solar system and the grid, and to prevent any interruptions or harm to the electrical system. Furthermore, a grid-tie inverter also serves as a safety monitor for the electrical grid. It continuously checks for any voltage or frequency fluctuations in the grid and can automatically disconnect from the grid in case of a power outage or grid failure. This feature is important to ensure the safety of electrical workers who might be repairing the grid during an outage. Additionally, a grid-tie inverter enables net metering, which is a billing arrangement where surplus electricity generated by the solar system can be fed back into the grid. This means that if the solar system produces more electricity than is being consumed, the excess energy can be sent back to the grid and the homeowner or business owner can receive credits for the surplus energy produced. This can help offset energy costs and potentially result in financial savings. In conclusion, the grid-tie inverter plays a crucial role in a solar PV system by converting the DC electricity generated by the solar panels into AC electricity that can be used to power electrical devices, ensuring synchronization with the electrical grid, monitoring the grid for safety, and enabling net metering for potential financial benefits.

Q: How does a solar inverter handle varying solar irradiance levels?: A solar inverter handles varying solar irradiance levels by continuously monitoring the incoming solar power and adjusting its output accordingly. It employs a maximum power point tracking (MPPT) algorithm that optimizes the energy conversion from the solar panels to the desired AC power output. When solar irradiance levels fluctuate, the inverter dynamically adapts to ensure the maximum power is extracted from the solar panels. This allows for efficient energy conversion and maximum utilization of the available solar power.

Q: Can a solar inverter be used in a net metering system?: Yes, a solar inverter can be used in a net metering system. A solar inverter is an essential component of a net metering system as it converts the direct current (DC) produced by the solar panels into alternating current (AC) that can be used to power homes or businesses. It also allows for any excess electricity generated to be fed back into the grid, earning credits or reducing the electricity bill through the net metering arrangement.

Q: Can a solar inverter be used in areas with high temperature fluctuations?: Yes, solar inverters can typically be used in areas with high temperature fluctuations. Most modern solar inverters are designed to operate within a wide temperature range, allowing them to function properly even in environments with significant temperature variations. However, it is always important to consider the specific temperature range mentioned in the inverter's specifications to ensure optimal performance and longevity.

Q: Are there any ongoing maintenance requirements for a solar inverter?: Yes, there are ongoing maintenance requirements for a solar inverter. Regular inspections, cleaning, and monitoring of performance are recommended to ensure optimal functioning. Additionally, routine checks of electrical connections, firmware updates, and replacement of faulty components may be necessary to maintain the efficiency and longevity of the inverter.

Q: Can a solar inverter be used with a smart home system?: Yes, a solar inverter can be used with a smart home system. Smart home systems are designed to integrate with various devices and technologies, including solar inverters. By connecting a solar inverter to a smart home system, users can monitor and control their solar energy production, track energy consumption, and optimize energy usage based on real-time data. This integration allows for increased energy efficiency and convenience in managing solar power within a smart home environment.

Q: What are the key factors affecting the lifespan of a solar inverter?: The key factors affecting the lifespan of a solar inverter are the quality of components used, the level of maintenance and care, the operating environment, and the overall design and build quality of the inverter.

Q: Can a solar inverter be used in remote areas without access to the grid?: Yes, a solar inverter can be used in remote areas without access to the grid. Solar inverters are designed to convert the DC power generated by solar panels into AC power that can be used to run electrical appliances. In remote areas, where there is no grid connection, solar inverters can be used in off-grid or standalone systems to provide electricity for various purposes, such as lighting, charging batteries, or powering small appliances. These systems typically include solar panels, batteries for energy storage, and the solar inverter to convert the stored energy into usable AC power.

Q: Can a solar inverter be used with a solar-powered cooling system?: Yes, a solar inverter can be used with a solar-powered cooling system. The solar inverter converts the direct current (DC) generated by the solar panels into alternating current (AC) that can be used to power various electrical devices, including the cooling system. This allows for the efficient use of solar energy to run the cooling system, reducing reliance on grid electricity and promoting sustainability.

Q: How does a solar inverter affect the overall system reliability?: A solar inverter plays a crucial role in enhancing the overall system reliability of a solar power system. It converts the direct current (DC) generated by solar panels into alternating current (AC) that can be used to power household appliances and feed excess energy into the grid. By efficiently managing and controlling the flow of electricity, a reliable solar inverter ensures smooth operation of the entire system, preventing power fluctuations, voltage surges, and other electrical issues. Additionally, advanced features like anti-islanding protection and monitoring capabilities enable early detection and prevention of potential faults, further enhancing the system's reliability and performance.

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