• SUN-15/17K-G03  15-17KW  Three Phase  2 MPPT Higher yields System 1
  • SUN-15/17K-G03  15-17KW  Three Phase  2 MPPT Higher yields System 2
  • SUN-15/17K-G03  15-17KW  Three Phase  2 MPPT Higher yields System 3
  • SUN-15/17K-G03  15-17KW  Three Phase  2 MPPT Higher yields System 4
SUN-15/17K-G03  15-17KW  Three Phase  2 MPPT Higher yields

SUN-15/17K-G03 15-17KW Three Phase 2 MPPT Higher yields

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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:
15-17kw
Inveter Efficiency:
97.5%
Output Voltage(V):
380
Input Voltage(V):
550
Output Current(A):
21.7-24.6
Output Frequency:
50/60Hz
  • 2 MPP      tracker, Max. efficiency up to 98.5%

  • Zero      export application, VSG application

  • String      intelligent monitoring (optional)

  • Wide      output voltage range

  • Anti-PID      function (Optional)

The series products adopt 2 MPP trackers design. Equipped with screw crimp terminal for DC and AC side, convenient installation and maintenance. With high detection accuracy, when the load power is less than 2%, the measurement accuracy is still high. In addition, it allows the system to be monitored and controlled remotely.

Technical Data
Model                                                                                                           SUN-15K-G05                                                                                              SUN-17K-G05
Input Side
Max. DC Input Power (kW)19.522.1
Max. DC Input Voltage (V)1000
Start-up DC Input Voltage (V)250
MPPT    Operating Range (V)200~850
Max. DC Input Current (A)13+26
Max. Short Circuit Current (A)19.5+39
Number of MPPT / Strings per MPPT2/1+2
Output Side
Rated Output Power (kW)1517
Max. Active Power (kW)16.518.7
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 PhaseThree phase
Rated AC Grid Output Current (A)21.724.6
Max. AC Output Current (A)23.927.1
Output Power Factor0.8 leading to 0.8 lagging
Grid Current THD<3%
DC Injection Current (mA)<0.5%
Grid Frequency Range47~52 or 57~62 (Optional)
Efficiency
Max. Efficiency98.5%
Euro Efficiency97.5%
MPPT Efficiency>99%
Protection
DC Reverse-Polarity ProtectionYes
AC Short Circuit ProtectionYes
AC Output Overcurrent ProtectionYes
Output Overvoltage ProtectionYes
Insulation Resistance ProtectionYes
Ground Fault MonitoringYes
Anti-islanding ProtectionYes
Temperature ProtectionYes
Integrated DC SwitchYes
Remote software uploadYes
Remote change of operating parametersYes
Surge protectionDC Type II / AC Type II
General Data
Size (mm)333W×472H×202D
Weight (kg)15
TopologyTransformerless
Internal Consumption<1W (Night)
Running Temperature-25~65,   >45 derating
Ingress ProtectionIP65
Noise Emission (Typical)<40 dB
Cooling ConceptSmart cooling
Max. Operating Altitude Without Derating2000m
Warranty5 years
Grid Connection StandardCEI 0-21, VDE-AR-N 4105, NRS 097, IEC 62116, IEC 61727, G99,   G98, VDE 0126-1-1, RD 1699, C10-11
Operating Surroundings Humidity0-100%
Safety EMC / StandardIEC/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 
InterfaceRS485/RS232/Wifi/LAN


Q: Can a solar inverter be used with a solar-powered air cooling system?
Yes, a solar inverter can be used with a solar-powered air cooling system. The solar inverter is responsible for converting the direct current (DC) generated by the solar panels into alternating current (AC) that can be used to power various devices, including air cooling systems. By connecting the solar panels to the solar inverter, the generated solar energy can be efficiently utilized to power the air cooling system, making it a sustainable and eco-friendly cooling solution.
Q: How does the weight of a solar inverter affect its installation process?
The weight of a solar inverter can affect its installation process in a few ways. Firstly, a heavier inverter may require additional structural support or mounting equipment to ensure it is securely installed. This could involve reinforcing the mounting surface or using specialized brackets or racks. Secondly, the weight of the inverter may impact the ease of handling and maneuvering during installation, especially if it needs to be installed in elevated or hard-to-reach areas. Lastly, the weight can also impact the overall logistics of the installation, including transportation, lifting, and positioning of the inverter.
Q: What is the role of a solar inverter in reactive power compensation?
To regulate and control the flow of reactive power in a solar power system, a solar inverter plays a crucial role in reactive power compensation. The presence of inductive or capacitive elements in the system causes reactive power to oscillate between the source and load. Although this power does not contribute to the actual work done by the system, it is necessary for the operation of specific devices. A solar inverter, specifically designed for reactive power compensation, is capable of measuring the reactive power in the system and adjusting its operation accordingly. It has the ability to generate or absorb reactive power as needed to maintain a power factor close to unity. The power factor is a measure of the efficiency of electrical energy utilization, and a high power factor indicates efficient electricity usage. By compensating for reactive power, a solar inverter ensures that the solar power system operates at optimal efficiency. It alleviates the burden on the grid by locally supplying or absorbing reactive power instead of relying on the grid for compensation. This not only improves the overall quality of power but also reduces system losses. Furthermore, it helps stabilize voltage levels and minimize voltage fluctuations, which can be advantageous for delicate electrical equipment. In conclusion, the role of a solar inverter in reactive power compensation is vital for regulating the flow of reactive power in a solar power system, maintaining a high power factor, and improving overall system efficiency. It plays a pivotal role in ensuring the optimal operation of the solar power system and diminishing the dependence on the grid for reactive power compensation.
Q: What is the lifespan of the capacitors in a solar inverter?
The lifespan of capacitors in a solar inverter can vary depending on several factors such as the quality of the capacitors used, operating conditions, and maintenance. However, on average, capacitors in a solar inverter can have a lifespan of around 10 to 15 years.
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: How does a solar inverter handle reverse power flow?
A solar inverter handles reverse power flow by automatically adjusting its operation to convert and redirect excess electricity produced by the solar panels back into the grid. This process ensures efficient utilization of electricity and prevents any potential damage or overload to the solar system.
Q: How does a solar inverter handle frequency fluctuations in the grid?
A solar inverter handles frequency fluctuations in the grid by continuously monitoring the frequency of the grid. If the frequency deviates from the standard value, the inverter adjusts its output frequency accordingly to match the grid frequency. This helps maintain stability in the grid and ensures efficient power generation and distribution.
Q: How does a solar inverter handle shading or partial panel obstructions?
A solar inverter handles shading or partial panel obstructions by employing a technique known as Maximum Power Point Tracking (MPPT). MPPT enables the inverter to optimize the output power of the solar panels by constantly adjusting the operating voltage and current. When shading or obstruction occurs, the inverter automatically detects the affected panels and adjusts their output to minimize the impact on the overall system performance. This ensures that the system continues to generate as much power as possible, even in shaded conditions.
Q: How does a solar inverter handle voltage flicker?
A solar inverter handles voltage flicker by regulating and stabilizing the voltage output. It detects any fluctuations in the grid voltage caused by flicker and adjusts the output accordingly to maintain a consistent and stable voltage for the connected solar panels or other electrical devices.
Q: How does a solar inverter affect the overall energy consumption of a property?
A solar inverter converts the direct current (DC) generated by solar panels into alternating current (AC) that can be used to power electrical appliances in a property. By efficiently converting DC to AC, a solar inverter enables the property to utilize the renewable energy generated by the solar panels. This reduces the reliance on grid electricity, thereby decreasing the overall energy consumption of the property and leading to potential cost savings on electricity bills.

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