• Loom Solar Inverter Sun-5k-sg03lp1-eu 5kw Single Phase 2 MPPT Hybrid Inverter Low Voltage Battery System 1
  • Loom Solar Inverter Sun-5k-sg03lp1-eu 5kw Single Phase 2 MPPT Hybrid Inverter Low Voltage Battery System 2
  • Loom Solar Inverter Sun-5k-sg03lp1-eu 5kw Single Phase 2 MPPT Hybrid Inverter Low Voltage Battery System 3
  • Loom Solar Inverter Sun-5k-sg03lp1-eu 5kw Single Phase 2 MPPT Hybrid Inverter Low Voltage Battery System 4
  • Loom Solar Inverter Sun-5k-sg03lp1-eu 5kw Single Phase 2 MPPT Hybrid Inverter Low Voltage Battery System 5
Loom Solar Inverter Sun-5k-sg03lp1-eu 5kw Single Phase 2 MPPT Hybrid Inverter Low Voltage Battery

Loom Solar Inverter Sun-5k-sg03lp1-eu 5kw Single Phase 2 MPPT Hybrid Inverter Low Voltage Battery

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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:
5000W
Inveter Efficiency:
97.00-97.60%
Output Voltage(V):
220
Input Voltage(V):
370
Output Current(A):
22.7
Output Frequency:
50/60Hz

SUN 5K-SGhybrid inverter, is suitable for residential and light commercial use, maximizing self-consumption rate of solar energy and increasing your energy impendence.   During the day, the PV system generates electricity which will be provided to the loads initially. Then, the excess energy will charge the battery via SUN 6K-SG. Finally, the stored energy can be released when the loads require it. The battery can also be charged by the diesel generator to ensure uninterrupted supply in the event of grid blackout.

100% unbalanced output, each phase; Max. output up to 50% rated power

DC couple and AC couple to retrofit existing solar system

Max. 16pcs parallel for on-grid and off-grid operation; Support multiple batteries parallel

Max. charging/discharging current of 240A

48V low voltage battery, transformer isolation design

6 time periods for battery charging/discharging


ModelSUN-5K
    -SG03LP1-EU
Battery Input Data
Battery TypeLead-acid   or Li-lon
Battery Voltage Range (V)40~60
Max. Charging Current (A)120
Max. Discharging Current (A)120
External Temperature SensorYes
Charging Curve3   Stages / Equalization
Charging Strategy for Li-Ion BatterySelf-adaption   to BMS
PV String Input Data
Max. DC Input Power (W)6500
Rated PV Input Voltage (V)370   (125~500)
Start-up Voltage (V)125
MPPT Voltage Range (V)150-425
Full Load DC Voltage Range (V)300-425
PV Input Current (A)13+13
Max. PV ISC (A)17+17
Number of MPPT / Strings per MPPT2/1+1
AC Output Data
Rated AC Output and UPS Power (W)5000
Max. AC Output Power (W)5500
AC Output Rated Current (A)22.7
Max. AC Current (A)25
Max. Continuous AC Passthrough (A)35
Peak Power (off grid)2   time of rated power, 10 S
Power Factor0.8   leading to 0.8 lagging
Output Frequency and Voltage50/60Hz;   L/N/PE  220/230Vac (single phase)
Grid TypeSingle   Phase
DC injection current (mA)THD<3%   (Linear load<1.5%)< td="">
Efficiency
Max. Efficiency97.60%
Euro Efficiency97.00%
MPPT Efficiency99.90%
Protection
IntegratedPV   Input Lightning Protection, Anti-islanding Protection, PV String Input   Reverse Polarity Protection, Insulation Resistor Detection, Residual Current   Monitoring Unit, Output Over Current Protection, Output Shorted Protection,   Surge protection
Output Over Voltage ProtectionDC   Type II/AC Type III
Certifications and Standards
Grid RegulationCEI   0-21, VDE-AR-N 4105, NRS 097, IEC 62116, IEC 61727, G99, G98,
    VDE 0126-1-1, RD 1699, C10-11
Safety EMC / StandardIEC/EN   61000-6-1/2/3/4, IEC/EN 62109-1, IEC/EN 62109-2
General Data
Operating Temperature Range (-45~60, >45 derating
 CoolingNatural   cooling
Noise (dB)<30   dB 
 Communication with   BMS RS485;   CAN 
Weight (kg)20.5
Size (mm)330W   x 580H x232D
    IP65
Protection DegreeIP65
Installation StyleWall-mounted
Warranty 5 years



Q: What is the impact of temperature on the performance of a solar inverter?
Temperature has a significant impact on the performance of a solar inverter. As temperature increases, the efficiency of the inverter tends to decrease. This is primarily due to the fact that high temperatures can lead to increased resistive losses within the inverter's components, resulting in reduced overall efficiency. Additionally, excessive heat can cause the inverter to experience thermal stress, leading to potential malfunctions or even failures. Therefore, it is crucial to consider temperature management and cooling measures to optimize the performance and lifespan of a solar inverter.
Q: What are the potential risks of overloading a solar inverter?
The potential risks of overloading a solar inverter include overheating, reduced lifespan of the inverter, and even permanent damage to the equipment. Overloading can also result in power fluctuations and instability in the electrical system, leading to potential safety hazards. It is crucial to ensure that the solar inverter is appropriately sized and capable of handling the electrical load to avoid these risks.
Q: Can a solar inverter be used in a three-phase power system?
Yes, a solar inverter can be used in a three-phase power system. In fact, three-phase solar inverters are commonly used in commercial and industrial applications where the power demand is higher. These inverters are designed to convert the direct current (DC) generated by solar panels into alternating current (AC) that is compatible with a three-phase power system.
Q: Can a solar inverter be used in areas with high dust and dirt accumulation?
Yes, it is possible to use a solar inverter in areas where there is a high accumulation of dust and dirt. However, it is important to take specific precautions and maintenance measures to guarantee its proper operation. Over time, dust and dirt can build up on the surface of the solar panels, causing a decrease in their efficiency. This can also have an impact on the performance of the solar inverter, as it relies on the energy produced by the solar panels. To minimize the impact of dust and dirt, it is essential to regularly clean the solar panels. This can be accomplished by using a gentle brush or sponge along with a mild detergent mixed with water. It is important to avoid using abrasive materials or applying excessive water pressure, as this may cause damage to the panels. Additionally, installing the solar panels at an angle and orienting them towards the sun can aid in reducing the accumulation of dust and dirt. Furthermore, some solar inverters are designed with built-in protection against dust and dirt. These inverters typically have IP65 or higher ratings, which indicates that they are dust-resistant and capable of withstanding water jets. Opting for such inverters can provide an extra layer of protection against the negative effects of dust and dirt accumulation. Overall, while it is possible to use a solar inverter in areas with high dust and dirt accumulation, regular maintenance and proper cleaning of the solar panels are crucial to ensure optimal performance and longevity of the system.
Q: Can a solar inverter be used in a commercial solar system?
Yes, a solar inverter can be used in a commercial solar system. A solar inverter is an essential component of a solar system as it converts the direct current (DC) generated by the solar panels into alternating current (AC) that can be used to power commercial buildings and equipment.
Q: Do I need a special inverter for a battery storage system?
Yes, a special inverter is needed for a battery storage system. Unlike a regular inverter that converts DC power from solar panels into AC power for immediate use, a battery storage system requires an inverter that can not only convert DC power to AC power but also manage the charging and discharging of the batteries efficiently. This special inverter is designed to work seamlessly with the battery storage system, ensuring optimal performance and maximizing the utilization of stored energy.
Q: What is the role of a solar inverter in a solar-powered telecommunications system?
The role of a solar inverter in a solar-powered telecommunications system is to convert the direct current (DC) generated by the solar panels into alternating current (AC) that can be used to power the telecommunications equipment. It is responsible for ensuring that the energy generated by the solar panels is compatible with the electrical requirements of the system, allowing for efficient and reliable operation of the telecommunications equipment.
Q: How does a three-phase solar inverter differ from a single-phase inverter?
A three-phase solar inverter differs from a single-phase inverter in terms of the number of electrical phases and the power output capacity. While a single-phase inverter is designed to convert the direct current (DC) generated by solar panels into alternating current (AC) with a single electrical phase, a three-phase inverter converts DC power into AC power with three electrical phases. This allows for a more balanced distribution of power across the three phases, resulting in increased efficiency and higher power output. Additionally, three-phase inverters are commonly used in industrial and commercial settings where higher power demands are required, while single-phase inverters are typically used in residential applications with lower power requirements.
Q: Can a solar inverter be used with micro-inverters?
Yes, a solar inverter can be used with micro-inverters. In fact, it is a common practice to combine a central solar inverter with micro-inverters in a solar system. The central inverter is responsible for converting the direct current (DC) power generated by the solar panels into alternating current (AC) power, while the micro-inverters optimize the power output of each individual solar panel. This combination allows for increased efficiency and flexibility in managing the solar system.
Q: How does a solar inverter handle voltage stability in the grid?
A solar inverter handles voltage stability in the grid by continuously monitoring the voltage levels and adjusting its output accordingly. It ensures that the electricity generated from solar panels is synchronized with the grid voltage, maintaining a stable voltage level. Additionally, advanced solar inverters incorporate features like voltage regulation and reactive power control to further enhance voltage stability in the grid.

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