Luminous Solar Inverter 1100W Single Phase

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Single phase solar inverter 1100W

◆ 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

MODEL	1100TL	1500TL	2000TL	2500TL	3000TL	3600TL	5000TL	6000TL
Max. DC Input Power(W)	1200	1750	2300	2700	3660	3750	5300	6400
Max DC Voltage(Vdc)	450	450	500				550
MPPT Operating Range(Vdc)	60~450	100~450					100~500
Number of Parallel Inputs	1			2			3
Number of MPPT Trackers	1
Max. Input Current(A)	11.7	10	13	14.5	20	20	22.5	27.5
Nominal Output Power(W)	1100	1500	2000	2490	3000	3600	4600	6000
Max. Output Power(W)	1100	1650	2200	2490	3400	3600	5000	6000
Nominal Output Current(A)	4.8	6.5	8.7	10.8	13	15.7	20	26
Max. Output Current(A)	5.7	7.9	10.5	12	15.7	16	24	29.3
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.efficiency	96.50%	96.50%	97.00%	97.10%	97.20%	97.30%	97.40%	97.40%
Euro.efficiency	95.40%	95.50%	96.20%	96.30%	96.40%	96.60%	96.80%	96.80%
MPPT. efficiency	99.60%	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 Isolation	Transformerless
Cooling Concept	Natural cooling
Protect Level	IP65
Communication	RS232(WiFi optional)
Dimension (W×D×H)(mm)	345152315		345152355		345152385		345152505	345162573
Weight (Kg)	12		13		15		19	24
*AC grid voltage range and frequency range depend on local standards

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: How does the input current rating affect the performance of a solar inverter?: The input current rating of a solar inverter directly affects its performance as it determines the maximum amount of current that the inverter can handle from the solar panels. If the input current rating is too low, it may not be able to handle the full power output of the solar panels, leading to inefficiency and potential damage to the inverter. On the other hand, if the input current rating is too high, it may be overkill for the system, resulting in unnecessary costs. Therefore, selecting an appropriate input current rating is crucial for optimal performance and longevity of a solar inverter.

Q: How do you calculate the power output of a solar inverter?: To calculate the power output of a solar inverter, you need to multiply the DC input voltage by the DC input current to determine the input power. Then, subtract the inverter's efficiency percentage from 100, divide the input power by this efficiency factor, and you will obtain the power output of the solar inverter.

Q: Can a solar inverter be used with different communication protocols?: Yes, a solar inverter can be used with different communication protocols. Many modern solar inverters are designed to be compatible with various communication protocols such as RS485, Modbus, Ethernet, or Wi-Fi. This allows for flexibility in integrating the inverter with different monitoring systems or smart home automation platforms.

Q: Can a solar inverter be used with solar-powered electric fences?: Yes, a solar inverter can be used with solar-powered electric fences. Solar inverters are used to convert the direct current (DC) produced by solar panels into alternating current (AC) that can be used to power various electrical devices, including electric fences. By connecting a solar inverter to the solar panels of a solar-powered electric fence system, the DC power generated by the panels can be converted into the AC power required to operate the electric fence.

Q: Can a solar inverter be used in parallel configurations for increased power output?: Yes, a solar inverter can be used in parallel configurations to increase power output. By connecting multiple inverters in parallel, the total power output can be increased, allowing for more efficient utilization of solar energy.

Q: How does a solar inverter handle voltage unbalance?: A solar inverter handles voltage unbalance by continuously monitoring the phase voltages of the grid. If a voltage unbalance occurs, the inverter adjusts its output voltage and frequency to maintain a balanced supply to the grid. This ensures that the solar inverter can efficiently convert the DC power generated from the solar panels into AC power that is synchronized with the grid, despite any voltage imbalances.

Q: How does a solar inverter affect the overall system efficiency at different temperatures?: A solar inverter can affect the overall system efficiency at different temperatures by adjusting its power conversion efficiency based on the temperature conditions. In hot temperatures, solar inverters can experience lower conversion efficiencies, resulting in decreased overall system efficiency. This is due to increased internal resistance and heat losses in the inverter components. On the other hand, in colder temperatures, the inverter can operate more efficiently, as lower temperatures generally lead to reduced internal losses and improved performance. Therefore, the temperature conditions can have an impact on the efficiency of a solar inverter and subsequently affect the overall system efficiency.

Q: What is the role of maximum power control in a solar inverter?: The role of maximum power control in a solar inverter is to optimize the power output of the photovoltaic (PV) system by continuously tracking the maximum power point (MPP) of the solar panels. This control mechanism ensures that the inverter extracts the maximum amount of energy from the PV array, despite variations in solar irradiation and temperature. By constantly adjusting the inverter's operating conditions to match the MPP, maximum power control maximizes the overall efficiency and performance of the solar power system.

Q: How does a solar inverter handle high temperatures?: A solar inverter handles high temperatures by incorporating advanced thermal management systems such as heat sinks and fans to dissipate heat efficiently. This helps to protect the inverter's sensitive components and maintain optimal operating conditions, preventing any potential damage or performance degradation caused by excessive heat.

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