• Biggest Solar Inverter 3600MTL-US 5000MTL-US ETL FCC System 1
  • Biggest Solar Inverter 3600MTL-US 5000MTL-US ETL FCC System 2
  • Biggest Solar Inverter 3600MTL-US 5000MTL-US ETL FCC System 3
Biggest Solar Inverter 3600MTL-US 5000MTL-US ETL FCC

Biggest Solar Inverter 3600MTL-US 5000MTL-US ETL FCC

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Min Order Qty:
10 watt
Supply Capability:
10000 watt/month

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Solar Inverter 3600MTL-US-5000MTL-US, ETL FCC


Specifications

Maximum efficiency over 97.8%
MPP control
MTL-String
RS485 RS232 bluetooth DC-switch
VDE 0126-1-1,IEC 62109,RD 1663,G83

3600 4200 5000 MTL-US

General Descriptions

Leading-Edge Technology

> Maximum efficiency of 97.9 % and wide input voltage range

> Internal DC switch

> Transformerless H6 topology

> Compact design

> Muti MPP controller

> MTL-String

> Bluetooth technology

> Easy installation

> Sound control


Communications
> RS485 /RS232/GPRS interfaces
> Computer monitoring software


Safety
> Full protection functions:DC reverse polarity, AC short-circuit protection, ground fault monitoring, grid monitoring, integrate all-pole sensitive, leakage current monitoring unit.

> Standards complied: Ul1741, UL1998, IEEE1547, CSA C22.2 No.107.1,FCC Part15(Class A&B)



Solar Inverter 3600MTL-US-5000MTL-US, ETL FCC



Solar Inverter 3600MTL-US-5000MTL-US, ETL FCC




Technical Specifications


Model

Specifications

3600MTL-US

4200MTL-US

5000MTL-US

Input data


Max. DC power

3800W

4400W

5200W

Max. DC voltage

600V

600V

600V

Start voltage

150V

150V

150V

DC nominal voltage

360V

360V

360V

PV voltage range

100V-600V

100V-600V

100V-600V

MPP voltage range

120V-550V

120V-550V

120V-550V

Number of independent MPP trackers/strings per MPP tracker

2/2

2/2

2/2

Max. input current of the MPP tracker

12A

15A

15A

Output data


Nominal AC output power

3600W

4200W

4600W

Max. output current

18/17.1A/14.8A

21A/20A/17.2A

22A/23.7A/20.5A

AC nominal voltage; range

Default:240V single phase optional:208,240or277 single phase 183-228@208V 211-264V@240V 244-305@277V

AC grid frequency; range

60Hz;59.3-60.5Hz

60Hz;59.3-60.5Hz

60Hz;59.3-60.5Hz

Phase shift (cosφ)

1

1

1

THDI

<3%< p="">

<3%< p="">

<3%< p="">

AC connection

Single phase

Single phase

Single phase

Efficiency


Max. efficiency

98%

98%

98%

CEC efficiency

97%

97%

97%

MPPT efficieny

99.5%

99.5%

99.5%

Protection devices


DC reverse polarity protection

yes

yes

yes

DC switch rating for each MPPT

yes

yes

yes

Output over current protection

yes

yes

yes

Output overvoltage protection-varistor

yes

yes

yes

Ground fault monitoring

yes

yes

yes

Grid monitoring

yes

yes

yes

Integrated all - pole sensitive       leakage current monitoring unit

yes

yes

yes

General Data


Dimensions (W / H / D) in mm

360/650/188

360/650/188

360/650/188

Weight

28.3KG

28.3KG

28.3KG

Operating temperature range

-25...+60°C  (-13...+ 140°F)   with derating above 45°C(131°F)

-25...+60°C  (-13...+ 140°F)   with derating above 45°C(131°F)

-25...+60°C  (-13...+ 140°F)   with derating above 45°C(131°F)

Noise emission (typical)

≤ 25 dB(A)

≤ 25 dB(A)

≤ 25 dB(A)

Altitude

Up to 2000m(6560ft) without power derating

Relative humidity

95%

Consumption: operating(standby) / night

<5W / < 0.5 W

<5W / < 0.5 W

<5 W / < 0.5 W

Topology

transformerless

transformerless

transformerless

Cooling concept

Natural

Natural

Natural

Enclosure

Type 3R

Type 3R

Type 3R

Features


DCconnection:

Screw terminal

Screw terminal

Screw terminal

AC connection:

Screw terminal

Screw terminal

Screw terminal

display

LCD

LCD

LCD

Interfaces: RS485/RS232/Bluetooth/RF/Zigbee

yes/yes/opt/opt/ opt

yes/yes/opt/opt/opt

yes/yes/opt/opt/opt

Warranty: 10 years / 15 years

yes /opt

yes /opt

yes /opt

Certificates and approvals

UL1741,UL1998 IEEE 1547, CSA C22.2 No.107.1-1,FCC Part15(Class A&B)




Q: How does a solar inverter handle power quality disturbances?
A solar inverter handles power quality disturbances by monitoring the incoming power from the solar panels and adjusting its output accordingly. It uses various control mechanisms to regulate voltage and frequency, ensuring that the power generated by the solar panels is synchronized with the grid. This helps in maintaining a stable and high-quality power supply, minimizing the impact of disturbances such as voltage fluctuations or frequency variations. Additionally, some advanced solar inverters also offer features like grid support functions and reactive power compensation to further enhance power quality.
Q: What is the role of a power limiter in a solar inverter system?
The role of a power limiter in a solar inverter system is to regulate the amount of power that is fed into the grid from the solar panels. Solar panels generate electricity based on the available sunlight, and at times, they may produce more power than what is needed or allowed by the grid. In such cases, a power limiter acts as a control mechanism to limit the amount of power that can be injected into the grid. It ensures that the power output from the solar panels remains within the specified limits, preventing overloading or destabilization of the grid. The power limiter continuously monitors the power output from the solar panels and adjusts it accordingly to match the grid requirements. It does this by intelligently controlling the inverter, which converts the direct current (DC) generated by the solar panels into alternating current (AC) suitable for grid integration. By limiting the power fed into the grid, a power limiter helps in maintaining grid stability, preventing voltage fluctuations, and minimizing the risk of power surges or blackouts. It also ensures compliance with local regulations and grid codes related to solar power generation. Additionally, a power limiter can provide additional functionalities such as grid synchronization, anti-islanding protection, and remote monitoring. These features enhance the safety, reliability, and overall performance of the solar inverter system. Overall, the presence of a power limiter in a solar inverter system is crucial for maintaining a balance between power generation and grid stability, optimizing the utilization of solar energy, and ensuring a safe and efficient integration of solar power into the electrical grid.
Q: What is the role of a display or user interface in a solar inverter?
The role of a display or user interface in a solar inverter is to provide real-time information and control capabilities to the user. It allows the user to monitor the performance of the solar inverter, such as the amount of power being generated, the voltage and current levels, and any error or warning messages. The display also enables the user to adjust various settings and parameters of the inverter, such as the operating mode, output voltage, or charging profiles. In essence, the display or user interface acts as a communication tool between the user and the solar inverter, facilitating efficient operation, monitoring, and troubleshooting.
Q: How does a solar inverter handle low light conditions?
A solar inverter handles low light conditions by intelligently adjusting its operating parameters to maximize power output from the available sunlight. It may use techniques such as maximum power point tracking to optimize energy conversion efficiency and ensure that even in low light conditions, the solar panels are generating the maximum power possible.
Q: Can a solar inverter be used in a solar-powered air conditioning system?
Yes, a solar inverter can be used in a solar-powered air conditioning system. A solar inverter converts the direct current (DC) produced by solar panels into alternating current (AC), which is required to power most appliances including air conditioning units. By using a solar inverter, the solar energy generated by the panels can be efficiently utilized to run the air conditioning system, reducing reliance on the electrical grid and lowering energy costs.
Q: Can a solar inverter be used with different solar panel technologies?
Yes, a solar inverter can be used with different solar panel technologies as long as the output voltage and current specifications of the panels are compatible with the inverter. However, it is important to ensure that the inverter is designed to work with the specific characteristics and voltage range of the solar panel technology being used for optimal performance and efficiency.
Q: How does MPPT improve the efficiency of a solar inverter?
MPPT, or Maximum Power Point Tracking, improves the efficiency of a solar inverter by constantly adjusting the operating voltage and current to maximize the power output of the solar panels. This optimization ensures that the inverter extracts the maximum available power from the solar panels, thereby increasing overall system efficiency and maximizing the energy harvest from the solar installation.
Q: What is the difference between a PV inverter and a solar inverter?
The main function of photovoltaic grid-connected inverter is to convert the DC power of the solar PV module into the same frequency as the sinusoidal AC power of the grid (the grid is generally AC power grid, DC can not be directly connected)
Q: What is the role of fault ride-through capability in a solar inverter?
The fault ride-through capability in a solar inverter is essential as it allows the inverter to remain connected to the grid during grid disturbances or faults. This capability ensures that the inverter can ride through and withstand voltage sags or dips in the grid, maintaining stability and continuous power generation. By providing this capability, the inverter helps to enhance grid reliability, prevent power disruptions, and contribute to the overall stability of the electrical system.
Q: Can a solar inverter be used with a solar-powered remote sensing system?
Yes, a solar inverter can be used with a solar-powered remote sensing system. A solar inverter is responsible for converting the direct current (DC) generated by solar panels into alternating current (AC) that can be used to power electrical devices. In the case of a solar-powered remote sensing system, the solar inverter can convert the DC power generated by the solar panels into AC power that can be used to operate the remote sensing equipment, ensuring reliable and efficient operation.

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