• Grid Tied Solar Inverter 3000W System 1
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Grid Tied Solar Inverter 3000W

Grid Tied Solar Inverter 3000W

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1 pc
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1-3000/month pc/month

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Short introduction of Grid Connected Solar Inverter 3000W

Maximum efficiency of 97.5% and wide input voltage range
Integrated DC switch-disconnected
MTL-String
Sound control
Bluetooth/RF technology /Wi-Fi
Transformerless GT topology
5 years warranty (10 years as optional)

 

Company introduction:

CNBM International Corporation (CNBM International) is the most important trading platform of CNBM Group Corporation, a state-owned company under the direct supervision of State-owned Assets Supervision and Administration Commission of the State Council.

With a R&D team more than 100 engineers,40% of the staff, who has been deeply engaged in the photovoltaic industry for 10 years, CNBM takes the mission to increase the inverter availability and efficiency, putting continuous innovation to make CNBM inverter easier for installation and operation, and more cost-effective for solar plant construction. The full range of CNBM single phase inverters has received VDE, CE, G83/1, G59/2, ENEL2010, VDE4105, C10/C11, AS4777 etc.

Maximum efficiency of 97.8% and wide input voltage range, Internal DCswitch,MTL-String, Sound control,Bluetooth/RF technology /Wi-FiTransformerless,GT topology 

The Grid Connected Solar Inverter we can offer is 1.5kw to 20kw.

 

Datasheet of Grid Connected Solar Inverter 3000W

Model

CNBM-1500-US

CNBM-2000-US

CNBM-3000-US

Input data

 

Max. DC power

1800W

2300W

3200W

Max. DC voltage

450V

500V

500V

Start voltage

150V

150V

150V

PV voltage range

100V-450V

100V-500V

100V-500V

Number of MPP trackers/strings per MPP tracker

1/1

1/2

1/2

Max. input current of the MPP tracker

12A

14A

17A

Output data

 

Nominal AC output power

1500W@208Vac 1650W@240&277Vac

1800W@208Vac 2000W@240&277Vac

2500W@208Vac 2800W@240&277Vac

Max. output current

8A/7.8A/6.8A

9.7A/9.4A/8.2A

15A/14.2A/12.3A

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%

<3%

<3%

AC connection

Single phase

Single phase

Single phase

Efficiency

 

Max. efficiency

97%

97%

97%

CEC efficiency

96%

96.50%

96.50%

MPPT efficiency

99.50%

99.50%

99.50%

Protection devices

 

Output overvoltage protection-varistor

yes

yes

yes

Ground fault monitoring

yes

yes

yes

Grid monitoring

yes

yes

yes

General Data

 

Dimensions (W / H / D) in mm

360/465/165

360/465/165

360/465/165

Weight

14.6KG

15.1KG

15.9KG

Operating temperature range

-25...+60°C

-25...+60°C 

-25...+60°C 

Altitude

Up to 2000m(6560ft) without power derating

Consumption: operating(standby) / night

<5W / < 0.5 W

<5W / < 0.5 W

<5 W / < 0.5 W

Topology

Transformerless

Cooling concept

Natural

Natural

Natural

Enclosure

Type 3R

Type 3R

Type 3R

Features

 

DC connection:

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

Warranty: 5 years/ 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)

 

Picture 1 Factory of Grid Connected Solar Inverter 3000W

Grid Tied Solar Inverter 3000W 

 

Picture 2 Package of Grid Connected Solar Inverter 3000W

Grid Tied Solar Inverter 3000W

 

Q: What is the role of a solar inverter in maximizing solar panel output?
The role of a solar inverter in maximizing solar panel output is to convert the direct current (DC) generated by the solar panels into alternating current (AC) which can be used to power electrical devices in homes or businesses. The inverter ensures that the AC output is synchronized with the grid's frequency and voltage, allowing for efficient and effective utilization of solar energy. Additionally, the inverter also helps in monitoring and optimizing the performance of the solar panels, ensuring that they operate at their maximum efficiency and produce the highest possible output.
Q: How does a solar inverter handle voltage and frequency variations caused by grid faults?
A solar inverter is designed to handle voltage and frequency variations caused by grid faults through a process known as grid support or anti-islanding function. When a grid fault occurs, such as a sudden drop in voltage or frequency, the solar inverter detects the disturbance and responds accordingly. To handle voltage variations, the solar inverter typically incorporates a voltage control mechanism. It monitors the grid voltage continuously and adjusts its own output voltage to match the grid voltage level. In the event of a voltage drop or spike caused by a grid fault, the inverter adjusts its output voltage accordingly to maintain a stable and safe operating condition. This helps protect both the solar system and the grid from potential damage. Similarly, the solar inverter also deals with frequency variations caused by grid faults. It constantly monitors the grid frequency and adjusts its own output frequency to match the grid frequency. If a grid fault results in a sudden change in frequency, the inverter responds by adjusting its own frequency accordingly. This ensures that the solar system remains synchronized with the grid and continues to supply power without disruptions. Additionally, solar inverters are equipped with anti-islanding protection, which means they are designed to quickly disconnect from the grid in the event of a grid fault. This is a safety measure to prevent the solar system from continuing to supply power to a faulty grid, which could pose a risk to utility workers trying to repair the fault. Overall, a solar inverter's ability to handle voltage and frequency variations caused by grid faults is crucial for the safe and efficient operation of a solar power system. By continuously monitoring the grid conditions and adjusting its output accordingly, the inverter ensures that the solar system remains in sync with the grid and provides stable and reliable power.
Q: Can a solar inverter be used with different types of grounding systems?
Yes, a solar inverter can be used with different types of grounding systems. Most solar inverters are designed to be compatible with various grounding configurations, including but not limited to grounded, ungrounded, and impedance grounded systems. However, it is important to consult the manufacturer's specifications and guidelines to ensure proper installation and compatibility with the specific grounding system in use.
Q: Can a solar inverter be integrated with a smart home system?
Yes, a solar inverter can be integrated with a smart home system. This integration allows for monitoring and controlling the solar energy production, as well as optimizing energy usage and managing the overall efficiency of the system.
Q: How does a solar inverter handle shading on the solar panels?
A solar inverter typically handles shading on the solar panels through a process called Maximum Power Point Tracking (MPPT). When a solar panel is partially shaded, the MPPT algorithm ensures that the inverter optimizes power output by dynamically adjusting the voltage and current to operate at the panel's maximum power point. This helps minimize the impact of shading and maximizes the solar system's overall performance.
Q: How does a solar inverter communicate with monitoring systems?
A solar inverter communicates with monitoring systems through various means such as wireless technologies like Wi-Fi, Bluetooth, or Zigbee, or through wired connections like Ethernet or RS485. These communication channels allow the inverter to transmit important data and performance metrics to the monitoring systems in real-time.
Q: Can a solar inverter be used with a wireless communication system?
Yes, a solar inverter can be used with a wireless communication system. In fact, many modern solar inverters are designed with built-in wireless communication capabilities to allow for monitoring and control of the system remotely. This enables users to access real-time data, adjust settings, and receive notifications about the performance of their solar power system through a wireless connection, such as Wi-Fi or cellular networks.
Q: What is the role of ground fault protection in a solar inverter?
The role of ground fault protection in a solar inverter is to detect and mitigate any potential faults or abnormalities in the system's grounding. It ensures the safety of the system and personnel by quickly identifying and isolating ground faults, preventing electrical shock hazards and damage to the equipment.
Q: How does the power factor correction affect the performance of a solar inverter?
Power factor correction (PFC) plays a significant role in improving the performance of a solar inverter. By correcting the power factor, the inverter can efficiently convert DC power from the solar panels into AC power for use in homes or the grid. A high power factor ensures that the inverter operates at its maximum capacity, reducing power losses and improving overall energy efficiency. Additionally, a well-corrected power factor minimizes harmonic distortion, resulting in a stable and reliable operation of the solar inverter.
Q: What is the difference between a string inverter and a microinverter?
A string inverter is a centralized device that converts the direct current (DC) generated by a solar panel array into alternating current (AC) for use in a building or grid. It is typically connected to a string of solar panels, where multiple panels are wired together in series. On the other hand, a microinverter is a small inverter that is attached to each individual solar panel, converting the DC power generated by each panel into AC power. The main difference between the two is their level of integration and connectivity. While a string inverter handles the conversion for multiple panels, a microinverter enables independent operation and optimization of each panel, resulting in increased energy harvest, system flexibility, and fault tolerance.

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