• 3000W Grid-tied Solar PV Inverter 3000TLM System 1
  • 3000W Grid-tied Solar PV Inverter 3000TLM System 2
  • 3000W Grid-tied Solar PV Inverter 3000TLM System 3
3000W Grid-tied Solar PV Inverter 3000TLM

3000W Grid-tied Solar PV Inverter 3000TLM

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3000W Grid-tied Solar PV Inverter 3000TLM

 

High-yield

Max 97.6%efficiency

Real timeprecise MPPT algorithm for max harvest

Wide inputvoltage operation range from 100V to 550V

Two MPPtrackers for flexible PV panel configuration

 

3000W Grid-tied Solar Inverter Low maintenance cost

Rust-freealuminumcovers

Flexiblemonitoring solution

Multifunctionrelay can be configured to show various inverter information

 

3000W Grid-tied Solar Inverter Flexible and economicalsystem solution

Free siteselection due to IP65

Easy installationand maintenance due to “Plug & Play” connection

Interfaceselection-Wi-Fi/RS485/DryRelay for more flexible configuration and system monitoring

4” LCDdisplay

 

3000W Grid-tied Solar Inverter Intelligent grid management

Reactivepoweradjustable

Self powerreducerwhenover frequency

Remoteactive/reactivepower limit control

 

3000W Grid-tied Solar Inverter Datasheet

Technical Data

SOFAR

3000TLM

SOFAR

3680TLM

SOFAR

4000TLM

SOFAR

4600TLM

SOFAR

5000TLM

Input (DC)

Max. Input Power

3100W

3800W

4160W

4800W

5200W

Max. DC power for single MPPT

2000

(200V-500V)

2400

(200V-500V)

2600

(200V-500V)

3000

(200V-500V)

Number of independent MPPT

2

Number of DC inputs

1 for each MPPT

Max. Input Voltage

600V

Start-up input voltage

100V(+/-5V)

Rated input voltage

360V

Operating input voltage range

100V-550V

MPPT voltage range

160V-500V

165V-500V

175V-500V

Max. Input current per MPPT

10A/10A

12A/12A

13A/13A

15A/15A

Input short circuit current per MPPT

12A

14A

16A

18A

Output(AC)

Rated power(@230V,50Hz)

3000VA

3680VA

4000VA

4600VA

5000VA

Max. AC power

3000VA

3680VA

4000VA

4600VA

5000VA

Nominal AC voltage

L/N/PE, 220, 230, 240

Nominal AC voltage range

180V-270V

Grid frequency range

44~55Hz / 54~66Hz

Active power adjustable range

0~100%

Max. Output Current

13A

16A

17.5A

20A

22A

THDi

<3%

Power Factor

1(Adjustable +/-0.8)

Performance

Max efficiency

97.6%

Weighted eff.(EU/CEC)

97.1%/97.3%

Self-consumption at night

<1W

Feed-in start power

20W

MPPT efficiency

>99.5%

Protection

DC reverse polarity protection

Yes

DC switch

Optional

Protection class / overvoltage category

I/III

Input/output SPD(II)

Optional

Safety Protection

Anti-islanding, RCMU, Ground fault  monitoring

Certification

CE, CGC, AS4777, AS3100, VDE 4105,  C10-C11, G83/G59 (more available on request)

Communication

Power management unit

According to certification and request

Standard Communication Mode

Wifi+RS485

Operation Data Storage

25 years

General data

Ambient temperature range

-25℃ ~ +60℃

Topology

Transformerless

Degree of protection

IP65

Allowable relative humidity range

0 ~ 95% no condensing

Max. Operating Altitude

2000m

Noise

<25dB

Weight

18kg

Cooling

Nature

Dimension

344×478×165mm

Warranty

5 years

 

 

 

 

 

Q:Are there any electromagnetic interference concerns associated with solar inverters?
Solar inverters come with electromagnetic interference (EMI) concerns. They convert the direct current (DC) produced by solar panels into alternating current (AC) for powering homes and businesses. This conversion process involves high frequency switching, which can generate EMI. EMI refers to the disturbance caused by electromagnetic radiation emitted by electronic devices. It can interfere with the proper functioning of nearby electronic devices. In the case of solar inverters, the EMI generated can potentially impact radios, televisions, and communication systems. To address these concerns, solar inverter manufacturers typically comply with relevant EMI standards and regulations. This may involve limiting the amount of electromagnetic radiation emitted by the inverters and using shielding materials to reduce EMI. Some inverters also incorporate filters or other techniques to suppress EMI and minimize interference. When selecting and positioning solar inverters, solar installers and system designers should consider EMI concerns. Proper installation and grounding techniques can help decrease EMI issues. It is also important to follow local regulations and guidelines to ensure compliance with EMI standards and minimize potential interference with other electronic devices. Overall, although EMI concerns exist with solar inverters, proper design, installation, and adherence to relevant standards can effectively mitigate these concerns. This ensures the smooth operation of both the solar system and other electronic equipment in the area.
Q:Can a solar inverter be installed in a residential area?
Yes, a solar inverter can be installed in a residential area. In fact, it is common for residential homes to have solar inverters installed as part of a solar energy system to convert the direct current (DC) generated by the solar panels into alternating current (AC) that can be used to power household appliances and lighting.
Q:What is the role of a solar inverter in a utility-scale system?
The role of a solar inverter in a utility-scale system is to convert the direct current (DC) electricity produced by the solar panels into alternating current (AC) electricity that can be used by the electrical grid. It ensures the compatibility between the solar power generated and the grid's requirements, including voltage, frequency, and power quality. Additionally, solar inverters often have monitoring and control functions, allowing for remote monitoring and optimization of the system's performance.
Q:How does a solar inverter handle voltage drop in long cable runs?
A solar inverter handles voltage drop in long cable runs by compensating for the drop in voltage through a process called voltage regulation. It adjusts the output voltage to ensure that the required voltage level is maintained at the point of connection to the solar panels. This allows for efficient power transmission and ensures that the system operates optimally despite the voltage drop caused by long cable runs.
Q:What is the role of a power factor controller in a solar inverter?
The role of a power factor controller in a solar inverter is to regulate and optimize the power factor of the inverter's output. It ensures that the power drawn from the grid or generated by the solar panels is in sync with the voltage and current, minimizing reactive power and maximizing the efficiency of the system. By maintaining a high power factor, the power factor controller helps reduce energy losses, improve overall system performance, and comply with grid regulations.
Q:How does a solar inverter communicate with other devices in a solar power system?
A solar inverter communicates with other devices in a solar power system through various communication protocols and interfaces. One common method is through wired connections using communication interfaces such as RS485 or Ethernet. These interfaces allow the inverter to establish a direct connection with other devices such as solar panels, batteries, and monitoring systems. In addition to wired connections, wireless communication methods are also used. This includes technologies like Wi-Fi, Zigbee, or Bluetooth, which enable the inverter to connect with other devices within a certain range. Wireless communication is often used for monitoring and control purposes, allowing users to remotely access and manage their solar power system. The communication between the solar inverter and other devices is crucial for the overall performance and efficiency of the solar power system. It enables the inverter to receive important data from the solar panels, such as voltage, current, and temperature, which is necessary for optimal power conversion. The inverter can then adjust its operations based on this information to maximize the power output and ensure system safety. Furthermore, communication with other devices like batteries allows the solar inverter to manage the charging and discharging cycles, optimizing energy storage and utilization. This ensures that excess energy generated by the solar panels is efficiently stored in the batteries and used during periods of low sunlight. Overall, the communication capabilities of a solar inverter play a crucial role in the integration and coordination of different components within a solar power system. It enables efficient power conversion, monitoring, and control, ultimately maximizing the performance and benefits of solar energy generation.
Q:What is the role of a solar inverter in a solar-powered electric fence?
The role of a solar inverter in a solar-powered electric fence is to convert the direct current (DC) generated by the solar panels into alternating current (AC) that is used to power the electric fence system. The inverter ensures that the energy captured by the solar panels is transformed into a usable form for the electric fence, allowing it to function efficiently.
Q:What is the role of MPPT (Maximum Power Point Tracking) in a solar inverter?
The role of MPPT (Maximum Power Point Tracking) in a solar inverter is to optimize the efficiency of the solar panel system by continuously adjusting the voltage and current to ensure that the panel operates at its maximum power point. This helps to extract the maximum available power from the solar panels under varying environmental conditions, such as changes in sunlight intensity or temperature. By dynamically tracking the optimal operating point, MPPT maximizes the energy output of the solar panels and improves the overall performance of the solar inverter system.
Q:What is the role of a solar inverter in maintaining system stability?
The role of a solar inverter in maintaining system stability is to convert the direct current (DC) electricity generated by solar panels into alternating current (AC) electricity that can be used in homes or fed back into the electrical grid. The inverter also ensures that the output voltage and frequency of the AC electricity are within acceptable limits, allowing for seamless integration with the existing power grid. By regulating and stabilizing the electricity flow, the solar inverter helps maintain the overall stability and reliability of the solar power system.
Q:How do I choose the right solar inverter for my system?
When choosing the right solar inverter for your system, there are a few key factors to consider. First, determine the size and capacity of your solar panels to ensure compatibility. Next, consider the type of inverter you need, whether it's a string inverter, micro inverter, or power optimizer. Additionally, assess the efficiency and reliability of the inverter, as well as its warranty and after-sales support. Finally, consider your budget and any specific features you may require, such as monitoring capabilities or grid connectivity options. It's important to research and compare different models to find the one that best fits your specific solar system needs.

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