• 400 Watt Grid-Tied Solar PV Inverter 1600TL Good Quality System 1
  • 400 Watt Grid-Tied Solar PV Inverter 1600TL Good Quality System 2
  • 400 Watt Grid-Tied Solar PV Inverter 1600TL Good Quality System 3
400 Watt Grid-Tied Solar PV Inverter 1600TL Good Quality

400 Watt Grid-Tied Solar PV Inverter 1600TL Good Quality

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Grid-tied solar PV inverter 1600TL Good Quality

 

 

High-yield of PV inverter

Max 97.1%efficiency

Real timeprecise MPPT algorithm for max harvest

Wide inputvoltage operation range from 90V to 500V

 

All in one. Flexible and economicalsystem solution of PV inverter

Free siteselection due to IP65

Easy installationand maintenance due to “Plug & Play” connection

Interfaceselection-Wi-Fi/ RS485 / Dry Relay for more flexible

configurationandsystem monitoring

4” LCDdisplay

Low maintenance cost

Rust-freealuminumcovers

Flexiblemonitoring solution

Multifunctionrelay can be configured to show various inverter information

 

Intelligent gridmanagement

Reactivepowercapability

Self powerreduce when over frequency

Remoteactive/reactivepower limit control

 

PV inverter datasheet

Technical Data

SOFAR

1100TL

SOFAR

1600TL

SOFAR

2200TL

SOFAR

2700TL

SOFAR

3000TL

Input (DC)

Max. Input Power

1100W

1600W

2200W

2700W

3000W

No. of MPPT / String per MPPT

1/1

Max. Input voltage

450V

450V

500V

500V

500V

Max. Input Voltage

80V

Rated input voltage

360V

Operating input voltage range

90V-400V

100V-480V

MPPT voltage range

110V-380V

165V-380V

170-450V

210-450V

230V-450V

Max. Input current per MPPT

10A

13A

Input short circuit current per MPPT

12A

15A

Output(AC)

Rated power(@230V,50Hz)

1000VA

1500VA

2000VA

2500VA

2800VA

Max. AC power

1000VA

1500VA

2000VA

2500VA

2800VA

Max. AC Output Current

4.5A

7A

9.5A

11.5A

13A

Rated Grid Voltage

230V

Nominal Grid Voltage Range

180V-270V(According to local standard)

Rated Frequency

50Hz / 60Hz

Grid frequency Range

44~55 / 54~66Hz(According to local  standard)

THDi

<3%

Power factor Adjustable Range

0.8 over excited … 0.8 under excited

Grid connection

Single phase

Efficiency

Max. efficiency

97%

97.1%

Weighted eff.(EU/CEC)

96%

96.2%

96.3%

MPPT efficiency

>99.5%

Standard

EMC

EN 61000-6-1, EN 61000-6-2, EN 61000-6-3,  EN 61000-6-4

RSSR

IEC 62109-1, IEC 62109-2

Grid Standards

AS4777, VDE4105, C10-C11, G83/G59 (more  available on request)

Protection

Anti-Islanding Protection

Yes

DC reverse polarity protection

Yes

Over Temp Protection

Yes

Leakage Current Protection

Yes

Over Voltage Protection

Yes

Over Current Protection

Yes

Earth Fault Protection

Yes

Communication

Standard Communication Mode

Wifi+RS485

Operation Data Storage

25 years

Relay

Yes

I/O

Yes

General data

DC Switch

optional

Ambient temperature range

-25℃ ~ +60℃

Topology

Transformerless

Cooling

Nature

Allowable relative humidity range

0 ~ 95% no condensing

Max. Operating Altitude

2000m

Noise

<35dB @1m

Degree of Protection

(per IEC 60529)

IP65

Dimension

400*310*130mm

Weight

11kg

12kg

Self-consumption at night

0

Display

Graphic display

Warranty

5 years


 

 

FAQ

 

1. Have any design tool and how to use it?

Shine Design is the system design software just for inverters, It can conduct installers to figure out panel numbers for a system, panel numbers for each string, and which inverter model is suitable for the system. Moreover, it can print a design report after input all necessary parameters, can calculate DC/AC wire wastage, annual generation, etc.

 

2. Does the inverter have monitoring solutions for residential system?

For small rating system, we have wired two monitoring solution (ShineNet via RS232 or RS485). (a) Local wireless monitoring solution (ShineVision via RF module communication) (b) Global wireless monitoring solution (WIFI module via WIFI network)

 

3. Do you have free solution for monitoring?

ShineNet is an inverter monitoring software run in Windows XP, Windows Vista, Windows 7 operating system. It can monitor inverter via RS232 (or RS232 convert to USB cable) and RS485 wire connection. Customers can purchase the cable locally to get the inverter monitored, it is simple.

Q: What is the typical installation process for a solar inverter?
The typical installation process for a solar inverter involves several steps. Firstly, the location for the inverter needs to be determined, usually close to the solar panels and near the main electrical panel. The inverter is then mounted securely on a wall or other suitable surface. Next, the DC input wires from the solar panels are connected to the input terminals of the inverter. The AC output wires from the inverter are then connected to the main electrical panel. Finally, the inverter is connected to a monitoring system, if applicable, to track and manage the solar power generation. It is important to follow all safety guidelines and local electrical codes during the installation process.
Q: How does a solar inverter handle voltage and frequency variations caused by sudden load changes?
Efficient and reliable, a solar inverter is specifically engineered to manage fluctuations in voltage and frequency resulting from sudden changes in load. When such changes occur, the solar inverter effectively employs a variety of control mechanisms to regulate and stabilize the output voltage and frequency. To begin with, the inverter continuously monitors the incoming solar power, keeping a close eye on the voltage and frequency. If any variations arise due to sudden load changes, the inverter promptly adjusts its internal control systems to compensate. Utilizing advanced power electronics and control algorithms, the inverter ensures that the voltage and frequency remain within the desired range. In order to handle voltage fluctuations caused by sudden load changes, the solar inverter utilizes a technique known as voltage regulation. It automatically adjusts the output voltage, either raising or lowering it as necessary. This guarantees that the inverter delivers a steady and consistent voltage supply to the load, effectively preventing any harm or malfunction. Similarly, to address frequency variations brought on by sudden load changes, the solar inverter employs a technique called frequency regulation. It adjusts the output frequency to match the grid frequency or meet specific frequency requirements. By maintaining the desired frequency, the inverter ensures compatibility and synchronization with the grid or other connected devices. In addition to voltage and frequency regulation, solar inverters also incorporate protective features to handle sudden load changes. They are equipped with built-in overload protection mechanisms capable of detecting excessive loads and preventing damage to both the inverter and the connected devices. These protective features may include safeguards such as overcurrent protection, short-circuit protection, and temperature monitoring. In summary, a solar inverter is purposefully designed to effectively manage voltage and frequency variations arising from sudden load changes. Through its voltage and frequency regulation capabilities, as well as its protective features, the inverter ensures stable and reliable operation. This enables the inverter to adapt efficiently to changing load conditions while safeguarding the integrity of the power supply.
Q: How does a solar inverter handle voltage fluctuations from the battery bank?
A solar inverter handles voltage fluctuations from the battery bank by utilizing its built-in control mechanisms and electronics. These components monitor the voltage output of the battery bank and regulate it to ensure stable and consistent voltage levels. This helps prevent any sudden or drastic fluctuations that could potentially damage electrical equipment or disrupt the functioning of the system.
Q: How does a solar inverter handle voltage harmonics?
A solar inverter handles voltage harmonics by using filters and control algorithms to reduce or eliminate the distortion caused by harmonics in the power generated by the solar panels. These filters and algorithms help to ensure that the electricity produced by the solar panels is of high quality and compliant with the desired voltage standards.
Q: How does a solar inverter handle variations in grid voltage?
A solar inverter handles variations in grid voltage by continuously monitoring the voltage levels and adjusting its output accordingly. It has built-in voltage regulation and control mechanisms that help maintain a stable and consistent output voltage, even when there are fluctuations in the grid voltage. This ensures that the solar inverter can efficiently convert the DC power generated by the solar panels into AC power that is synchronized with the grid, regardless of any voltage variations in the grid.
Q: Can a solar inverter be used in a mobile or portable solar power system?
Yes, a solar inverter can be used in a mobile or portable solar power system. The inverter converts the direct current (DC) generated by the solar panels into alternating current (AC), which is required to power most electronic devices. By incorporating a solar inverter, the mobile or portable solar power system can provide AC power for various applications, such as charging electronic devices or running small appliances, making it a versatile and convenient solution for powering devices on the go.
Q: How does a solar inverter protect against overvoltage or overcurrent?
A solar inverter protects against overvoltage or overcurrent by continuously monitoring the electrical output from the solar panels. If the voltage or current exceeds the safe operating limits, the inverter automatically adjusts the output or shuts down to prevent damage to the system. It achieves this through built-in protective mechanisms such as surge protectors, voltage regulators, and circuit breakers.
Q: How does a solar inverter affect the voltage stability of a solar system?
A solar inverter plays a critical role in maintaining voltage stability in a solar system. It converts the direct current (DC) generated by solar panels into alternating current (AC) which is suitable for use in our homes and businesses. By regulating and adjusting the voltage levels, a solar inverter ensures that the power generated by the solar panels matches the required voltage of the electrical grid. This helps to maintain a steady and stable voltage output, preventing fluctuations and ensuring the smooth functioning of the solar system.
Q: Can a solar inverter be used in areas with limited roof space or installation options?
Yes, a solar inverter can be used in areas with limited roof space or installation options. Solar inverters are flexible and can be installed in various locations such as walls, ground mounts, or even on poles, allowing for more flexibility in terms of space and installation options. Additionally, there are also compact and space-saving solar inverters available that can be used in areas with limited roof space.
Q: How does a solar inverter affect the overall system reliability?
A solar inverter plays a crucial role in the overall system reliability of a solar power system. It converts the direct current (DC) generated by solar panels into alternating current (AC) that can be used to power homes or be fed back into the grid. By ensuring efficient and reliable conversion, a solar inverter helps optimize the system's performance and stability. It also incorporates various protection features like over-voltage and over-current protection to safeguard the system from potential damage. Therefore, a high-quality and well-maintained solar inverter positively impacts the overall reliability of the solar power system.

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