• High Efficiency Off-Grid Pure Sine Wave Power Inverter 600W, 24V-220V/230V,SHI600-22 System 1
  • High Efficiency Off-Grid Pure Sine Wave Power Inverter 600W, 24V-220V/230V,SHI600-22 System 2
  • High Efficiency Off-Grid Pure Sine Wave Power Inverter 600W, 24V-220V/230V,SHI600-22 System 3
  • High Efficiency Off-Grid Pure Sine Wave Power Inverter 600W, 24V-220V/230V,SHI600-22 System 4
High Efficiency Off-Grid Pure Sine Wave Power Inverter 600W, 24V-220V/230V,SHI600-22

High Efficiency Off-Grid Pure Sine Wave Power Inverter 600W, 24V-220V/230V,SHI600-22

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Description

SHI series is a pure sine wave inverter which can convert 12/24/48Vdc to 220/230Vac 50/60Hz based on full digital and intelligent design. It features high reliability, high efficiency, concise outline, small volume, easy installation and operation. The inverter can be applied in many fields, such as household appliances, electric tools and industrial devices etc, especially for solar photovoltaic power system.

 


Features:

·Adoption of advanced SPWM technology, pure sine wave output
·Dynamic current loop control technology to ensure inverter reliable operation

·Wide DC input voltage range
·The output voltage and frequency can be switched
·Low output harmonic distortion(THD≤3%)
·LED indicators for input voltage range, load power range, normal output & failure state
·Optional energy saving mode
·Wide working temperature range (industrial level)


Protections:

·Output short circuit protection
·Overload protection

·Input low voltage protection
·Input over voltage protection
·Overheating protection

·Inverter abnormal protection




Specification:

 

Types

SHI600-12

SHI600-22

Nominal Battery  Voltage

12V

24V

Input Voltage  Range

10.8~16Vdc

21.6~32Vdc

No Load Current

≤0.7A

≤0.45A

Output Wave

Pure Sine Wave

Output Voltage

220Vac±3% / 230Vac±10%

Continuous Power

600W

Power 10 sec

900W

Power 1.5 sec

1200W

Surge Power

1350W

Frequency

50/60Hz±0.2%

Distortion THD

≤ 3% (resistive load)

Efficiency at Rated Power

≥91%

≥92%

Max. Efficiency

≥93%

≥94%

Terminal

25mm2

Dimensions

295×186×82mm

Installation

150×178mm

Hole Size

Φ6mm

Net Weight

2.3kg

Working  Temperature

-20℃~ +50℃

Storage  Temperature

-35℃~ +70℃

Humidity  

< 95% (N.C.)

Altitude

< 5000m(Derating to operate according to IEC62040 at a height exceeding 1000m)

Insulation  Resistance

  Between DC input terminals and metal case: ≥550MΩ;

  Between AC output terminals and metal case: ≥550MΩ.

Dielectric  Strength

  Between DC input terminals and metal case: Test voltage AC1500V, 1  minute

Between AC output terminals and metal case: Test voltage  AC1500V, 1 minute

 

 

FAQ

 

Q: Off Grid VS On Grid Panels, what's the difference?

The differences between both panels are related to the system where they are going to be installed. 

On-grid installations, as the name said, are thought to feed the produced energy into the grid and for that it is important to have the biggest voltage that it is allowed (1000VDC in Europe, 600 VDC in USA). For a defined power, more voltage means less current (P=V*I) and less losses.
 

In off-grid installations it is different because you must storage the energy into batteries. Batteries usually work at 12, 24 or 48 VDC and off-grid photovoltaic modules work at the maximum power point (mpp) near this voltage (see the datasheets). So the controller that charges the batteries works also near the batteries voltage.
 

Your limiting factor here is going to be this controller. You have to see what is the maximum voltage and the maximum current that it can work with, upstream (photovoltaic modules) and downstream (batteries and
inverter). Then you have to dimension your PV array (Voltage and Current).

 


Q:What is the maximum DC input current that a solar inverter can handle?
The maximum DC input current that a solar inverter can handle varies depending on the specific model and capacity of the inverter. It is typically mentioned in the product specifications and can range from a few amps to several hundred amps.
Q:Can a solar inverter be used in regions with high levels of dust or debris?
Yes, solar inverters can be used in regions with high levels of dust or debris. However, it is important to regularly clean and maintain the solar panels and inverters to ensure optimal performance and prevent any potential damage caused by the accumulation of dust or debris.
Q:What is the maximum output voltage of a solar inverter?
The maximum output voltage of a solar inverter is typically determined by the specific model and specifications of the inverter being used. It can vary depending on factors such as the size and configuration of the solar array it is connected to. Generally, for residential solar installations, the maximum output voltage of a solar inverter can range from 230V to 240V for single-phase systems, and up to 400V for three-phase systems.
Q:Can a solar inverter be used with different types of grid connection standards?
Yes, a solar inverter can be used with different types of grid connection standards as long as it is designed to meet the specific requirements of those standards. The inverter must be compatible with the voltage, frequency, and other technical specifications of the grid in order to ensure safe and efficient operation of the solar power system.
Q:How do you calculate the efficiency loss due to temperature for a solar inverter?
To calculate the efficiency loss due to temperature for a solar inverter, you would typically refer to the manufacturer's specifications and documentation. The efficiency loss can be determined by comparing the inverter's rated efficiency at a specific temperature (usually 25 degrees Celsius) to its efficiency at the desired operating temperature. The manufacturer may provide a temperature coefficient, which represents the percentage decrease in efficiency for every degree increase in temperature. By multiplying the temperature coefficient with the difference between the desired operating temperature and the reference temperature, you can estimate the efficiency loss due to temperature.
Q:How does a solar inverter handle variations in battery charge levels?
A solar inverter typically handles variations in battery charge levels by constantly monitoring the charge level of the battery. It adjusts the energy flow from the solar panels to the battery based on its charge level. When the battery charge is low, the inverter increases the energy flow from the solar panels to charge the battery. Conversely, when the battery charge is high, the inverter reduces the energy flow to prevent overcharging. This dynamic control ensures efficient use of the available solar energy and optimal charging of the battery.
Q:What is the maximum power capacity that a solar inverter can handle?
The maximum power capacity that a solar inverter can handle depends on its specific model and design. In general, solar inverters range in power capacities from a few hundred watts to several megawatts.
Q:Can a solar inverter be used for both single-phase and three-phase applications?
No, a solar inverter cannot be used for both single-phase and three-phase applications. Different types of inverters are designed specifically for either single-phase or three-phase systems, as they have different voltage and power requirements.
Q:What are the potential risks of overheating a solar inverter?
The potential risks of overheating a solar inverter include reduced efficiency, decreased lifespan, and potential damage to the internal components. It can also lead to unexpected shutdowns or malfunctions, resulting in a decrease in solar energy production. Additionally, overheating can pose a fire hazard, especially if proper cooling mechanisms or ventilation are not in place. Regular monitoring and maintenance are crucial to prevent these risks and ensure optimal performance of the solar inverter.
Q:How does a solar inverter prevent reverse current flow?
A solar inverter prevents reverse current flow by using a built-in feature called an anti-islanding protection mechanism. This mechanism detects when there is a loss of grid power and immediately shuts down the inverter to prevent any power from flowing back into the grid. This ensures the safety of utility workers who may be working on the grid during a power outage and also prevents damage to the solar panels and the inverter itself.

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