• Pure Sine Wave Solar  Inverter 300W High Efficiency 12V/24V/36V/48V Input System 1
  • Pure Sine Wave Solar  Inverter 300W High Efficiency 12V/24V/36V/48V Input System 2
Pure Sine Wave Solar  Inverter 300W High Efficiency 12V/24V/36V/48V Input

Pure Sine Wave Solar Inverter 300W High Efficiency 12V/24V/36V/48V Input

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Loading Port:
Qingdao
Payment Terms:
TT or LC
Min Order Qty:
1 pc
Supply Capability:
800 pc/month

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Specifications

1.Pure sine wave output(<2%THD) 
2.High Efficiency 87%-90% 
3.High motor start driven force 
4.Function of battery protection 

Product characteristic:

1.Pure sine wave output(<2%thd)< span="">

2.Input & Output fully isolation design

3.High Efficiency 87%-90%

4.High motor start driven force

5.5-stage thermal control fan

6.Function of battery protection

 

 

Technical Parameters:

Model

DMS300-12

DMS300-24

DMS300-36

DMS300-48

Continuous output power

300W

300W

300W

300W

Max power output

320W

320W

320W

320W

Peak instantaneous power

600W

600W

600W

600W

Conversion efficiency

≥87%

No -load current

0.65A

0.33A

0.22A

0.17A

Output AC Voltage

220/230/240/110/120/130V +5%

Output wave form

Sine wave < 2%THD

Frequency output

50/60Hz+2%

Input Dc Voltage

10-16VDC

20-30VDC

30-45VDC

40-60VDC

Fault display

Red lamp flickers and buzzer alarms

Working temperature

-20~55°C

Function of protection

Alarm and protection in over loading, over voltage, low voltage,  short circuit, over heating and converse connection, etc.

Fan

Thermal control

Product measurement(mm)

265*140*81

Pack measurement(mm)

340*165*140

Net weight

2.6Kg

Gross weight

2.8Kg

 

 

 

 

 

 

 

 

 

 

 

 

 

 

 

 

 

 

 

 

Application:

 

  1.       Electric tools:fretsaws, drills, mullers, grinder wheels, mowers, air compressors, etc.

  2.       Office equipment:computer,  facsimile machines, scanners, etc.

  3.      Kitchen appliances:microwave oven, refrigerators, blenders, soybean juice machine, coffee makers, ovens, etc.

  4.      Lighting instruments: high pressure sodium lamp, compact fluorescent light, daylight lamp, halogen light, etc.

  5.      Home entertainment electronics:TV, blower, vacuum cleaners, fans, video games, musical instrument, charger, etc.

Payment Terms:

 

 T/T, West Union,Money Gram, Paypal

Express Delivery:

EMS, DHL, FedEx, TNT, UPS

 

FAQ:

 

Q1:Can we visit your factory?

A1:Sure,welcome at any time,seeing is believing.

 

Q2:Which payment terms can you accept?

A2:T/T,L/C,Moneygram,Paypal are available for us.

 

 




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Q:How does the efficiency of solar panels vary across different roof types?
The efficiency of solar panels can vary across different roof types due to several factors. One of the main factors is the orientation and tilt of the roof. Solar panels are most efficient when they are facing towards the sun, ideally at a tilt that matches the latitude of the location. Therefore, roofs with a south-facing orientation and a suitable tilt generally have higher efficiency. Roof shading is another important factor. If a roof is shaded by trees, buildings, or other obstructions, it can significantly decrease the efficiency of solar panels. Even partial shading on a small portion of the roof can impact the overall performance of the entire solar system. The material and condition of the roof can also affect efficiency. Certain roof materials, such as metal or asphalt shingles, can reflect sunlight and increase the overall efficiency of solar panels. On the other hand, roofs with a lot of dirt, debris, or damage may decrease efficiency as they can block or hinder the absorption of sunlight. The size and shape of the roof also play a role. Roofs with a larger surface area can accommodate more solar panels, thereby generating more electricity. Additionally, roofs with a simple shape, such as flat or slightly sloped, tend to be more conducive to efficient solar panel installation compared to complex roof designs with many angles and obstacles. Lastly, the local climate and weather patterns can impact solar panel efficiency. Areas with high levels of sunlight throughout the year generally have higher efficiency compared to regions with frequent cloud cover or limited sun exposure. In conclusion, the efficiency of solar panels can vary across different roof types due to factors such as orientation, shading, roof material and condition, size and shape, as well as local climate and weather patterns. Consulting with a solar professional can help determine the optimal solar panel system for a specific roof type, maximizing energy production and efficiency.
Q:Can solar energy systems be integrated into building design?
Building design can include the integration of solar energy systems. This approach is increasingly popular and is considered both sustainable and cost-effective for generating electricity. There are multiple ways to incorporate solar energy systems, such as using rooftop solar panels, solar facades, or solar windows. The most common method is installing rooftop solar panels. These can be standalone structures or integrated into the roof itself. They capture sunlight and convert it into electricity, which can power the building or be fed back into the grid. Solar facades are another option. These involve placing solar panels on the outer walls of buildings. Besides generating electricity, they also act as a protective layer, reducing heat gain and improving energy efficiency. Solar windows are a new development in building design. These windows have built-in transparent solar cells that capture sunlight and generate electricity while still allowing natural light to enter the building. They have the potential to revolutionize building design by seamlessly integrating renewable energy generation into the building envelope. Integrating solar energy systems into building design offers several advantages. Firstly, buildings can generate their own electricity, reducing reliance on fossil fuels and lowering utility bills. This also contributes to reducing greenhouse gas emissions and creating a cleaner environment. Additionally, solar energy systems can enhance the aesthetic appeal of buildings, making them visually striking examples of sustainable architecture. In conclusion, solar energy systems can be integrated into building design. With options like rooftop solar panels, solar facades, and solar windows, buildings can generate clean, renewable electricity, reduce their carbon footprint, and contribute to a more sustainable future.
Q:Can solar energy systems be used for powering data centers or IT infrastructure?
Yes, solar energy systems can definitely be used to power data centers or IT infrastructure. Solar energy is a renewable and sustainable source of power that can be harnessed through photovoltaic (PV) panels. By installing solar panels on the roofs or other suitable areas of a data center, companies can generate electricity from the sun and use it to power their IT infrastructure. This not only reduces reliance on traditional energy sources but also helps in minimizing carbon emissions and operating costs. Additionally, advancements in energy storage technologies allow for solar power to be used even during non-sunlight hours, ensuring uninterrupted power supply to data centers.
Q:What is the payback period for installing a solar energy system?
Installing a solar energy system can have a variable payback period, depending on factors such as the initial cost, energy generation, and local electricity rates. On average, residential solar systems typically take between 5 to 10 years to break even. During this period, the savings on electricity bills gradually offset the installation costs. Once the payback period is completed, the system can provide free or significantly reduced electricity costs for the remaining 25 to 30 years of its lifespan. It's worth mentioning that government incentives, tax credits, and net metering programs can further shorten the payback period and enhance the overall financial advantages of solar installation.
Q:Can a solar energy system be used for heating and cooling?
Yes, a solar energy system can be used for heating and cooling through the use of solar thermal technology or heat pumps. Solar thermal systems can capture and convert sunlight into heat, which can be used for space heating and water heating. Heat pumps can also utilize solar energy to extract heat from the air or ground and transfer it indoors for heating or release it outdoors for cooling.
Q:Solar power generation system how to choose?
To choose the right, we must first understand the composition of the system and the core of the power generation. Solar power system consists of solar panels or solar module, inverter, bracket, distribution box, cable and other accessories. The core components are solar modules and inverters, which directly determine how much electricity is generated and how many years to come. 5KW system, in the summer when the maximum amount of light radiation can be issued 23 days a day or so.
Q:Can solar energy be used for large-scale power generation?
Yes, solar energy can be used for large-scale power generation. With advancements in technology and decreasing costs, large-scale solar power plants or solar farms can now efficiently harness sunlight to generate electricity on a significant scale. These plants typically consist of thousands of solar panels that convert sunlight into electricity, which can then be fed into the power grid to meet the energy demands of a vast number of households and industries.
Q:Can a solar energy system be used in areas prone to hurricanes or tornadoes?
Solar energy systems can indeed be utilized in regions that are susceptible to hurricanes or tornadoes. Although these natural calamities can potentially inflict harm on solar panels and other system components, employing appropriate preparation and installation methods can alleviate these risks. The design and structural integrity of solar panels themselves are crucial considerations. High-quality panels are constructed to withstand powerful winds and extreme weather conditions. They undergo rigorous testing and certification processes to meet specific standards, including wind resistance ratings. In hurricane or tornado-prone areas, it is essential to install panels explicitly engineered to endure the potential wind speeds and impacts associated with these events. Furthermore, employing proper installation techniques can enhance the resilience of a solar energy system. For instance, utilizing reinforced mounting structures, securing panels with additional brackets or fasteners, and ensuring secure connections between panels, inverters, and batteries can prevent damage caused by strong winds or airborne debris. In certain cases, homeowners may opt to invest in solar panel tracking systems that automatically adjust panel positions to minimize wind resistance during severe weather occurrences. This feature protects the panels and increases their likelihood of surviving hurricanes or tornadoes with minimal damage. Moreover, having a backup power storage system, such as batteries, is essential to ensure uninterrupted power supply during and after severe weather events. This backup system stores excess energy generated by the solar panels, enabling the system to function independently of the grid during power outages caused by hurricanes or tornadoes. Overall, although there are risks associated with utilizing a solar energy system in hurricane or tornado-prone areas, careful planning, proper installation, and the use of resilient components allow for the harnessing of solar power even in these challenging environments.
Q:Can solar energy systems be used for powering recycling facilities?
Indeed, recycling facilities can certainly utilize solar energy systems for their power needs. Solar energy, a renewable and eco-friendly power source, can be harvested through the use of photovoltaic (PV) panels or solar thermal systems. These systems have the ability to convert sunlight into electricity or heat, which can then be employed to fuel a variety of operations within a recycling facility. The machinery and equipment necessary for recycling processes, such as conveyors, sorting machines, crushers, and compactors, can be powered by the electricity produced by solar panels. Additionally, solar energy can also be utilized to sustain lighting systems, ventilation, and heating/cooling systems, guaranteeing an efficient and sustainable functioning of the facility. Opting for solar energy to power recycling facilities brings forth numerous advantages. Firstly, it diminishes reliance on conventional fossil fuel-based electricity, consequently decreasing carbon emissions and mitigating environmental impact. Secondly, solar energy systems provide a steady and predictable source of power, thereby reducing vulnerability to power outages or price fluctuations. Furthermore, utilizing solar power can result in energy cost savings for recycling facilities in the long term, as the initial investment in solar panels can be compensated by reduced electricity bills over time. To conclude, solar energy systems are a feasible and environmentally-conscious choice for powering recycling facilities. By harnessing the energy of the sun, these facilities can function sustainably, reduce their carbon footprint, and contribute to a cleaner and more sustainable future.

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