• Solar Energy Systems for Homes - SPK-300 LCD Solar Power System System 1
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Solar Energy Systems for Homes - SPK-300 LCD Solar Power System

Solar Energy Systems for Homes - SPK-300 LCD Solar Power System

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$50.00 - 80.00 / pc get latest price
Loading Port:
China main port
Payment Terms:
TT or LC
Min Order Qty:
10 pc
Supply Capability:
10000 pc/month

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A solar inverter, or PV inverter, or Solar converter, converts the variable direct current (DC) output of a photovoltaic (PV) solar panel into a utility frequency alternating current (AC) that can be fed into a commercial electrical grid or used by a local, off-grid electrical network.

It is a critical BOS–component in a photovoltaic system, allowing the use of ordinary AC-powered equipment.

Solar inverters have special functions adapted for use with photovoltaic arrays, including maximum power point tracking and anti-islanding protection.

 

Main Information

KDF SPK_300_LCD

This product is high performance, family used portable solar power system, which can receive energy and store it in battery outside connected to SPK by solar energy on sunny day, and supplies electric power for varies appliances such as electric fan, lighting lamps, television, portable computer etc.

It can supply power for both DC and AC electric application.

Solar Power System Hot Selling SPK_300_LCD

Main features:

◆   Battery puts outside connected to the SPK for user to choose battery in recommended range, and easily to exchange battery.

◆   Both DC and AC output

◆   Solar Feedback Circuit Protection

◆   Output Short-circuit Protection

◆   Solar「+」「-」anti-access protection

◆   Output「+」「-」anti-access protection

◆   Over Charged Protection

◆   Over Discharged Protection

◆   Over Load Protection

◆   Over-Temperature Protection

 

Technical parameters

Specification

Value/Material

Item No. KDF

SPK_300_LCD

Solar Recommended

Specification

Poly silicon

Working Voltage/Power

18V80W~120W

Battery Recommended

Rated Voltage/Capacity

12V65AH~100AH

Cycle Number

80% Deep Cycle   Number:500

70% Cycle Number:800

Working Temperature

Short Period(one Month):-20~50℃                     

Long Period(Six Months):-10~45℃

Charging Controller

Operating Voltage

12V

Input Voltage

17.3V~21V

Input current

MAX:10A

Power Consumption

MAX: 5mA

Low Voltage   Disconnect(LVD)

10.8V

Low Voltage Reconnect(LVR)

12.3V

High Voltage Discharge( HVC)

14.6V

High Voltage Recharge(HVR)

13.8V

Temperature   Protection

60℃

DC Output

DC output & Application

USB 5V2A

DC output & Application

DC  12V1*3A

AC Output

Output Wave

modified sine wave

Input Voltage

11V~15V

Output Voltage

110V±10%

Output Frequency

60Hz±2Hz/50Hz±2Hz

Rated Output Power

300W

Maximum VA

600VA

Maximum Efficiency

88%

Temperature

0-40℃

Over Temperature

60℃~70℃

Low Voltage Alarm

11V

Low Voltage Shut off

10.5V

High Voltage Shut off

16V

Package

Set size

278*240*172mm

Set N·W

2.8kg

Set N·W

3.6kg

Solar Power System Hot Selling SPK_300_LCDSolar Power System Hot Selling SPK_300_LCD

 

No.

Name

Function

1

Battery Icon

To show the Volume of the Battery

2

Date of %

To show the percent of the Battery

3

Charging Icon

To show the charging condition

4

Current

To show the value of charge current

5

Temperature Icon

Temperature Alarm

6

Date of Voltage

To  Show the Value of DC output   voltage

7

Date of Voltage

To  Show the Value of AC output   voltage

8

 AC Icon

AC output

9

DC Icon

DC output


This product can be used for any type of solar home systems. It has high conversion efficiency, reliable quality, intelligent monitoring system and best service, which will provide you with a memorable user experience and solutions.

Q: Can solar energy systems be used for powering military bases?
Yes, solar energy systems can be used to power military bases. In fact, solar power is increasingly being adopted by the military as a reliable and sustainable source of energy. Solar energy systems provide an efficient and cost-effective solution for meeting the energy needs of military bases, reducing their dependence on traditional sources and enhancing their operational capabilities.
Q: Can a solar energy system be installed on a museum or cultural institution?
Yes, a solar energy system can be installed on a museum or cultural institution. Solar panels can be mounted on the roof or in an open space surrounding the building to harness sunlight and convert it into electricity. This can help the institution reduce its reliance on conventional energy sources, lower its carbon footprint, and potentially save on electricity costs in the long run. Additionally, the installation of solar panels can also serve as an educational display, highlighting the institution's commitment to sustainability and renewable energy.
Q: Can solar energy systems be used in all locations?
Solar energy systems have the potential to be utilized in a variety of locations, although their effectiveness and efficiency may fluctuate depending on the local climate and geography. Generally, solar panels require ample sunlight to generate electricity, making them most suitable for areas with abundant sunshine and minimal obstruction. However, advancements in solar technology have greatly enhanced their efficiency, broadening the range of locations where solar energy systems can be employed. Regions with high levels of solar radiation, such as deserts or tropical areas, can generate substantial energy throughout the year using solar panels. These areas are particularly well-suited for solar energy systems due to their increased exposure to sunlight, resulting in higher energy production and faster return on investment. Conversely, locations characterized by frequent cloud cover or extended periods of darkness, like certain northern regions or areas with dense tree cover, may experience reduced solar energy production. Nevertheless, this does not render solar energy systems unusable in these areas. In fact, solar panels can still generate electricity on cloudy days, albeit at a lower efficiency. Furthermore, innovative technologies such as concentrated solar power (CSP) or solar tracking systems can improve energy production in areas with limited sunshine. Additionally, solar energy systems can be tailored to accommodate various geographical conditions. For example, in areas where space is limited, rooftop solar panels can be installed on buildings. On the other hand, ground-mounted solar panels or solar farms can be deployed in locations with ample open spaces. Furthermore, floating solar panels can be installed on bodies of water, effectively utilizing previously unused spaces like reservoirs or lakes. It is important to note that while solar energy systems can be deployed in most locations, their suitability and economic viability should be evaluated on a case-by-case basis. Factors such as local solar resources, electricity demand, installation costs, and government incentives or policies must be taken into consideration to determine the feasibility of implementing solar energy systems in a specific location.
Q: Can solar energy systems be used in powering veterinary clinics or animal shelters?
Yes, solar energy systems can definitely be used to power veterinary clinics or animal shelters. Solar energy systems, such as solar panels, harness the power of sunlight and convert it into electricity. This electricity can be used to power various electrical appliances and devices, including those found in veterinary clinics and animal shelters. By installing solar panels on the roof or in an open area near the veterinary clinic or animal shelter, these establishments can reduce their dependence on traditional electricity sources and utilize clean and renewable solar energy. Solar power can be used to run equipment such as lights, heating and cooling systems, medical equipment, refrigerators for vaccines and medications, computers, and other essential devices. Furthermore, using solar energy systems can help these establishments save on electricity costs in the long run. Veterinary clinics and animal shelters often consume a significant amount of electricity due to the nature of their operations, such as maintaining proper temperature and lighting conditions, running medical equipment, and maintaining a comfortable environment for animals and staff. By utilizing solar power, these establishments can significantly reduce their electricity bills, allowing them to allocate more resources towards animal care and welfare. Additionally, using solar energy systems in veterinary clinics and animal shelters aligns with their commitment to environmental sustainability. By reducing reliance on fossil fuels and utilizing clean and renewable solar energy, these establishments can contribute to reducing carbon emissions and minimizing their ecological footprint. In summary, solar energy systems can be used effectively in powering veterinary clinics and animal shelters. They provide a reliable and sustainable source of electricity, reduce operating costs, and demonstrate a commitment to environmental responsibility.
Q: Can solar energy systems be used in areas with limited access to solar energy publications and resources?
Yes, solar energy systems can still be used in areas with limited access to solar energy publications and resources. While access to information and resources can be helpful in understanding and maximizing the benefits of solar energy, it is not a prerequisite for utilizing solar energy systems. Basic knowledge of solar energy, combined with the availability of solar panels and equipment, can still enable individuals and communities to harness solar power for their energy needs. Additionally, local organizations, government initiatives, and international assistance programs can play a vital role in providing support and knowledge transfer to these areas, helping them overcome the limitations of accessing solar energy publications and resources.
Q: How does the size of a solar energy system affect its cost?
The size of a solar energy system directly affects its cost. Generally, larger systems require more solar panels and other components, resulting in higher upfront costs. However, larger systems also have the potential to generate more electricity, leading to greater savings on utility bills over time. Additionally, larger systems may be eligible for larger incentives and tax credits, further reducing their overall cost.
Q: Can solar energy systems be used in areas with limited access to training programs?
Yes, solar energy systems can be used in areas with limited access to training programs. While training programs can be helpful in understanding the technical aspects of installing and maintaining solar energy systems, there are various resources available that can still enable individuals to utilize solar energy. Online tutorials, manuals, and guides can provide valuable information on the installation and operation of solar systems. Additionally, local experts or organizations can offer assistance and support in areas with limited access to formal training programs, ensuring the successful implementation of solar energy systems.
Q: How does solar energy storage work?
Solar energy storage works by capturing and storing the energy produced by solar panels during periods of sunlight. This stored energy can then be used during times when sunlight is not available, such as during the night or on cloudy days. Typically, solar energy storage systems use batteries to store the excess energy generated by the solar panels. These batteries store the energy in the form of chemical potential, which can be converted back into electricity when needed. This allows for a continuous and reliable supply of solar energy, even when the sun is not shining.
Q: Can solar panels be installed on facades or windows?
Yes, solar panels can be installed on facades or windows. Traditional solar panels are typically installed on rooftops to maximize sunlight exposure. However, there are now innovative solar technologies that allow for the integration of solar panels into building facades or windows. These technologies, known as building-integrated photovoltaics (BIPV) or building-applied photovoltaics (BAPV), enable the use of solar panels as part of the building's design and architecture. BIPV systems can be seamlessly integrated into the building's facade, replacing traditional building materials such as glass or cladding. This allows for the generation of solar energy while maintaining the aesthetic appeal of the building. BAPV systems, on the other hand, involve the installation of solar panels onto existing windows or as window coverings. These panels can be transparent or semi-transparent, allowing natural light to penetrate while generating electricity. Solar panels on facades or windows offer several advantages. Firstly, they provide additional surface area for solar energy generation, making the most of available space in urban environments where rooftop installations might be limited. Secondly, they can help to reduce a building's energy consumption by generating electricity on-site, thereby lowering reliance on the grid. Lastly, they contribute to the overall sustainability and eco-friendliness of the building, promoting renewable energy use and reducing carbon emissions. However, there are some considerations to keep in mind when installing solar panels on facades or windows. Factors such as the building's orientation, shading, and the quality of natural light need to be carefully evaluated to ensure optimal energy production. Additionally, the structural integrity of the building must be assessed to determine if it can support the additional weight of the solar panels. In conclusion, solar panels can indeed be installed on facades or windows through BIPV or BAPV systems. These innovative technologies offer numerous benefits such as increased energy generation, reduced energy consumption, and enhanced building sustainability. However, proper evaluation and planning are essential to ensure the effectiveness and feasibility of such installations.
Q: How long does it take for a solar energy system to pay for itself?
The payback period for a solar energy system varies based on several factors such as the initial cost, location, energy usage, and available incentives. On average, it takes around 5-10 years for a residential solar energy system to pay for itself through energy savings. However, this timeframe can be shorter in areas with high electricity costs and substantial government or utility incentives.

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