• CNBM Solar Home System Roof System Capacity-25W-3 System 1
  • CNBM Solar Home System Roof System Capacity-25W-3 System 2
  • CNBM Solar Home System Roof System Capacity-25W-3 System 3
CNBM Solar Home System Roof System Capacity-25W-3

CNBM Solar Home System Roof System Capacity-25W-3

Ref Price:
$72.00 / set get latest price
Loading Port:
Shanghai
Payment Terms:
TT or LC
Min Order Qty:
10 set
Supply Capability:
30000 set/month

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Introduction of Solar Home System

Solar Home System is composed by Solar Panels, Inverters, Charger Controller, Battery, Cable, Mounting Bracket, which is applied to produce electricity for home use.

 

Solar Home System is quite suitable product in urban area and the place which is short of electricity. Our Small Solar Home System own great benifits compare with other kind electricity resources:

  

Electricity generating cost of Solar Home System is much cheaper than diesel engine. Beside low electricity making cost, solar system products also have the features of noiseless, clean energy, environmentally friendly and can access to many different electric appliance.

 

 

Working Principle of Solar Home System

 

The stand alone Solar Home System is an off-grid solar system which uses batteries to store the solar energy. Stand alone solar system solutions design for those who are not able or willing to connect to electricity grid.

  

CNBM Solar Home System Roof System Capacity-25W-3

CNBM Solar Home System Roof System Capacity-25W-3

CNBM Solar Home System Roof System Capacity-25W-3

 

Terms and Conditions

1. Trade terms: FOB Shanghai

2. Payment terms: 30% T/T, balanced before shipment/ LC at sight before shipment. Actual Terms can be negotiated for big order.

3. Package: Exported standard package suitable for tough handling and sea transport.

4. Delivery: Goods to be ready within 10~30 days depending on order quantity.

5. Warranty: 10 years for solar panel, 2 years for controller/inverter/battery.

 

FAQ

Q: Required mainly certificates (CE&IEC/TUV/RoHS)?

A: Our products are certificated by CE RoHS, IEC, ISO, TUV, UL etc.

Q:What is the difference between a solar energy system and a solar thermal system?
Solar energy systems and solar thermal systems both harness energy from the sun, but they differ in their methods of conversion and utilization. A solar energy system, which is also known as a photovoltaic (PV) system, utilizes solar panels composed of photovoltaic cells to directly convert sunlight into electricity. These panels contain semiconductor materials that generate an electric current when exposed to sunlight. The electricity produced by the PV system can be used to power various electrical devices, including lights, appliances, and even entire houses or buildings. It can also be stored in batteries for future use or fed back into the grid. On the other hand, a solar thermal system primarily focuses on utilizing the sun's energy to heat water or air. This system typically consists of solar collectors that absorb sunlight and convert it into heat energy. The accumulated heat is then transferred to a fluid, usually water or anti-freeze, that circulates throughout the system. In a water-based solar thermal system, the heated fluid can be directly used for domestic hot water or space heating purposes. In contrast, an air-based solar thermal system uses the heated air to warm indoor spaces. To summarize, the primary distinction between a solar energy system and a solar thermal system lies in their methods of converting and utilizing solar energy. A solar energy system directly converts sunlight into electricity, while a solar thermal system converts sunlight into heat energy for heating water or air.
Q:Can solar energy systems be used in areas with frequent power outages?
Yes, solar energy systems can be used in areas with frequent power outages. Solar panels generate electricity from sunlight, which means they can operate independently of the grid. By using batteries to store excess energy, solar systems can provide power during nighttime or when the grid is down. This makes them a reliable solution for areas with unreliable or frequent power outages.
Q:Can solar energy systems be used in disaster-prone areas?
Certainly, solar energy systems have the potential to be utilized in areas prone to disasters. In reality, they can prove particularly advantageous in such regions. Conventional power grids often prove to be fragile and susceptible to damage during natural calamities such as hurricanes, earthquakes, or floods. Consequently, these events can result in prolonged periods without electricity, hindering relief and recovery efforts. On the other hand, solar energy systems are decentralized and can operate independently from the grid. These systems consist of solar panels that convert sunlight into electricity, which can then be stored in batteries for use during power outages. This enables critical facilities, including hospitals, emergency response centers, and shelters, to function even when the grid is not operational. Solar energy systems can provide a reliable source of power for lighting, communication, refrigeration, and medical equipment, significantly enhancing the resilience and efficacy of disaster response. Moreover, solar energy systems can also be employed to power water pumps, ensuring that communities have access to clean water during crises. This is particularly crucial in disaster-prone areas where access to safe drinking water can be severely compromised. Solar-powered pumps can extract water from wells, rivers, or other sources, ensuring a consistent supply for drinking, sanitation, and hygiene purposes. Additionally, solar energy systems can contribute to long-term recovery efforts in disaster-prone areas. By reducing reliance on fossil fuels and conventional power grids, they can aid in the creation of sustainable and resilient communities. Solar panels can be installed on rooftops or in open spaces, utilizing the abundance of sunlight resources. This not only reduces greenhouse gas emissions and mitigates climate change but also provides a dependable and cost-effective source of energy for homes, businesses, and public infrastructure. In conclusion, solar energy systems can effectively serve disaster-prone areas by providing dependable power, supporting critical services, and promoting long-term resilience. By harnessing the power of the sun, these systems offer a sustainable and decentralized solution to energy needs, ensuring that communities can withstand and recover from natural disasters more effectively.
Q:What is the role of maximum power point tracking (MPPT) in a solar energy system?
The role of maximum power point tracking (MPPT) in a solar energy system is to optimize the efficiency and output of the system by continuously tracking and adjusting the operating point of the solar panels to maximize their power output. By ensuring that the solar panels operate at their maximum power point, MPPT enables the system to harvest the maximum amount of energy from the sunlight, resulting in increased overall system performance and improved energy production.
Q:What is the role of solar energy monitoring systems?
The purpose of solar energy monitoring systems is to track and assess the performance of solar energy systems. These systems gather real-time information on sunlight received, energy generated, and energy consumed. By continuously monitoring the performance of solar panels, inverters, and other components, these systems aid in identifying any issues or inefficiencies in the system. Solar energy monitoring systems offer valuable insights into the overall health and performance of the solar energy system. They allow system owners or operators to identify underperforming panels, shading problems, or faulty equipment. This enables prompt maintenance or repairs, reducing downtime and maximizing energy production and financial returns. Additionally, these monitoring systems can provide data on energy consumption patterns, helping users understand their energy usage and optimize it accordingly. By having detailed real-time and historical data, users can make more informed decisions about energy consumption and take steps to reduce their carbon footprint. Solar energy monitoring systems play a critical role in ensuring the long-term success and efficiency of solar energy systems. They provide valuable data and insights that contribute to system optimization, maintenance, and overall performance enhancement. Ultimately, these systems aid in maximizing the benefits of solar energy, both economically and environmentally.
Q:Can solar energy systems be used in extreme weather conditions?
Yes, solar energy systems can be used in extreme weather conditions. While their performance may be affected by factors such as heavy rain, snow, or cloud cover, advancements in solar technology have made them more resilient and efficient in extreme weather conditions. Additionally, solar panels can be designed and installed to withstand high winds, hail, and other challenging weather conditions.
Q:Can solar energy systems be used for powering electric boats or yachts?
Solar energy systems have the capability to power electric boats or yachts. By installing solar panels on the boat's roof or deck, sunlight can be captured and converted into electricity. This electricity is then utilized to operate the boat's propulsion system and other electrical equipment on board. The popularity of solar-powered electric boats or yachts is increasing due to their environmentally friendly nature and the potential for fuel cost savings. However, the effectiveness of solar power in powering a boat relies on factors such as solar panel size, sunlight availability, and the boat's energy requirements. It is crucial to ensure that the solar energy system is appropriately sized and designed to meet the specific power needs of the boat or yacht. In addition, excess energy generated during peak sunlight hours can be stored in battery storage systems, enabling a continuous power supply even when sunlight is not accessible. Overall, solar energy systems offer a sustainable and renewable power source for electric boats or yachts, decreasing dependency on fossil fuels and minimizing environmental impact.
Q:Are there any risks of electrical short circuits with solar energy systems?
Yes, there are risks of electrical short circuits with solar energy systems. Just like any other electrical system, solar energy systems can be susceptible to short circuits. A short circuit occurs when there is an unintended path of low resistance that allows a large amount of current to flow. This can happen due to various reasons such as faulty wiring, damaged components, or improper installation. Short circuits can result in overheating, electrical fires, or damage to the system. The high current flow generated by a short circuit can cause wires to melt, insulation to burn, and can even damage the solar panels themselves. In extreme cases, short circuits can lead to explosions or other serious safety hazards. To mitigate the risks of short circuits, it is crucial to ensure proper installation by qualified professionals who follow safety guidelines and adhere to local electrical codes. Regular maintenance and inspection of the system are also important to identify and address any potential issues. It is recommended to have a circuit breaker or fuse installed within the system to automatically disconnect the circuit in case of a short circuit. Additionally, the use of high-quality components and wiring that are specifically designed for solar energy systems can help minimize the risks of short circuits. It is also important to follow manufacturer's instructions and guidelines for system maintenance and operation. Overall, while the risks of electrical short circuits with solar energy systems exist, they can be effectively managed and minimized through proper installation, regular maintenance, and adherence to safety guidelines.
Q:Can solar energy systems be used in areas with limited roof space due to chimneys or vents?
Indeed, solar energy systems can still function effectively in areas where roof space is restricted due to chimneys or vents. Although solar panels typically require unobstructed roof space to achieve optimal efficiency, there are alternative solutions accessible for areas with limited roof space. One feasible approach involves installing solar panels on adjacent flat or sloped surfaces, such as the ground or a nearby wall. These ground-mounted or wall-mounted solar systems can be adjusted to maximize exposure to sunlight, ensuring that the panels generate a substantial amount of energy. Another solution entails utilizing solar technologies specifically designed for limited roof space. For instance, solar tiles can be seamlessly integrated into the roof itself, replacing conventional roofing materials while simultaneously harnessing solar energy. These solar tiles can be installed around chimneys, vents, or any other obstructions on the roof, efficiently utilizing the available space. Furthermore, solar energy systems can be combined with other renewable energy sources, such as wind turbines or geothermal systems, to compensate for the limited roof space. By diversifying the sources of renewable energy, it becomes possible to meet the energy requirements of an area even with restricted roof space. In conclusion, despite the challenges posed by limited roof space due to chimneys or vents, there are still viable options for employing solar energy systems. By exploring alternative mounting options, utilizing solar tiles, or combining solar with other renewable energy sources, it becomes feasible to harness solar power in areas with restricted roof space.
Q:How much space is needed to install a solar energy system?
The space required for installing a solar energy system varies depending on the size and efficiency of the system. On average, a typical residential solar panel installation can require anywhere from 100 to 400 square feet of roof space. However, ground-mounted systems may require larger areas, ranging from a few hundred to several thousand square feet. The specific space requirements should be determined by conducting a site assessment and considering factors such as energy needs, location, sunlight availability, and panel orientation.

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