• Active and Passive Solar Energy Systems - CNBM On Grid System 6000W with Certificate UL TUV CE System 1
  • Active and Passive Solar Energy Systems - CNBM On Grid System 6000W with Certificate UL TUV CE System 2
Active and Passive Solar Energy Systems - CNBM On Grid System 6000W with Certificate UL TUV CE

Active and Passive Solar Energy Systems - CNBM On Grid System 6000W with Certificate UL TUV CE

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Loading Port:
Shanghai
Payment Terms:
TT OR LC
Min Order Qty:
100 watt
Supply Capability:
1000 watt/month

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Specification

Application:
Home
Output Voltage (V):
220

CNBM On Grid System 6000W  with Certificate UL TUV CE

Product description

They range from small residential and commercial rooftop systems to large utility-scale solar power stations. Unlike stand-alone power systems, a grid-connected system rarely includes an integrated battery solution, as they are still very expensive. When conditions are right, the grid-connected PV system supplies the excess power, beyond consumption by the connected load, to the utility grid.

Connection of the photovoltaic power system can be done only through an interconnection agreement between the consumer and the utility company. The agreement details the various safety standards to be followed during the connection.[4]


Systems such as Net Metering and Feed-in Tariff which are offered by some system operators, can offset a customers electricity usage costs. In some locations though, grid technologies cannot cope with distributed generation feeding into the grid, so the export of surplus electricity is not possible and that surplus is earthed.

Grid-connected PV systems are comparatively easier to install as they do not require a battery system.[1][6]

Grid interconnection of photovoltaic (PV) power generation systems has the advantage of effective utilization of generated power because there are no storage losses involved.[7]

A photovoltaic (in short PV) module is a packaged, connected assembly of typically 6×10 solar cells. Solar Photovoltaic panels constitute the solar array of a photovoltaic system that generates and supplies solar electricity in commercial and residential applications. Each module is rated by its DC output power under standard test conditions, and typically ranges from 100 to 365 watts. The efficiency of a module determines the area of a module given the same rated output – an 8% efficient 230 watt module will have twice the area of a 16% efficient 230 watt module. There are a few commercially available solar panels available that exceed 22% efficiency[1] and reportedly also exceeding 24%.[2][3] A single solar module can produce only a limited amount of power; most installations contain multiple modules. A photovoltaic system typically includes a panel or an array of solar modules, a solar inverter, and sometimes a battery and/or solar tracker and interconnection wiring.

The price of solar power, together with batteries for storage, has continued to fall so that in many countries it is cheaper than ordinary fossil fuel electricity from the grid (there is "grid parity").[4]





CNBM On Grid System 6000W  with Certificate UL TUV CE

Application

Industrial 

Commercial

Residential

Feature

Residential, grid-connected rooftop systems which have a capacity more than 10 kilowatts can meet the load of most consumers.[2] They can feed excess power to the grid where it is consumed by other users. The feedback is done through a meter to monitor power transferred. Photovoltaic wattage may be less than average consumption, in which case the consumer will continue to purchase grid energy, but a lesser amount than previously. If photovoltaic wattage substantially exceeds average consumption, the energy produced by the panels will be much in excess of the demand. In this case, the excess power can yield revenue by selling it to the grid. Depending on their agreement with their local grid energy company, the consumer only needs to pay the cost of electricity consumed less the value of electricity generated. This will be a negative number if more electricity is generated than consumed.[3] Additionally, in some cases, cash incentives are paid from the grid operator to the consumer.

Packaging

With carton and box

Q:How does the location of a solar energy system affect its performance?
The location of a solar energy system significantly affects its performance. Solar panels function optimally in areas with abundant sunlight and minimal shading. Regions with high levels of direct sunlight, such as deserts or open plains, are ideal for maximizing solar energy production. Additionally, the tilt and orientation of the panels should be optimized to capture the most sunlight throughout the day. Factors like latitude, climate, and local weather patterns also play a role in determining the efficiency of a solar energy system. Ultimately, choosing the right location can greatly enhance the overall performance and output of a solar energy system.
Q:What are the different installation requirements for solar energy systems?
The installation requirements for solar energy systems can vary depending on the specific type and size of the system, as well as the location and local regulations. However, there are some general installation requirements that apply to most solar energy systems. Firstly, a suitable location for the installation of solar panels is crucial. Ideally, the panels should be installed in an area that receives a significant amount of direct sunlight throughout the day. The roof of a building is a common location for solar panel installation, but ground-mounted systems are also possible. The roof or ground on which the solar panels will be installed must be structurally sound and able to support the weight of the panels. In the case of a roof-mounted system, the roof should be in good condition and able to handle the added weight and potential wind loads. If the roof requires repairs or reinforcement, these should be addressed prior to installation. In terms of orientation and tilt, the solar panels should be positioned to maximize their exposure to sunlight. In most cases, the panels should face south in the northern hemisphere or north in the southern hemisphere to receive the most sunlight. The optimal tilt angle will depend on the latitude of the installation site, and it should be adjusted accordingly. The electrical wiring and connections for the solar energy system should be properly installed and comply with local electrical codes and regulations. This includes the use of appropriate wiring, junction boxes, and disconnect switches. It is recommended to hire a licensed electrician to handle the electrical aspects of the installation. Depending on the specific system, additional components such as inverters, batteries, and charge controllers may be required. These components should be properly sized and installed according to the manufacturer's instructions and local regulations. Finally, it is important to obtain any necessary permits and approvals from local authorities before installing a solar energy system. This may include building permits, electrical permits, and inspections to ensure compliance with safety and quality standards. In summary, the installation requirements for solar energy systems involve selecting a suitable location, ensuring structural integrity, optimizing orientation and tilt, complying with electrical codes, installing additional components as needed, and obtaining necessary permits and approvals. It is recommended to work with a qualified solar installer who can provide expert guidance and ensure a safe and efficient installation.
Q:Can solar energy systems be used in areas with high levels of dust or sandstorms?
Solar energy systems can indeed be utilized in regions with significant amounts of dust or sandstorms. Although these natural occurrences can momentarily decrease the efficiency of solar panels by obstructing sunlight, there are various steps that can be taken to mitigate their impact. Firstly, it is crucial to regularly clean and maintain solar panels to eliminate accumulated dust and debris, ensuring the maximum absorption of sunlight. This can be achieved through manual cleaning or by utilizing automated cleaning systems that employ water or brushes to keep the panels pristine. Secondly, there are advanced panel designs and coatings available that minimize the adherence of dust particles and facilitate effortless cleaning. These technologies enable panels to self-clean or reduce the accumulation of dust, guaranteeing optimal performance even in dusty environments. Additionally, proper installation and positioning of solar panels play a significant role in minimizing the impact of dust or sandstorms. By tilting the panels at an appropriate angle and maintaining sufficient ground clearance, the accumulation of dust can be minimized. Furthermore, employing protective measures such as fences, windbreakers, or enclosures around the solar energy systems can shield the panels from strong winds and blowing sand during sandstorms. These measures effectively prevent physical damage to the panels and maintain their functionality. In conclusion, although dust or sandstorms may present temporary obstacles to solar energy systems, with proper maintenance, cleaning, panel design, positioning, and protective measures, solar energy can still be effectively harnessed in areas with high levels of dust or sandstorms.
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 of solar panels, solar power plants are being built around the world to generate electricity on a massive scale. These power plants can be grid-connected and provide clean and renewable energy to meet the increasing demand for electricity.
Q:How does the efficiency of solar panels vary across different installation locations?
The efficiency of solar panels varies across different installation locations due to various factors such as the amount of sunlight received, the angle and orientation of the panels, shading, temperature, and local weather conditions.
Q:Can solar energy systems be used for powering off-grid sustainable communities?
Yes, solar energy systems can definitely be used for powering off-grid sustainable communities. Solar panels can generate electricity by converting sunlight into usable energy, providing a reliable and renewable source of power. These systems can be installed in remote areas where access to the conventional power grid is limited or non-existent, allowing off-grid communities to become self-sufficient and sustainable. Solar energy is clean, emission-free, and requires minimal maintenance, making it an ideal solution for powering off-grid communities and promoting sustainable development.
Q:Can solar energy systems be used in areas with limited government support?
Yes, solar energy systems can be used in areas with limited government support. In fact, solar energy often becomes a preferred option in such areas due to its decentralized nature and cost-effectiveness. Off-grid solar systems can be installed to provide electricity to homes, businesses, and communities without relying on government infrastructure. Additionally, community-led initiatives, private investments, and international aid programs can help facilitate the adoption of solar energy systems in regions with limited government support.
Q:Can solar panels be installed on floating platforms or structures?
Yes, solar panels can be installed on floating platforms or structures. In fact, floating solar, also known as floating photovoltaic (FPV) systems, is a growing trend in renewable energy. These systems are installed on bodies of water such as lakes, reservoirs, and even oceans. Floating solar panels offer several advantages, including increased efficiency due to the cooling effect of water and the ability to utilize unused water surfaces. Additionally, they can provide renewable energy in areas with limited land availability, making them a viable solution for expanding solar power generation.
Q:Can solar energy systems reduce electricity bills?
Yes, solar energy systems can reduce electricity bills. By harnessing the power of the sun to generate electricity, homeowners and businesses can significantly offset their reliance on grid-supplied electricity, resulting in lower utility bills.
Q:How do solar energy systems affect the reliability of the electrical grid?
The electrical grid's reliability can be influenced both positively and negatively by solar energy systems. On the positive side, these systems can assist in diversifying the sources of energy used for generating electricity, ultimately reducing reliance on traditional fossil fuels. This diversification has the potential to enhance the overall stability and reliability of the electrical grid. Moreover, solar energy systems can aid in decreasing the demand peak on the grid. When solar panels are most productive during daylight hours, they generate electricity that can be directly utilized by nearby buildings or fed back into the grid. This helps alleviate stress on the grid during periods of high demand, subsequently reducing the likelihood of power outages or blackouts. However, solar energy systems do present challenges to grid reliability. One of the primary concerns is the intermittent nature of solar power generation. Solar panels only produce electricity when the sun is shining, which means that their output is subject to variations caused by weather conditions and the time of day. This intermittency makes it difficult to match supply with demand, especially during cloudy or nighttime hours, resulting in potential imbalances or fluctuations in the grid. To tackle this issue, grid operators must carefully manage the integration of solar energy systems into the electrical grid. This involves using advanced forecasting and monitoring technologies to accurately predict solar power generation and plan for any potential fluctuations. Additionally, energy storage systems, such as batteries, can be deployed to store excess solar energy during periods of high generation and release it during times of low generation, thereby smoothing out the intermittent nature of solar power. Overall, although solar energy systems bring numerous benefits to the electrical grid, such as diversifying energy sources and reducing peak demand, they also present challenges related to intermittency. By embracing advanced technologies and implementing effective grid management strategies, these challenges can be mitigated, ultimately ensuring a reliable and resilient electrical grid.

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