• Solar MCU 2.0 Modular Central Unitm with high quality System 1
  • Solar MCU 2.0 Modular Central Unitm with high quality System 2
  • Solar MCU 2.0 Modular Central Unitm with high quality System 3
Solar MCU 2.0 Modular Central Unitm with high quality

Solar MCU 2.0 Modular Central Unitm with high quality

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Supply Capability:
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1, Product  desciption

                                          

Inverter circuits designed to produce a variable output voltage range are often used within motor speed controllers.

The DC power for the inverter section can be derived from a normal AC wall outlet or some other source. Control and feedback circuitry is used to adjust the final output of the inverter section which will ultimately determine the speed of the motor operating under its mechanical load.

Motor speed control needs are numerous and include things like: industrial motor driven equipment, electric vehicles, rail transport systems, and power tools. (See related: variable-frequency drive ) Switching states are developed for positive, negative and zero voltages as per the patterns given in the switching Table.

The generated gate pulses are given to each switch in accordance with the developed pattern and thus the output is obtained.

 

2, Features of  the  product

 

To do this, AC power is first rectified to provide DC power. The inverter then changes the DC power to high frequency AC power. Due to the reduction in the number of DC Sources employed, the structure becomes more reliable and the output voltage has higher resolution due to an increase in the number of steps so that the reference sinusoidal voltage can be better achieved.

This configuration has recently become very popular in AC power supply and adjustable speed drive applications. This new inverter can avoid extra clamping diodes or voltage balancing capacitors. There are three kinds of level shifted modulation techniques, namely:

 · Built-in 1 year data logger for system analysis

 

· Charge and discharge status display

 

· Acoustic load disconnect pre-warning

 

· Load status indication

 

· Choose between 5 load disconnect algorithms

 

· Boost/absorption/float PWM-regulation (series type)

 

· Integrated temperature compensation

 

· Covered terminals (up to 16 mm2 wire size)

 

· Full solid-state protection

 

 

The first thing to figure out is the length of road in need of street lights.

This can be a small entrance road only a couple hundred of feet long to miles of streets through an area. Does the area currently have any type of lighting available.

 What is the reason for needing street lights in this area

 

 

Is the electrical grid already nearby or would you need to call in the power company to bring in electrical lines.

 If the electric needs to be brought to the area, how much is this going to cost? Depending on how far the grid electric is from the location of the needed lighting, this can be quite expensive.

 

 

How much lighting is needed on the street? Do the lights need to be dark sky compliant.

Do the street lights need to run from dusk to dawn or for only a specified number of hours at night.

Are the street lights able to dim in the middle of the night and still provide enough lighting.

These questions need to be answered before you can decide on how many lights you will need to complete the project.

 

 

3, Product Image

 

 Solar MCU 2.0 Modular Central Unitm with high quality

 

 

 

 

 

 

4, Detailed Specification

 

INPUT

Input voltage range

185~265±5Vac

OUTPUT

Output voltage range

185~265±5Vac (AC mode) ,   230Vac (DC mode)

Output frequency (DC mode)

50Hz (48~54Hz) or 60Hz(58~64Hz), same as AC(AC mode)

50Hz ±0.3Hz (DC mode)

Wave form

Sine wave (DC Mode)

Transfer time

10ms. (Typical)

BATTERY

Rated charging current (max.)

45A

Norminal DC input voltage

12V

Min. DC start voltage

20V / 40V

PHYSICAL

Unit dimension (mm)

526*277*212

Master box dimension (mm)

620*350*370

Net weight (1pc, kg)

22.8

 

 

Q:How does the efficiency of solar panels vary across different climates?
Solar panel efficiency can differ in various climates due to a range of factors. The availability of sunlight is one of the key factors. Solar panels function by converting sunlight into electricity, so regions with higher levels of sunlight generally have higher solar panel efficiency. In hot and sunny climates like deserts or tropical areas, solar panels tend to perform exceptionally well. These regions receive intense sunlight, providing abundant energy for the panels to convert into electricity. Consequently, solar panels in these climates achieve higher efficiency levels. In contrast, cooler or cloudier climates may result in slightly lower solar panel efficiency. Cloud cover reduces the amount of sunlight reaching the panels, affecting their overall performance. Additionally, colder temperatures can impact the efficiency of solar panels, as they work best in warmer conditions. Nonetheless, solar panels are designed to function in diverse climates and can still generate electricity even in less sunny or colder regions. Technological advancements have led to the development of solar panels that can absorb sunlight even in low-light conditions, thereby increasing their efficiency in less favorable climates. Moreover, climate is not the sole determinant of solar panel efficiency. Other factors such as panel orientation, tilt angle, shading, and the quality of solar cells used also play a significant role. Proper installation and maintenance greatly influence the overall efficiency of solar panels, regardless of the climate. To summarize, solar panel efficiency varies across climates due to factors like sunlight intensity, cloud cover, and temperature. Although solar panels perform better in hot and sunny regions, advancements in technology enable them to generate electricity even in less favorable conditions. Proper installation, maintenance, and consideration of other factors are crucial in maximizing solar panel efficiency across different climates.
Q:How do solar energy systems impact energy efficiency measures?
Solar energy systems can significantly impact energy efficiency measures by reducing the reliance on traditional energy sources. By harnessing the sun's energy, solar systems provide a clean and renewable source of power, which in turn reduces the consumption of fossil fuels. This results in decreased greenhouse gas emissions and a more sustainable energy supply. Additionally, solar energy systems often encourage the adoption of energy-efficient practices, such as implementing energy-saving appliances or improving insulation, to maximize the benefits of solar power. Overall, solar energy systems play a crucial role in enhancing energy efficiency measures and promoting a greener and more sustainable future.
Q:Can solar energy systems be used for electric vehicle charging?
Yes, solar energy systems can be used for electric vehicle charging. Solar panels can generate electricity from the sun's energy, which can then be used to charge electric vehicles. This renewable energy source provides a sustainable and eco-friendly solution for powering electric vehicles.
Q:How do solar energy systems impact the electric utility industry?
Solar energy systems have a significant impact on the electric utility industry, both in terms of challenges and opportunities. Firstly, the widespread adoption of solar energy systems has led to a shift in the traditional energy generation model. As more households and businesses install solar panels on their roofs, they are becoming self-sufficient in generating electricity and are reducing their reliance on the grid. This means that electric utilities are experiencing a decrease in demand for their power, which can affect their profitability and necessitate a reevaluation of their business models. Additionally, the integration of solar energy systems into the grid presents technical challenges for electric utilities. Solar energy is intermittent and depends on weather conditions, which can create fluctuations in the supply of electricity. Utilities must invest in advanced grid management systems and technologies to ensure a stable and reliable power supply, even during periods of high solar generation or low demand. On the other hand, solar energy systems also offer opportunities for the electric utility industry. With the right policies and regulations in place, utilities can play a vital role in facilitating the growth of solar energy by incentivizing its adoption and integrating it into the grid. This could include offering net metering programs, where excess solar energy generated by customers can be fed back into the grid and credited against their future electricity bills. By embracing solar energy, utilities can diversify their energy sources, reduce carbon emissions, and contribute to a more sustainable energy future. Moreover, the expansion of solar energy systems can lead to job creation within the electric utility industry. As the demand for solar installations increases, there will be a need for skilled labor to design, install, and maintain these systems. This can help stimulate the economy and provide new employment opportunities. In conclusion, solar energy systems have a profound impact on the electric utility industry. While they present challenges in terms of decreased demand and technical integration, they also offer opportunities for utilities to embrace renewable energy, diversify their energy sources, and contribute to a more sustainable future. With proper planning and collaboration, the electric utility industry can adapt and thrive in the era of solar power.
Q:What is the role of trackers in solar energy systems?
The role of trackers in solar energy systems is to optimize the efficiency and output of solar panels by automatically adjusting their position and orientation throughout the day to follow the sun's movement. This enables the panels to capture the maximum amount of sunlight, resulting in increased energy production and improved overall system performance.
Q:Can a solar energy system be installed in an area with a high lightning risk?
Yes, a solar energy system can be installed in an area with a high lightning risk. However, additional precautions and safety measures must be taken during the installation process to protect the system from potential lightning strikes. This may include installing lightning protection systems, grounding equipment, and surge protectors to minimize the risk of damage.
Q:How does the tilt angle of solar panels affect their performance?
The tilt angle of solar panels affects their performance by influencing the amount of sunlight they receive. Adjusting the tilt angle helps to optimize the angle at which the sun's rays hit the panels, maximizing their energy output. A proper tilt angle ensures that the panels receive the maximum amount of sunlight throughout the day, leading to increased efficiency and better overall performance.
Q:Can solar energy systems be installed on flat surfaces?
Yes, solar energy systems can be installed on flat surfaces. While it is more common to install solar panels on angled surfaces to maximize sunlight absorption, flat surfaces can still be utilized for solar energy systems. Mounting systems can be used to tilt the panels towards the sun and optimize energy production even on flat surfaces.
Q:What is the impact of shading from nearby trees or buildings?
The surrounding environment and its inhabitants can be both positively and negatively affected by the shading caused by nearby trees or buildings. One of the primary positive impacts of shading is its ability to reduce direct sunlight and heat. Shading is especially advantageous in hot climates, as it helps lower temperatures and creates a more comfortable outdoor atmosphere. This is particularly beneficial in urban areas, where concrete and asphalt tend to absorb and radiate heat, contributing to the urban heat island effect. Furthermore, shading diminishes the need for air conditioning, resulting in energy savings and a decrease in greenhouse gas emissions. Shading also has favorable effects on plant life. Trees and buildings that provide shade act as protectors for delicate plants by preventing excessive sunlight, which can cause wilting or sunburn. This is particularly crucial for sensitive plants or those that thrive in cooler temperatures. However, shading can also have negative consequences. In residential areas, shading from nearby buildings or trees may restrict the amount of natural light that enters homes and gardens. This can lead to darker interiors and potentially hinder the growth of indoor plants. Insufficient sunlight can also impact human health, as exposure to natural light plays a vital role in regulating our circadian rhythms. Moreover, shading can inhibit the growth of grass, flowers, or other plants that require direct sunlight for photosynthesis. If a shaded area does not receive adequate light, it becomes susceptible to issues such as moss, fungus, or excess moisture. Additionally, shading can limit the amount of solar radiation that reaches solar panels, reducing their efficiency and energy production. When it comes to urban planning, it is crucial to consider the impact of shading from nearby trees and buildings. While shade can provide relief from heat and create more pleasant outdoor spaces, excessive shading can negatively affect the livability of an area. Striking a proper balance between sunlight and shade is crucial to ensure the well-being of both humans and the natural environment.
Q:What is a solar thermal system?
A solar thermal system is a type of technology that utilizes the sun's energy to heat water or air for various applications, such as space heating, water heating, or even electricity generation. It typically consists of solar collectors, which absorb sunlight and convert it into heat, and a system to store and distribute this thermal energy for use when needed.

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