• Passive and Active Solar Energy Systems Solar MPPT 100/30 (30 A) Maximum Power Point Tracker System 1
  • Passive and Active Solar Energy Systems Solar MPPT 100/30 (30 A) Maximum Power Point Tracker System 2
  • Passive and Active Solar Energy Systems Solar MPPT 100/30 (30 A) Maximum Power Point Tracker System 3
Passive and Active Solar Energy Systems Solar MPPT 100/30 (30 A) Maximum Power Point Tracker

Passive and Active Solar Energy Systems Solar MPPT 100/30 (30 A) Maximum Power Point Tracker

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Loading Port:
China Main Port
Payment Terms:
TT or LC
Min Order Qty:
-
Supply Capability:
10000 unit/month

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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

 

Inverters convert low frequency main AC power to higher frequency for use in induction heating.

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.

 · 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 MPPT 100/30 (30 A) Maximum Power Point Tracker

 

 

 

 

 

 

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: Can solar energy systems be used in powering data centers?
Yes, solar energy systems can be used to power data centers. Solar panels can be installed on the rooftops or in nearby areas to generate electricity from sunlight, which can then be used to power the data center's operations. This renewable energy source not only reduces reliance on fossil fuels but also helps in reducing carbon emissions, making it an environmentally friendly option for powering data centers.
Q: Can solar energy systems be used for powering restaurants?
Yes, solar energy systems can definitely be used for powering restaurants. Solar energy systems, also known as photovoltaic (PV) systems, convert sunlight into electricity using solar panels. These panels can be installed on the rooftop or any other suitable location to capture sunlight. Restaurants typically have high energy demands due to the need for lighting, heating, cooling, and various kitchen appliances. By utilizing solar energy systems, restaurants can significantly reduce their reliance on traditional energy sources and lower their electricity bills. The electricity generated by solar panels can be used to power all aspects of a restaurant's operations, including lighting, refrigeration, cooking equipment, and HVAC systems. Excess electricity generated during peak sunlight hours can be stored in batteries for use during cloudy or nighttime periods, ensuring a continuous power supply. Moreover, solar energy is a clean and renewable source of power, which means it has minimal impact on the environment. Restaurants can showcase their commitment to sustainability and reduce their carbon footprint by adopting solar energy systems. This can also be a valuable marketing tool, attracting environmentally conscious customers who appreciate businesses that prioritize renewable energy. In conclusion, solar energy systems are a viable and efficient solution for powering restaurants. They provide a reliable and sustainable source of electricity, reduce operational costs, and demonstrate a commitment to environmental responsibility.
Q: Can solar energy systems be used in areas prone to earthquakes?
Yes, solar energy systems can be used in areas prone to earthquakes. Solar panels are designed to withstand various weather conditions, including seismic events. Additionally, unlike traditional power infrastructure, solar energy systems are decentralized, reducing the risk of large-scale power outages during earthquakes. However, it is important to ensure proper installation and maintenance to ensure the resilience of solar energy systems in earthquake-prone areas.
Q: Can a solar energy system be financed through a loan?
Yes, a solar energy system can be financed through a loan. Many financial institutions and government programs offer loans specifically for solar panel installation. These loans allow homeowners and businesses to spread out the cost of the solar system over a period of time while still reaping the benefits of renewable energy.
Q: Can a solar energy system be installed on a sports field or stadium?
Sports fields and stadiums have the capacity to install solar energy systems. In fact, many of these facilities worldwide have already adopted this renewable energy source to fulfill their energy requirements. Typically, these systems consist of solar panels that are positioned on the roofs or surrounding areas of the facility. The expansive surface area of sports fields and stadiums often makes them prime locations for solar panel installations. The advantages of incorporating a solar energy system into a sports field or stadium are plentiful. Firstly, it enables the facility to generate clean, renewable energy, reducing its dependence on traditional fossil fuels and diminishing its carbon footprint. This aligns with the growing global concern for environmental sustainability. Moreover, solar energy systems can yield substantial long-term energy cost savings for sports facilities. The electricity produced by solar panels can be utilized to power various aspects of the stadium, including lights, scoreboards, sound systems, and other equipment. Any excess energy can be redirected back into the power grid, potentially generating revenue for the facility through net metering or feed-in tariffs. Furthermore, installing a solar energy system on a sports field or stadium can serve as a powerful symbol of environmental awareness and sustainability. It has the potential to inspire and educate fans, athletes, and the broader community about the significance of renewable energy and the capacity of solar power to meet our energy needs. In conclusion, it is indeed feasible to install a solar energy system on a sports field or stadium, offering numerous advantages such as the generation of clean and renewable energy, reduced energy costs, and the promotion of environmental sustainability.
Q: Can solar energy systems be used in powering swimming pools or spas?
Certainly, swimming pools or spas can be powered by solar energy systems. Solar pool heating systems harness the sun's energy to warm the water in the pool or spa, presenting a more sustainable and economical option compared to traditional heating methods. Typically, these systems comprise solar collectors, a pump, and a filter. The solar collectors, typically positioned on the roof or ground, absorb sunlight and transfer its warmth to the pool water. The pump circulates the water through the collectors and returns it to the pool, ensuring a continuous flow of heated water. By utilizing a renewable energy source, solar energy systems for swimming pools and spas not only lower energy expenses but also contribute positively to the environment.
Q: What is the role of solar trackers in maximizing energy production?
Solar trackers play a crucial role in maximizing energy production by optimizing the positioning of solar panels to capture the maximum amount of sunlight throughout the day. These devices automatically adjust the angle and orientation of the solar panels to track the movement of the sun, ensuring that they are always aligned at the optimal angle to receive the most sunlight. By continuously monitoring the sun's position and adjusting the panels accordingly, solar trackers significantly enhance the efficiency and energy output of solar energy systems. The main advantage of solar trackers is their ability to increase the overall energy yield of solar installations by up to 25-35% compared to fixed-tilt systems. As the sun moves across the sky, solar trackers follow its path, allowing the panels to capture sunlight from dawn to dusk, maximizing the duration of exposure to direct sunlight. This extended exposure increases the total electricity generation from the panels, making solar trackers especially beneficial in regions with varying weather patterns, seasonal changes, or areas with limited daily sunshine hours. By continuously adapting to the sun's movement, solar trackers also minimize the impact of shading. Shadows from nearby objects, such as buildings, trees, or even clouds, can significantly reduce the efficiency of solar panels. However, solar trackers can mitigate the effects of shading by adjusting the panels' positioning to avoid or minimize the shadow's impact. This ensures that the solar panels are consistently exposed to direct sunlight, maximizing the energy production potential of the entire system. Furthermore, solar trackers can contribute to reducing the payback period of solar installations. With their ability to generate more electricity, solar trackers enhance the return on investment by increasing the overall energy production and subsequently reducing the time it takes to recoup the initial costs of the system. By optimizing energy production and improving the economic viability of solar installations, solar trackers are playing a crucial role in accelerating the adoption of renewable energy and transitioning towards a sustainable future.
Q: Can solar energy systems be used in areas with high levels of air humidity?
Yes, solar energy systems can be used in areas with high levels of air humidity. While high humidity can affect the efficiency of some components, such as reducing the effectiveness of solar panels, it does not render solar energy systems completely unusable. In fact, solar energy systems are deployed and successfully function in many high-humidity regions around the world. Additionally, advancements in technology and design have improved the performance of solar panels in humid conditions. For instance, anti-reflective coatings on the panels can help prevent moisture buildup and ensure better performance. Overall, while humidity may slightly impact the efficiency of solar energy systems, it does not prevent their use in areas with high levels of air humidity.
Q: Can solar energy systems be used in areas with limited access to solar monitoring systems?
Yes, solar energy systems can be used in areas with limited access to solar monitoring systems. While solar monitoring systems help optimize the performance and efficiency of solar energy systems by providing real-time data on solar radiation, energy production, and system health, they are not essential for the functioning of solar energy systems. Solar panels can still generate electricity in areas with limited monitoring systems, as long as they receive sufficient sunlight. While the absence of monitoring systems may limit the ability to track and troubleshoot system performance remotely, solar energy systems can still be installed and operated effectively in such areas.
Q: What happens to excess solar energy produced?
Excess solar energy produced is typically stored or fed back into the grid. There are various methods to store excess solar energy, such as using batteries, thermal energy storage systems, or converting it into hydrogen fuel. Battery storage systems are commonly used in residential or commercial solar installations, where excess energy can be stored in batteries during the day and used at night or during cloudy periods. In addition, excess solar energy can be fed back into the grid through a process known as net metering or feed-in tariffs. Net metering allows solar energy system owners to receive credit for the excess energy they produce, which can be used to offset the energy they consume from the grid during times when their solar system is not producing enough energy. Feed-in tariffs, on the other hand, provide financial incentives for solar energy producers to sell their excess energy back to the grid at a predetermined rate. By storing or feeding back excess solar energy, we can ensure that the solar power generated is not wasted and can be utilized efficiently, contributing to a more sustainable and renewable energy future.

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