• Wind-PV(Diesel)Hybrid Power System System 1
  • Wind-PV(Diesel)Hybrid Power System System 2
  • Wind-PV(Diesel)Hybrid Power System System 3
Wind-PV(Diesel)Hybrid Power System

Wind-PV(Diesel)Hybrid Power System

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Loading Port:
Tianjin
Payment Terms:
TT OR LC
Min Order Qty:
2 set
Supply Capability:
30 set/month

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Specification List

NO.

Name

Specification

Quantity

1

Containter

20*8*8.6ft

1

2

Solar Module

240W

30

3

Wind Generator

500W

2

4

Battery

12V120Ah

20

5

Controller

120V/40A

1

6

Inverter

6000W/AC230V

1

7

Diesel

5000W/AC230V

1

8

Air Conditioner

1000W

1

9

Cables

10

Others

 

 

 

  

 

 

 

2System Principle

 

 

 

 

 

 

 

 

 

 

 

 


3System Advantage

 

Extend battery

life

Reduce the dependence of climate system

24 hour uninterrupted power supply

Low maintenance cost

 

 

 

 

 

 

 


4Product Specification

(A) Solar Module

Rated Power

240W

Vmppt

29.4V

Imppt

8.17A

Voc

37.4V

Isc

8.55A

Power Temp.Coeff(/)

-0.47%

Ambient Temp

-40-85

Power Tolerance

±3%

NOCT

46±2

(B) Battery

Rated Voltage

240V

Rated Capacity (C10)

120Ah

Weight

35kg

Dimension

Lenth

406mm

Width

174mm

Height

209mm

Capacity

C120

150Ah

C30

138Ah

C10

120Ah

C1

78Ah

Overcharging Protect Voltage

14.4V/12V

Cut off Voltage

10.8V/12V

(C) Wind Generator

Rated Power

500W

Rated Wind Speed

13m/s

Cut-in Speed

4m/s

Cut-out Speed

25m/s

Survival Wind Speed

45m/s

Mill Diameter

1.36m

Mill Height

1.05m

Mill Weight

90kg

Rated Voltage

AC 42V

Rated Current

AC 6.9A

Protection Level

IP54

 

 

(D) Controller

Solar Controller

Rated Power

7.2KW

MPPT

DC120V-350V

Rated Voltage

DC 120V

Rated Current

60A

Conversion Efficiency

93%

Overload Capacity

120% output, 30mins

Wind Generator Controller

Rated Power

500W

Maximum Power

750W

Rated Voltage

AC 42V

E) Inverter

Rated Power

6000W

Rated Input Voltage

DC 120V

Rated Input Current

DC 50A

Rated Output Voltage

AC 230V

Rated Frequency

50Hz

Rated Current

AC 26.1A

Output Voltage PrecisionV

230±5%

Output Frequency PrecisionHz

50±0.05

Overload Capacity

120%, 60S; 150%, 10S

Inverter Efficiency

80%


Q:How do solar energy systems impact homeowners insurance rates?
The impact of solar energy systems on homeowners insurance rates is contingent upon the insurance provider and specific policy terms. Generally, the installation of a solar energy system can augment a home's value, leading to potentially higher insurance premiums due to increased replacement costs. On the contrary, many insurance companies extend discounts or incentives to homeowners with solar panels, as these systems are regarded as advantageous features that mitigate property damage risk and reduce energy expenses. Moreover, some policies encompass coverage for the solar panels themselves, safeguarding homeowners from potential damage or theft. It is imperative for homeowners to thoroughly assess their insurance policy and engage in a discussion with their insurance provider to gain a comprehensive understanding of how the installation of a solar energy system might affect their rates and coverage.
Q:How do I calculate the return on investment for a solar energy system?
To determine the return on investment (ROI) of a solar energy system, several factors need to be taken into account. Firstly, the initial cost of the system, including the expenses associated with purchasing and installing solar panels, inverters, wiring, and any additional equipment or installation charges, must be calculated. Next, it is crucial to estimate the annual savings or income generated by the system. This can be achieved by assessing the amount of money saved or earned each year by utilizing solar energy instead of relying solely on conventional energy sources. To do this, one can estimate the kilowatt-hour (kWh) production of the system and multiply it by the local electricity rate. Additionally, potential feed-in tariffs or tax credits that may be applicable should be taken into consideration. Afterwards, the payback period needs to be determined. This involves dividing the initial cost by the annual savings or income to ascertain how many years it will take to recoup the investment. For instance, if the initial cost amounts to $20,000 and the annual savings are $2,000, the payback period would be 10 years ($20,000 / $2,000). Finally, the ROI can be calculated. Once the payback period is established, it can be subtracted from the projected lifespan of the solar energy system. The remaining years should then be divided by the payback period and multiplied by 100 to obtain the ROI percentage. For example, if the anticipated lifespan is 25 years and the payback period is 10 years, the ROI would be 60% ((25-10) / 10 * 100). It is important to note that this calculation serves as an estimation and does not take into account factors such as maintenance costs, inflation, or fluctuations in energy prices. Additionally, it is advisable to consider other benefits such as reduced carbon footprint and increased property value when evaluating the ROI of a solar energy system.
Q:What is the impact of roof color on the performance of solar panels?
The impact of roof color on the performance of solar panels is minimal. While darker roofs may absorb more heat, they do not significantly affect the overall efficiency or output of solar panels. The performance of solar panels primarily depends on factors such as the angle and orientation of the panels, the presence of shading, and the quality of the solar cells themselves.
Q:What is the impact of snow on the performance of solar panels?
The impact of snow on the performance of solar panels is generally negative. Snow accumulation on the surface of solar panels can block sunlight, reducing their efficiency and power output. Additionally, snow can create a layer of insulation, preventing the panels from generating electricity. However, the angle and tilt of the panels, as well as the temperature, can also influence the impact of snow.
Q:Can solar energy systems be used in areas with limited access to sunlight due to tall nearby buildings or trees?
Solar energy systems require direct sunlight to generate electricity. Therefore, areas with limited access to sunlight due to tall nearby buildings or trees may not be ideal for installing solar energy systems. The shading caused by these structures can significantly reduce the efficiency and effectiveness of solar panels. However, there are alternative solutions such as adjusting the panel placement, using tracking systems, or exploring other renewable energy options that can overcome some of these limitations.
Q:Can solar energy systems be used in powering printing presses or publishing houses?
Yes, solar energy systems can be used to power printing presses or publishing houses. Solar panels can generate electricity from sunlight, which can be used to power the various equipment and machinery required in printing or publishing processes. Additionally, solar energy systems can help reduce electricity costs and environmental impact, making them a sustainable and viable option for powering these operations.
Q:How does the distance between solar panels affect their performance?
The distance between solar panels can affect their performance in several ways. Firstly, if the panels are placed too close together, shading can occur, which reduces the amount of sunlight reaching the panels and decreases their overall efficiency. On the other hand, if the panels are spaced too far apart, there may be an increase in the amount of unused space, resulting in a lower energy output. Therefore, finding the optimal distance between solar panels is crucial to maximize their performance and ensure maximum energy generation.
Q:How does a solar thermal system convert sunlight into heat?
A solar thermal system converts sunlight into heat through the use of solar collectors or panels. These collectors, typically located on a roof or mounted on the ground, are designed to absorb and capture the sun's energy. They contain a fluid, usually water or a heat transfer fluid, that is heated as it circulates through the collectors. The absorbed heat is then transferred to a storage tank or used directly for various heating applications, such as heating water for domestic use or providing space heating in buildings.
Q:What is the impact of snow or ice on solar energy system performance?
Snow or ice can have a significant impact on the performance of solar energy systems. Snow covering the solar panels reduces their ability to absorb sunlight and convert it into electricity. Ice can also create a barrier that prevents sunlight from reaching the panels. Both snow and ice can cause a decrease in the overall energy production of the system. Additionally, the weight of accumulated snow or ice can potentially damage the panels or the mounting structure if not properly addressed. Regular maintenance and snow removal are essential to ensure optimal performance and longevity of solar energy systems in snowy or icy conditions.
Q:How do solar energy systems impact the overall sustainability of a home?
Solar energy systems have a significant positive impact on the overall sustainability of a home. By harnessing the power of the sun, these systems generate clean and renewable energy, reducing reliance on fossil fuels and decreasing greenhouse gas emissions. Solar panels promote energy efficiency, helping to lower electricity bills and save money in the long run. Additionally, solar energy systems contribute to the resilience of a home, enabling homeowners to be less dependent on the grid during power outages. Overall, solar energy systems play a vital role in enhancing the sustainability and environmental footprint of a home.

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