• Emissivity Solar Collectors for Water Heater, Pressurized Emissivity Solar Collectors System 1
  • Emissivity Solar Collectors for Water Heater, Pressurized Emissivity Solar Collectors System 2
  • Emissivity Solar Collectors for Water Heater, Pressurized Emissivity Solar Collectors System 3
  • Emissivity Solar Collectors for Water Heater, Pressurized Emissivity Solar Collectors System 4
  • Emissivity Solar Collectors for Water Heater, Pressurized Emissivity Solar Collectors System 5
  • Emissivity Solar Collectors for Water Heater, Pressurized Emissivity Solar Collectors System 6
Emissivity Solar Collectors for Water Heater, Pressurized Emissivity Solar Collectors

Emissivity Solar Collectors for Water Heater, Pressurized Emissivity Solar Collectors

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Loading Port:
China main port
Payment Terms:
TT OR LC
Min Order Qty:
5 set
Supply Capability:
10000 set/month

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 Specification


manifold (inner)

red copper

manifold (exterior)

aluminum alloy

glass tube dimensions

58mm * 1800mm

daily efficiency

≥55%
 
 

heat preservation

72 hours

hail resistance

25mm

max pressure

7 bar

coating of vacuum tube

ALN/AIN-SS/CU

heat pipe

anti-freezing > -35 degree

certificate

Solar Keymark, EN12975,SRCC

 

Serious Product

 Models

L*W*H mm

Vacuum tube

Power output

Efficiency

Header mm

Frame

container loading 20FT/40HQ sets

Gross Weight kg

SHC-8

1917*910*133

58*1800*8pcs

939W

0.668

Φ35/1.0

AL alloy

 185/445

 27

SHC-10

1917*1130*133

58*1800*10pcs

1189W

159/385

33

SHC-12

1917*1350*133

58*1800*12pcs

1440W

149/358

40

SHC-15

1917*1680*133

58*1800*15pcs

1815W

120/290

49

SHC-18

1917*2010*133

58*1800*18pcs

2191W

100/242

59

SHC-20

1917*2230*133

58*1800*20pcs

2442W

87/210

66

SHC-22

1917*2450*133

58*1800*22pcs

2692W

83/202

72

SHC-24

1917*2670*133

58*1800*24pcs

2943W

77/188

79

 

Packaging & Delivery

Packaging Details:

Exporting Carton with big foaming protection 
  Packing size: 
  Heat pipe vacuum tube: 
  10pcs/ctn:197*34*425px 
  12pcs/ctn:197*28*600px 
  15pcs/ctn:197*34*600px 
  Manifold and bracket: 
  GSC15:/18/20:200*40450px 
  GSC22:200*16*500px 
  GSC25:205*16*20 
  GSC30:241*16*500px

Delivery Detail:

In 10-15 days

 

Loading Quantity

Model

Tube

Tube Q.T.Y

Loading Q.T.Y/40HQ

GSC15

58*1800mm

15pcs

315sets

GSC18

58*1800mm

18pcs

265sets

GSC20

58*1800mm

20pcs

248sets

GSC22

58*1800mm

22pcs

225sets

GSC25

58*1800mm

25pcs

200sets

GSC30

58*1800mm

30pcs

168sets

 

Details of solar collector:

Solar Collectors for Water Heater, Pressurized Solar Collector

Solar Collectors for Water Heater, Pressurized Solar Collector

Solar Collectors for Water Heater, Pressurized Solar Collector

Solar Collectors for Water Heater, Pressurized Solar Collector


Q: Can solar collectors be installed on the ground?
Yes, solar collectors can be installed on the ground. Ground-mounted solar systems are a popular option for residential, commercial, and utility-scale installations. They are designed to maximize solar energy absorption and can be easily adjusted for optimal sun exposure.
Q: Can solar collectors be used for generating electricity on warehouses?
Solar collectors have the capability to generate electricity on warehouses. These devices, also referred to as solar panels, are capable of being installed on the roof of warehouses in order to capture sunlight and transform it into usable electricity. Composed of photovoltaic cells, these panels absorb sunlight and produce direct current (DC) electricity. This DC electricity can then be converted into alternating current (AC) electricity by an inverter, which can power the electrical systems within the warehouse or even transmit surplus electricity back into the grid. By relying on renewable energy sources and emitting zero greenhouse gases, solar collectors represent an environmentally friendly and sustainable method of electricity generation. Furthermore, the installation of solar collectors on warehouses can assist businesses in reducing their reliance on fossil fuels, decreasing their electricity expenses, and contributing to a cleaner energy future.
Q: How do solar collectors impact cultural heritage?
Solar collectors can have both positive and negative impacts on cultural heritage. On one hand, the installation of solar collectors can help reduce carbon emissions and promote sustainable energy practices, which align with the preservation of cultural heritage for future generations. Additionally, the use of solar collectors can contribute to the development of eco-friendly and energy-efficient technologies, which can have positive implications for the overall conservation of cultural sites. On the other hand, the installation of solar collectors may alter the visual integrity of historical buildings or landscapes, potentially affecting the aesthetic value and authenticity of cultural heritage. Therefore, it is important to strike a balance between renewable energy goals and the preservation of cultural heritage when implementing solar collector projects.
Q: Can solar collectors be used in parking lots?
Yes, solar collectors can be used in parking lots. Installing solar collectors in parking lots can help generate clean and renewable energy by harnessing sunlight and converting it into electricity. This energy can be used to power lighting systems, electric vehicle charging stations, or even feed back into the grid. Additionally, solar collectors in parking lots can provide shaded areas for vehicles, reducing heat buildup and improving overall comfort for users.
Q: What is the cost of installing a solar collector system?
The cost of a solar collector system installation can fluctuate based on various factors. These factors encompass the system's size and capacity, the type of solar collectors utilized, the complexity of the installation procedure, and the installation location. On an average scale, the installation cost of a solar collector system can span from $10,000 to $30,000. However, it is crucial to acknowledge that this is merely a rough estimation and the actual cost can deviate higher or lower depending on the specific requirements and circumstances. To obtain an accurate cost estimate tailored to your specific needs, it is advisable to seek consultation from a professional solar contractor or installer. They will evaluate your energy requirements, conduct a thorough site survey, and furnish you with a detailed quotation encompassing the equipment cost, installation cost, and any additional components or permits necessary. Additionally, it is worth contemplating any possible financial incentives or tax credits that may be accessible for solar installations in your vicinity. These incentives can assist in offsetting the upfront costs and render the investment in a solar collector system more financially viable in the long run. All in all, even though there exists an initial cost associated with solar collector system installation, it is crucial to consider the long-term benefits such as reduced energy bills, heightened energy independence, and a diminished carbon footprint. Allocating resources towards solar energy can result in substantial savings and contribute to a more sustainable future.
Q: What is the impact of altitude on the performance of solar collectors?
The impact of altitude on the performance of solar collectors is significant. Altitude affects the performance of solar collectors primarily due to two factors: atmospheric pressure and temperature. At higher altitudes, the atmospheric pressure is lower compared to lower altitudes. This lower pressure affects the boiling point of water, which in turn affects the performance of solar thermal collectors. Solar thermal collectors utilize the sun's energy to heat a working fluid, usually water or a heat transfer fluid. At higher altitudes, the boiling point of water is lower, meaning that the working fluid may reach its boiling point at a lower temperature. This can result in reduced efficiency and performance of solar thermal collectors as the working fluid may prematurely boil and lose its ability to transfer heat effectively. Additionally, altitude affects the temperature of the surrounding air. Higher altitudes generally have colder temperatures compared to lower altitudes. This can impact the performance of solar photovoltaic (PV) collectors, which convert sunlight directly into electricity. Solar PV panels operate more efficiently at lower temperatures, and the colder air at higher altitudes can help dissipate heat more effectively, leading to improved performance. However, it's worth noting that the impact of altitude on solar collector performance can vary depending on the specific design and technology used. Different types of solar collectors may have different optimal operating conditions, and altitudes can affect each type differently. Therefore, it is crucial to consider the specific characteristics and requirements of the solar collectors being used when assessing the impact of altitude on their performance. In conclusion, altitude has a significant impact on the performance of solar collectors. Lower atmospheric pressure and colder temperatures at higher altitudes can affect the efficiency and optimal operating conditions of solar thermal and photovoltaic collectors. Understanding these effects is essential when designing and implementing solar energy systems at different altitudes to ensure optimal performance and energy production.
Q: Do solar collectors require backup heating systems?
Yes, solar collectors typically require backup heating systems for times when there is insufficient sunlight or during peak energy demand. Backup heating systems ensure a continuous supply of hot water or heat, especially during cloudy days or nighttime.
Q: Can solar collectors be used in agricultural areas?
Yes, solar collectors can certainly be used in agricultural areas. In fact, solar collectors have the potential to provide numerous benefits to agricultural operations. One of the main ways solar collectors can be utilized is through solar water pumping systems. These systems use solar energy to pump water for irrigation purposes, which is crucial for crop growth in agricultural areas. By harnessing the power of the sun, solar collectors can help reduce the reliance on traditional energy sources, such as fossil fuels, and provide a more sustainable and cost-effective solution for farmers. Additionally, solar collectors can be used to power various agricultural equipment and machinery. For example, solar energy can be used to operate electric fences, ventilation systems, or even provide electricity for farmhouses and barns. By utilizing solar power, farmers can reduce their electricity bills and have a more reliable source of energy, especially in remote or off-grid agricultural areas. Furthermore, solar collectors can also be used to generate electricity on a larger scale, which can then be used to power agricultural processing facilities or even sold back to the grid. This can be particularly beneficial for farmers who have large operations and require substantial amounts of energy. Moreover, the installation of solar collectors in agricultural areas can have environmental benefits. Solar energy is a clean and renewable source of power, and by using solar collectors, farmers can reduce their carbon footprint and contribute to the fight against climate change. In conclusion, solar collectors can certainly be used in agricultural areas, providing benefits such as water pumping for irrigation, powering agricultural equipment, generating electricity, reducing reliance on traditional energy sources, and helping to protect the environment.
Q: Is solar collector directly using solar energy?
Solar collectors are directly using solar energy. A solar collector is a device that converts radiant energy from the sun into heat.
Q: How do solar collectors impact social equity?
The impact of solar collectors on social equity is significant, as they offer numerous benefits that promote a fairer society. One of the most noteworthy impacts is the provision of affordable and clean energy, which helps alleviate the energy burden faced by low-income households. By allowing these households to generate their own electricity and reduce their reliance on traditional energy sources, solar collectors result in lower energy bills and increased financial savings. This is crucial for promoting social equity as it reduces the disproportionate energy costs that low-income communities often bear. Moreover, solar collectors also create opportunities for job growth and economic development. The installation and maintenance of solar panels require a skilled workforce, which can provide employment opportunities, particularly in communities that have been historically marginalized or economically disadvantaged. By supporting the growth of a clean energy workforce, solar collectors contribute to the creation of fair job opportunities, reducing income inequality and promoting social mobility. Furthermore, solar collectors have the potential to enhance energy resilience in vulnerable communities. During power outages or emergencies, solar energy can serve as a reliable source of electricity, ensuring that essential services like healthcare facilities, schools, and community centers remain operational. This resilience is particularly important in underserved communities that often face disproportionate impacts from natural disasters or other emergencies. Additionally, solar collectors can contribute to the democratization of energy access. By enabling individuals and communities to generate their own energy, solar collectors empower them to actively participate in their energy consumption decisions. This localized energy production can lead to greater energy independence, reduced reliance on centralized energy systems, and increased community engagement in sustainable practices. In conclusion, solar collectors have a positive influence on social equity by providing affordable and clean energy, creating job opportunities, enhancing energy resilience, and promoting the democratization of energy access. These benefits contribute to a more equitable society by reducing energy costs for low-income households, creating fair job opportunities, ensuring energy reliability in vulnerable communities, and empowering individuals and communities to participate in the transition toward sustainable energy.

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