• Solar Project No-pressurized Solar Collector Model SC-V System 1
  • Solar Project No-pressurized Solar Collector Model SC-V System 2
  • Solar Project No-pressurized Solar Collector Model SC-V System 3
Solar Project No-pressurized Solar Collector Model SC-V

Solar Project No-pressurized Solar Collector Model SC-V

Ref Price:
$500.00 - 650.00 / set get latest price
Loading Port:
Shanghai
Payment Terms:
TT or LC
Min Order Qty:
100 set
Supply Capability:
500 set/month

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1. Structure of Solar Project No-pressurized Solar Collector Model SC-V

This kind of solar collector is designed for commercial buildings,Suitable for schools, dormitories, hotels, bath centers and other public constructions as well.

It is composed by the following parts:

Solar Project No-pressurized Solar Collector Model SC-V

 

1.vacuum tube

2.dustproof rubber

3.polyurethane insulation

4.casing

5.fixed bolt

6.inner tank 

7. nozzle seal ring

Solar Project No-pressurized Solar Collector Model SC-V

 

2. Main Features of Solar Project No-pressurized Solar Collector Model SC-V

  • Food grade SUS304 inner tank, corrosion resistant for long service life.

  • Unpressurized, suitable for natural circulation system,in large collector area,easy to assemble and install.

  • Polyurethane insulation, High pressure foaming process, small heat conductivity coefficient, not easy to loss heat.

 

3. Solar Project No-pressurized Solar Collector Model SC-V Images

 Solar Project No-pressurized Solar Collector Model SC-V

 

4. Solar Project No-pressurized Solar Collector Model SC-V Specification

Model

SC-V-50-II

SC-V-60-II

Tube Qty(pcs)

50

60

Tube Pitch(MM)

75

75

Tube Diameter/ Length(MM)

φ58/1800

φ58/1800

Vacuum Tube Material

high borosilicate

glass 3.3

high borosilicate

glass 3.3

Thickness of Inner Tube/OuterTube(MM)

1.6/1.8

1.6/1.8

Inner tank Material / Thickness(MM)

SUS304/0.41

SUS304/0.41

Joint Specification

1″

1″

Insulation Material/ Thickness(MM))

Polyurethane/40

Polyurethane/40

Rated Pressure(MPa)

0.003

0.003

Working Temperature ℃

<100

<100

Capacity(L)

145

175

Collecting Area(㎡)

4.8

5.8

Gross Area(㎡)

7.72

8.24

Referral Traffic(L/min)

5.76

6.96

Intercept Efficiency η0

0.62

0.62

Heat Loss Coefficient a

3.0

3.0

Collector Net Weight(kg)

12.5

129.5

Horizontal installation size

Angle

15°

15°

a   (㎜)

2060

2435

b   (㎜)

1974

2349

c   (㎜)

1860

2335

d   (㎜)

2023

2360

e   (㎜)

2200

2550

f   (㎜)

770

860

G (㎜)

3715

3715

H (㎜)

3560

3560

H/2 (㎜)

1780

1780

 

5. FAQ

(1). Are the solar collectors noticeable on the roof?
If only the collector is mounted on the roof it should blend into the roof design quite well. Our solar collectors are very thin and can be flush mounted on a roof. From a distance they look somewhat like a skylight. You may have to check with your local council regarding building restrictions when installing your solar collector.

(2). Can the solar collectors be mounted on a flat surface?
Yes they may be mounted on a flat roof or on the ground by using a stainless steel Flat Roof Frame. The collector should be installed at a minimum of 20o angle to ensure optimal heat pipe operation.

(3). How do I protect my solar system during subzero temperatures?
If you have a system that is operating in areas with subzero temperatures, freeze protection must be implemented. The easiest means of preventing freezing is to use a controller with a low temperatures setting, so when the manifold temperature drops below a certain pre-set temperature (5oC/40oF), the pump will circulate, warming the collector with water from the bottom of the storage tank. The pump will not run continually, just periodically, the frequency of which will depend on the outside temperature. In extremely cold areas, a closed loop using a glycol/water mix may be appropriate.

Q:Can solar collectors be used for heating museums and cultural centers?
Yes, solar collectors can be used for heating museums and cultural centers. Solar thermal systems can harness the sun's energy to provide heat, which can then be used to warm up buildings. This sustainable and renewable energy source can help reduce heating costs and carbon emissions, making it an environmentally friendly option for heating cultural institutions.
Q:Are solar collectors suitable for heating large indoor spaces?
Yes, solar collectors can be suitable for heating large indoor spaces. By harnessing the power of the sun, solar collectors can generate significant amounts of heat energy, which can be used to warm up large areas. This renewable energy source offers an eco-friendly and cost-effective solution for heating purposes in indoor spaces. However, the efficiency and effectiveness may vary depending on factors such as climate, size of the collectors, insulation of the space, and energy requirements.
Q:Can solar collectors be used in combination with greenhouses or indoor farming systems?
Yes, solar collectors can indeed be used in combination with greenhouses or indoor farming systems. Solar collectors, such as photovoltaic panels or solar thermal collectors, can provide renewable energy to power the various systems within greenhouses or indoor farming setups. In greenhouses, solar collectors can be used to generate electricity for lighting, heating, ventilation, and irrigation systems. The electricity produced can be used to power artificial lighting during periods of low natural light, ensuring optimal growing conditions for plants. It can also be used to operate heating systems to maintain the desired temperature levels, especially during colder months. Additionally, solar collectors can power ventilation fans and systems, ensuring proper air circulation and preventing the buildup of excessive humidity or carbon dioxide. Moreover, solar collectors can be utilized to power irrigation systems, enabling efficient watering of crops, minimizing water waste, and promoting sustainable farming practices. In indoor farming systems, solar collectors can also play a crucial role. By harnessing solar energy, indoor farms can reduce their reliance on traditional energy sources, thereby decreasing their carbon footprint. Solar collectors can provide electricity to power LED lights, which are commonly used for indoor farming to simulate natural sunlight and optimize plant growth. Additionally, solar collectors can be used for heating and cooling systems to maintain the ideal temperature for crops. This renewable energy source can also power ventilation systems to ensure proper air exchange within the controlled environment. Overall, integrating solar collectors with greenhouses or indoor farming systems can enhance sustainability, reduce energy costs, and promote environmentally friendly agricultural practices. By utilizing renewable energy, these systems can contribute to a more sustainable and efficient approach to farming, reducing reliance on fossil fuels and mitigating the impact of traditional energy sources on the environment.
Q:Can solar collectors be used in public transportation?
Public transportation can indeed utilize solar collectors. Known also as solar panels or photovoltaic (PV) modules, solar collectors are devices that convert sunlight into electricity. They can be installed on the roofs or surfaces of buses, trains, or other forms of public transportation to generate clean and renewable energy. The use of solar collectors in public transportation brings several advantages. Firstly, solar energy aids in reducing reliance on fossil fuels, which greatly contribute to air pollution and climate change. With the ability to generate electricity from the sun, public transportation becomes more sustainable and environmentally friendly. Furthermore, solar collectors help decrease operating costs for public transportation systems. The electricity generated from solar panels can power various onboard systems such as lighting, air conditioning, and electronic devices. This reduces dependence on the grid and lowers energy expenses. Additionally, solar collectors extend the range and efficiency of electric buses or trains. By providing a continuous energy source, solar panels recharge the batteries of electric vehicles, enabling them to operate for longer periods without frequent recharging or the risk of power depletion. Moreover, solar collectors can be utilized to power charging stations for electric vehicles used in public transportation. This infrastructure facilitates the adoption of electric buses or trains by offering convenient and sustainable charging options. It is important to consider that the effectiveness of solar collectors in public transportation may vary depending on factors like sunlight availability, solar panel size and efficiency, and the energy requirements of the specific transportation system. However, with advancements in solar technology and the growing emphasis on renewable energy, integrating solar collectors into public transportation presents a viable and beneficial option for reducing emissions, cutting costs, and promoting sustainable mobility.
Q:How do parabolic trough solar collectors work?
Parabolic trough solar collectors work by using curved mirrors to concentrate sunlight onto a receiver tube. The mirrors are curved in a parabolic shape, which allows them to focus the sunlight onto a small line along the length of the tube. Inside the receiver tube, a heat transfer fluid is heated by the concentrated sunlight. This hot fluid is then used to generate steam, which can be used to power turbines and produce electricity.
Q:Are there any limitations to the size of a solar collector system?
Yes, there are limitations to the size of a solar collector system. The main limitations include available space, cost, and government regulations. The size of the system should be proportionate to the available space on the property where it will be installed. Additionally, the cost of larger solar collector systems can be significantly higher, including the cost of additional solar panels, installation, and maintenance. Finally, government regulations may impose limitations on the size of solar collector systems based on zoning restrictions or other factors.
Q:Can solar collectors be used in hydroelectric power plants?
Solar collectors cannot be directly used in hydroelectric power plants as they serve different purposes and operate on different principles. Solar collectors are designed to convert solar energy into thermal energy, typically used for heating water or generating electricity through a process called solar thermal power generation. On the other hand, hydroelectric power plants generate electricity by harnessing the kinetic energy of flowing or falling water to drive turbines, which in turn generate electricity. While solar collectors cannot be used directly in hydroelectric power plants, there may be instances where solar energy is used in combination with hydroelectric power. For example, solar energy can be used to power the auxiliary systems in a hydroelectric power plant, such as lighting, sensors, or control mechanisms. This can help reduce the overall energy consumption of the plant and enhance its overall efficiency. Moreover, in some cases, solar power can be used in conjunction with pumped-storage hydroelectric power plants. These plants store energy by pumping water from a lower reservoir to a higher one during times of low demand or excess energy availability. Later, during periods of high demand, the stored water is released to generate electricity. During the low-demand periods, solar energy can be used to power the pumps, reducing the reliance on the grid and making the overall operation more sustainable. In summary, while solar collectors cannot be directly used in hydroelectric power plants, solar energy can still play a role in enhancing their efficiency or supporting their auxiliary systems. Additionally, solar power can be integrated with pumped-storage hydroelectric power plants to create a more sustainable and efficient energy system.
Q:Can solar collectors be used for generating electricity on escalators?
Solar collectors, unfortunately, cannot be utilized for the purpose of generating electricity on escalators. Their primary function is to capture sunlight and convert it into thermal energy, which is commonly employed for heating water or air. These collectors are not specifically designed to directly produce electricity. Due to their inability to generate the required power output for high-demand applications like escalators, they cannot serve as a continuous and reliable power source. Moreover, considering that escalators are generally situated indoors where the availability of sunlight may be limited, the feasibility of employing solar collectors for this particular purpose is further diminished.
Q:Can solar collectors be used in solar thermal desalination?
Solar thermal desalination can utilize solar collectors to convert seawater or brackish water into fresh drinking water using solar energy. These collectors, such as flat-plate collectors or parabolic troughs, capture and concentrate the sun's energy, which is then used to heat the water and generate steam. The steam is condensed to produce fresh water, while the concentrated brine is disposed of. Solar collectors play a crucial role in the process as they provide the necessary heat energy without relying on fossil fuels or electricity. By harnessing abundant and renewable solar energy, solar collectors make solar thermal desalination an environmentally friendly solution for addressing water scarcity in arid regions.
Q:Are there any financial benefits to installing solar collectors?
Yes, there are several financial benefits to installing solar collectors. Firstly, solar collectors can significantly reduce your electricity bills. By harnessing the power of the sun to generate electricity, you can offset a significant portion of your energy consumption, resulting in lower monthly electricity costs. Additionally, many countries and states offer financial incentives for installing solar collectors. These incentives can include tax credits, grants, and rebates, which can help offset the upfront costs of installation. Some regions even have net metering policies, allowing you to sell excess electricity back to the grid, further reducing your electricity costs or potentially earning you money. Moreover, solar collectors can increase the value of your property. Studies have shown that homes equipped with solar panels sell faster and at higher prices compared to those without. This means that the investment in solar collectors can pay off in the long run if you decide to sell your property. Lastly, installing solar collectors can protect you from rising energy costs. As traditional energy prices continue to increase, your solar collectors will continue to provide you with free and renewable energy, shielding you from future price hikes. Overall, the financial benefits of installing solar collectors are clear. They can reduce your electricity bills, provide financial incentives, increase property value, and protect against rising energy costs.

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