• Metal Glass Heat Pipe for Solar Collector  Model SC-HM System 1
  • Metal Glass Heat Pipe for Solar Collector  Model SC-HM System 2
Metal Glass Heat Pipe for Solar Collector  Model SC-HM

Metal Glass Heat Pipe for Solar Collector Model SC-HM

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Loading Port:
Shanghai
Payment Terms:
TT OR LC
Min Order Qty:
20 set
Supply Capability:
1500 set/month

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1. Structure of Metal Glass Heat Pipe for Solar Collector  Model SC-HM

   This Metal Glass Heat Pipe is an important part for solar collector, and the components are following as shown with graphic:

  

Metal Glass Heat Pipe for Solar Collector  Model SC-HMMetal Glass Heat Pipe for Solar Collector  Model SC-HM

 

1 Manifold

2 Inlet & Outlet

3 Bracket

4 Metal Glass Vacuum Tube

5 Pipe Supporter

6 Anti-wind Foot

  

2. Main Features of Metal Glass Heat Pipe for Solar Collector  Model SC-HM 

 

  • The Metal glass vacuum tube is sealed together, high temperature, anti-freezing, insulation with vacuum.

  • Withφ70 vacuum tube, large collecting area, strong heat collecting efficiency, high temp, rapid heat conducting.

  • Aluminum alloy manifold & bracket  weight less, the surface has treatment of oxidation. It can withstand corrosion resistance.

  • The super thick insulation layer is Molded rock wool/mineral wool,  with high density & low coefficient of heat conductivity

  • The flow chute is made of high quality brass, with pressure and corrosion resistance, high purity and can withstand 1MPa pressure.

  • Adjustable pipe supporter and easy for installation.
     

3. Metal Glass Heat Pipe for Solar Collector  Model SC-HM Images

 

 

Metal Glass Heat Pipe for Solar Collector  Model SC-HM

Metal Glass Heat Pipe for Solar Collector  Model SC-HM

 

4. Metal Glass Heat Pipe for Solar Collector  Model SC-HM Specifications

 

Model No.

SC-HM-10

SC-HM-15

SC-HM-18

SC-HM-20

SC-HM-24

SC-HM-25

SC-HM-30

No.of Vacuum Tube(PCS)

10

15

18

20

24

25

30

Tube Space(㎜)

100

100

100

100

100

100

100

OD/L of Vacuum Tube(㎜)

φ70/2000

φ70/2000

φ70/2000

φ70/2000

φ70/2000

φ70/2000

φ70/2000

Material of Vacuum Tube

Borosilicate glass 3.3

Borosilicate glass 3.3

Borosilicate glass 3.3

Borosilicate glass 3.3

Borosilicate glass 3.3

Borosilicate glass 3.3

Borosilicate glass 3.3

Material/Thickness of Heat Pipe(㎜)

Coppertp2/0.6

Coppertp2/0.6

Coppertp2/0.6

Coppertp2/0.6

Coppertp2/0.6

Coppertp2/0.6

Coppertp2/0.6

OD/Thickness of Flow Chute(㎜)

φ35/1.0

φ35/1.0

φ35/1.0

φ35/1.0

φ35/1.0

φ35/1.0

φ35/1.0

OD of Outlet & Inlet

φ22 or 3/4″

φ22 or 3/4″

φ22 or 3/4″

φ22 or 3/4″

φ22 or 3/4″

φ22 or 3/4″

φ22 or 3/4″

Insulation Material/Thickness(㎜)

Rockwool/40

Rockwool/40

Rockwool/40

Rockwool/40

Rockwool/40

Rockwool/40

Rockwool/40

Working Pressure(MPa)

0.6

0.6

0.6

0.6

0.6

0.6

0.6

Working Temp ℃

<150

<150

<150

<150

<150

<150

<150

Capacity of Solar Collector(L)

0.69

0.98

1.15

1.27

1.50

1.56

1.85

Collecting Area(㎡)

1.37

2.05

2.46

2.73

3.28

3.41

4.10

Total Area(㎡)

2.20

3.28

3.92

4.35

5.21

5.43

6.50

Flow Rate(L/min)

1.06

1.49

1.79

2.0

2.4

2.5

3.0

drop of pressure (Pa)

16.24

41.4

63.4

81.7

127.2

140.1

219.8

Intercept efficiency

η0

0.77

0.77

0.77

0.77

0.77

0.77

0.77

Heat loss rate a W/㎡℃

1.9

1.9

1.9

1.9

1.9

1.9

1.9

Efficiency(W)1000W/㎡irradiation

744

1044

1256

1398

1681

1748

2098

N.W(kg)

40.25

52.75

61.75

66.75

81.00

85.35

100.70

a   (㎜)

1115

1615

1915

2115

2515

2615

3115

b   (㎜)

1025

1525

1825

2025

2425

2525

3025

c   (㎜)

950

1450

1750

1950

2350

2450

2950

c/2 (㎜)

——

——

875

975

1175

1225

1475

d   (㎜)

2150

2150

2150

2150

2150

2150

2150

e   (㎜)

1375

1240

1240

1240

1240

1240

1240

f   (㎜)

1590

1590

1590

1590

1590

1590

1590

 

5. FAQ

 

1. What happens if one of the solar tubes is broken?
Firstly, tubes are very strong and not easily broken, but if the worst should happen, solar tubes can be replaced very easily. They are inexpensive and available. The solar collectors can operate with several broken tubes, but the efficiency will be reduced, so it is recommended that broken tubes be replaced immediately.

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 operation of the heat pipe.

 

3. Will the solar collector be a fire hazard during hot, dry weather?
No. The solar collector's components are all high temperature rated and non-flammable, so even during strong sunlight with the circulation pump turned off (stagnation), the system will not catch alight or give off any sparks. The majority of the solar collector's components are stainless steel, aluminium, glass or glass wool. The manifold outlet should be fitted with a temperature relief valve, which will prevent the manifold temperature from exceeding 99oC / 212oF.

 

Q:Can solar collectors be used for heating oil in industrial processes?
Yes, solar collectors can be used for heating oil in industrial processes. Solar thermal systems can be designed to heat oil by using sunlight to generate heat, which is then transferred to the oil through a heat exchanger. This method can be particularly effective in industries that require heating processes, such as oil refineries, chemical plants, or manufacturing facilities. Solar collectors, also known as solar thermal panels, are designed to capture and convert sunlight into heat. They consist of a series of tubes or panels that contain a heat-absorbing material. When sunlight strikes the absorber material, it heats up, and the heat is transferred to a fluid flowing through the tubes or panels. This heated fluid can then be used directly or indirectly to heat oil in industrial processes. In the case of industrial processes that require heating oil, a solar thermal system can be integrated into the existing heating infrastructure. The solar collectors can be installed on rooftops or ground-mounted in areas with high solar exposure. The heat generated by the solar collectors can be used to preheat the oil, reducing the energy consumption of conventional heating systems. Solar thermal systems can provide significant energy savings and reduce greenhouse gas emissions in industrial processes that rely on oil heating. By utilizing renewable solar energy, industries can decrease their dependence on fossil fuels and contribute to a more sustainable energy future. However, it is worth noting that the effectiveness of solar collectors for heating oil in industrial processes may depend on various factors, including the availability of sunlight, the required temperature of the oil, and the specific needs of the industrial process. Therefore, a detailed analysis and engineering evaluation should be conducted to determine the feasibility and optimal design of a solar thermal system for heating oil in a specific industrial setting.
Q:Can solar collectors be used for generating electricity on mines?
Yes, solar collectors can be used for generating electricity on mines. Solar collectors, also known as solar panels or photovoltaic (PV) panels, convert sunlight into electricity through the photovoltaic effect. They are designed to capture and convert solar energy into electrical energy. Mines often require a significant amount of electricity to power their operations, including machinery, lighting, ventilation systems, and other equipment. Solar collectors can be installed on the roofs or open spaces of mine buildings or structures to harness the abundant sunlight available in many regions. The electricity generated by the solar panels can then be used to directly power the mine's operations, reducing the reliance on traditional sources of energy such as fossil fuels. Implementing solar collectors on mines has several benefits. Firstly, it can significantly reduce the mine's carbon footprint and environmental impact by replacing fossil fuel-based electricity generation with clean and renewable solar energy. This contributes to the global efforts in combating climate change and reducing greenhouse gas emissions. Secondly, solar collectors can help mines reduce their energy costs in the long run. Although the initial investment in installing solar panels can be substantial, the operational and maintenance costs associated with solar energy are relatively low compared to traditional energy sources. Over time, the savings in electricity bills can offset the initial investment, resulting in cost-effective energy generation for mines. Furthermore, solar collectors can provide a reliable and uninterrupted source of electricity for mines, especially in remote areas where access to the electricity grid might be limited or unreliable. By generating their own electricity, mines can ensure a continuous power supply for their operations, avoiding downtime and increasing productivity. It is worth mentioning that the feasibility and effectiveness of using solar collectors on mines may depend on various factors, such as the location, climate, available space, and energy requirements of the mine. Additionally, a comprehensive analysis of the mine's energy needs, potential solar energy generation, and the financial implications should be conducted before implementing solar collectors. Nonetheless, solar collectors have proven to be a viable and sustainable option for generating electricity on mines, offering numerous environmental and economic benefits.
Q:Are solar collectors suitable for residential use?
Yes, solar collectors are suitable for residential use. They are an environmentally friendly and cost-effective solution for generating clean energy for homes. Solar collectors can be installed on rooftops or in the backyard and can provide a significant portion of a household's electricity needs. With advancements in technology and decreasing costs, solar collectors have become an increasingly popular choice for residential properties.
Q:Are solar collectors suitable for restaurants and cafes?
Yes, solar collectors are suitable for restaurants and cafes as they can provide a sustainable and cost-effective solution for heating water and generating electricity, reducing energy expenses and carbon footprint. Additionally, they can be installed on rooftops or outdoor spaces, making them adaptable to the limited space often found in urban areas.
Q:Can solar collectors be used for heating mosques?
Yes, solar collectors can be used for heating mosques. Solar thermal collectors can harness the sun's energy and convert it into heat, which can then be used to warm the interior spaces of mosques. This eco-friendly and sustainable solution can significantly reduce energy costs and carbon emissions associated with traditional heating methods.
Q:Can solar collectors be used in wineries?
Yes, solar collectors can be used in wineries. Solar collectors, such as solar panels or solar thermal systems, can be used to harness the energy from the sun and convert it into electricity or heat. In wineries, solar collectors can be used for various purposes. One common use is to generate electricity to power the winery's operations. This can include powering lights, machinery, refrigeration systems, and other electrical equipment required in the winemaking process. By utilizing solar energy, wineries can reduce their reliance on fossil fuels and lower their carbon footprint. Solar collectors can also be used to provide heat for winemaking processes. Solar thermal systems, which use the sun's energy to heat fluids, can be used to warm water for cleaning equipment, sanitizing bottles, and even for heating the fermentation tanks during the winemaking process. This can help wineries reduce their energy costs and increase their sustainability. Furthermore, solar collectors can be integrated into winery building designs to provide natural lighting and reduce the need for artificial lighting during daylight hours. This can create a more pleasant working environment for winery staff while saving on energy consumption. The use of solar collectors in wineries not only promotes sustainability but also helps wineries save on energy costs in the long run. Additionally, it enhances the winery's image as an environmentally friendly and socially responsible business.
Q:Can solar collectors be installed on pitched roofs?
Yes, solar collectors can be installed on pitched roofs. In fact, pitched roofs are one of the most common and suitable locations for solar collector installation. The angled orientation of pitched roofs helps maximize sunlight exposure, making it an ideal surface for generating solar energy.
Q:Can solar collectors be used in historical buildings?
Yes, solar collectors can be used in historical buildings. However, careful consideration and planning are necessary to ensure that the installation of solar collectors does not compromise the historical integrity and aesthetic value of the building.
Q:Can solar collectors be used for generating electricity on home appliances?
Solar collectors have the capability to generate electricity for home appliances. These devices, also referred to as solar panels, are specifically designed to convert sunlight into electrical energy. Within these panels, there are photovoltaic cells responsible for absorbing photons from the sun's rays and transforming them into direct current (DC) electricity. This DC electricity can then be converted into alternating current (AC) electricity by means of an inverter. Consequently, this AC electricity can be utilized to operate a variety of home appliances. When homeowners choose to install solar panels on their roof or in other suitable areas of their house, they are able to harness the sun's power to generate clean and renewable electricity for their home appliances. This approach reduces their reliance on traditional grid electricity and consequently decreases their carbon footprint.
Q:What is the impact of humidity on the performance of solar collectors?
The impact of humidity on the performance of solar collectors can vary depending on the specific design and technology used. In general, high humidity levels can potentially reduce the efficiency of solar collectors by affecting the absorption and transmission of solar radiation. Humidity can cause water vapor to condense on the surface of the collector, creating a layer that hinders the absorption of sunlight. Additionally, humidity can increase the likelihood of dust and dirt particles sticking to the collector's surface, further reducing its efficiency. However, some solar collector designs are specifically engineered to minimize the negative impact of humidity, such as those with anti-condensation coatings or self-cleaning mechanisms. Overall, while humidity can have a negative effect on solar collector performance, technological advancements and proper maintenance can help mitigate its impact.

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