• Inlet and Outlet at the bottom of Manifold Solar Collector Model SC-HD System 1
  • Inlet and Outlet at the bottom of Manifold Solar Collector Model SC-HD System 2
  • Inlet and Outlet at the bottom of Manifold Solar Collector Model SC-HD System 3
Inlet and Outlet at the bottom of Manifold Solar Collector Model SC-HD

Inlet and Outlet at the bottom of Manifold Solar Collector Model SC-HD

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Loading Port:
Shanghai
Payment Terms:
TT OR LC
Min Order Qty:
1 set
Supply Capability:
2500 set/month

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1. Structure of  Inlet and Outlet at the bottom of Manifold Solar Collector Model SC-HD Description:

This product is composed of Aluminium alloy for frame, rock wool for the insulation,tri-element vacuum glass tube and antifreeze heat pipe.It can often be used in subzero temperatures without the system sustaining damage. Flat plate systems often require expensive and complicated "antifreeze" systems to be installed.

 

2.  Main Features of Inlet and Outlet at the bottom of Manifold Solar Collector Model SC-HD

1) The inlet and outlet be opened on the bottom of manifold; It looks more artistic than trandithional manifold;
2) Good sealed in end of cover, It can provide higher insulation efficiency;
3) The most advantage is that It can be Emptyed the medium( water or deicing fluid) in the Manifold;

 

3. Inlet and Outlet at the bottom of Manifold Solar Collector Model SC-HD Images

Inlet and Outlet at the bottom of Manifold Solar Collector Model SC-HD

Inlet and Outlet at the bottom of Manifold Solar Collector Model SC-HD

 

 

 

 

 

 

 

 

 

 

 4.   Inlet and Outlet at the bottom of Manifold Solar Collector Model SC-HD Specifications

 

Model

SC-HD-10

SC-HD-15

SC-HD-18

SC-HD-20

SC-HD-24

SC-HD-25

SC-HD-30

SC-H1-10

SC-H1-15

SC-H1-18

SC-H1-20

SC-H1-24

SC-H1-25

SC-H1-30

Vacuum tube quantity(pcs)

10

15

18

20

24

25

30

Tube spacing (㎜)

75

75

75

75

75

75

75

Vacuum tube diameter/length (㎜)

φ58/1700

φ58/1700

φ58/1700

φ58/1700

φ58/1700

φ58/1700

φ58/1700

Vacuum tube material

 high borosilicate glass 3.3

 high borosilicate glass 3.3

 high borosilicate glass 3.3

 high borosilicate glass 3.3

 high borosilicate glass 3.3

 high borosilicate glass 3.3

 high borosilicate glass 3.3

Vacuum tube inner/outer pipe wall thickness (㎜)

1.6/1.8

1.6/1.8

1.6/1.8

1.6/1.8

1.6/1.8

1.6/1.8

1.6/1.8

Heat pipe condensing end diameter/length (㎜)

φ14/1750

φ14/1750

φ14/1750

φ14/1750

φ14/1750

φ14/1750

φ14/1750

heat pipe material/wall thickness (㎜)

Copper tp2/0.6

Copper tp2/0.6

Copper tp2/0.6

Copper tp2/0.6

Copper tp2/0.6

Copper tp2/0.6

Copper tp2/0.6

inner tank diameter/wall thickness (㎜)

φ35/1.0

φ35/1.0

φ35/1.0

φ35/1.0

φ35/1.0

φ35/1.0

φ35/1.0

connector size

φ22 or 3/4″

φ22or 3/4″

φ22or 3/4″

φ22or 3/4″

φ22or 3/4″

φ22or 3/4″

φ22or 3/4″

collector insulation material/thickness (㎜)

Rock wool/40

Rock wool/40

Rock wool/40

Rock wool/40

Rock wool/40

Rock wool/40

Rock wool/40

solar collector rated pressure MPa

0.6

0.6

0.6

0.6

0.6

0.6

0.6

collector operating temperature

100

100

100

100

100

100

100

collector volume L

0.69

0.98

1.15

1.27

1.50

1.56

1.85

collector aperture area (㎡)

1.0

1.5

1.8

2.0

2.4

2.5

3.0

collector total area (㎡)

1.56

2.30

2.74

3.04

3.63

3.77

4.51

referral traffic L/min

0.75

1.13

1.35

1.50

1.81

1.88

2.26

intensity pressure Pa

23.2

59.2

90.6

116.7

181.7

200.2

314.0

 intercept efficient η0

0.744

0.744

0.744

0.744

0.744

0.744

0.744

 heat loss coefficient a

2.09

2.09

2.09

2.09

2.09

2.09

2.09

 collector power W1000W/ irradiation

620

870

1047

1165

1401

1457

1748

collector net weight kg

38.25

50.75

59.75

64.75

79.00

83.35

98.70

a   ()

895

1270

1495

1645

1945

2020

1395

b   ()

800

1175

1400

1550

1850

1925

2300

c   ()

725

1100

1325

1475

1775

1850

2225

c/2 ()

——

——

——

——

887.5

925

1112.5

d   ()

1980

1980

1980

1980

1980

1980

1980

e   ()

1240

1240

1240

1240

1240

1240

1240

f   ()

1470

1470

1470

1470

1470

1470

1470

 

5. FAQ

(1) Which collector is the best value for money?
Rather than looking at just peak efficiency levels when comparing solar collectors, cost per unit of energy produced is much more logical. For example: Although collector A may be 20% more efficient than collector B, if collector A is 30% more expensive, then in fact collector B may be a better choice, as per kWh of energy produced per day it is cheaper. When payback time is of concern, not only price per kWh of the product is important, but also of the end system.

 

(2) Can this solar collectors be used for a large scale hot water production?
Yes. This solar collectors can be connected in series or parallel to provide large scale hot water production for a commercial settings such as a school, hotel or office building. There is really no limit to the size of the system, however collectors must be installed in banks of no more than 150 tubes (in series), otherwise the water may boil.

 

(3) What maintenance of the solar collector is required?
Under normal circumstances no maintenance of the system is required. Due to the shape of the tubes regular rainfall and wind should keep the tubes clean. Should a tube even be broken it should be replaced. This, however, is an inexpensive and easy job. Any "handy" person can install a new tube (while adhering to local health and safety regulations). Sidite solar collectors can operate with several broken tubes, however the efficiency will be reduced slightly.

 

Q:Can solar collectors be used for industrial purposes?
Yes, solar collectors can be used for industrial purposes. They can provide renewable energy for various industrial processes such as heating, cooling, and powering machinery. Solar thermal collectors, for example, can generate heat to be used in industrial applications, reducing the reliance on fossil fuels and decreasing carbon emissions. Additionally, solar photovoltaic collectors can generate electricity to power industrial equipment, making it a sustainable and cost-effective solution for industrial energy needs.
Q:Can solar collectors be used in telecommunications infrastructure?
Yes, solar collectors can be used in telecommunications infrastructure. Solar power can provide a reliable and sustainable source of energy to power telecommunications equipment, especially in remote areas where grid connectivity is limited. By harnessing solar energy, telecommunication infrastructure can operate efficiently while reducing dependence on fossil fuels and minimizing environmental impact.
Q:Can solar collectors be used in satellites?
Yes, solar collectors can be used in satellites. In fact, solar panels or solar arrays are commonly used in satellites to convert sunlight into electricity, providing a sustainable and reliable source of power for various systems and instruments onboard.
Q:Can solar collectors be used for heating factories and manufacturing plants?
Yes, solar collectors can be used for heating factories and manufacturing plants. Solar thermal collectors can harness the sun's energy to heat water or other fluids, which can then be used for space heating, process heating, or generating steam for industrial applications. Implementing solar heating systems in factories and manufacturing plants can help reduce energy costs, lower carbon emissions, and promote sustainability.
Q:Are there any government incentives or rebates for installing solar collectors?
Yes, there are government incentives and rebates available for installing solar collectors. These incentives vary by country and region, but commonly include tax credits, grants, and low-interest loans to encourage the adoption of renewable energy systems like solar collectors. It is advisable to check with local government agencies or visit official renewable energy websites to get detailed information about the specific incentives and rebates available in your area.
Q:Can solar collectors be used for heating theme parks?
Yes, solar collectors can be used for heating theme parks. Solar thermal collectors can capture sunlight and convert it into heat energy, which can then be utilized for heating purposes in theme park buildings and facilities. This sustainable and renewable energy source can help reduce the reliance on traditional heating systems and lower overall energy costs for theme parks.
Q:Can solar collectors be used for heating waste management facilities?
Yes, solar collectors can be used for heating waste management facilities. Solar thermal systems can generate heat by harnessing the sun's energy, which can then be used to heat water or air for various purposes, including waste management facilities. This can provide a sustainable and renewable source of heat, reducing the reliance on traditional fossil fuel-based heating methods and helping to mitigate environmental impact.
Q:Can solar collectors be used for drying lumber or wood products?
Yes, solar collectors can be used for drying lumber or wood products. Solar collectors can provide a renewable and energy-efficient source of heat, which is essential for the drying process. By harnessing the power of the sun, solar collectors can generate heat to remove moisture from the wood, resulting in faster and more environmentally friendly drying compared to traditional methods.
Q:How do solar collectors compare to other renewable energy sources in terms of cost?
Solar panels, or solar collectors as they are commonly referred to, are widely recognized as one of the most economically viable sources of renewable energy available today. Although the upfront cost of installing solar panels may be higher than alternative renewable energy options like wind turbines or hydropower plants, the long-term advantages and cost savings they offer make them extremely competitive. Advancements in technology, increased production, and economies of scale have significantly reduced the cost of solar collectors over the years. Consequently, solar energy has become more affordable and accessible for residential and commercial applications. Furthermore, ongoing research and development efforts are expected to further decrease the prices of solar panels while enhancing their efficiency and effectiveness. One key advantage of solar collectors is their low-maintenance nature and long lifespan, typically lasting for 25-30 years or more. This means that once installed, the operational costs associated with solar panels are relatively minimal. In comparison, other renewable energy sources, such as wind turbines or hydropower plants, may require more frequent maintenance and incur higher operational costs. Moreover, solar energy is abundant and universally available, making it a feasible option in various regions across the globe. Unlike some other renewable energy sources like geothermal or tidal energy, solar energy can be harnessed nearly anywhere, given access to sunlight. This widespread availability further contributes to the cost-effectiveness of solar collectors. In conclusion, solar collectors offer a highly competitive cost advantage compared to alternative renewable energy sources. Despite the initial installation cost being relatively higher, the long-term benefits, decreasing prices, low maintenance requirements, and universal availability make solar energy a cost-effective and sustainable choice for fulfilling our energy needs.
Q:What is the impact of altitude on solar collector performance?
The impact of altitude on solar collector performance is generally positive, as higher altitudes often have clearer skies and lower air density, resulting in increased solar radiation and more efficient heat transfer. However, extreme altitudes can pose challenges such as lower atmospheric pressure and lower ambient temperatures, which may slightly decrease collector performance.

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