Non Concentrating Solar Collectors - Inlet and Outlet at the Bottom of Manifold SC-HD
- 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
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 (W)1000W/㎡ 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: What is the payback period for installing solar collectors?
- The payback period for installing solar collectors varies depending on a range of factors such as the cost of installation, energy savings, and available incentives. On average, it can take anywhere from 5 to 15 years to recoup the initial investment. However, it's important to note that solar collectors typically have a lifespan of 25 to 30 years, meaning the long-term financial benefits can far outweigh the initial payback period.
- Q: Are there any limitations to the size of a solar collector installation?
- Indeed, the size of a solar collector installation is subject to various limitations. One such limitation pertains to the space available for installation. The installation of solar collectors necessitates a certain amount of space, and if the available area is restricted, the installation of a large-scale solar collector system may not be feasible. Another limitation concerns the quantity of sunlight or solar radiation accessible in a specific location. The electricity or heat generation of solar collectors relies on sunlight, so if an area experiences limited sunlight throughout the year, the installation of a large-scale solar collector system may not be practicable. Moreover, the cost associated with the installation and maintenance of a large-scale solar collector system can impose limitations. Larger installations necessitate more equipment, materials, and labor, thereby increasing the overall cost. Furthermore, the cost of maintaining, repairing, and cleaning a larger system may also be higher, potentially constraining the size of the installation. Additionally, limitations may arise from the electrical grid capacity and infrastructure. If the local electrical grid lacks the capacity to accommodate the additional energy generated by a large-scale solar collector system, connecting it to the grid may not be possible. Upgrading the grid infrastructure can be both costly and time-consuming, thereby restricting the size of the installation. Lastly, regulatory and zoning restrictions can also impact the size of a solar collector installation. Local regulations and zoning laws may impose constraints on the size or height of solar collector installations, thereby limiting their scale. In summary, while solar collector installations can be expanded to a certain extent, factors such as available space, sunlight availability, cost, electrical grid capacity, and regulatory constraints can impose limitations on their size.
- Q: How do solar collectors compare to traditional heating methods?
- Solar collectors are a more sustainable and cost-effective alternative to traditional heating methods. They harness the sun's energy to generate heat, reducing reliance on fossil fuels and lowering energy bills. While traditional heating methods rely on burning fuel, solar collectors use a renewable source of energy, making them more environmentally friendly. Additionally, solar collectors require minimal maintenance and have a longer lifespan, making them a practical choice for long-term heating solutions.
- Q: How do solar collectors impact local economies?
- The local economies are significantly affected by solar collectors in various ways. Initially, job opportunities are created within the community through the installation and maintenance of solar collectors. These roles encompass sales, marketing, installation, and maintenance technicians. As the solar industry expands, the demand for skilled workers increases, resulting in higher employment rates and income levels. Additionally, solar collectors aid in reducing energy expenses for residential and commercial properties. By harnessing the sun's energy, individuals and businesses can generate their electricity, leading to substantial savings on utility bills. This surplus income can then be reinvested in the local economy, promoting growth and supporting other businesses within the community. Furthermore, the utilization of solar collectors decreases reliance on fossil fuels, subsequently reducing the need for imported energy sources. This shift towards renewable energy contributes to energy independence, mitigating susceptibility to price fluctuations and supply disruptions. Consequently, local economies become more resilient and stable as the money that would have been spent on imported energy is circulated within the community. Moreover, property values can increase with the installation of solar collectors. Research indicates that homes equipped with solar panels tend to command higher prices compared to those without. This appreciation in value positively impacts homeowners, potentially allowing them to sell their properties at higher prices, leading to increased wealth and economic stability within the community. Lastly, solar collectors foster the growth of local industries and businesses. With the rising demand for solar technology, local manufacturers, suppliers, and retailers have the opportunity to expand and thrive. This growth has a ripple effect, generating additional employment opportunities and promoting innovation within the region. In conclusion, solar collectors have a beneficial impact on local economies through job creation, reduced energy costs, enhanced energy independence, increased property values, and the development of local industries. As communities transition towards renewable energy sources, they not only enjoy a cleaner and more sustainable environment but also experience economic growth and prosperity.
- Q: Can solar collectors be used in areas with limited access to maintenance services?
- Yes, solar collectors can be used in areas with limited access to maintenance services. Solar collectors are relatively low-maintenance systems, requiring minimal upkeep. Once installed, they can operate independently for long periods without the need for regular maintenance. However, occasional cleaning of the collector surface may be necessary to ensure optimal performance. Additionally, choosing high-quality, durable equipment can enhance the system's longevity and reliability, making it suitable for areas with limited maintenance services.
- Q: Can solar collectors be used for heating electronics manufacturing plants?
- Yes, solar collectors can be used for heating electronics manufacturing plants. Solar thermal systems can be installed to capture and convert solar energy into heat, which can then be utilized for various heating applications including heating the manufacturing plants. This can help reduce reliance on conventional heating sources and lower energy costs while also promoting environmental sustainability.
- Q: Can solar collectors be used in poverty alleviation programs?
- Yes, solar collectors can be used in poverty alleviation programs. Solar energy is a sustainable and clean source of power that can provide electricity and heating to communities in poverty. By implementing solar collectors, impoverished communities can have access to affordable and reliable energy, improving their living conditions, reducing their dependence on fossil fuels, and creating opportunities for economic growth and development.
- Q: Can solar collectors be used for heating greenhouse spaces?
- Yes, solar collectors can be used for heating greenhouse spaces. Solar collectors, such as solar thermal panels or solar air heaters, can absorb sunlight and convert it into heat energy. This heat energy can then be used to warm the greenhouse, providing a sustainable and cost-effective heating solution for maintaining optimal temperature levels inside the greenhouse.
- Q: Can solar collectors be used in sports stadiums?
- Yes, solar collectors can be used in sports stadiums. They can be installed on the roof or surrounding areas of the stadium to harness solar energy and generate electricity. This renewable energy source can help power the stadium's lighting, heating, and cooling systems, reducing its carbon footprint and energy costs. Additionally, solar collectors can also be utilized to heat water for showers and other amenities within the stadium.
- Q: Can solar collectors be used for agricultural purposes?
- Yes, solar collectors can be used for agricultural purposes. They can be employed to heat water for irrigation systems, provide energy for greenhouse operations, or power various agricultural machinery and equipment. Solar collectors help reduce reliance on fossil fuels, lower energy costs, and promote sustainability in agricultural practices.
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Non Concentrating Solar Collectors - Inlet and Outlet at the Bottom of Manifold SC-HD
- Loading Port:
- Shanghai
- Payment Terms:
- TT OR LC
- Min Order Qty:
- 1 set
- Supply Capability:
- 2500 set/month
OKorder Service Pledge
OKorder Financial Service
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