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Aluminum dome roof, the superior roofing solution
For covering water and wastewater storage, aluminum dome covers are an excellent choice. We offer complete roofing solutions from R&D, design, and production to installation and are ideal for projects in the water/wastewater sector.
Advantages of aluminum dome roof:
Corrosion resistance
clear span capacity
low-cost construction
Low maintenance cost
Design flexibility
Aluminum dome roof, the superior roofing solution
For covering water and wastewater storage, aluminum dome covers are an excellent choice. We offer complete roofing solutions from R&D, design, and production to installation and are ideal for projects in the water/wastewater sector.
Advantages of aluminum dome roof:
Corrosion resistance
clear span capacity
low-cost construction
Low maintenance cost
Design flexibility
1. Domes require less material to construct for the same amount of livable area/floorspace, when compared with rectilinear construction and roofing. This results in a reduction of construction costs, thereby, producing a lower carbon footprint.
2. Domes promote more efficient air circulation and keep temperatures even throughout the structure.
3. The high volume-to-surface ratio allows domes to occupy 30% less surface area than any other traditional building structure, which means less building materials are used, and more space is available inside the building.
In the 1970's, the logic, fascination and intriguing qualities of the geodesic dome inspired countless young persons to experiment with different geodesic dome/zome construction methodologies as depicted and described in "Dome Book 2". If you are truly interested in having the majority of all dome questions answered, this book is required reading.
The historical biggest problem in geodesic dome housing acceptance was, and has been, a lack of geodesic academic instruction, onsite actual manufacturing/construction knowledge and proof of concept with the governing authorities.
The second biggest problem has been the choices for geodesic roofing systems, which has led to excessive installation costs, waterproofing problems, leaks and negative reports!
Typically, dome manufacturing companies have designed and constructed their structures utilizing a maximum four-foot riser wall. Designing the dome as a roof with at least an eight-foot riser wall keeps the dome circularly intact and provides for conventional rectangular window and door openings.
Geodesic domes can be constructed with two different methodologies, Strut/Hub and Panel Style domes. For several reasons, Panel Style domes have been the geodesic dome manufacturing industry standard utilizing several different materials and connection systems.
Transitioning from manufacturing two and three frequency geodesic domes utilizing wood framing, plywood sheathing and several different roofing systems (polyurethane coated foam, Hypalon elastomeric coatings, tar paper and cedar shakes, asphalt shingles, rolled roofing, etc.), the opportunity of creating a lapping fiberglass geodesic dome idea immerged in the early 1990’s in Fairbanks, AK.
Transitioning from fiberglass and moving into polyethylene rotational molding in the early 2000’s, for the manufacturing of the composting and greywater tanks, the Plan of Action for worldwide potential, is to utilize rotational molding as the most efficient methodology in the manufacturing of low-cost recycled plastic Panel Style geodesic dome components.
In harmony with recycling and alternative philosophies, instead of the concrete, piers and/or local building foundation “anchoring” methodologies, I am proposing the use of multiple connected, recycled, food grade, 1,000-liter IBC (International Beverage Container) tanks as the complete “floating” foundation for any size dome, to include providing its own rainwater storage system. Eventually, molds could be designed and manufactured to produce a pie shaped tank floating system with the same foundation and water storage capabilities.
"Plastics". The advice to young Dustin Hoffman in the 1967 "Graduate" movie. Plastics have provided several solutions, but now have become an environmental issue. It can become an opportunity utilizing the logical use of the geodesic design and the need to begin cleaning up the mess the "plastic"revolution has created!
Recycling of discarded/trash materials that are available worldwide with existing small scale rotational molding manufacturing capabilities can locally produce shelter/housing and other recycled products for the protection of the local environment while enhancing economic and employment creation opportunities.
In providing the needed water and sanitation for complete "living" habitability, the rotational molding capability will be essential in producing the other items/components required for the manufacturing of those technologies, also locally.
Therefore, for today and the future, the most efficient, economic, environmental and easiest Plan of Action to be capable of constructing geodesic domes as Productive Dwelling Units, with all of the required components worldwide, is local small scale "Cooperative" manufacturing.
Pura Vida. Clint
1. Domes require less material to construct for the same amount of livable area/floorspace, when compared with rectilinear construction and roofing. This results in a reduction of construction costs, thereby, producing a lower carbon footprint.
2. Domes promote more efficient air circulation and keep temperatures even throughout the structure.
3. The high volume-to-surface ratio allows domes to occupy 30% less surface area than any other traditional building structure, which means less building materials are used, and more space is available inside the building.
In the 1970's, the logic, fascination and intriguing qualities of the geodesic dome inspired countless young persons to experiment with different geodesic dome/zome construction methodologies as depicted and described in "Dome Book 2". If you are truly interested in having the majority of all dome questions answered, this book is required reading.
The historical biggest problem in geodesic dome housing acceptance was, and has been, a lack of geodesic academic instruction, onsite actual manufacturing/construction knowledge and proof of concept with the governing authorities.
The second biggest problem has been the choices for geodesic roofing systems, which has led to excessive installation costs, waterproofing problems, leaks and negative reports!
Typically, dome manufacturing companies have designed and constructed their structures utilizing a maximum four-foot riser wall. Designing the dome as a roof with at least an eight-foot riser wall keeps the dome circularly intact and provides for conventional rectangular window and door openings.
Geodesic domes can be constructed with two different methodologies, Strut/Hub and Panel Style domes. For several reasons, Panel Style domes have been the geodesic dome manufacturing industry standard utilizing several different materials and connection systems.
Transitioning from manufacturing two and three frequency geodesic domes utilizing wood framing, plywood sheathing and several different roofing systems (polyurethane coated foam, Hypalon elastomeric coatings, tar paper and cedar shakes, asphalt shingles, rolled roofing, etc.), the opportunity of creating a lapping fiberglass geodesic dome idea immerged in the early 1990’s in Fairbanks, AK.
Transitioning from fiberglass and moving into polyethylene rotational molding in the early 2000’s, for the manufacturing of the composting and greywater tanks, the Plan of Action for worldwide potential, is to utilize rotational molding as the most efficient methodology in the manufacturing of low-cost recycled plastic Panel Style geodesic dome components.
In harmony with recycling and alternative philosophies, instead of the concrete, piers and/or local building foundation “anchoring” methodologies, I am proposing the use of multiple connected, recycled, food grade, 1,000-liter IBC (International Beverage Container) tanks as the complete “floating” foundation for any size dome, to include providing its own rainwater storage system. Eventually, molds could be designed and manufactured to produce a pie shaped tank floating system with the same foundation and water storage capabilities.
"Plastics". The advice to young Dustin Hoffman in the 1967 "Graduate" movie. Plastics have provided several solutions, but now have become an environmental issue. It can become an opportunity utilizing the logical use of the geodesic design and the need to begin cleaning up the mess the "plastic"revolution has created!
Recycling of discarded/trash materials that are available worldwide with existing small scale rotational molding manufacturing capabilities can locally produce shelter/housing and other recycled products for the protection of the local environment while enhancing economic and employment creation opportunities.
In providing the needed water and sanitation for complete "living" habitability, the rotational molding capability will be essential in producing the other items/components required for the manufacturing of those technologies, also locally.
Therefore, for today and the future, the most efficient, economic, environmental and easiest Plan of Action to be capable of constructing geodesic domes as Productive Dwelling Units, with all of the required components worldwide, is local small scale "Cooperative" manufacturing.
Pura Vida. Clint
We have a team with 20 years of design and production experience, focusing on the production of aluminum dome, steel dome, space triangular mesh shell, fully connected liquid floating tray,
Loading arm, Glass Fused to Steel Tanks and other petrochemical equipment.On this basis, we mainly undertake chemical equipment engineering, drinking water storage engineering and sewage treatment engineering and environmental protection equipment development and processing.
We have a team with 20 years of design and production experience, focusing on the production of aluminum dome, steel dome, space triangular mesh shell, fully connected liquid floating tray,
Loading arm, Glass Fused to Steel Tanks and other petrochemical equipment.On this basis, we mainly undertake chemical equipment engineering, drinking water storage engineering and sewage treatment engineering and environmental protection equipment development and processing.
In industries that handle liquids, gases, or chemicals, the safe and efficient transfer of materials is a top priority.
In industries where liquids, gases, or chemicals are transferred every day, two main tools are often used: the loading arm and the flexible hose.
In industries such as oil and gas, chemicals, food processing, and shipping, transferring liquids or gases from one container to another is a daily necessity.
In the global trade of oil, gas, and chemicals, one of the most important pieces of equipment that ensures safe and efficient operations at ports is the marine loading arm. This highly engineered structure is designed to transfer liquids or gases between shore-based storage tanks and ships.
Marine loading arms are vital equipment for transferring liquids and gases between shore facilities and vessels. They are built from rigid pipelines connected with swivel joints, giving them the flexibility to follow ship movements caused by waves, tides, or wind.
In recent years, the aluminum geodesic dome roof has emerged as a popular choice among architects and builders seeking innovative, efficient, and visually striking roofing solutions.
Storage tanks are essential components across many industries, from oil and gas to water treatment and chemical processing. These tanks hold vital liquids or gases, often under challenging environmental conditions.
In the ever-evolving world of modern construction, architects and engineers constantly seek building solutions that combine strength, durability, and aesthetic appeal.
In today’s fast-evolving architectural landscape, customization and innovation have become essential elements for creating structures that are not only functional but also visually striking and environmentally responsible.
In regions prone to earthquakes, the design and construction of buildings require a careful balance of strength, flexibility, and durability. Traditional structures often struggle to maintain their integrity during seismic events, leading to costly damage and safety risks.
In the oil, gas, and chemical storage industries, the safe and efficient storage of volatile liquids is a top priority. Storage tanks must be designed not only to hold large quantities of liquids but also to minimize product loss, reduce emissions, and ensure safe operations.
In the fuel, chemical, and petrochemical industries, storage tanks play a crucial role in storing large volumes of volatile liquids such as crude oil, gasoline, ethanol, and other hydrocarbons. These tanks must not only hold these substances securely but also mitigate risks associated with vapor loss, fire hazards, and environmental pollution.
Floating roof tanks—whether internal or external—play a vital role in storing large volumes of flammable or volatile liquids in industries such as petroleum, petrochemicals, and chemical manufacturing. These tanks are designed to minimize vapor loss, improve safety, and comply with environmental regulations by using a roof that rises and falls with the liquid level.
Storage tanks are vital infrastructure in the oil, gas, and petrochemical industries, where large volumes of volatile liquids must be safely stored and managed. The design of these tanks plays a critical role in determining operational safety, controlling emissions, minimizing product loss, and ensuring regulatory compliance. Among the most commonly used configurations are fixed roof tanks and floating roof tanks, each offering distinct advantages depending on the specific storage requirements and the nature of the stored substance.
Storage tanks are essential components in oil, gas, and petrochemical industries, responsible for holding vast volumes of volatile liquids. These liquids—such as crude oil, gasoline, jet fuel, diesel, and various petrochemicals—must be stored in a manner that ensures safety, minimizes product loss, and remains compliant with stringent environmental regulations. Two predominant tank designs in use today are internal floating roof tanks (IFRTs) and external floating roof tanks (EFRTs). While both aim to reduce vapor emissions and improve safety, they differ significantly in structure, performance, and application.
In today’s world, industries that rely on bulk liquid transfer are crucial for the smooth operation of global supply chains. Bulk liquids such as petroleum, chemicals, food-grade liquids, and pharmaceuticals are essential commodities that need to be transported safely, efficiently.
Compare land loading arms with traditional pumping systems, evaluating their key characteristics, advantages, disadvantages,.
When it comes to transferring bulk liquids efficiently and safely, the equipment you use plays a critical role in ensuring smooth operations, reducing downtime, improving safety, and lowering operational costs.
Introduction Loading a long arm quilting machine might seem daunting at first, but with a little guidance, it becomes a manageable task. Whether you're a seasoned quilter or a beginner, understanding the steps involved in loading arm quilting machines can significantly enhance your quilting experien
Introduction Choosing the right loading arm for your industry is a crucial decision that can significantly impact your operational efficiency and safety. Whether you're dealing with chemicals, petroleum, or other bulk liquids, the right loading arm can make a world of difference. In this article, we