Glass Fused to Steel Tanks Installation | Center Enamel

21 Jul.,2025

 

Glass Fused to Steel Tanks Installation | Center Enamel

Glass-Fused-to-Steel Tanks Installation: A Guide for Optimal Performance and LongevityGlass-Fused-to-Steel (GFS) tanks are an increasingly popular storage solution in industries ranging from chemicals and food to pharmaceuticals. The combination of steel's structural integrity and the corrosion-resistant properties of enamel creates a highly durable and reliable tank. For industries that require reliable storage under harsh conditions, GFS tanks offer exceptional value. However, to ensure that these tanks perform optimally and have an extended lifespan, proper installation is critical.Structure and Features of Glass-Fused-to-Steel TanksGFS tanks are designed for durability, featuring a unique combination of materials and components:· Metal Matrix: The steel core provides structural integrity, ensuring the tank can bear significant weight and pressure.· Enamel Coating: A smooth, seamless enamel coating provides exceptional resistance to corrosion caused by harsh chemicals, acids, and alkalis.· Inlet and Outlet Pipelines: These pipelines facilitate efficient fluid transfer and need to be correctly installed to avoid leaks or blockages.· Accessories: These include fittings such as level gauges, thermometers, and other control systems that are essential for optimal operation.Key Features of Glass-Fused-to-Steel Tanks1. Corrosion Resistance: The enamel coating protects the tank from corrosion, making it ideal for storing chemicals, water, wastewater, and other corrosive materials.2. High-Temperature Stability: GFS tanks can maintain their structural integrity even when exposed to high temperatures, making them suitable for both thermal expansion and contraction.3. Easy Cleaning: The smooth enamel surface prevents dirt, scale, and other contaminants from sticking, reducing maintenance needs and making cleaning simple.4. Superior Strength: These tanks are designed to withstand various pressures and heavy loads, ensuring long-term reliability.5. Environmental Health: The enamel used in GFS tanks is non-toxic and compliant with health and safety regulations, making it suitable for potable water storage and other sensitive applications.The Importance of Proper InstallationThe correct installation of a Glass-Fused-to-Steel tank is crucial for its long-term performance. Key factors include:· Structural Safety: Proper installation prevents deformation and leakage, ensuring that the tank maintains its shape and functionality throughout its service life.· System Stability: Ensuring that pipelines and accessories are correctly connected is essential for the tank’s operational efficiency.· Leak Prevention: Following installation standards minimizes the risk of leaks, a critical factor for tank longevity and safety.· Extended Service Life: Proper installation maximizes the lifespan of the tank, ensuring that industries get a return on their investment over the years.· Regulatory Compliance: Following installation procedures ensures the tank meets local and international standards, including safety and environmental regulations.Preparation Before InstallationBefore starting the installation, it's essential to perform comprehensive checks and ensure the site is properly prepared:Component Check· Complete Component List: Ensure all components (tank body, pipelines, connectors, support frames, etc.) are available.· Integrity Check: Inspect each component, particularly the enamel coating, to ensure there is no surface damage or defects.Workplace Preparation· Site Conditions: The installation site must be clean, level, and free from any obstacles. Ensure the ground can support the tank's weight and the surrounding environment is safe.· Safety Equipment: Provide the necessary personal protective equipment (PPE) such as helmets, gloves, and goggles for the installation team. Install safety warnings to ensure personnel are aware of the risks.Steps for InstallationInfrastructure Preparation1. Determine Location: Select an optimal site based on process needs and safety concerns. Consider factors like access, clearance, and potential environmental hazards.2. Foundation Preparation: The tank must be placed on a solid foundation (e.g., concrete) to provide stability. The foundation must be able to support the full weight of the tank when filled.Tank Body Installation1. Placement: Carefully position the tank on the foundation, ensuring that it is correctly aligned and in full contact with the base.2. Securing the Tank: Use appropriate fixing devices, such as bolts or anchors, to securely attach the tank to the foundation, preventing movement or instability.Connecting Pipeline Systems1. Install Pipelines: Connect the inlet and outlet pipelines, ensuring that they are leak-proof. Use suitable sealing materials and ensure the connections are firm.2. Connection Check: Perform visual inspections and pressure tests on the pipeline connections to detect and resolve any potential issues.Install Accessories and Fittings1. Accessory Installation: Attach necessary accessories such as level gauges, thermometers, pressure gauges, and monitoring equipment.2. Final Inspection: Confirm that all accessories are properly installed and functional, ensuring they meet operational requirements.Safety Inspection Post-InstallationAfter installation, it’s crucial to perform detailed safety checks to ensure that everything is secure and functioning properly:Connection Security· Pipeline Inspection: Double-check that all pipeline connections are tight and secure to prevent leaks or pressure drops.· Leak Integrity Check: Conduct a full leakage test, using pressure testing methods if necessary, to ensure no leaks are present in any of the system’s components.Structural Stability Check· Physical Inspection: Regularly inspect the tank for any signs of wear, cracking, or other structural issues that may arise over time.· Support Stability Check: Verify that support structures such as foundations and braces are secure and show no signs of loosening or corrosion.The installation of Glass-Fused-to-Steel tanks is an essential process that directly impacts the tank’s operational efficiency, safety, and service life. By ensuring thorough preparation, proper installation, and regular safety checks, industries can maximize the performance of their GFS tanks, providing a reliable storage solution for years to come.

Seven Considerations for Tanks - CST Industries

When buying a water storage tank, the configuration and selection process often is something that needs to be done in the early stages of project design. To apply for and secure funding that may be available, timing of construction and overall project costs will play a factor in the determination. Because many municipalities have a single source of water storage, the tank design plays a crucial role in meeting the current and future needs of a community.

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Some of the key details essential to the ultimate selection of the tank configuration process are an assessment of community demands for current and anticipated water supply, site conditions, pressure requirements, long-term maintenance, ease of access and overall costs.

There are three types of liquid storage tanks available that are considered for municipal water storage applications: glass-coated bolted steel, welded painted steel and concrete.

1. Design & Configurations
Standpipes, reservoirs and composite elevated tank (CET) designs are the different types of configurations used when selecting glass-coated bolted steel tanks. Standpipes are tanks where the water is elevated in a tall column to achieve gravity-fed pressure, which is required to properly feed the system. The tank height is greater than the tank diameter. The elevation of the water is accomplished by storing the required “water on top of water.” Standpipe height usually does not exceed 140 ft.

The most common configuration used for water storage is the reservoir. Reservoirs have a greater diameter than height and can be used with a pumping system or can be gravity fed. The width of these tanks can reach 250 ft with capacities up to 6 million gal. Similar to standpipes, the CET design is used in applications where height is used to achieve the head pressure needed to properly operate the system. The CET column is constructed in a hollow concrete pedestal on which the tank is then built. Structural rebar and steel embedded in the concrete reinforced walls that can exceed 10 in. thick and a top cap of concrete 4 ft thick.

There is plenty of space offered in the interior of the concrete pedestal for municipal maintenance equipment, pump stations, office space and other uses. The CET design does not have height restrictions and capacity can be as great as 1.5 million gal.

Depending on the diameter, snow loads and other factors, the roof of glass-bolted tanks can vary. They can be a free-span aluminum geodesic dome, consisting of panels mounted on a rigid structural frame, or the same glass-fused-to-steel material.

The tank floors usually are constructed with reinforced concrete or they can be glass-coated panels depending on site and design conditions.

2. Manufacturing Process
The technology and manufacturing process of this equipment sets these tanks apart from painted steel or concrete structures. When using the factory manufacturing process, the uncontrolled variables are eliminated, unlike field manufactured products such as painted steel or concrete tanks. Worker experience and extreme climatic environmental conditions that are proven to have a significant effect on in-field manufactured products have minimal effect on the glassing process. In addition, the tanks can be erected year-round as the manufacturing is completed in the factory and only the assembly of the components is required in the field.

3. Coating
All storage tanks have a coating. The coatings available today consist of either paint, concrete or glass. The impermeability and features of glass offer advantages.

The glass coating process begins with a glass frit that is mixed with other minerals and water to create a liquid slurry. This glass slurry is then robotically sprayed at precise amounts and thicknesses onto previously cut and rolled, punched, grit-blasted and cleaned steel sheet panels. Companies like CST run panels through a furnace at ° F. This heat melts the silica glass slip into the surface of the grit- blasted steel. This completes the mechanical bond, as well as the chemical bond between the steel and the silica glass.

Contact us to discuss your requirements of GFS Tank. Our experienced sales team can help you identify the options that best suit your needs.

Different coatings that are available for other tanks rely on a mechanical bond of the coating to the underlying material. The chemical bond strength is many times the holding strength of the conventional mechanical bond and prevents any undercutting of the coating, which can allow spreading of corrosion on the primary steel material. This benefit can best be explained by imagining a scratch on an automobile. Because that coating only has a mechanical bond, if the steel is exposed, corrosion will occur. Left untreated this corrosion will expand and creep beneath the surrounding painted surface and compromise the remaining coating.

This often is witnessed with raised bubbles, spreading rust and weakened substrate. The chemical bond of the glass-fused-to-steel coating prevents this spreading of corrosion in the event the coating were compromised.

With the goal of making the storage tanks as maintenance free as possible, companies like CST manufacture rounded sheet edges to exact radii to ensure adherence of the glass for complete encapsulation on all four sides of the sheet.

4. Tank Construction
A jacking system is used when erecting a glass-coated bolted steel storage tank. Once the starter sheet (bottom ring) is either embedded into the concrete foundation or constructed utilizing a glass-fused-to-steel floor design, the top ring of the tank is constructed on the jacks. The roof of the tank then is erected and the ring and roof are jacked up. Each additional ring is then assembled below the top ring by bolting the sheets together and applying a urethane sealant between the seams.

Tanks are assembled from the top down allowing for a safer and faster construction environment. The erection process normally is completed within a week or two, which saves costs to the owner if prevailing wages for onsite labor are being used. Additionally, the manufacturer requires that all building crews be factory-trained and certified in the erection process, ensuring quality control in the field.

5. Maintenance/Life Time Value
Glass-coated bolted steel tanks have a long lifetime. Glass coating never needs painting because it is permanent. Glass-coated tanks often are placed in areas, where long-term pleasing visual appearance is sought. The budgeted dollars that may be used to repaint a painted tank or repair aged concrete can be saved and funneled to other projects in a municipality.

6. Flexibility
The bolted design and erection of this product yields flexibility. Because manufacturing is completed in a factory, large staging areas needed when a product is manufactured onsite are eliminated. The construction of the tank typically can be completed with a cleared area of roughly 6 to 10 ft around the tank diameter. This small footprint can save thousands of dollars on the overall project beyond the price of the tank itself. The panels themselves can be hand-carried and easily assembled without cranes or special equipment, allowing this tank to be installed in many locations that would be impossible for other tank types.

7. Expandability
The glass-coated bolted tank design allows the tanks to be vertically expanded. If a community or industry experiences growth and additional capacity is necessary, the tanks’ jacking process allows the end-user to gain capacity quickly and cost-effectively. The factory-trained professional building crew unbolts the bottom ring from the original starter sheet, jacks the tank up and adds the number of rings necessary to achieve the new capacity. When these tanks are expanded, there is no difference in appearance between the original panels and the new panels.

Conclusion
Initial construction costs, anticipated life and long-term maintenance costs are significant factors relative to the various tank designs and materials available today. The long-term maintenance costs and life cycle during a tank evaluation all must be considered when selecting the appropriate product for a specific project.

Because project financing can vary depending on several factors, a complete analysis of initial costs and, lower maintenance should help a community decide which type of product is best suited for its needs.