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Custom Metal Parts For Energy Power Equipment

Customized casting and forging parts can be used in the energy and power equipment industry in the fields of power generation, transmission and distribution, energy storage, structural support, energy mining, renewable energy and marine energy equipment. They are the key support for the efficient, safe and stable operation of equipment. The high strength, corrosion resistance, high temperature resistance and high precision of customized parts enable the parts to adapt to extreme working conditions, extend equipment life and reduce maintenance costs.

Energy Power Equipment Parts Classification

1. Power generation equipment components

Castings and forgings are indispensable core components in power generation equipment such as thermal power, hydropower, wind power and nuclear power, such as turbine housings, turbine main shafts, blade roots, etc. They have high strength, high temperature resistance and fatigue resistance, can operate stably under high pressure, high speed and complex dynamic load conditions, and provide reliable support for the efficient energy conversion of equipment.

· Castings: turbine housing, guide vane housing, wind turbine hub, base

· Forgings: steam turbine main shaft, rotor, blade root


Custom Energy Power Generation Equipment Casting & Forging Parts Manufacturer

2. Power transmission and distribution equipment components

Castings and forgings in power transmission and distribution equipment, including transformer housings, conductive joints, terminals and support frames, are responsible for protection, conduction and support. Their excellent conductivity, corrosion resistance and structural stability ensure the efficient transmission of electricity and the long-term operation of equipment.

· Castings: transformer housing, transformer oil tank, cable junction box

· Forgings: high-voltage conductor connectors, terminals, insulator supports


3. Energy storage equipment components

In battery energy storage and mechanical energy storage equipment, castings and forgings are used to manufacture key components such as housings, heat sinks, sealing valve seats and support frames. With excellent sealing, corrosion resistance and high strength performance, they ensure the thermal management and mechanical stability of energy storage equipment.

· Castings: energy storage equipment housing, heat sink, sealing valve seat

· Forgings: high-strength connectors, support frames


4. Structural support components

Large energy equipment requires strong structural support. Castings and forgings such as equipment bases, flanges, support shafts, etc. provide high rigidity and durability for the equipment. They perform well under heavy loads and complex environments, ensuring the stability and precision of the equipment.

· Castings: equipment supports, bases, tower flanges

· Forgings: support shafts, couplings, bolts, nuts


5. Energy extraction equipment components

Castings and forgings in energy extraction equipment such as oil, natural gas and geothermal, such as wellhead device housings, drill pipe joints, pump bodies and high-pressure seals, need to withstand extreme pressure, corrosion and high temperature environments. Their excellent strength and durability provide long-term support for the energy extraction process.

· Castings: wellhead housing, pump housing, mud pump cylinder sleeve

· Forgings: drill pipe joints, valve bodies, high-pressure seals


6. Renewable energy equipment components

In wind, solar and marine energy equipment, castings and forgings are used to manufacture components such as wind turbine hubs, tower foundations, photovoltaic brackets and marine energy device main shafts. They have anti-fatigue, high strength and corrosion resistance, adapt to changing natural working conditions, and lay the foundation for the efficient use and large-scale application of renewable energy.

· Castings: wind turbine hub, tower foundation, photovoltaic bracket connector, tracking system base

· Forgings: wind turbine shaft, ocean energy device main shaft, turbine blade root


7. Marine energy and offshore equipment components

Castings and forgings play a vital role in marine energy and offshore equipment, and are widely used in marine energy power generation devices, offshore oil drilling platforms, floating production storage and offloading devices (FPSO) and submarine pipeline systems. Key components include the main shaft of wave energy conversion devices, offshore wind power foundation piles, platform support structures and pipeline joints. Castings and forgings are resistant to seawater corrosion, high strength and fatigue resistance, and can cope with harsh marine environments and complex dynamic loads.

· Castings: platform support feet, mud pump housings, pipe fixing brackets, equipment housings

· Forgings: lifting hooks, mooring chain links, high-pressure valve bodies, fasteners, connecting flanges


Available Materials For Energy Power Equipment Parts

Iron

Ductile iron and gray cast iron are widely used in the energy and power equipment industry to manufacture structural components such as transformer housings, generator bases, and turbine housings. Cast iron has excellent castability, high wear resistance, and shock absorption. It can manufacture large components with complex shapes and adapt to the high-strength support requirements and complex working conditions in energy equipment. Cast iron has low cost, high durability, and good processing performance, which reduces manufacturing costs while ensuring the reliability of equipment.

Steel

Steel has high strength, excellent toughness and high temperature resistance. Steel forgings are often used to manufacture key components such as the main shaft, turbine blades and pressure vessels of power generation equipment. Steel castings are used to manufacture equipment shells such as boiler shells and turbine guide vanes. The advantage of steel is that it can withstand high pressure, high temperature and complex dynamic loads, providing excellent fatigue resistance and high safety for the equipment.

Aluminum Alloy

Aluminum and its alloys are widely used in light and highly conductive parts of energy and power equipment due to their lightweight, excellent electrical conductivity and corrosion resistance. For example, aluminum pole connectors, transformer heat sinks, photovoltaic brackets and wind turbine blade components. Aluminum castings and forgings can reduce the weight of equipment, improve thermal and electrical conductivity, and have good corrosion resistance, especially suitable for energy equipment in harsh environments such as offshore wind power.

Other Metal Alloys

The application of high-performance materials such as nickel-based alloys, titanium alloys and copper alloys in the energy and power equipment industry is gradually increasing, mainly used in high temperature and high pressure environments or special working conditions. For example, nickel-based alloys are used in high-temperature blades and combustion chambers of gas turbines, while copper alloys are often used in connectors and switch components with extremely high electrical conductivity requirements. The advantages of these alloy materials are excellent high temperature resistance, corrosion resistance and high strength, which can meet the operation requirements of energy equipment under extreme conditions, and provide key technical support for the advancement, long life and high efficiency of energy equipment.

Iron

Ductile iron and gray cast iron are widely used in the energy and power equipment industry to manufacture structural components such as transformer housings, generator bases, and turbine housings. Cast iron has excellent castability, high wear resistance, and shock absorption. It can manufacture large components with complex shapes and adapt to the high-strength support requirements and complex working conditions in energy equipment. Cast iron has low cost, high durability, and good processing performance, which reduces manufacturing costs while ensuring the reliability of equipment.

Steel

Steel has high strength, excellent toughness and high temperature resistance. Steel forgings are often used to manufacture key components such as the main shaft, turbine blades and pressure vessels of power generation equipment. Steel castings are used to manufacture equipment shells such as boiler shells and turbine guide vanes. The advantage of steel is that it can withstand high pressure, high temperature and complex dynamic loads, providing excellent fatigue resistance and high safety for the equipment.

Aluminum Alloy

Aluminum and its alloys are widely used in light and highly conductive parts of energy and power equipment due to their lightweight, excellent electrical conductivity and corrosion resistance. For example, aluminum pole connectors, transformer heat sinks, photovoltaic brackets and wind turbine blade components. Aluminum castings and forgings can reduce the weight of equipment, improve thermal and electrical conductivity, and have good corrosion resistance, especially suitable for energy equipment in harsh environments such as offshore wind power.

Other Metal Alloys

The application of high-performance materials such as nickel-based alloys, titanium alloys and copper alloys in the energy and power equipment industry is gradually increasing, mainly used in high temperature and high pressure environments or special working conditions. For example, nickel-based alloys are used in high-temperature blades and combustion chambers of gas turbines, while copper alloys are often used in connectors and switch components with extremely high electrical conductivity requirements. The advantages of these alloy materials are excellent high temperature resistance, corrosion resistance and high strength, which can meet the operation requirements of energy equipment under extreme conditions, and provide key technical support for the advancement, long life and high efficiency of energy equipment.

How To Customize Energy Power Equipment Parts

3D Drawings

3D Drawings

Processing Drawings

Processing Drawings

Sample

Sample

1. Provide Detailed Design Documents Or Samples

Simis engineer team will analyze the energy power parts 3D drawings (CAD models) and processing drawings or energy power parts samples provided by customers to ensure that the parts meet the manufacturing requirements.

2. Confirm Material/Process/Performance

According to the use environment and technical requirements of energy power parts, combined with the price, shape, size, precision, material, surface quality, etc. of the parts, we will formulate appropriate parts manufacturing process. SIMIS will also give reasonable suggestions for customers' reference based on the price, mechanical properties, wear resistance, etc. of the materials.

3. Make Molds And Samples

After both parties confirm that everything is correct, Simis will make the parts mold and samples. It usually takes about 30 to 45 days to make samples, which includes designing molds, making molds, casting/forging, heat treatment, machining, surface treatment and other steps.

4. Comprehensive Sample Inspection

After production is completed, the samples will be fully inspected to ensure that they meet the design standards and customer quality requirements. Simis can provide sample inspection reports such as dimensional and tolerance inspection, mechanical property testing, chemical composition analysis, and non-destructive testing.

5. Mass Production

After the sample is approved by the customer, Simis will arrange a mass production plan based on the order requirements. The mass production process uses the same casting/forging equipment and processes as the sample stage to ensure that each batch of customized energy power parts is exactly the same.

6. Post-production Parts Multiple Quality Inspections

After mass production is completed, all parts will undergo detailed quality inspection and multiple sampling tests before packaging and shipment to ensure that mass-produced energy power parts meet customer requirements.

1. Provide Detailed Design Documents Or Samples

Simis engineer team will analyze the energy power parts 3D drawings (CAD models) and processing drawings or energy power parts samples provided by customers to ensure that the parts meet the manufacturing requirements.

2. Confirm Material/Process/Performance

According to the use environment and technical requirements of energy power parts, combined with the price, shape, size, precision, material, surface quality, etc. of the parts, we will formulate appropriate parts manufacturing process. SIMIS will also give reasonable suggestions for customers' reference based on the price, mechanical properties, wear resistance, etc. of the materials.

3. Make Molds And Samples

After both parties confirm that everything is correct, Simis will make the parts mold and samples. It usually takes about 30 to 45 days to make samples, which includes designing molds, making molds, casting/forging, heat treatment, machining, surface treatment and other steps.

4. Comprehensive Sample Inspection

After production is completed, the samples will be fully inspected to ensure that they meet the design standards and customer quality requirements. Simis can provide sample inspection reports such as dimensional and tolerance inspection, mechanical property testing, chemical composition analysis, and non-destructive testing.

5. Mass Production

After the sample is approved by the customer, Simis will arrange a mass production plan based on the order requirements. The mass production process uses the same casting/forging equipment and processes as the sample stage to ensure that each batch of customized energy power parts is exactly the same.

6. Post-production Parts Multiple Quality Inspections

After mass production is completed, all parts will undergo detailed quality inspection and multiple sampling tests before packaging and shipment to ensure that mass-produced energy power parts meet customer requirements.

Custom Processing of Energy Power Equipment Parts

Casting

Casting

In the energy and power equipment industry, casting is used to produce large and complex parts in power generation systems such as turbine housings, generator housings and pump bodies, enabling customized parts to have high strength, wear resistance and the ability to withstand the high pressures and temperatures common in energy and power applications.

Forging

Forging

In the field of energy and power equipment, forging processes mainly produce components such as turbine blades, shafts and valve bodies. These forgings have excellent fatigue resistance, high strength and toughness, enabling the parts to operate reliably for a long time in high-stress environments such as power plants.

Heat Treatment

Heat Treatment

In the energy and power equipment industry, heat treatment processes are used to improve the performance of components such as turbine blades, pressure vessels and pump components. By improving properties such as wear resistance and fatigue strength, these components can withstand the high temperatures, high pressures and continuous operation common in power generation equipment, thereby increasing product service life and reliability.

Machining

Machining

In the energy and power equipment sector, machining is used to produce high-precision components such as turbine shafts, pump impellers and generator rotors. Machining ensures that components meet tight tolerances and fit correctly into complex assemblies, allowing machines to run smoothly and efficiently with minimal friction and maximum reliability in demanding power generation systems.

Sheet Metal Fabrication

Sheet Metal Fabrication

In energy and power equipment manufacturing, sheet metal fabrication is used to produce structural components such as heat exchangers, housings, and supports for generators and turbines, which assemble power generation systems and ensure reliable operation of the equipment under mechanical stress and environmental conditions.

Surface Treatment

Surface Treatment

In the energy and power equipment industry, surface treatment is applied to components such as turbine blades, pressure vessels and heat exchangers to protect them from environmental damage, including corrosion and erosion. Surface treatment processes can increase the service life of key components, reduce maintenance costs, and improve the overall efficiency and reliability of power generation equipment.

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