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Custom On-Demand Manufacturing for

Energy Industry

We provide precision on-demand manufacturing solutions tailored to the unique demands of the energy sector, including oil & gas, renewables, and nuclear applications. From CNC-machined turbine housings to custom-cast high-temperature components, our rapid production capabilities ensure tight tolerances, material traceability, and industry-standard compliance. Whether for prototyping or low-volume production, we support critical energy systems with fast turnaround and certified quality.

Application of Boron Carbide B4C in Nuclear

Nuclear-grade boron carbide is used in neutron absorber balls, bricks, detectors, aluminum-based composites, and boron-containing concrete or carbon bricks. Its high neutron absorption and thermal stability make it ideal for reactor control, shielding, and radiation detection. It ensures safety and performance in high-temperature, high-radiation nuclear environments, supporting both power generation and research applications.
Application of Boron Carbide B4C in Nuclear

Solution

Descriptions

B4C Powder Pressing Molding

Boron carbide components can be custom-manufactured through pressureless sintering of high-purity B4C for advanced nuclear shielding, control rods, and radiation protection systems.

B4C Hot Pressing Sintering

Hot pressing sintering of B4C enables the production of high-density, low-porosity components for nuclear shielding, control rods, and precision safety parts.

Nuclear grade B4C powder

Provide ASTM C751, C750, and ANSI/ANS 6.4.2 grade boron carbide powder for manufacturing high-performance nuclear shielding, absorber, and detector components.

B4C Neutron Shielding Block

High-purity B4C blocks provide exceptional neutron absorption, making them ideal for nuclear reactor shielding, control systems, and radiation protection in high-flux environments.

High-10B abundance B4C

High-10B enriched B4C significantly improves neutron absorption, ideal for nuclear control rods, shielding blocks, and critical safety components in reactor systems.

Pure SIC Ceramic Filter Membrane

SIC ceramic membrane - pure SIC membrane: The water treatment membrane produced using silicon carbide material features ultra-high hardness, high temperature resistance, resistance to acid and alkali corrosion, high flux, and high hydrophilicity. Its flux can reach up to 100 times that of traditional organic membrane materials and 3-5 times that of conventional ceramic membranes.
Pure SIC Ceramic Filter Membrane

Solution

Descriptions

Flue Gas Filtration and Desulfurization

Durable, high-temperature SiC membranes removing particulates, heavy metals, and acid gases from industrial flue gases above 1000°C.

Gas Purification Processes

SiC membranes efficiently eliminate tars, dust, and impurities, enhancing purity and reliability of natural gas and biogas.

Gasification and Pyrolysis Gas Treatment

High-temperature SiC membranes effectively remove ash and impurities from biomass or waste-derived syngas, boosting downstream energy efficiency.

Molten Salt and Heat Transfer Fluid Filtration

SiC membranes prevent clogging by filtering molten salts in concentrated solar power plants, extending equipment life and enhancing performance.

Hydrogen Production and Purification

Pure SiC membranes support high-temperature hydrogen production, ensuring reliable gas purification and stable downstream system operation.

Advanced Turbine and Generator Component Manufacturing

Turbines and generators require precision-engineered components for maximum efficiency, reliability, and operational longevity. Utilizing advanced manufacturing techniques such as precision casting, CNC machining, powder metallurgy, and EDM, we produce turbine blades, stators, rotor shafts, and intricate cooling channels. Our precision components meet rigorous industry standards, enhance thermal efficiency, reduce downtime, and support reliable performance in power plants, hydroelectric systems, and wind energy facilities.
Advanced Turbine and Generator Component Manufacturing

Process

Typical Materials

Application Examples

Precision Casting

Superalloys (Inconel 713, 718, MAR-M247), Stainless Steel (316), Alloy Steel

Turbine blades, guide vanes, heat shields

CNC Machining

Superalloys (Inconel 718, René 41), Stainless Steel, Titanium alloys

Rotor shafts, impellers, turbine disks

Powder Metallurgy (PM)

Soft Magnetic Alloys, Iron-based alloys, Nickel alloys

Generator cores, stator laminations, rotor components

Electrical Discharge Machining (EDM)

Tool Steel, Carbide alloys, Superalloys (Inconel)

Cooling holes in turbine blades, intricate channels, precision blade profiles

Robust Renewable Energy Structural Component Solutions

Renewable energy systems require robust and corrosion-resistant structural components designed to withstand harsh environmental conditions. Employing aluminum die casting, metal stamping, laser cutting, and sheet metal fabrication, we manufacture durable turbine nacelles, solar mounting structures, and hydropower supports. These components deliver exceptional structural integrity, corrosion resistance, ease of installation, and maintenance-free performance for wind, solar, and hydropower infrastructure.
Robust Renewable Energy Structural Component Solutions

Process

Typical Materials

Application Examples

Aluminum Die Casting

A380, AlSi10Mg, ADC12

Wind turbine nacelle housings, gearbox casings, mounting brackets

Metal Stamping

Aluminum alloys (5052, 6061), Stainless Steel (316), Galvanized Steel

Solar panel mounting frames, wind turbine blade supports, fastening components

Laser Cutting

Aluminum alloys, Stainless Steel (304, 316), Carbon Steel

Solar tracking system components, turbine internal structures, precision mounting plates

Sheet Metal Fabrication

Stainless Steel, Aluminum alloys, Galvanized Steel

Weatherproof housings, hydropower plant covers, structural enclosures

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