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Renewable Energy Components Prototype

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  • Wind Turbine Blades
  • Pitch Bearings
  • GearBoxPlanetary Rack
  • Spindle Flange
  • Photovoltaic Support Connection
  • Solar Tracker Gears
  • Motor Sealing Rings
  • Gearbox
  • Condenser support Brackets
  • Inverter Heat Dissipation Housing
  • Pressure Pipe Flange
  • Module Cooling Plate
  • Hydrogen Tank Connection Flange
  • Biomass Boiler Nozzle

Advantages of Choosing Jupaicnc to Process Energy Components

The advantages of Jupai in the field of energy component processing are reflected in three aspects: technology, efficiency and sustainability. The five-axis linkage CNC system and ultra-precision machining technology can complete high-precision machining of high-end components such as complex surfaces and thin-walled structures (accuracy up to ±0.003mm), meeting the requirements of harsh working conditions such as wind turbine blades and nuclear power seals. Through computer software programming and process optimization, the processing efficiency can be increased by more than 30%, material loss can be reduced by 15%, and the unit cost can be reduced by 20%. The modular equipment design supports rapid changeover and is suitable for flexible production of diversified products such as photovoltaic brackets and energy storage shells. Equipped with a special process database for the energy industry to ensure the processing stability of titanium alloys and composite materials, the product yield rate reaches 99.6%. At the same time, the energy consumption monitoring system is integrated, and the unit energy consumption is reduced by 25% compared with traditional equipment, which is in line with the trend of low-carbon manufacturing.

JUPAICNC Machining Provides Technical Empowerment for Energy Industry

1. High-precision of complex component manufacturing ‌ The five-axis linkage machining center breaks through the micron-level machining bottleneck of complex curved surface components such as the pressure-resistant cavity of deep-sea drilling equipment and the sealing ring of nuclear power reactors, ensuring the reliability and life of equipment in extreme environments, and helping to increase oil and gas exploration efficiency by 20%. 2. Intelligent process optimization ‌ Based on the adaptive control system of AI algorithm, compensates for machining errors in real time, realizes lightweight blade molds (weight reduction of 15%) and simultaneous optimization of surface accuracy in the wind power field, and shortens the R&D cycle of wind turbines by 40%; combined with thermal error compensation technology, the processing yield of nuclear power precision components is increased to 99.6%. 3. Digital full-chain collaboration ‌ Relying on the industrial Internet platform, a closed-loop system from digital twin simulation to intelligent production line integration is built to achieve dynamic tuning of process parameters in energy storage equipment manufacturing, shortening the delivery cycle by 30% and reducing the overall cost by 18%.

Materials and Performance of Energy Equipment Part

Stainless steel‌

Excellent corrosion resistance and high temperature resistance, suitable for corrosive environment components such as oil and gas pipelines, nuclear power valves, etc.

Aluminum alloy‌

It has remarkable lightweight properties (density is only 1/3 of steel), high strength and corrosion resistance, and is mostly used in wind turbine blade frames and lightweight energy storage housings.

Copper alloy‌

Excellent thermal conductivity (thermal conductivity up to 380 W/m·K), used in thermal management scenarios such as generator radiators and transformer conductive connectors

Cast iron ‌

High wear resistance and outstanding vibration absorption performance, suitable for heavy-duty gas turbine bases, hydraulic turbine housings and other load-bearing structural parts

Engineering Plastics‌

Nylon (PA66) has strong fatigue resistance, and PPS has a temperature resistance of up to 240°C. It is used in lightweight scenarios such as insulation parts of electric drive systems and chemical-resistant seals.

Composite materials ‌

Carbon fiber reinforced resin-based materials have a specific strength five times higher than steel and are used in extreme working conditions such as pressure-resistant shells of deep-sea drilling equipment and floating wind turbine blades

JUPAICNC Machining Surface Treatment of Energy Industry Parts

Micro-arc oxidation (MAO)

For aluminum alloy components, a 10-100μm ceramic oxide film is generated on the surface through high-voltage electrolysis. The hardness reaches HV1500 and the temperature resistance exceeds 2000℃. It is used for corrosion protection of wind turbine pitch bearings and energy storage boxes, and the salt spray test life is increased by more than 3 times.

Chemical nickel phosphorus alloy

A 50-80μm amorphous coating is deposited on the surface of cast iron valves and pipes, and the H₂S corrosion resistance reaches the highest standard of ISO 15156. It is suitable for shale gas wellhead devices and the service life is extended to 8 years.

Anodizing + Sealing Treatment‌

The aluminum alloy energy storage battery bracket is hard anodized (film thickness 25μm), and nano-sealing agent is superimposed to fill the micropores. The voltage breakdown strength reaches 35kV/mm, and the insulation performance meets the IEC 61439 standard.

Electroplating nickel-chromium alloy

A multi-layer electroplating process is used to deposit a nickel-chromium composite coating (thickness 50-100μm) on the surface of the stainless steel substrate. The coating hardness reaches HV600-800, and the wear resistance is 60% higher than that of traditional spraying. Applied to gas turbine blades, shale gas valves and other scenarios, the H₂S corrosion resistance meets the ISO 15156 standard.

Laser Cladding‌

The sealing surface of the nuclear power flange is repaired through 3D printing technology, using Inconel 625 alloy powder. The bonding strength between the cladding layer and the substrate is greater than 400MPa, the high-temperature creep resistance is improved by 60%, and the cost of spare parts replacement is reduced.

JUPAICNC Processes Parts Types For the Energy Industry ‌

Wind turbine hub castings: Ductile iron five-axis machining, bearing strength up to EN-GJS-400 standard, suitable for wind turbines above 5MW.

Nuclear power main pump impeller:  Stainless steel 3D printing + laser cladding, high temperature radiation resistance meets ASME III standard.

Solar tracking bracket: 6061-T6 aluminum alloy extrusion molding, dynamic load support > 5kN/m².

Shale gas wellhead valve body: Duplex steel forging CNC machining, hydrogen sulfide corrosion resistance up to NACE MR0175.

Energy storage battery module end plate: 7075 aluminum alloy micro-arc oxidation, insulation breakdown voltage > 30kV

Gas turbine turbine disc: Inconel 718 five-axis milling, high temperature fatigue life exceeds 100,000 times (ISO 12107)

Floating wind power anchor chain buckle: 42CrMo4 alloy steel supersonic spraying, salt spray resistance > 5000 hours

Hydrogen compressor piston rod: titanium alloy precision honing, surface roughness Ra ≤ 0.2μm

Nuclear waste container sealing cover: silicon carbide ceramic composite processing, radiation aging rate < 0.1% / year

Photovoltaic silicon wafer cutting guide wheel: hard alloy electroplated diamond, cutting line diameter accuracy ± 2μm