Wire manufacturing technology enabling faster 3D printing
Our proprietary manufacturing procedure “MH Process” allows us to create easier-to-process, high-strength super-alloy wires that are critical for aircraft engine parts and can be used by Direct Energy Deposition (DED)-system 3D printers.
These wires can be produced on a made-to-order basis for small lots in the following specification range or more:
- Rod shape: φ1.0 to 5.0 mm
- Wire shape: φ1.0 to 1.6 mm x 10 m
“MH Process”
3D printing mechanism using super-alloy wires
The 3D printer feeds a wire from the nozzle and laminates the molten metal to form the component shape. This system can rapidly fabricate large, strong parts for applications such as the repair of aircraft engines or valves.
Modeling mechanism using super-alloy wires
Applications
- Aircraft engines
- Gas turbine combustors
- Steam turbine blades (650°C)
- Large valves (high temperature, high pressure)
- Steam turbine high-pressure casings
- Welding repair work
Example:Gas turbine combustor component
Weight:13kg
Printing time:3hours
Product Lineup
Product | Feature | ||
---|---|---|---|
USC800 | High-strength, high-weldability Ni-based alloy | ||
AD730® | Aircraft engine disk material (raw material supplied by Aubert & Duval) | ||
Alloy939 | Aircraft engine stator vane material, γ' phase precipitation of 35 vol% | ||
Alloy738 | Aircraft engine moving blade material, γ' phase precipitation of 50 vol% | ||
Alloy247 | Aircraft engine moving blade vane material, γ' phase precipitation of 70 vol% | ||
COWALOY® | High-strength Co-based alloy (raw material supplied by Daido Steel Co., Ltd.) |
Products
- GTCC
- Steam Power
- IGCC
- Geothermal
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Gas Turbines
- Product Lineup
- Comparative Performance
-
Technical Information
- Gas Turbines for Mechanical Drive Applications
- Cutting-Edge Elemental Technology Producing 1600°C Class J Gas Turbines
- Development of High-Efficiency Gas Turbine Applying 1600°C Class J Technology
- Combustor Technologies Supporting Stable Operation
- Overview and Verification Status of T-Point 2 Demonstration Facility
- Comprehensive Efforts from Development to Manufacturing
- Summary of Orders
- Development History
- Product Selection Assistant (Middle & small Class)
- Aero-derivative Gas Turbines
- Steam Turbines
- Boilers
- Air Quality Control Systems (AQCS)
- Generators
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Control Systems
- What is DIASYS?
- DIASYS Netmation / DIASYS Netmation4S
-
DIASYS Optional Products
- IR-S Infrared Flame Detector
- Net IR-S Infrared Flame Detector
- Rail Mounting Net IR-S
- Boiler Tube Leak Detector
- Shaft Vibration Analyzer
- Simulator
- Advanced Combustion Pressure Fluctuation Monitoring System (A-CPFM) / Combustion Pressure Fluctuation Monitoring System (CPFM)
- Joint Operation System
- Automated Plant Startup and Shut-Down System
- Remote Turbine Vibration Diagnostics
- Multi-Coal Fired Boiler Optimum Control
- Plant Optimization System
- Trip Analysis System
- DIASYS Solutions
- Energy Storage
- Fuel Cells
- Additive Manufacturing
- Others
- Catalogue
- HIACS Series
- Technical Report