Novel Alloy Development
It can take decades to develop a new material using conventional methods. Simulation techniques have
advanced the state of the art, however material samples still need to be built and analyzed. Traditional
manufacturing processes are costly, time-consuming and allow the researcher to evaluate just a single
material chemistry at a time. And due to limited research funds, new fabrication techniques must be highly
flexible to address a diverse set of research disciplines and industry applications.
Now, with LENS systems, material researchers have an ideal tool to address these needs.
The LENS MR-7 system features and capabilities specific to research and development are:
- Digital Fabrication Highly flexible additive manufacturing tool for rapid
prototyping of devices and material samples.
- CAD Model Interface fabricate novel geometries and shapes all within a single tool.
- Dual Powder Feeders evaluate various material compositions all within a single sample.
- Fluidization to handle irregular powders supports a broad array of metals, alloys,
ceramics and composites.
- Integrated Thermal Imager understand actual process - microstructure - property
relationships.
- Create Unique Materials control process parameters to create unique material
microstructures and properties.
- Hermetically sealed atmosphere controlled chamber produce highest purity parts with
mechanical properties that can be equivalent or even superior to wrought materials.
- High Brightness Solid State IPG Fiber Laser high reliability heat source with rapid
solidification rates (>1,000 C/sec) produces novel microstructures.
- World Wide LENS Research Community collaborate with colleagues in
many disciplines.
LENS Material Research Applications
The flexibility of the LENS system enables users to conduct research across
a broad set of engineering disciplines and industries interests. Some examples
of LENS research applications are as follows:
Biomedical |
TiC-reinforced Ti Wear resistance |
| TCP-reinforced Ti Bone Ingrowth |
| TNZT deposition Better Modulus |
| Low density Ti Better Modulus |
| HA on Ti Biocompatibility |
| Nitinol Shape |
| Alunina coating improve wear |
Aerospace |
Novel Ti Alloys Strength |
| Niobiul Silicide Temperature |
| Nanotube + Ni Fundamental R&D |
| FE Modeling Fundamental R&D |
| Single Crystal Repair |
Tooling |
Die Cast Repairs |
| Carbides cermets wear |
Industrial Gas Turbines |
Co Superalloys repair |
| GTD-111 Repair |
Various |
Reactive Gas wear resistance |
| Solidification behavior |
| Metallic Glasses |