Our comprehensive research on Nitinol and advanced materials includes studies on texture evolution during martensite detwinning and phase transformation, fatigue performance with varying cold work reductions, and structure-property relationships in conventional and nanocrystalline NiTi intermetallic alloy wire. Our work also explores composite wires used in guidewire applications and the effect of Ni/Ti ratio and Ta content on NiTiTa alloys.

• Texture Evolution During Nitinol Martensite Detwinning and Phase Transformation
• Fatigue Performance of Nitinol Round Wire with Varying Cold Work Reductions
• Structure-Property Relationships in Conventional and Nanocrystalline NiTi Intermetallic Alloy Wire
• Characterizing Fatigue Response of Nickel-titanium
• The Effects of Varying Active Af Temperatures
• Engineering Characteristics of Drawn Filled Nitinol Tube
• Influence of Nitinol Wire Surface Preparation Procedures
• Effect of Heat Treatment Temperature on Nitinol Wire
• Evolution of Intergranular Stresses in a Martensitic and an Austenitic NiTi Wire During Loading-Unloading Tensile Deformation
• Texture Evolution During Nitinol Martensite Detwinning and Phase Transformation
• Cyclic Potentiodynamic Survey of Medical Materials
• Design of Experiment for Solder Project
• Bend Moment Analysis Comparing Strand Annealed
• The Significance of Melt Practice on Fatigue Properties
• An Investigation of Diverse Surface Finishes on Fatigue
• The Influence of Melt Practices on Final Fatigue
• Characterization of Binary Nitinol Actuators with Various Transformation Temperatures Employing Uniaxial Isobaric Loading
• Comparison of Manual and Automated Bend and Free Recovery Test Methods for Measuring the Active Austenite Finish Temperature of Nitinol Wire
• A CoNiCr-Nitinol Composite Wire for Guidewire Type Applications
• Effect of Ni/Ti Ratio and Ta content on NiTiTa Alloys