Sandhage, Kenneth H Henry

Back to all technologies

Innovations

	Innovation Title	Categories	Lead Inventor
	Tailored Surface Roughness and Surface Porosity of Titanium-bearing Bodies for Biomedical Applications 2020-SAND-68953	Biomedical Engineering	Sandhage, Kenneth H Henry
	Reliable Containment of High-Temperature Molten Halide Salts for Thermal Energy Storage 2020-SAND-69026	Materials and Manufacturing Chemical Engineering	Sandhage, Kenneth H Henry
	New Fabrication Process for Hypersonics 2019-SAND-68537	Materials and Manufacturing Aeronautics	Sandhage, Kenneth H Henry
	High-Temperature Heat Transfer and Thermal Energy Storage Materials 2019-SAND-68677	Chemical Engineering Civil Engineering	Sandhage, Kenneth H Henry
	Methods of Fabricating Refractory Complex Concentrated Alloys 2020-SAND-69002	Materials and Manufacturing	Sandhage, Kenneth H Henry
	Inhibiting Molten Salt Infiltration of Porous Materials 2020-SAND-68768	Materials and Manufacturing	Sandhage, Kenneth H Henry
	Mechanically, Thermally, and Chemically-Robust (Oxidation/Corrosion-Resistant) High-Temperature Ceramic/Metal Composites 2019-SAND-68340	Materials and Manufacturing	Sandhage, Kenneth H Henry
	Mechanically Robust High Temperature Composites and Processes for Manufacturing Such Composites 2017-SAND-67675	Materials and Manufacturing	Sandhage, Kenneth H Henry
	Toughened Ceramic Composite Components for High-Temperature Systems 2016-SAND-67513	Materials and Manufacturing Electrical Engineering	Sandhage, Kenneth H Henry
	Method and Materials for Achieving Corrosion Resistance 2016-SAND-67546	Materials and Manufacturing Chemical Engineering	Sandhage, Kenneth H Henry
	Method for Achieving Corrosion Resistance of Solids in Molten Salts 2017-SAND-67813	Materials and Manufacturing	Sandhage, Kenneth H Henry
Bookmark all selected

Details

Biography	Dr. Kenneth Sandhage is the Reilly Professor of Materials Engineering at Purdue University. He received a B.S. in Metallurgical Engineering with highest distinction from Purdue University and a Ph.D. in Ceramics from the Massachusetts Institute of Technology. The Sandhage group has pioneered the development of novel, shape-preserving, reaction-based processes for generating materials with tailored chemistries and macro-to-nanoscale structures for energy, environmental, transportation, defense, and medical applications. For additional information, visit Dr. Sandhage's Purdue webpage: https://engineering.purdue.edu/MSE/People/ptProfile?id=126421 or his research website: https://engineering.purdue.edu/MSE/People/Faculty/sandhage/index.html
Categories	Aeronautics Biomedical Engineering Chemical Engineering Civil Engineering Electrical Engineering Materials and Manufacturing
Keywords	Aeronautics Alloys Automotive Biomedical Engineering Ceramics Chemical Engineering Chemical Processing Civil Engineering Coatings Composites Compounds Corrision Defense/Space Die Casting Electrical Engineering Electrically Conductive Energy Energy Conversion Energy Harvesting Energy Production Energy Storage Energy Systems Engines Fracture Resistant Hard Carbon Heat Exchanger Heat Transfer High Temperatures Implants Low Cost Manufacturing Material Development Materials and Manufacturing Materials Science Mechanical Engineering Mechanical Properties Metals Military Oxidation Resistant Packaging and Containers Power Management Pulsed Valves Salt Seal Solar Solar Technology Stiff Thermal Thermally Conductive Thermoelectric Tough Transportation Turbine Engines Valves Welding Wind Energy