Available Technologies
# of Displayed Technologies: 10 / 45
Applied Category Filter (Click To Remove): Materials/Chemicals
Methods to produce high purity tritium gas
TS-067793 — The technology is a device and method for producing high purity tritium gas by irradiating a lithium composition within a gas cell that selectively allows tritium to diffuse while blocking other byproducts, ensuring efficient and direct collection of pure tritium without extensive purification. This system is designed to enhance the purity, efficiency, and scalability of tritium production for various industrial and research applications.
The production of high purity tritium gas is critical for applications in nuclear fusion, radioluminescent devices, and scientific research. Current methods for tritium production often result in contaminants like helium and other gases, requiring additional purification processes that are costly …
- College: College of Engineering (COE)
- Inventors: Cao, Lei Raymond; Van Zile, Matthew
- Licensing Officer: Zinn, Ryan
Computational Design of Experiment Framework for Processing of Metal Alloys
TS-067792 — A software tool for optimizing the manufacturing process for metal alloys.
Metallic alloys are composed of a homogeneous mixture of two or more metals or of metals and nonmetal or metalloid elements to provide specific characteristics or structural properties. Alloys are used in many applications, such as aircraft, offshore drilling, automobiles, and others.
Obtaining t…
- College: College of Engineering (COE)
- Inventors: Alexandrov, Boian; Forquer, Matthew; Jang, Eun; Luo, Yuxiang; Stewart, Jeffrey
- Licensing Officer: Zinn, Ryan
Endoscopic additive manufacturing of conductors and wireless implants
TS-067045 — The Need
Wireless implants with integrated antennas are highly desirable for diagnostic, therapeutic, and monitoring applications due to their ability to communicate directly with external devices. However, the need for major surgical incisions to implant these devices poses significant risks, incl…
- College: College of Engineering (COE)
- Inventors: Kiourti, Asimina; Dontha, Balaji; Hoelzle, David; Li, Jinghua; Moulod, Mohammad
- Licensing Officer: Randhawa, Davinder
Innovative Solutions for Cell Viability and Targeted Delivery
TS-066100 — Research tool to transfect cells ex vivo using electroporation through electrospun core-shell fibers for research applications
The Need:
Conventional electroporation methods often result in low cell viability due to heat generation, especially when working with primary cells. These methods also face challenges with non-specific transport of molecules, high vector integration rates leading to mutagenesis, and inefficacy in …
- College: College of Engineering (COE)
- Inventors: Gallego Perez, Daniel; Das, Devleena; Duarte Sanmiguel, Silvia; Higuita Castro, Natalia
- Licensing Officer: Willson, Christopher
Use of Cerium in Neutralizing Iron Impurity in Aluminum Alloys
TS-065429 — Iron is the main and most detrimental impurity in most industrial casting aluminum alloys. Iron content in aluminum alloys is limited, up to 0.1 weight% in some alloys.
Iron is a major impurity element in primary and secondary (scrap) aluminum alloys. It is difficult to remove during melting and casting. Controlling the formation of Al-Fe-based intermetallics via alloying is key to leveraging the mechanical properties of aluminum alloy products. The current struc…
- College: College of Engineering (COE)
- Inventors: Luo, Alan; Cinkilic, Emre; Moodispaw, Michael
- Licensing Officer: Zinn, Ryan
Highly Efficient Light Olefin Selectivity & Production Process
TS-065422 — Light olefins, such as ethylene and propylene, are essential building blocks in the petrochemical industry and have a wide range of uses in various applications. The most common uses for olefins include polymers, chemical intermediates, solvents, rubber, and nanomaterials, among others.
Although Light olefins are used globally in many products, the catalytic processes to produce them are energy intensive with a large carbon footprint and the production of greenhouse gases and water pollution. As a result, substantial efforts are being made in the industry to develop more sustain…
- College: College of Engineering (COE)
- Inventors: Ozkan, Umit; Gunduz, Seval; Kim, Jaesung
- Licensing Officer: Zinn, Ryan
Environmental Damage Model for Predicting Mechanism Transition under Time-Dependent Crack Growth Conditions.
TS-065131 —
- College: College of Engineering (COE)
- Inventors: Viswanathan, Gopal; Mills, Michael; Mills, David
- Licensing Officer: Randhawa, Davinder
Three-dimensional cellular automation codes for solidification microstructure and porosity simulation of multi-component alloys
TS-063911 —
Porosity formation during the solidification of aluminum-based alloys, induced by hydrogen gas and alloy shrinkage, presents a significant challenge for industries relying on high-performance solidification products such as castings, welds, and additively manufactured components. This issue advers…
- College: College of Engineering (COE)
- Inventors: Luo, Alan; Gu, Cheng
- Licensing Officer: Zinn, Ryan
High-entropy AlCrTiV alloys
TS-063365 — Experience the future of materials technology with our high-entropy AlCrTiV metal alloy—a revolutionary solution that reshapes the possibilities in engineering and manufacturing. Elevate your products to new heights of performance, efficiency, and sustainability with our innovative alloy.
For a closely related technology, please visit https://oied.osu.edu/find-technologies and type "T2021-261" in the search field.
In various industries, from aerospace to manufacturing, the pursuit of materials with exceptional mechanical properties coupled with low weight is unending. Conventional alloys often trade off one aspect for another, leaving a gap in the market for a metal alloy that seamlessly integrates strength…
- College: College of Engineering (COE)
- Inventors: Luo, Alan; Huang, Xuejun; Sun, Weihua
- Licensing Officer: Zinn, Ryan
Metal Matrix Composites Reinforced by High Entropy Alloys
TS-063364 — Experience the future of advanced materials—our metal matrix composites offer a revolutionary approach to meeting the demands of modern industries. Elevate your products, enhance performance, and reduce costs with our groundbreaking technology.
For a closely related technology, please visit https://oied.osu.edu/find-technologies and type "T2017-051" in the search field.
In the aerospace, defense, and automotive industries, there is a pressing demand for advanced materials that combine low weight, high strength, exceptional wear resistance, and superior high-temperature performance. Traditional methods using ceramic particles as reinforcements in aluminum matrix c…
- College: College of Engineering (COE)
- Inventors: Luo, Alan; Huang, Xuejun; Zhang, Jianyue
- Licensing Officer: Zinn, Ryan
