These are just a few of the thousands of new technologies developed at Georgia Tech that are available for commercial use. To see others, search our database of available technologies or sign up to be alerted when new technologies become available.
For Use In:
- Research tool
- Glaucoma research and diagnosis
- Research on the anterior and posterior eye
- Research validating trabecular meshwork cell lines
For Use In:
Georgia Tech’s device is ideally suited for use as an ionizing radiation detector, especially for:
- Medical radiation dosimetry
- Space application dosimetry
- Thermal nuclear reactor instrumentation
For Use In:
- Sport wearables and other accessories (e.g., hoodie bands, shoelaces, necklaces, etc.)
- Human health monitoring
- Building structural health monitoring
- HVAC integration (e.g., tracking of air pressure differential)
- Musical instruments
For Use In:
- Ultra-wide bandgap semiconductors
- High-power, high-voltage, high-frequency devices capable of operation in extreme heat and radiation environments
For Use In:
- Biological research
- Pharmaceutical compositions for glaucoma treatment and prevention of glaucoma-induced damage
For Use In:
Any application where there is a need for integrating alkali vapor sources directly on-chip, including:
- Nanotechnology
- Integrated photonics
- MEMS devices
- Chip-scale atomic clock
For Use In:
Georgia Tech’s device may serve as a stepping stone towards mechanical channeling of information to complement widely used mechanical filters (e.g., SAW devices) for:
- Radios
- Computer peripherals
- Cell phones, smart phones, and other communication devices
- Computing solutions for harsh environments (e.g., high temperatures, high dynamic loads)
For Use In:
This technology provides contamination protection during hybrid growth processes for production of semiconductor wafers, enabling better performance for devices such as:
- LEDs
- Lasers
- Transistors
- Solar cells
For Use In:
- Drug discovery
- High-throughput cell-based screening
- In-house co-culture modeling
- Expanded use of existing automated culture handling systems
- Fabrication of novel pulmonary barrier testing platforms
- Generation of bilayer co-culture models for screenings
