| University of Central Florida Research Foundation, Patent applications |
| Patent application number | Title | Published |
|---|
| 20110223661 | INHIBITORS OF STAT3 - Disclosed herein are compounds derived from a chemical structure according to the formula (I) wherein X comprises oxygen or sulfur, R | 09-15-2011 |
| 20110195526 | Thermo-probes, methods of making thermo-probes, and methods of detection using thermo-probes - Embodiments of the present disclosure provide for thermo-probes (also referred to herein as “probes”), particles including a plurality of probes, methods of making thermo-probes or particles, thermo-probe complexes, method of making thermo-probe complexes, methods of detecting a target, methods of detecting multiple targets, assays using the thermo-probes, immunoassays using the thermo-probes, methods of using thermo-probes or particles, and the like. | 08-11-2011 |
| 20100092141 | Silicon Photonic Fiber and Method of Manufacture - Methods of converting silica to silicon and fabricating silicon photonic crystal fiber (PCF) are disclosed. Silicon photonic crystal fibers made by the fabrication methods are also disclosed. One fabrication method includes: sealing silica PCF and a quantity of magnesium within a container, the quantity of magnesium defined by 2Mg( | 04-15-2010 |
| 20090323738 | SYSTEMS AND METHODS FOR GENERATING A TUNABLE LASER BEAM - Systems and methods of generating a tunable laser beam are disclosed. An example method includes: generating coherent optical beams from a plurality of semiconductor optical amplifiers (SOAs); combining the coherent optical beams into a combined coherent optical beam; and tuning the combined beam to a selected frequency range to output a coherent optical beam having only the selected frequency range. In some embodiments, the SOAs are arranged in parallel within a resonant cavity, and each coherent optical beam has a different center wavelength that overlaps in bandwidth with another one of the coherent optical beams. | 12-31-2009 |
| 20090184798 | SHAPE MEMORY THERMAL CONDUCTION SWITCH - A thermal conduction switch includes a thermally-conductive first member having a first thermal contacting structure for securing the first member as a stationary member to a thermally regulated body or a body requiring thermal regulation. A movable thermally-conductive second member has a second thermal contacting surface. A thermally conductive coupler is interposed between the first member and the second member for thermally coupling the first member to the second member. At least one control spring is coupled between the first member and the second member. The control spring includes a NiTiFe comprising shape memory (SM) material that provides a phase change temperature <273 K, a transformation range <40 K, and a hysteresis of <10 K. A bias spring is between the first member and the second member. At the phase change the switch provides a distance change (displacement) between first and second member by at least 1 mm, such as 2 to 4 mm. | 07-23-2009 |
| 20090160767 | Systems and Methods of Camera-Based Fingertip Tracking - Systems and methods for camera-based fingertip tracking are disclosed. One such method includes identifying at least one location of a fingertip in at least one of the video frames, and mapping the location to a user input based on the location of the fingertip relative to a virtual user input device. | 06-25-2009 |
| 20080279564 | Systems and Methods of Polarization Time Coding for Optical Communications - Systems and methods of polarization-time coding are disclosed. One method includes encoding information in orthogonal polarizations of light and correlated information in multiple time slots, and transmitting the information using the orthogonal polarizations in the time slots. Another method includes receiving a first input pair which specifies a first polarization state and a second input pair containing which specifies a second polarization state; transforming each input pair according to a matrix specifying a conjugate operation to produce four output pairs. The method further includes transmitting at a first time the first output pair using the first polarization state and the third output pair using the second polarization state. The method further includes transmitting at a second time the second output pair using the first polarization state and the fourth output pair using the second polarization state. | 11-13-2008 |
