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Find technologies available for licensing from all ten University of California (UC) campuses.

Novel Methodology To Convert Magnetic Resonance Imaging Scan Data To Be Used In Proton Beam Therapy

This invention is a novel model that uses magnetic resonance imaging (MRI) information to more accurately determine the irradiation area using proton beam therapy (PBT) for oncological treatment.

Generation of an Improved Synthetic Splice Modulator (FDGLY) That Mirrors the Structural Features of the Potential CLL In Vitro Inhibitor FD-895

 An increasing body of research has shown that alternations in RNA splicing are involved in a number of human diseases, particularly cancer. Drug regulation of splicing has become an interesting new target for therapeutic discovery. A number of drug discovery efforts aimed at developing splicing-modulating small-molecules are being tested in clinic trials for cancer.

Architected Material Design For Seismic Isolation

Just in the Los Angeles area alone, USGS database shows a 95.23% change of a major earthquake occurring. While there are a variety of seismic devices already installed for the protection of high value structures, other customizable, cost efficient devices currently don’t exist for a wide range of other structures such as apartments, residential homes, or event moderate to high value equipment and artifacts. University of California has invented a novel material and method for creating cost efficient seismic protection devices for all types of such structures.

An Electro-Optical System with a Computation Model for Scanning Human Body

The invention describes an Electro-Optical instrument and a computational model for functional scanning of human body and recovering its chromophores (water, lipid, oxygenated hemoglobin, and deoxygenated hemoglobin). It is a low cost portable system that integrates frequency domain and continuous wave domain for real time spectroscopic imaging of human tissue.

A New and Cost-Effective Technology to Produce Hybrid-Glass/Optical Bubble Probes

The ability to accurately quantify gas volumes in liquid flows has important applications in environmental science and industry. For example, environmental processes that significantly contribute to changes in earth’s climate, such as methane seeps from the sea floor and the exchange of gases between the ocean and atmosphere at the sea surface, demand precise sensors that are small and sensitive enough to measure the ratio of liquids and gases in these bubbly mixtures. These measurements also play a critical role in the operational efficiency of a wide variety of different engineering processes. Applications include, the monitoring the optimal amount of bubbled oxygen in the treatment of waste water and sewage, and the oil and gas industry, especially in undersea oil pipelines in the Gulf of Mexico alone, have spent billions of dollars annually on added refinement techniques to remove seawater that could be preventable if sensors were able to measure the ratio of crude oil, seawater and gas as the mixture is pumped through pipelines. These challenges exist in both research and industry because the current manufacturing process for making the needed gas/liquid probes have significant cost constraints. Clearly, there is a need for a new and cost-effective technology to produce these probes.

A Method for Deep Brain Stimulation Targeting Based on Brain Connectivity

UCLA researchers have developed a novel method to place electrodes for deep brain stimulation. The method is significantly more precise than current methods, thereby increasing treatment efficacy and potentially eliminating repeat surgeries.

Geometrical Characterization of Surfaces from Noisy 3D Fluorescence Microscopy Data

A fully automated algorithm to determine the location and curvatures of an object’s surface from 3D fluorescence images.


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