Researchers & UT Community
Proof of Concept Awards
Technology Development
TEXAS PROOF OF CONCEPT AWARDS
These awards provide competitive funding for UT faculty members or permanent researchers with a principal investigator (PI) status to accelerate the tech commercialization process.
Texas Proof of Concept Awards
- Maximum value of $25,000
- No matching requirement
Texas+ Proof of Concept Awards
Requires the applicant to secure $125,000 in matching funds from an industry partner
Maximum value of $125,000
HOW TO APPLY
Applicants from any UT college, school, or unit may apply for one or both awards in any order; however, if a UT researcher wins both a Texas and Texas+ Proof of Concept award for a specific innovation, their total funding is limited to $125,000. In addition, applicants can receive a maximum of two Proof of Concept awards per year.
Deadline: Monday, February 9, 2026
Email pocawards@austin.utexas.edu with questions. Application cycles occur during the Fall and Spring semesters.
Award Recipients
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Christopher Rylander Therapeutic System for Brain Cancer
Synopsis:
Standard treatments for aggressive brain cancers are often ineffective and non-curative due to many challenges with treating tumors within the brain. UT engineers are developing a multifaceted catheter system that can deliver therapeutic agents and heat directly into desired positions in the brain tumor in order to maximize treatment potential.
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Manish Kumar Advanced Water Filtration Material
Synopsis:
Water is a critical resource for many different industries and it must be treated to specific standards, often involving chemicals or energy-intensive operations. Innovators at UT have developed sustainable, low-cost plant-based filters that remove high amounts of viruses, bacteria, and oil from water.
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Andrew Ellington Low-cost Rapid Diagnostic Enzyme Complex
Synopsis:
There is a global need for point-of-care diagnostic tests for infections but the key enzyme components of these tests can be expensive or hard to obtain. UT researchers have invented an extremely low-cost preparation method for key enzymes used in diagnostic tests that can enable rapid diagnosis of infectious diseases such as COVID-19.
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Janet Zoldan Sustainable Beef Brisket
Synopsis:
Current meat production will not be able to meet the increasing demand across the globe and it’s negative environmental impact is only growing. UT biomedical engineers are using a patented scaffolding technology to develop cultured beef brisket with similar look, texture, and taste.
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Jonathan Chen Fabric Strain Sensor Device for Pharyngeal Rehabilitation
Synopsis:
Swallowing dysfunction affects roughly 500,000 children and nine million adults in the US, potentially resulting in life-threatening choking and pneumonia. Clinical swallowing evaluations and technology only capture a snapshot of behavior, resulting in low validity of current testing, especially for children. UT scientists are seeking to provide a noninvasive and unobtrusive testing procedure for patients using novel sensing fabric that is able to be worn and washed for daily living.
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Farshid Alambeigi Steerable Surgical Drilling Device
Synopsis:
Current orthopedic drills can only drill in a straight line, making surgeries involving complex anatomies more time consuming and less successful. UT engineers have invented a handheld steerable drill for surgeries that require curved trajectories, allowing more efficient and more successful procedures.
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Tom Yankeelov Predicting and Optimizing Cancer Treatment
Synopsis:
When treating cancer, some treatments are more or less effective for different patients and physicians often lack tools that predict how patients will respond. UT researchers have developed a mathematical model that uses patient-specific imaging data to make accurate, patient-specific predictions of eventual response early in the course of therapy. They are currently focused on advanced brain, breast, and prostate cancer and are collaborating with UT MD Anderson Cancer Center.
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Delia Milliron Flexible and Smart Window Film for Energy Efficiency
Synopsis:
Roughly half of the energy consumption in the United States for buildings is for thermal control and lighting. New smart windows can control heat and light from the sun to improve energy performance in buildings but nearly all installed windows lack these capabilities and it is extremely expensive to replace windows in commercial buildings. UT researchers are developing an innovative, low-cost, film that can be applied to existing windows to dynamically control the amount of heat and light that goes through windows.
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Alan Groves Trinity Tube Feeding Tube
Synopsis:
Premature birth affects around 10% of infants and is the most significant cause of newborn death in the USA. Premature infants need to have their vital signs (heart rate, breathing rate, temperature) monitored continuously. At present this monitoring is carried out by skin mounted sensors which can damage the delicate skin. Realizing that all premature infants need a tube placed through their nose/mouth into the stomach to deliver milk feeds, UT physicians and engineers are developing an ‘intelligent’ feeding tube which can continuously and wirelessly monitor an infant’s vital signs while avoiding damage to the skin. Placement of sensors inside the chest will also allow the team to develop novel markers of airway pressure and work of breathing to guide clinical care for these vulnerable infants.
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Daniel Stromberg Endotracheal Tube Securement/Adjustment Device
Synopsis:
Pediatric intensive care patients require ventilation via endotracheal tubes that are secured to the baby’s face with tape, making adjustment difficult, risky, and often ineffective. UT physicians and scientists are developing a novel device for endotracheal tube securement and precise adjustment, resulting in better tube positioning and more effective treatment.
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Alex Demkov Manufacturing Electro-optic Wafers for Silicon Photonics
Synopsis:
The rapid growth of global internet traffic is driving rapid growth in demand for computing power and data transmission but current silicon photonic technology cannot fully meet the demand. UT physicists have invented a new process that can easily integrate electro-optic material on silicon which can potentially provide a universal platform for next-generation silicon photonics with a 100X increase in modulation efficiency.
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Aaron Baker Drug Eluting Chest Tube for Pain Reduction Following Surgery
Synopsis:
Traditional chest tubes are simple medical devices that are essential for draining the area around the lungs following surgery or injury. While these devices provide an important, lifesaving function they also cause constant, intense pain that requires treatment with opioid pain medication. UT innovators have developed a new chest tube that elutes local non-opioid anesthetic agents for pain reduction following cardiothoracic surgeries and trauma.
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