Browse Technologies

Displaying 91 - 100 of 184


Quantitative rapid diagnostic platform using porous silicon on paper

This technology combines the sensitivity of porous silicon with the speed of lateral flowassays to create a point-of-care diagnostic platform capable of rapidly and accuratelymeasuring biomarkers.


Licensing Contact

Cameron Sargent
cameron.sargent@vanderbilt.edu
615.322.5907
Diagnostics
Infectious Disease

Anti-inflammatory microparticles for sustained ocular drug delivery

Vanderbilt researchers have developed an injectable drug delivery vehicle using microparticles (MPs) that not only provide sustained cargo delivery over extended time but also play a therapeutic role themselves in reducing inflammation. This drug delivery platform can be used in treating ocular diseases such as glaucoma and traumatic optic neuropathy, as well as other inflammatory diseases throughout the body like peripheral arterial disease and osteoarthritis.


Licensing Contact

Taylor Jordan
taylor.jordan@vanderbilt.edu
615.936.7505

ML-powered software for planning sleep apnea surgery

High-resolution pharyngeal manometry (HRM) provides an inexpensive and objective method for analyzing the pharynx during natural sleep and can be utilized to select candidates for certain surgical procedures for obstructive sleep apnea (OSA).


Licensing Contact

Chris Harris
chris.harris@vanderbilt.edu
615.343.4433

Head Motion Correction with Soft Pressure Pad for MRI Scans

Vanderbilt University researchers have developed a novel soft pressure sensing pad to track head motion during MRI to improve diagnostic image quality and reduce erroneous artifacts.


Licensing Contact

Chris Harris
chris.harris@vanderbilt.edu
615.343.4433

Targeting PD-1H to treat Acute Myeloid Leukemia (AML)

Despite the success of immune checkpoint inhibitors (ICI) like anti-PD-1 in treating other cancers, these therapeutics have not been demonstrated to effectively treat acute myeloid leukemia (AML). Vanderbilt researchers have identified PD-1H as a potential target for treating AML, opening the door for effective therapy using an ICI molecule.


Licensing Contact

Cameron Sargent
cameron.sargent@vanderbilt.edu
615.322.5907

Inventors

Tae Kon Kim
Therapeutics
Oncology

Targeted photodynamic therapy for S. aureus infections

Vanderbilt researchers have developed a combination photodynamic therapy (PDT) for targeting MRSA infections in skin that is not only effective but also HIGHLY SPECIFIC and LESS SUSCEPTIBLE TO RESISTANCE, adding a much needed therapy to our quickly depleting arsenal against this pathogen.


Licensing Contact

Cameron Sargent
cameron.sargent@vanderbilt.edu
615.322.5907

Targeted light-based therapy for acne

Vanderbilt researchers have developed a photodynamic therapy (PDT) for effectively and specifically treating acne, the most common skin condition.


Licensing Contact

Cameron Sargent
cameron.sargent@vanderbilt.edu
615.322.5907
Therapeutics
Small Molecule

One-Step Hydrosilylation for Click Chemistry Compatible Surfaces

Vanderbilt inventors have developed a one-step hydrosilylation synthesis of azide surfaces for the preparation of click chemistry compatible substrates. In this process, an organic azide is formed in a single step on a hydrogen-terminated silicon support, yielding a surface that is ready to undergo click reactions as desired. Simple, efficient, and versatile, click chemistry is widely used and is particularly useful for biosensing applications. A click reaction can be utilized to attach a molecular or biological probe for point-of-care diagnostics and chemical screening.


Licensing Contact

Taylor Jordan
taylor.jordan@vanderbilt.edu
615.936.7505

Miniature Magnetorheological Brake Technology

A team of Vanderbilt engineers have developed a miniature magnetorheological (MR) brake with a combination of high braking torque and a fast response time. With potential applicability over a wide spectrum of applications, the device was initially developed with robotic and haptic applications in mind.


Licensing Contact

Chris Harris
chris.harris@vanderbilt.edu
615.343.4433

Low-Frequency Strain Energy Harvester

Vanderbilt researchers have developed a novel energy-harvesting device capable of efficient electrochemical strain energy harvesting at frequencies as low as 0.01 Hz. The device enables the harvesting of energy produced from low frequencies associated with human motion such as walking and sitting.


Licensing Contact

Philip Swaney
philip.j.swaney@vanderbilt.edu
615.322.1067