Browse Technologies

Displaying 101 - 110 of 183


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

615.343.4433

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

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

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

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

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

615.322.1067

Speculum-Free Diagnostic Probe for Optical Assessment of the Cervix

A new approach for obtaining less invasive optical measurements of the cervix has been developed that does not require the use of a speculum exam. This technology can visualize the cervix in vivo to find unique biomarkers that indicate various conditions such as preterm labor, cancer, human papillomavirus (HPV), and dysplasia.


Licensing Contact

Masood Machingal

615.343.3548

Rotary Planar Peristaltic Micropump (RPPM) and Rotary Planar Valve (RPV) for Microfluidic Systems

A Vanderbilt University research team led by Professor John Wikswo has developed low-cost, small-volume, metering peristaltic micropumps and microvalves. These pumps and valves can be used either as stand-alone devices incorporated into microfluidic subsystems, or as readily customized components for research or miniaturized point-of-care instruments, Lab-on-a-Chip devices, and disposable fluid delivery cartridges.


Licensing Contact

Masood Machingal

615.343.3548

Tentacle-Like Robots to Access Tight Spaces in Manufacturing and Medical Applications

Vanderbilt researchers have developed a novel method for enabling tentacle-like robots to reach into tight spaces in manufacturing or medical applications. This is useful for industrial inspection tasks, assembly of products like airplane wings with complex geometry, or making medical endoscopes reach places in the body they cannot reach today. The new invention involves routing actuation wires along a flexible arm through curved paths along the robot


Licensing Contact

Chris Harris

615.343.4433
Medical Devices

Lickometer: Instrument for measuring rodent drinking behavior

Researchers at Vanderbilt University designed an instrument capable of higher accuracy and analyzing lick microstructure compared to current available models. This device is compatible with classic ventilated home cages, making it easy to build and use with an intuitive touchscreen graphical user interface. The system tracks two-bottle choice licking behavior in up to 18 rodent cages, or 36 single bottles, on a minute-to-minute timescale controlled by a single Arduino microcontroller. Ultimately, the system measures drinking preference over time and changes in bout microstructure, with undisturbed recordings lasting up to 7 days.


Licensing Contact

Greg Pawel

615.343.0996