Browse Technologies

Displaying 51 - 60 of 182


Precision Pneumatic Robot for MRI-Guided Neurosurgery

At Vanderbilt University, a robotic steering mechanism for MRI-guided neurosurgical ablation has been developed. The small robot has submilimeter precision and is fully MRI compatible. It aims to replace current surgical practices with minimally invasive procedures in order to enhance the treatment of cancer and numerous neurological disorders such as epilepsy.


Licensing Contact

Taylor Jordan

615.936.7505
Medical Devices

System and Methods for Contact Detection and Localization in Continuum Robots

This technology expands the capabilities of continuum robots with a system and method that enables them to detect instances of contact and to estimate the position of the contact. This framework allows the motion of the robot to be constrained so as to ensure the robot doesn't damage itself, another robot arm, or surrounding environments. Applications for this technology include enhanced safe telemanipulation for multi-arm continuum robots in surgery, micro-assembly in confined spaces, and exploration in unknown environments.


Licensing Contact

Masood Machingal

615.343.3548

System and Methods of Using Image-guidance for Placement of Cochlear Stimulator Devices, Drug Carrier Devices, or the Like

Vanderbilt inventors have developed and tested a device (C-in) and method that would shift the current invasive, risky surgical procedure of cochlear implantation to a less invasive outpatient procedure.


Licensing Contact

Taylor Jordan

615.936.7505

Two Degrees-of-Freedom, Fluid Power Stepper Actuator Model

Vanderbilt researchers have developed a novel technology for use of a flexible fluidic actuator in MRI-guided surgical systems. This method eliminates the need for moving the patient out of the MRI machine, onto an operating table, and back in order to perform procedures. It is a safe, sterilized, and successful method to simplify MRI-guided surgical procedures.


Licensing Contact

Taylor Jordan

615.936.7505

TagDock: An Efficient Rigid Body Molecular Docking Algorithm For Three Dimensional Models of Oligomeric Biomolecular Complexes With Limited Experimental Restraint Data

TagDock is an efficient rigid body molecular docking algorithm that generates three-dimensional models of oligomeric biomolecular complexes in instances where there is limited experimental restraint data to guide the docking calculations. Through "distance difference analysis" TagDock additionally recommends followup experiments to further discriminate divergent (score-degenerate) clusters of TagDock's initial solution models


Licensing Contact

Masood Machingal

615.343.3548

Oral administration of levocarnitine for treating Sjögren's Syndrome-associated dry eye

Sjögren's syndrome (SjS) is a common and debilitating autoimmune disease, causing dry eye symptoms ranging from discomfort to dysfunction. Vanderbilt researchers have identified orally administered levocarnitine as a novel potential therapeutic for treating this condition.


Licensing Contact

Mike Villalobos

615.322.6751
Opthamology

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

Ashok Choudhury

615.322.2503

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

615.936.7505

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

Ashok Choudhury

615.322.2503

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