Medical Imaging

Displaying 21 - 30 of 38


Advanced Ultrasound Imaging for Kidney Stone Detection

The standard for kidney stone detection is through the use of computed tomography (CT). However, CT is expensive and delivers harmful ionizing radiation into the body. Ultrasound would be the ideal way to detect kidney stones except that it performs poorly in detecting and accurately sizing stones. Vanderbilt researchers inventors have developed a technique that is able to separate hard, mineralized material (i.e kidney stones) from soft tissue in a way that is both cheaper and safer than CT and performs better than conventional ultrasound imaging.


Licensing Contact

Masood Machingal

615.343.3548

Advanced Method for Data Corrections in Organ Deformation

A group of Vanderbilt University researchers have developed a solution that will correct for the mis-registration of image data in image-guided surgery. The solution uses software to correct for any mis-registration that is caused by the presence of intraoperative deformations. This invention helps to improve the performance and capabilities of image-guided surgery.


Licensing Contact

Philip Swaney

615.322.1067
Medical Imaging

Molecular Image Fusion: Cross-Modality Modeling and Prediction Software for Molecular Imaging

A research team at Vanderbilt University Mass Spectrometry Research Center has developed the Molecular Image Fusion software system, that by fusing spatial correspondence between histology and imaging mass spectrometry (IMS) measurements and cross-modality modeling, can predict ion distributions in tissue at spatial resolutions that exceed their acquisition resolution. The prediction resolution can even exceed the highest spatial resolution at which IMS can be physically measured. This software has been successfully tested on different IMS datasets and can be extended to other imaging modalities like MRI, PET, CT, profilometry, ion mobility spectroscopy, and different forms of microscopy.


Licensing Contact

Karen Rufus

615.322.4295

Model-based Compression Correction Framework for Ultrasound

Vanderbilt researchers have developed a system that corrects for compressional effects in ultrasound data during soft tissue imaging. The system uses tracking and digitization information to detect the pose of the ultrasound probe during imaging, and then couples this information with a biomechanical model of the tissue to correct compressional effects during intraoperative imaging.


Licensing Contact

Philip Swaney

615.322.1067

Non-Invasive Cell Size Detection

Vanderbilt researchers have developed a new method for using contrast enhanced MRI to non-invasively map and quantify cell size on a voxel-by-voxel basis. Using this approach, it is possible to monitor and detect diseases or treatments that alter the distribution of cell sizes such as cancer, muscular dystrophy, hepatocellular hypertrophy, and hypertrophic cardiomyopathy.


Licensing Contact

Chris Harris

615.343.4433
Medical Imaging

Latent Image-Derived Features for Prognostic Modeling

Researchers at Vanderbilt have developed a system to estimate prognostic metrics such as the length of a hospital stay, recovery status at discharge, and overall health at discharge, using only baseline imaging and clinical information gathered early in the hospital admission process. This system can assist with medical group operations and planning, it can help to educate families and patients regarding prognosis, and can be used to automatically stage patients for clinical trials.


Licensing Contact

Chris Harris

615.343.4433
Medical Imaging

A Simple and Highly Portable Flow Phantom for Doppler Ultrasound Quality Measurements

A new phantom has been designed in which Doppler ultrasound measurements can be conducted for quality assurance purposes. The phantom is highly portable, does not require power to operate, and allows for simple and reproducible measurements of Doppler ultrasound function. This combination of advantages allows for realistic monthly, weekly, even daily Doppler QA measurements.


Licensing Contact

Chris Harris

615.343.4433
Medical Imaging

Real-time Detection of Position and Orientation of Wireless Endoscopy Capsule using Magnetic coupling

Vanderbilt researchers have developed a new system to detect the position, orientation, and pressure exerted on surrounding tissues of a wireless capsule endoscopy device.  Magnetic coupling is one of the few physical phenomena capable of transmitting actuation forces across a physical barrier.  Magnetic manipulation has the potential to make surgery less invasive, by allowing untethered miniature devices to enter the body through natural orifices or tiny incisions, and then maneuver with minimal disruption to healthy tissue.  In order to accomplish this goal, the pose (position and orientation) of the medical device must be available in real time.


Licensing Contact

Masood Machingal

615.343.3548

Miniature Optical Coherence Tomography Probe for Real-time Monitoring of Surgery

Vanderbilt researchers have designed a forward scanning miniature intraoperative Optical Coherence Tomography (OCT) probe that can be used for diagnostic purposes and real-time monitoring of surgery within small spaces, such as endoscopic surgery, intraocular surgery, and other microsurgery.


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