Neocoil, LLC

Electric Mirror, LLC

Paul Ropella

Brian Brown

James V Mischel, Jr

Michael Naughton

Steven D Wolff

Emad Abdelsalam

Mark Joseph Stefka

Liang-Sywan Edward Jen

Matthew Brown

Cindy Comeau

Ross Divanfard

Terry Smith

An improved system for providing audio signals to a patient during medical imaging is disclosed. A converter device is operatively connected to a audio signal transmitter such as a pneumatic audio port commonly used for pneumatic headphones. The converter device includes a connecting member removably inserted into the pneumatic audio port. A microphone receives the pneumatic audio signals and converts these signals to electronic audio signals. The converter device further includes a wireless transmitter that converts the electronic audio signals to wireless signals and transmits the wireless signals to a wireless receiver. The wireless receiver may be located in a headset worn by the patient, which receives the wireless signals and provides the audio content to the patient during imaging.

System for converting audio signals to wireless audio signals in a medical imaging environment

A pneumatic audio system which is compatible with use within an MRI environment is disclosed. The system has an audio transducer including a housing having a plurality of walls, a foam insert supported within the housing, and a speaker supported by the foam insert and extending at an angle with respect to the walls of the housing. The system further has a hollow tube coupled to the audio transducer at a first end and configured to transmit audio signals from the speaker through the tube. The system further has an earphone coupled to a second end of the hollow tube and configured to deliver audio signals to an ear canal of a human user.

Method and apparatus for delivering audio signals and providing hearing protection during medical imaging

A system for automatically identifying a needle insertion location from a medical diagnostic image, such as an MRI image, and providing a visual indication of the needle insertion location is disclosed. A grid plate is located proximate to an anatomical region and is preferably incorporated in an MRI support structure utilized to immobilize the anatomical region. An MRI scanner obtains an MRI image of the anatomical region, and an MRI technician places a marker on the MRI image, identifying the needle insertion location. The MRI image and the marker are transferred from the MRI scanner to another device, such as a tablet computer, which is configured to convert the MRI image and the marker to coordinates and an insertion depth. A visual indicator is located proximate to or integrated with the grid plate that provides the needle insertion coordinates and insertion depth to the MRI technician.

Automatic needle insertion location identification

An apparatus includes a surface; the surface has a conductive layer within a thickness of the surface. A trench is formed in the conductive layer to define a touch area, the touch area is isolated from the rest of the conductive layer. A conductive pickup is mounted on a back side of the surface over the touch area and the conductive pickup is electrically connected to a capacitive touch controller, such that when a user touches the touch area on a front side of the conductive the touch controller responds to the user's touch.

Apparatuses and methods for using a capacitive touch controller with a conductive surface

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New Berlin, WI, United States of America

Paul Ropella