MICHAEL MCCALL MILLER, DO
Osteopathic Medicine at Gleneagles Ct, Baltimore, MD

2013017, Jul 4, 2013

Apr 29, 2011

13/695173

Susumu Mori - Ellicott City MD, US
Michael I Miller - Baltimore MD, US
Kenichi Oishi - Lutherville Timonium MD, US

THE JOHNS HOPKINS UNIVERSITY - Baltimore MD

G06T 7/00, A61B 5/00

600407, 382131

A non-invasive imaging system, including an imaging scanner suitable to generate an imaging signal from a tissue region of a subject under observation, the tissue region having at least one substructure; a signal processing system in communication with the imaging scanner to receive the imaging signal from the imaging scanner; and a data storage unit in communication with the signal processing system, wherein the data storage unit stores an anatomical atlas comprising data encoding spatial information of the at least one substructure in the tissue region, and a pathological atlas corresponding to an abnormality of the tissue region, wherein the signal processing system is adapted to automatically identify, using the imaging signal, the anatomical atlas, and the pathological atlas, a presence of the abnormality or a precursor abnormality in the subject under observation.

2013010, Apr 25, 2013

Jun 22, 2011

13/703859

Susumu Mori - Ellicott City MD, US
Andreia V. Faria - Columbia MD, US
Michael I. Miller - Towson MD, US
Kenichi Oishi - Lutherville Timonium MD, US

G06K 9/20, A61B 5/055

600410, 382128, 382131

A non-invasive imaging system, including an imaging scanner suitable to generate an imaging signal from a tissue region of a subject under observation, the tissue region having at least one anatomical substructure and more than one constituent tissue type; a signal processing system in communication with the imaging scanner to receive the imaging signal from the imaging scanner; and a data storage unit in communication with the signal processing system, wherein the data storage unit is configured to store a parcellation atlas comprising spatial information of the at least one substructure in the tissue region, wherein the signal processing system is adapted to: reconstruct an image of the tissue region based on the imaging signal; parcellate, based on the parcellation atlas, the at least one anatomical substructure in the image; segment the more than one constituent tissue types in the image; and automatically identify, in the image, a portion of the at least one anatomical substructure that correspond to one of the more than one constituent tissue type.

2013025, Sep 26, 2013

Mar 23, 2012

13/428901

Mark Eberhardt - Elverson PA, US
Hiroyoshi Ise - Bear DE, US
George Stern - Newark DE, US
Michael Miller - Baltimore MD, US
Yasutake Yamada - Bear DE, US

Terumo Medical Corporation - Somerset NJ

A61M 29/00

606191

The present technology is directed to a dilator centering device and assemblies and methods using same. In particular, a dilator centering device in accordance with the disclosed technology can be used with a sheath hub assembly. In one embodiment, a dilator centering device includes a lumen capable of receiving a dilator shaft and centering a dilator shaft with respect to the sheath hub as the dilator shaft enters the sheath hub. In one embodiment, the dilator centering device can be attached to the sheath hub during manufacturing or it can be attached at the use site. In one embodiment, the dilator centering device can be integrated with and non-removable from the sheath hub. The embodiments disclosed herein are illustrative and do not limit the scope and spirit of the disclosed technology.

2013022, Aug 29, 2013

Oct 25, 2011

13/824853

Susumu Mori - Ellicott City MD, US
Michael I. Miller - Baltimore MD, US
Kenichi Oishi - Lutherville-Timonium MD, US
Andreia V. Faria - Baltimore MD, US

The Johns Hopkins University - Baltimore MD

G06T 7/00

382131

An embodiment of the current invention includes a non-invasive imaging system, comprising: an imaging scanner suitable to generate an image representing a tissue region of a subject under observation, the tissue region having at least one substructure and the image comprising a plurality of image voxels; a signal processing system in communication with the imaging scanner to receive the imaging signal from the imaging scanner; and a data storage unit in communication with the signal processing system, wherein the data storage unit is configured to store: an atlas comprising spatial information of the at least one substructure in the tissue region, and a database comprising a plurality of pre-stored medical images representing the tissue region, and wherein the signal processing system is adapted to: identify, based on the atlas and for each of the at least one substructure, a corresponding portion of image voxels in the image; provide a computed quantification of the corresponding portion of image voxels for each of the at least one substructure of the tissue region by performing spatial filtering on the image; and search the database to provide at least one selected medical image from the plurality of pre-stored medical images, the at least one selected medical image having a corresponding quantification that is substantially similar to the computed quantification.