University of Minnesota

Embomedics, Inc.

Jafar Golzarian

Lihui Weng

Michael S Rosenberg

Braden Eliason

Sean Lester Moen

Omid Souresrafil

Enio T Perez Filho

Reza Talaie

Aaron Koenigsberg

Techniques are disclosed for extended-reality (XR) visualization of a flexible medical tool. In one example, sensor(s), disposed near a distal portion of a flexible shaft of a medical tool configured for insertion into a patient, sense values indicative of a pose of the medical tool with respect to an EM field. A computing device adjusts, based on the sensed values, a relative alignment between the medical tool, an internal anatomy of the patient, and an exterior of the body of the patient. The computing device generates, based on the computed relative alignment between the medical tool, the internal anatomy, and the exterior of the body, XR content comprising a visual representation of the medical tool within the patients internal anatomy, and outputs the XR content for display to a user so as to simulate a current pose of the medical tool relative to the body of the patient.

Extended-reality visualization of endovascular navigation

The present disclosure is generally directed to an embolic material which, in some embodiments, may be in the form of a microsphere or a plurality of microspheres. The embolic material generally comprises carboxymethyl chitosan (CCN) crosslinked with carboxymethyl cellulose (CMC). In some embodiments, the embolic material may further comprise a therapeutic agent, such as doxorubicin.

Bioresorbable embolization microspheres

A vascular graft includes deformable sleeves that include an electrical component. The electrical component can be variable-resistance or piezoelectric, in embodiments, such that deformation of the sleeves due to pressure changes create or modify an electrical signal. A transponder can then transmit information relating to the pressure inside and outside of the vascular graft.

Active monitoring pressure sensitive vascular graft

The present disclosure describes a plurality of microspheres that include carboxymethyl chitosan (CCN) crosslinked with carboxymethyl cellulose (CMC). The microspheres are biocompatible, bioresorbable, and biodegradable. The microspheres may be used in personal care products, such as, for example, toothpaste, topical pain relief products, topical antibiotic products, skincare products such as anti-wrinkle products, eczema products, skin scrubs, acne cleansers, exfoliators, body washes, soaps, pre-shave creams, or the like.

Biodegradable microspheres

A liquid embolic material may include a mixture of a first solution comprising between about 1.2% and about 2.5% weight per volume (w/v) carboxymethyl chitosan (CCN) in a first solvent and a second solution comprising between about 1.2% and about 2.5% w/v oxidized carboxymethyl cellulose (OCMC) in a second solvent. The liquid embolic material may be used to embolize a targeted embolization location by mixing the first solution and the second solution to form a liquid embolic material (or hydrogel precursor material), introducing the hydrogel precursor material to a targeted embolization location within a body of a patient, and allowing the CCN and the OCMC to react to form the hydrogel material and embolize the targeted embolization location.

Growing community of inventors

Plymouth, MN, United States of America

Jafar Golzarian