Virginia Tech Intellectual Properties Inc

Wake Forest University

Sano, Michael, B.

Verbridge, Scott, S.

Davalos, Rafael V.

Arena, Christopher, B.

Scott S Verbridge

Rafael V Davalos

Christopher B Arena

Michael B Sano

Waldemar Debinski

Eduardo L Latouche

Jill W Ivey

Glenn J Lesser

Described herein are methods of electroporation that can include the steps of contacting a cell that is responsive to an EphA2 receptor ligand with an amount of an EphA2 receptor ligand and applying high-frequency irreversible electroporation to the cell. Also described herein are methods of treating cancer in a subject in need thereof, wherein the methods can include the steps of administering an amount of an EphA2 receptor ligand and applying high-frequency irreversible electroporation to a location on or within the subject.

Induced cell morphology electroporation

The present invention relates to the field of biomedical engineering and medical treatment of diseases and disorders. Methods, devices, and systems for in vivo treatment of cell proliferative disorders are provided. In embodiments, the methods comprise the delivery of high-frequency bursts of bipolar pulses to achieve the desired modality of cell death. More specifically, embodiments of the invention relate to a device and method for destroying aberrant cells, including tumor tissues, using high-frequency, bipolar electrical pulses having a burst width on the order of microseconds and duration of single polarity on the microsecond to nanosecond scale. In embodiments, the methods rely on conventional electroporation with adjuvant drugs or irreversible electroporation to cause cell death in treated tumors. The invention can be used to treat solid tumors, such as brain tumors.

Selective modulation of intracellular effects of cells using pulsed electric fields

A system and method for selectively treating aberrant cells such as cancer cells through administration of a train of electrical pulses is described. The pulse length and delay between successive pulses is optimized to produce effects on intracellular membrane potentials. Therapies based on the system and method produce two treatment zones: an ablation zone surrounding the electrodes within which aberrant cells are non-selectively killed and a selective treatment zone surrounding the ablation zone within which target cells are selectively killed through effects on intracellular membrane potentials. As a result, infiltrating tumor cells within a tumor margin can be effectively treated while sparing healthy tissue. The system and method are useful for treating various cancers in which solid tumors form and have a chance of recurrence from microscopic disease surrounding the tumor.

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Blacksburg, VA, United States of America

Scott S Verbridge