Endocare, Inc.

Misonix, Inc.

Rm2 Technology LLC

Inter Science Gmbh

Angiodynamics, Inc.

Sanarus Medical, Inc.

Other

Enocare, Inc.

Paul W Mikus

Jay J Eum

Dan Voic

Boris Rubinsky

Scott Isola

Liel Rubinsky

Alexander L Darian

William G Moseley

Gregory L Kelly

Sanford D Damasco

David J Battles

Scott Ludecker

Thach Duong

Dennis M Bui

Jawahar M Ali

Wilson S Wong

Michael Klaus Stehling

Enric Günther

Kevin H Van Bladel

Gary M Onik

Glenn Foy

Seth A Stabinsky

Lisa Zindel

K David Crockett

Jeffrey D Kurtzer

Ralph K Brady

Nicholas A Theodore

Ralf Seip

Narendra T Sanghvi

Roy S Carlson

Wo-Hsing Chen

Russell J Fedewa

Ralph Kenton Brady

Artur P Katny

Christopher Ballor

Sharon Klugewicz

Nina Klein

Christine Moley

John C Rewcastle

Jeffrey Kurtzer

David J c/o Endocare Inc Battles

Example apparatuses and systems are disclosed for providing controlled delivery of electrolysis products to a site which may be used for treatment of infection and ablation of undesirable cells and tissue. A system disclosed may include a power supply, two electrodes, an aqueous matrix that may close the electric circuit between the electrodes at the treated site, and a controller. The controller may control the electrical circuit to induce a direct current through the electrodes and an aqueous matrix to produce electrolysis products. The duration and magnitude of the charge applied may determine the dose of the products applied to the treatment site. The composition of the electrodes and the aqueous matrix may be chosen to produce desired products. An apparatus is disclosed that may be in the form of a pad for applying to a wound. An apparatus is disclosed that may be used for treating internal tissue.

Methods, systems, and apparatuses for delivery of electrolysis products

Example methods and apparatuses are disclosed for providing tissue ablation through electrolysis, electroporation, or a combination thereof. A pulse that has an element of decay may be applied to a target for tissue ablation while the decay is modulated. In some examples, apparatus including a controller and switches may be used to modulate the decay and/or selectively apply the pulse to the target. The apparatus may further include resistors and/or other elements to modulate a magnitude of the pulse and/or a slope of a decay of the pulse.

Methods, systems, and apparatuses for tissue ablation using a modulated exponential decay pulse

An elongate ultrasonic dissector-shaver probe has a laterally enlarged head extending distally and transversely from a distal end of a shaft and provided with sets of spiraling ribs. In a disc space preparation procedure, the probe is inserted into a spinal disc between two vertebral endplates, ultrasonic vibratory energy is conducted into the probe, and the probe is manipulated to move the laterally enlarged head in three spatial directions within the spinal disc to thereby disrupt and shred the spinal disc material into fragments extracted from the space, in part by suction and in part by using forceps to pull spinal disc fragments from the operative space or surgical site between the vertebral endplates.

Ultrasonic spinal surgery method and associated surgical instrument

Example apparatuses and systems are disclosed for providing controlled delivery of electrolysis treatment and cellular permeabilization treatment to a site in tissue. A system disclosed may include an electrode, a power supply, and a controller. The controller may control a charge applied to the electrode to induce a direct current through the aqueous matrix to produce electrolysis products and a voltage to produce electroporation. The duration and magnitude of the charge applied may determine the dose of the products and the degree of the permeabilization of cells in the treatment site. The composition of the electrodes may be chosen in accordance with the desired products produced and electroporation effects. An apparatus is disclosed that may be in the form of electrodes for electrolysis and electrodes for electroporation applied to the tissue. An apparatus is disclosed that may be used for treating internal tissue.

Methods, systems, and apparatuses for tissue ablation using electrolysis and permeabilization

Example methods and apparatuses are disclosed for providing tissue ablation through electrolysis, electroporation, or a combination thereof. A way to deliver the combination through a pulse that has an element of gradual decay and can thereby reduce both muscle contraction and electric breakdown discharge at the electrodes is disclosed. The apparatus disclosed may include an electrode, a power supply, and a controller. The controller may control a charge applied to the electrode to induce a direct current through a treatment site to produce electrolysis products and a voltage to produce electroporation. The duration and magnitude of the charge applied may determine the dose of the products and the degree of the permeabilization of cells in the treatment site.

Methods, systems, and apparatuses for tissue ablation using pulse shape designs

A two phase method for reducing the formation of biofilm includes an evacuation of ambient air from a region about the surgical or treatment site, to extract airborne or aerosolized bacteria ejected from the site by the treatment. The extracted bacteria are prevented from settling back onto the cleansed tissue surface, thus at least reducing colonial bacteriological growth and concomitantly exuded biofilm material. A second phase involves the attachment of one or more ultrasonic transducers to the patient over or near a surgical treatment site after the surgery is terminated. Each applied ultrasonic transducer is used to vibrate the patient's tissues at the treatment site to disrupt biofilm formation.

Method for reducing biofilm formation

A surgical system for transecting osseous tissue includes an ultrasonic waveform generator, a control unit, an ultrasonic instrument assembly including a electromechanical transducer and an ultrasonic blade, and a robotic system. The ultrasonic instrument assembly is attached to the robotic arm. The surgical system is configured so that the robotic arm moves the ultrasonic blade at a constant forward feed speed through the bone during a cutting operation and so that the forward motion is reduced, and preferably halted automatically upon a reduction in load per unit time or applied power, as monitored by a pickup or sensor.

Ultrasonic surgical system for osseous transection

An ultrasonic surgical probe has an elongate shaft and a probe head that is enlarged to extend laterally or transversely in two opposed directions relative to the shaft The head is formed with a recess or cavity facing laterally in a third direction relative to the shaft and the axis. Where the head lies in a plane, owing to its lateral enlargement or extension, the recess or cavity faces in a direction perpendicular to that plane. The recess or cavity is defined in part by an inclined floor or base surface contiguous at a proximal end with the shaft. The recess or cavity is defined in part by a peripheral wall extending only partway around the recess or cavity, along a distal side and two lateral sides thereof. The cavity or recess is closed on a proximal side by the inclined surface and the shaft.

Ultrasonic surgical probe, assembly, and related method

A medical drill assembly includes a probe connectable at a proximal end to an electromechanical transducer for generating mechanical vibration of an ultrasonic frequency. The probe has a shaft with a central lumen or channel, the shaft being formed at a distal end with a head having a tapered distal side. A source of pressurized liquid communicates with the lumen or channel of the probe, and a translatory or linear drive is operatively connected to the probe for applying a distally directed force to the probe. A controller is operatively connected to the translatory or linear drive for periodically at least reducing the magnitude of the distally directed force.

Ultrasonic surgical drill, assembly and associated surgical method

A method for minimally invasive surgery using therapeutic ultrasound in spine and orthopedic orthopedic procedures. The method includes a minimally invasive access port, a therapeutic ultrasound probe to treat a targeted area through the port, and a protective sheath that enables application of the therapeutic ultrasound without causing unintended tissue damage.

Method for minimally invasive surgery using therapeutic ultrasound to treat spine and orthopedic diseases, injuries and deformities

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Irvine, CA, United States of America

Paul W Mikus