Katalyst Surgical, LLC

Synergetics, Inc.

Other

Kogent Surgical, LLC

Surgical Technologies, Inc.

Storz Instrument Co.

The Johns Hopkins University

Synergistics, Inc.

Infinitech, Inc.

Gregg D Scheller

Matthew N Zeid

Craig Moore

Michael D Auld

Justin M Raney

Eric J Bass

James C Easley

Carl C Awh

Kurt W Gampp, Jr

Steven J Apperson

Steven G Scheller

Michael S Korenfeld

Michael Scott Poulsen

John M Schallert

Joshua Clay Arnone

Gideon Yefet

E Mitchel Opremcak

Bradley S Niehoff

R Bruce Lucas

David R Chow

Gregory A Blount

Matthew N Yates

William J Bowers

Brett D Smith

Johanna L Bryan

David Dallam

Richard Wendt

Daniel J Wiener

Jerry S Gahn

Gholam A Peyman

Eugene De Juan, Jr

Eric T Lee

David G Wuchinich

Robert F Spetzler

Dyson William Hickingbotham

Terry Harrison Shelley

Stanley F Chang

Patrick S Jensen

Tarek Hassan

Christopher F Lumpkin

Timothy John Nadolski

Daniel E Higgins

Jacob Harris

J Alan Ritter

Anthony D Cornetto, Iii

Michael J O'Laughlin

Christina D McNiff

James G Easley

David Dallan

Kevin Klug

James Gibeltirra

Daniel J Wall

Brad Niehoff

Jonathan S Kane

An ultrasonic surgical handpiece includes a motor having a transducer assembly along a central axis of the surgical handpiece. The motor is configured for operative connection to a power source. A surgical attachment has a proximal end detachably connected to the motor and a distal end defining a working plane for engagement with biological tissue. A housing has a housing distal end, a housing proximal end, and a cavity configured to receive the motor and the surgical attachment. An irrigation path of the housing is configured to communicate irrigation fluid. The irrigation path has an inlet proximate the housing proximal end operatively connected to an irrigation fluid source, and an outlet proximate to the working plane. The irrigation path is separated from the housing cavity to prevent contact between the irrigation fluid and an operational portion of the surgical attachment.

Irrigation system for an ultrasonic surgical handpiece

A membrane removing instrument comprising a surgical blank having a surgical blank distal end and a surgical blank proximal end, the surgical blank configured for being at least partially disposed in a hypodermic tube wherein the surgical blank has dimensions configured for performing ophthalmic surgical procedures, and at least one micro-pick proximate to the surgical blank distal end, the micro-pick being configured to engage and incise an ophthalmic membrane and form a membrane flap.

Membrane removing instrument

An irrigating bipolar forceps may include a first forceps arm, a conductor tip of the first forceps arm, a second forceps arm, a conductor tip of the second forceps arm, an input conductor isolation mechanism, and irrigation tubing. A proximal end of the first forceps arm may be disposed within the input conductor isolation mechanism and a proximal end of the second forceps arm may be disposed within the input conductor isolation mechanism. An application of a force to a lateral portion of the forceps arms may be configured to close the forceps arms. A reduction of a force applied to a lateral portion of the forceps arms may be configured to open the forceps arms. The irrigation tubing may transport a fluid from an irrigation supply system to a surgical site.

Irrigating bipolar forceps

An ultrasonic surgical handpiece may include an assembled handpiece, an ultrasonic tip, a tubing set, and an irrigation sleeve. The assembled handpiece may include an assembled motor, a housing sleeve, and a nosecone. The housing sleeve and the nosecone may be disposed over a portion of the assembled motor. The assembled motor may include an assembled transducer, a transducer sleeve, and an angled adaptor. The transducer sleeve may be disposed over a portion of the assembled transducer. The assembled transducer may include an amplifier, one or more piezoelectric rings, and a connector block. A surgeon may use the ultrasonic surgical handpiece to perform a portion of a surgical procedure.

Ultrasonic surgical handpiece

A flow control system may include an inner nosecone having an inner nosecone distal end and an inner nosecone proximal end, an outer nosecone having an outer nosecone distal end and an outer nosecone proximal end, an aperture of the outer nosecone, a gasket having a gasket distal end and a gasket proximal end, a gasket aperture of the gasket, a gasket seal of the gasket, a flow control mechanism having a flow control mechanism distal end and a flow control mechanism proximal end, and a control aperture of the flow control mechanism. A rotation of the flow control mechanism about the gasket may be configured to decrease an aspiration flow rate. A rotation of the flow control mechanism about the gasket may be configured to increase an aspiration flow rate.

Flow control system

A steerable laser probe may include a handle having a handle distal end and a handle proximal end, an actuation lever of the handle, a flexible housing tube having a flexible housing tube distal end and a flexible housing tube proximal end, and an optic fiber disposed within an inner bore of the handle and the flexible housing tube. An actuation of the actuation lever may gradually curve the flexible housing tube and the optic fiber. An actuation of the actuation lever may gradually straighten the flexible housing tube and the optic fiber.

Steerable laser probe

A flow control system for an ultrasonic aspirator handpiece having an aspiration pathway having an inner nosecone operatively connected to the handpiece. A flow control mechanism is disposed over the inner nosecone defining a flow control channel therebetween. The flow control channel is operatively connected to the aspiration pathway. A control aperture of the flow control mechanism is configured for variable engagement by a digit of an operator between an open position and a closed position for corresponding variable adjustment of an aspiration flow rate.

A reusable instrument handle with single-use tip may include an instrument tip and an instrument handle. The instrument tip may include an outer base, a nosecone, a pressure mechanism, a hypodermic tube, a blank, a fixation mechanism, and a tip cover. The instrument handle may include an actuation structure, a fixation mechanism receptacle, and an instrument tip housing. The fixation mechanism and the fixation mechanism receptacle may be configured to temporarily fix the instrument tip in the instrument tip housing. A compression of the actuation structure may be configured to actuate the hypodermic tube relative to the blank. The instrument tip may be removed from the instrument tip housing after use by removing the fixation mechanism from the fixation mechanism receptacle.

Reusable instrument handle with single-use tip

An electrosurgical system for tissue cauterization may include a user interface, a front panel display, an electrosurgical generator, a power supply of the electrosurgical generator, a system control of the electrosurgical generator, an RF system of the electrosurgical generator, and a bipolar forceps assembly. The electrosurgical system may be configured to cauterize a tissue. A tissue cauterization may include system activation, tissue impedance analysis, establishment of tissue cauterization parameters, monitoring and adjustment of tissue cauterization, and system deactivation. The establishment of tissue cauterization parameters may include establishing a tissue cauterization curve configured to minimize an amount of time required to cauterize a tissue.

Electrosurgical system for tissue cauterization

A steerable laser probe may include a handle having a handle distal end and a handle proximal end, a plurality of actuation controls of the handle, a flexible housing tube having a flexible housing tube distal end and a flexible housing tube proximal end, and an optic fiber disposed within an inner bore of the handle and the flexible housing tube. An actuation of an actuation control of the plurality of actuation controls may gradually curve the flexible housing tube. A gradual curving of the flexible housing tube may gradually curve the optic fiber. An actuation of an actuation control of the plurality of actuation controls may gradually straighten the flexible housing tube. A gradual straightening of the flexible housing tube may gradually straighten the optic fiber.

A membrane aggregating forceps may include a blank, a membrane aggregating forceps tip of the blank, a hypodermic tube, and an actuation structure. The blank may be disposed in the hypodermic tube and the actuation structure wherein a compression of the actuation structure is configured to close the membrane aggregating forceps tip and wherein a decompression of the actuation structure is configured to open the membrane aggregating forceps tip. The membrane aggregating forceps tip may include a first membrane aggregating forceps jaw having a first curved medial projection and a second membrane aggregating forceps jaw having a second curved medial projection. The first curved medial projection may include a first membrane socket, a first membrane aggregating fillet, and a first blunt edge. The second curved medial projection may include a second membrane socket, a second membrane aggregating filled, and a second blunt edge.

Membrane aggregating forceps

An assembled blank may include a blank tip attached to a blank base, e.g., the blank tip may be welded to the blank base. The blank tip may be manufactured by modifying flat stock, e.g., tiers of blank tips may be manufactured by modifying tiers of flat stock. The blank tip may comprise a first forceps jaw, a second forceps jaw, and a blank tip aperture. The assembled blank may be disposed within a hypodermic tube and an actuation structure of a microsurgical instrument.

Microsurgical instrument tip

A surgical instrument may have a handle, a support sleeve, and an inner sleeve. Illustratively, the support sleeve may be configured to actuate relative to the inner sleeve to protect the inner sleeve before and after a surgical procedure and to expose a portion of the inner sleeve during the surgical procedure. In one or more embodiments, an application of a force to a distal end of the support sleeve may be configured to retract the support sleeve relative to the inner sleeve. Illustratively, a reduction of a force applied to the distal end of the support sleeve may be configured to extend the support sleeve relative to the inner sleeve.

Surgical instrument sleeve

A steerable laser probe may include an actuation structure, a nosecone fixed to the actuation structure by one or more links and one or more link pins, a flexible housing tube, and an optic fiber disposed in the flexible housing tube and the actuation structure. A compression of the actuation structure may be configured to gradually curve the flexible housing tube and the optic fiber. A decompression of the actuation structure may be configured to gradually straighten the flexible housing tube and the optic fiber.

Growing community of inventors

Wildwood, MO, United States of America

Gregg D Scheller