Devicor Medical Products, Inc.

Delphi Technologies, Inc.

Other

Gm Global Technolgoy Operations, Inc.

Bayerische Motoren Werke Aktiengesellsha

Patrick Allen Mescher

John A Hibner

Robert J Disser

Edward A Rhad

Trevor W V Speeg

David Bernard Drennen

Jessica Pyzoha Leimbach

Raj G Raghavendran

Harald Klode

Shailendra Kumar Parihar

Gavin Martin Monson

Brian Thomas Murray

Kevin Michael Fiebig

Gregory W Johnson

Daniel J Mumaw

Scott Alan Millsap

Joseph Gerard D'Ambrosio

Wells D Haberstich

Robert F Weikel

Bryan Robert Keller

Kyle P Moore

Morgan Robert Hunter

Andrew Paul Nock

Joseph Charles Hueil

Emmanuel V Tanghal

Todd M Dahling

Jeff Allan Foust

Michael D Byers

Jeffrey Heinrichs

Hendrikus T Smakman

Detlef Krukenkamp

Juergen Guldner

Christian Ebner

Michael J Trezza, Ii

David W Graber

Pierre Claude Longuemare

Sanket S Amberkar

Jon Tomas Zumberge

Robert Allan Perisho, Jr

Kathryn M Dodd

Kathleen D Murphy

John Scott Ehlert

Gustavus Pearl Bock

John R Andrisek

Robert S Ballinger

Ronald Gene Smith, Jr

Ernest R Siler

Gregory Hickey

Thomas J Bucholz

Michael Graef

Roger Sherrill Sexton

Harold W Craig

Thomas D Hewer

Christoph Jung

Schedl Anton

Michael Gr&auml;f

Khayrollah Taherkhani

Kai-Uwe Balszuweit

Slawomir Bakaus

Markus Krug

J&uuml;rgen Guldner

Carsten Krukenkamp

Kiron Bhaskar

Martin Woltereck

Darryl L Greathouse

Lois L Kohnhorst

Trevor WV Speeg

A biopsy device includes a body, a needle, a tissue sample holder and a sensor. The needle extends from the body. The tissue sample holder is in communication with the needle to receive one or more tissue samples within a sample chamber defined by the tissue sample holder. The tissue sample holder includes a receiving cavity. The sensor is configured to detect x-rays. The receiving cavity is sized and shaped to receive the sensor such that the sensor is removably positioned within the tissue sample holder.

Biopsy device with applied imaging

A biopsy system includes various features. A tissue sample holder kit of the system comprises a rotatable member with chambers configured to receive tissue receiving features of a tissue sample tray. A biopsy device of the system includes user input features and user feedback features disposed on a body. A user interface of the system includes a graphical representation of a tissues ample holder. A biopsy site marker applier of the system includes markings associated with different biopsy device configurations. The biopsy system may undergo a multi-step initialization process. In operation, the biopsy system may execute pneumatic control algorithms including the use of vacuum, saline, and atmospheric air.

Biopsy system

An exemplary biopsy system includes a biopsy device having a probe. The probe includes a distally extending needle and a cutter movable relative to the needle. The probe also includes a tissue sample holder detachably coupled to the proximal end of the probe. The biopsy system has a cycle where the biopsy system provides vacuum to the biopsy device, retracts the cutter to a proximal position, advances the cutter to a distal position, and transports a sample to the tissue sample holder. The biopsy system is capable of adjusting the duration of its cycle during operation of the biopsy device.

Control for biopsy device

A biopsy system includes a biopsy device, a control module, a control module interface, at least one wireless data communication link, and an encoder. The biopsy device is operable to capture a tissue sample and includes a reusable portion and a disposable portion. The reusable portion includes an MR compatible motor. The disposable portion is adapted to be releasably joined with the reusable portion. The control module interface is configured to provide an interface between the control module and the reusable portion of the biopsy device. The at least one wireless data communication link includes a first data link configured to permit communication of data between the reusable portion of the biopsy device and the control module interface. The encoder is operationally coupled with the MR compatible motor.

Control module interface for MRI biopsy device

An apparatus for guiding a biopsy instrument into tissue of a patent comprises a cannula, a guide device, a support structure, and a locking assembly. At least a portion of the biopsy instrument is insertable into the cannula. The guide device comprises at least one guide hole. The at least one guide hole is configured to receive the cannula. The support structure is configured to position the guide device relative to a breast of a patent. The locking assembly comprises a lock arm that is configured to engage the cannula to restrict translational movement of the cannula within the guide hole of the guide device.

Biopsy device targeting features

A biopsy device comprises a body, a needle, and a cutter actuation mechanism. The needle extends distally from the body. The cutter actuation mechanism rotates and translates the cutter relative to the body and relative to the needle. The cutter has an overmold presenting a lead screw and a hex portion. The cutter actuation mechanism comprises a first gear disposed about the hex portion of the overmold and a second gear engaged with the lead screw of the overmold by a nut that is integral with the second gear. The cutter actuation mechanism is operable to simultaneously rotate the first gear relative to the body at a first rotational speed and the second gear relative to the body at a second rotational speed. With the lead screw and the nut rotating at different rotational speeds, the lead screw rotates relative to the nut at a third rotational speed.

Cutter drive assembly for biopsy device

A biopsy system includes a biopsy device and a vacuum control module. The biopsy device includes a cannula and a cutter that translates relative to the cannula to obtain tissue samples. The vacuum control module includes a source of vacuum in communication with the cutter and a user interface. The user interface includes a first page and a second page. The first page has a first graphical representation to indicate the operational status of the biopsy device and does not accept user inputs to alter the operational status of the biopsy device. The second page has at least one icon to adjust the operational status of the biopsy device indicated on the first page and a second graphical representation to indicate the adjustment to the operational status of the biopsy device. The user interface includes a user input feature to select the first page or the second page.

Icon-based user interface on biopsy system control module

A vacuum control module for use in a biopsy system includes a user interface that presents buttons and icons to control operation of a biopsy device. The icons may indicate, e.g., the position of a cutter relative to a transverse opening, whether the system is in a view sample mode, that an adjacent button is operable to reset the position of a rotatable tissue sample holder, whether the system is in a maintenance vacuum pulse mode, the level of vacuum provided by a vacuum source, the volume level of a speaker, that an adjacent button is operable to place the system in a standby mode, and that an adjacent button is operable to shut down the system. The icons may each have an associated button. The icons may be allocated among separate pages (e.g., a probe page and a system page). Another button may be used to switch between pages.

A device comprises a needle, probe, holster, and tissue collection chamber. A motor simultaneously powers a vacuum pump, translates and rotates a cutter, and translates a plunger. The needle includes a piercing tip and an interior shelf that divides the needle into a cutter lumen and lateral lumen. The cutter and shelf include apertures configured to mince a portion of a tissue specimen that has been severed by the cutter and forced through the apertures by compressive force from the plunger as well as vacuum force. The apertures of the shelf and the apertures of the rotating cutter cooperate to shear the tissue being compressed by the plunger. The minced tissue is then transported to the tissue collection chamber under vacuum force with the assistance of a fluid flush. Collected minced tissue may then be further processed as desired for a given medical treatment or procedure.

Tissue harvesting, mincing, and transport device

A biopsy system includes a first external device, a second external device and a control module interface. The control module interface is in electrical communication with both the first and second external devices, and the control module interface is in mechanical communication with the second external device. The control module interface is configured to be positioned remotely from at least one of the first and second external devices. The control module interface comprises a motor, operational electronics, a shaft connector assembly, an electrical connector and a cabinet configured to house the motor and operational electronics. The motor is in mechanical communication with the second external device via a mechanical cable. The operational electronics are configured to permit control of the motor and a motorized component of the second external device. In some embodiments, the mechanical cable comprises a flexible shaft cable, such as a speedometer cable.

Tetherless biopsy device with reusable portion

Growing community of inventors

Bellbrook, OH, United States of America

Patrick Allen Mescher