Globus Medical, Inc.

Other

Robert Rhoads

Jason Zappacosta

Jason Gray

Nick Padovani

Mark Fromhold

John Perkins

Michael Hunt

Michael Evangelist

Chris Saville

Colm McLaughlin

Daniel Davenport

George Howard

Robert W Trout

Noah Hansell

Robert W Trout, Iii

A method of implanting an intervertebral spacer may include positioning the intervertebral spacer within an intervertebral space defined by adjacent vertebral bodies. The intervertebral spacer may include a plurality of bores, and each of the plurality of bores may be configured to receive either a linear fastening element or a curvilinear fastening element. The method also may include selecting a first fastening element from a group including linear fastening elements and curvilinear fastening elements, and inserting the first fastening element into a first bore of the plurality of bores such that the first fastening element is inserted into one of the adjacent vertebral bodies to secure the intervertebral spacer within the intervertebral space.

Inter vertebral implants and related methods of use

Intervertebral implants and related methods of use

An implant for therapeutically separating bones of a joint has two endplates each having an opening through the endplate, and at least one ramped surface on a side opposite a bone engaging side. A frame is slideably connected to the endplates to enable the endplates to move relative to each other at an angle with respect to the longitudinal axis of the implant, in sliding connection with the frame. An actuator screw is rotatably connected to the frame. A carriage forms an open area aligned with the openings in the endplates. The openings in the endplates pass through the carriage to form an unimpeded passage from bone to bone of the joint. The carriage has ramps which mate with the ramped surfaces of the endplates, wherein when the carriage is moved by rotation of the actuator screw, the endplates move closer or farther apart.

Expandable intervertebral implant

A high sensitivity fluorescence and absorption detector comprising an elongated substantially cylindrical flow cell connected to and receiving the outflow of a fluid chromatography column; a mechanism for projecting a fluorescence generating beam of electromagnetic energy along on an axis substantially coincident with the axis of the flow cell; the flow cell including an elongated substantially cylindrical midsection housed by a tubular capillary transparent to the fluorescent radiation generated by the beam; a fluorescence integrating sphere completely surrounding the midsection of the capillary, the integrating sphere collecting at least about 3 pi steradian of the fluorescent radiation emanating through the capillary tube and into the sphere; the beam being projected to enter one end of the cylindrical flow cell, focus at about the center point of the axis of the cylindrical midsection, emanate through the other end of the flow cell and impinge upon a photodetector for detecting the portion of the beam which is not absorbed by the outflow flowing through the cell; the cross-sectional diameter and the axial length of the flow cell being selected such that the axially coincident beam which is projected into the cell and is not absorbed travels in its essential entirety along a direct or internally reflected path out of the other end of the cell; the integrating sphere having an aperture for allowing the fluorescent radiation which enters the sphere to emanate therethrough and impinge upon a fluorescence detector along a path offset from the axis of the cell.

High sensitivity chromatography detector

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North Wales, PA, United States of America

Robert Rhoads