Bausch-lomb Incorporated

Refocus Ocular, Inc.

Refocus Group Inc.

Bausch & Lomb Incorpoted

Gary A Richardson

Rex O Bare

Douglas C Williamson

Mark Allan Cox

Jack C Griffis, Iii

Timothy John Payne

Andrew J Scherer

Griffith E Altmann

Jerome Vaudant

Gene W Zdenek

Barrie D Soloway

Thomas Michael Heyman

Edward Vaquero

Josh Enin

Jack C Iii Griffis

Thomas J Pacala

A method of folding a multiple element IOL comprising folding the first lens element and second lens element such that the second lens element at least partially surrounds the first lens element and such that, after folding, both the first lens element and the second lens element are substantially aligned along the optical axis. A hinged apparatus such as a cartridge may be used to cause the second lens element to be folded. A method of loading a multielement IOL comprising folding the haptics such that a portion of the haptics contacts an exterior side of one of the first lens element and the second lens element.

Method of inserting an intraocular lens

A multi-element accommodating intraocular lens (AIOL) having a first anterior translation member and a first posterior translation member coupled together to form a first bias element. The first posterior translation member has a greater resistance to bending than the first anterior translation member. The first posterior translation member has a greater thickness than the first anterior translation member.

Multi-element accommodative intraocular lens

A surgical tool includes a surgical blade configured to be moved to form an incision. The surgical tool also includes a wire configured to cause movement of the surgical blade. The surgical tool further includes an actuator configured to shorten a length of the wire to cause the movement of the surgical blade. The surgical tool could be configured to move the surgical blade in a first direction and then in a second direction in response to a single shortening of the wire. Also, the wire could represent a first wire, the surgical tool could include a second wire, and the surgical tool could be configured to move the surgical blade in a first direction in response to shortening the first wire and to move the surgical blade in a second direction in response to shortening the second wire.

Apparatuses and methods for forming incisions in ocular tissue

An intraocular lens comprises an optic portion having a peripheral edge and at least two haptics. Each haptic is integrated with the peripheral edge of the optic portion by a corresponding haptic integration region. Also, each haptic comprises a distal segment region and a deformation segment region. The distal segment region has an outer distal length bounded by a proximate endpoint and a distal endpoint on an outer surface of the haptic, and is scribed by a distal segment angle &#x3b1; of 20&#xb0; to 30&#xb0;. The distal segment angle has a segment origin that lies within a radial segment bound by a radial distance 1.5 mm to 1.9 mm from an optic center and a segment angle &#x3b8; of from 30&#xb0; to 45&#xb0; from a vertical axis. The vertical axis extends through the distal endpoint of at least one haptic and the optic center.

Intraocular lens

A method includes identifying an actual location of a ciliary body in a patient's eye. The method also includes identifying a position for a scleral prosthesis to be inserted into scleral tissue of the patient's eye based on the identified location of the ciliary body. The method could also include forming a scleral tunnel in the scleral tissue of the patient's eye based on the identified position and inserting the scleral prosthesis into the scleral tunnel. Identifying the actual location of the ciliary body could include illuminating a first portion of the patient's eye using illumination provided at a second portion of the patient's eye. The illumination provided at the second portion of the patient's eye may be provided through an eyelid of the patient and may travel under a cornea of the patient's eye to the first portion of the patient's eye.

System and method for identifying a position to insert a scleral prosthesis into an eye

A thin intraocular lens for inhibiting posterior capsular opacification (PCO) includes an optic having an anterior concave region, a posterior concave region, a sharp edge which extends posteriorly and between the posterior concave region and at least a portion of an outer-most peripheral edge surface.

Small incision intraocular lens with anti-PCO feature

A multi-component accommodating intraocular lens (A-IOL) for implantation in a capsular bag of an eye having an optical axis, includes an anterior optical element and a posterior component that are connected by at least one compressible haptic. The compressible haptic, by definition, has a deformation feature that is resiliently deformable. The deformation feature allows the nominal overall diameter of the A-IOL to dynamically vary over a selected range in response to a capsular bag dimension that is different than that of an average population value, or in response to a change in the size and/or shape of the capsular bag due to post-operative capsular bag shrinkage, without substantially changing the separation distance between the anterior and posterior components of the A-IOL absent an intended accommodating force. Methods are also disclosed.

Multi-component accommodative intraocular lens with compressible haptic

A thin intraocular lens for inhibiting posterior capsular opacification (PCO) includes an optic having a sharp edge which extends posteriorly and between a posterior concave region and an outer-most peripheral edge surface that extends parallel to the optical axis.

Apparatus, products, and methods are described that relate to blending various disparate optical surfaces in a smooth and continuous manner. In cross section, the two disparate surfaces are represented as meridional profiles. A blend zone profile is described by a single third-order polynomial. In the case of rotationally symmetric optics, one cross-section suffices for the description of the entire surface. In the case of non-rotationally symmetric optics, an increased number of cross-sections are necessary to produce the desired three-dimensional surface, thus meridional profiles are calculated at selected azimuthal locations to describe the full surface.

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Rochester, NY, United States of America

Gary A Richardson