Eastman-kodak Company

Bausch-lomb Incorporated

Bausch + Lomb Ireland Limited

Joseph W Hoff

Ivan M Nuñez

Lynn Coullard

Analuz Mark

Andrew J Hoteling

Jason A Payne

Katie L Poetz

Mridula Nair

Charles Leo Bauer

Tamara K Jones

Joseph Salvatore Sedita

Douglas S Finnicum

Steven J Weinstein

Dinesh Tyagi

Mark Edward Irving

Narasimharao Dontula

Joseph A McGee

Kurt Michael Schroeder

James E Pickering

James F Elman

Alok Kumar Awasthi

Brian Gray Price

Richard Allen Castle

Terry A Heath

Scott C Moose

Cumar Sreekumar

Michael R Brickey

Gregory William Keyes

Timothy J Hubert

Daniel M Leusch

James L Johnston

Arvind M Rao

Baxter J Lansing

Keyla M Cubi

James Dibella

Judith Chapman Morgan

Ivan M NUÑEZ

A water extractable ophthalmic device is disclosed which is a polymerization product of a monomeric mixture comprising: (a) one or more cyclic lactams; (b) one or more non-bulky organosilicon-containing monomers; (c) one or more bulky siloxane monomers; and (d) a crosslinking agent mixture comprising (i) one or more first crosslinking agents containing at least two ethylenically unsaturated reactive end groups, wherein the at least two ethylenically unsaturated reactive end groups are (meth)acrylate-containing reactive end groups and (ii) one or more second crosslinking agents containing at least two ethylenically unsaturated reactive end groups wherein at least one of the ethylenically unsaturated reactive end groups is a non-(meth)acrylate reactive end group. The water extractable ophthalmic device has an equilibrium water content of at least about 50 wt. %, a contact angle of less than about 50°, and an oxygen permeability of at least about 60 Barrers.

Water extractable ophthalmic devices

A contact lens package includes a first layer, a support coupled to the first layer, a lens, and a second layer. The support includes a scaffold and a porous member attached to the scaffold where the porous member includes a curved surface. The lens includes an anterior surface and a posterior surface, and the posterior surface of the lens is disposed on the curved surface of the porous member. The second layer is coupled to the first layer to seal the support and the lens between the first layer and the second layer.

Contact lens packaging

A water extractable ophthalmic device is disclosed which is a polymerization product of a monomeric mixture comprising: (a) one or more cyclic lactams; (b) one or more non-bulky organosilicon-containing monomers; (c) one or more bulky siloxane monomers; and (d) a crosslinking agent mixture comprising (i) one or more first crosslinking agents containing at least two ethylenically unsaturated reactive end groups, wherein the at least two ethylenically unsaturated reactive end groups are (meth)acrylate-containing reactive end groups and (ii) one or more second crosslinking agents containing at least two ethylenically unsaturated reactive end groups wherein at least one of the ethylenically unsaturated reactive end groups is a non-(meth)acrylate reactive end group. The water extractable ophthalmic device has an equilibrium water content of at least about 50 wt. %, a contact angle of less than about 50&#xb0;, and an oxygen permeability of at least about 60 Barrers.

A water extractable ophthalmic device is disclosed which is a polymerization product of a monomeric mixture comprising: (a) one or more cyclic lactams; (b) one or more organosilicon-containing block copolymers; (c) one or more bulky siloxane monomers; and (d) a crosslinking agent mixture comprising (i) one or more first crosslinking agents containing at least two ethylenically unsaturated reactive end groups, wherein the at least two ethylenically unsaturated reactive end groups are (meth)acrylate-containing reactive end groups and (ii) one or more second crosslinking agents containing at least two ethylenically unsaturated reactive end groups wherein at least one of the ethylenically unsaturated reactive end groups is a non-(meth)acrylate reactive end group. The water extractable ophthalmic device has an equilibrium water content of at least about 50 wt. %, a contact angle of less than about 50&#xb0;, and an oxygen permeability of at least about 60 Barrers.

A method is disclosed which involves the steps of (a) reacting a polysiloxane prepolymer having reactive functional end groups with a non-free radical polymerizable reactive end-capping agent; and (b) reacting the reaction product of step (a) with a free radical polymerizable reactive end-capping agent.

Method for end-capping a polysiloxane prepolymer

An ophthalmic device is disclosed which is a polymerization product of a monomeric mixture comprising: (a) a major amount of one or more first non-silicone-containing hydrophilic monomers; (b) one or more hydrophobic monomers; and (c) a crosslinking agent mixture comprising (i) one or more di-, tri- or tetra(meth)acrylate-containing crosslinking agents and (ii) one or more di-, tri- or tetracarbamate-containing crosslinking agents, wherein the ophthalmic device has an equilibrium water content of at least about 65 weight percent.

High water content ophthalmic devices

An inkjet printing system including an inkjet printer having a printhead and an inkjet ink in an ink tank supplying the inkjet ink to the printhead, wherein the ink tank includes a free ink compartment and a capillary media compartment vented to the atmosphere and in fluid communication with ink in the free ink compartment, and wherein the inkjet ink includes water, a self-dispersing carbon black pigment having greater than 11 weight % volatile surface functional groups, and a surfactant at a concentration of 0.10 weight percent or less, and having a static surface tension of 37.5 dynes/cm or less at 25&#xb0; C. The system provides high print density and text sharpness when printed onto an ink receiving medium, and provides good performance in a bubbler-type ink tank which reduces the amount of ink trapped in the ink tank.

Inkjet printing system

An ink tank that is mountable to a printhead, the ink tank includes a tank body including a first wall including an ink outlet configured to supply ink to the printhead; a slider guide disposed on an exterior surface of the tank body, wherein the slider guide is proximate the first wall; and an ink reservoir including interior surfaces of the tank body; and a film that is adhered to a sealing area surrounding the ink outlet.

Seal and seal pulling member for ink tank

An ink tank that is mountable to a printhead, the ink tank includes a wall including an ink outlet configured to supply ink to the printhead; a first film including a sealing portion that is adhered to a sealing area surrounding the ink outlet; and a second film adhered to the first film, the second film configured to capture ink residue when the first film is removed from the sealing area.

Seal and secondary film for ink tank

An ink tank including a reservoir for holding ink, the reservoir including a flexible wall for adjusting an internal volume of the reservoir; a biasing element for applying a force to the flexible wall that tends to increase the internal volume of the reservoir; an ink supply port for delivering ink from the reservoir to a printhead; and a breather element, at least a portion of which is disposed inside the reservoir, including a capillary material in contact with ink in the reservoir, wherein the breather element is configured to allow air to enter the reservoir in response to an internal pressure of the reservoir being less than atmospheric pressure outside the ink tank by an amount that is related to a property of the biasing element and a capillary pressure of the breather element.

Biased wall ink tank with capillary breather

The invention relates to an image receiving element comprising in order a support, at least one polyolefin resin coating and at least one toner receiver layer, wherein said toner receiver layer comprises a fuser-oil sorbent additive and a thermoplastic polymer and said additive is present in an amount of greater than 10% by weight of said layer.

Fuser-oil sorbent electrophotographic toner receiver layer

The invention relates to a printing media comprising a first side comprising a first exposed layer comprising a mixture of polyolefin and at least one member selected from the group consisting of polyolefin copolymers, amide containing polymers, and ester containing polymers, wherein a measured Tof said exposed layer comprises a Tof less than 5&#xb0; C. and a second side comprising an a second exposed layer having an advancing contact angle with water of less than 90&#xb0;.

Universal print media

A method for manufacturing an optical compensator () on a transitional substrate () comprises applying a first orientation layer () to the transitional substrate. The first orientation layer () is then aligned and a first anisotropic liquid crystal material () is applied on the first orientation layer. In one embodiment, a retardation layer () is located between the transitional substrate () and the first orientation layer ().

Method for manufacturing an optical compensator on a transitional substrate

A process for making an optical compensator, comprising the steps of coating a orientable resin in a solvent onto a support; drying the resin-containing coating; orienting the resin-containing layer in a predetermined direction; coating a nematic liquid-crystal compound in a solvent carrier onto the orientation layer; drying the nematic liquid-crystal-containing coating; thermally treating the nematic liquid-crystal compound layer, cooling the nematic liquid-crystal compound layer, polymerizing or curing the anisotropic nematic liquid-crystalline layer to form an integral component; and optionally repeating the above steps on top of the integral component so that the optical axis of the first anisotropic nematic liquid-crystal layer is positioned orthogonally relative to the respective optical axis of the second anisotropic nematic liquid-crystal layer about an axis perpendicular to the plane of the support.

Process for making an optical compensator film comprising an anisotropic nematic liquid crystal

A process for making an optical compensator comprising the steps of coating a photo-alignable resin in a solvent onto a substrate; drying the resin-containing coating to form a orientable layer; heat treating the orientable layer before and/or after orientation, orienting the orientable layer in a predetermined direction; coating an anisotropic liquid crystal compound in a solvent carrier onto the orientation layer; drying the anisotropic layer. In a preferred embodiment, these steps are repeated so that the optical axis of a first anisotropic layer is positioned orthogonally relative to the respective optical axis of a second anisotropic layer about an axis perpendicular to the plane of the substrate.

Growing community of inventors

Fairport, NY, United States of America

Joseph W Hoff