Corning Incorporated

Thierry L Dannoux

Gilbert D Pujol

Patrick J Herve

Jean-Pierre Themont

Pierre V Calderini

Eric J Firtion

Dana Craig Bookbinder

David Henry

Lung-Ming Wu

David M Root

Bernard Eid

Jacques Jean Vial

Anne Paris

Sylvain M Gremetz

Serge A Renault

Fabrice J Jean

Jean M Pegouret

Pierre J Laroulandie

Pierre-Jean M Laroulandie

Antoine Bisson

Gaspar P Marques

A procedure for assembling ends of optical fiber into a sheet where adhesive is deposited into parallel grooves in a top surface of a substrate. The optical fibers are placed into the grooves with one optical fiber per groove. A portion of each of the optical fibers, including the ends, extends beyond an edge of the substrate. A plate is pressed against the substrate to hold the optical fibers in the grooves. The plate has a flat surface which extends beyond the edge of the substrate and over the portion of each of the optical fibers extending beyond the edge of the substrate. A lip is contacted with and pressed against each of the optical fibers extending beyond the edge of the substrate to press the optical fibers against the flat surface of the plate. The adhesive is allowed to harden during the lip press to adhere the optical fibers and the plate to the substrate to form the sheet.

Procedure for assembling the ends of optical fibers into a sheet

A support plate and method of making a support plate for biological or chemical testing or cell culture. The plate has a high density network of microwells formed therein. The wells are formed by a contact pressing technique whereby a network of protuberances are pressed into the surface of a thermoformable material.

High density test plate and process of making

Protective housing for an integrated optical component

Preferential etching techniques are used to form a mold which can then be used to mold a microlens array. A mask (4.sub.i) made of a material which is resistant to a chemical composition for etching the plate is formed on a substrate, so that the mask is in the form of a grid with generally polygonal meshes each centered over one of the desired cells. The sides of each cell of the mask has outgrowths (5.sub.j) extending towards the center of desired cells. The substrate is subjected to the etching composition.

Process for making a mold for the manufacture of microlenses

The panel has substrate (4) which has a network of barriers each incorporating electrode (6.sub.i) of a first network of electrodes for control of the panel, a periodic arrangement (R.sub.i, V.sub.i, B.sub.i) of areas of phosphorescent products being formed on substrate (4), transparent front plate (8), second network of electrodes (10.sub.j) perpendicular to electrodes (6.sub.i), an ionizable gas which is introduced between this substrate and this plate. In order to manufacture substrate (4), one forms a metallic plate which has joined preforms of electrodes (6.sub.i) of the first network, one covers the preforms with a layer of a dielectric material which is molded on it them and on the spaces separating them, and one removes the material from the metallic plate which joins the preforms of electrodes (6.sub.i), so as to electrically insulate these electrodes from one another.

Method of making a plasma display panel

A plate of a deformable optical material is pressed against a rigid surface furrowed with a congruent network of alveoli by subjecting the two faces of the plate to fluid pressures of different values, the pressure on the face opposite the alveolate surface being less than the pressure on the other face of that plate. The alveoli are deeper than the thickness of the convex part of the microlenses formed therein by permanent deformation of the plate under the applied pressure.

Process and apparatus for manufacturing networks of optical microlenses

The fibers are connected to the component by adhesive means comprising a plurality of drops (11.sub.i, 12.sub.i) of an adhesive product, each of them fixing to the component between 1 and (N-1) adjacent fibers of the array, each of these drops being non-contiguous with at least one other of these drops, and at least one of the drops being longitudinally and laterally offset with respect to at least one other drop of the plurality.

Optical component connected to an array of optical fibers

An optical waveguide component, with a pigtail attached thereto, is disclosed in which a portion of a surface of the component is bevelled and a portion of the endface of the pigtail is bevelled. The bevelled portion of the pigtail endface is oriented to be substantially parallel to the bevelled portion of the component surface or is oriented to be open with respect to the component surface. The pigtail endface can be continuously bevelled to form a substantially conical shape on the pigtail endface, wherein the substantially conical shape is offset from the optical axis of the pigtail.

Planar optical waveguides with low back reflection pigtailing

A method of encapsulating an optical component, the component comprising at least partially uncoated organic material, the method comprising: placing molten metal around the optical component, and solidifying the metal. The invention includes encapsulating a segment or element of an optical component, such as, for example, an optical junction or a surface. An encapsulated optical component and optical components having sealed or encapsulated elements are also provided.

Method of encapsulating optical components and products produced by that

A method of manufacturing and testing integrated optical composites in which fiber pigtails are aligned with and attached to the optical output ports of a plurality of integrated optical components on a wafer, prior to separation into individual components. The multiple pigtails are arranged at the ends opposite the wafer, to facilitate optical connections during active alignment and measurement testing.

Method of manufacturing and testing integrated optical components

An integrated optical component comprising at least one waveguide integrated into a substrate and connected to the end of an optical fiber which is attached to the substrate at said fiber end and in a region separated from said fiber end by a first drop of adhesive and a second drop of adhesive, respectively. The adhesive product which constitutes the first drop has a glass transition temperature located in a predetermined operating temperature range of the component, while the adhesive product which constitutes the second drop has a glass transition temperature located generally above this operating temperature range, thereby assuring the absorption of differential expansions in such a way as to maintain the optical continuity of the fiber/waveguide attachment and the mechanical strength of the fiber/substrate attachment.

Fiber attachment means for integrated optical component

A process for encapsulating a component for interconnecting optical fibers wherein a bar connected to the fibers is inserted and sealed with a sealing composition into an elongated housing with U-shaped cross-section, and an encapsulated component manufactured by this process, wherein the regions of the junctions between the fibers and the bar are protected from the flow of the sealing composition.

Method for encapsulating an optical component and the encapsulated

An integrated optical component with ion diffused optical circuit paths in glass connected to optical fibers, comprising a transverse exit groove machined adjacent the paths, a plateau for supporting an uncoated portion of the optical fibers for connection to the paths, and a shoulder adjacent the plateau for supporting a coated portion of the fiber, the fiber endfaces being secured to the terminations of the paths by means of an adhesive; and, a method for manufacturing such a component comprising machining, approximate alignment, precise alignment, and gluing steps.

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Avon, France

Thierry L Dannoux