The Whitaker Corporation

Tyco Electronics Corporation

Te Connectivity Corporation

Donald Eugene Dellinger

Lou Castagna

Robert S Correll, Jr

Richard Dean Miller

Daniel Edward Gillis

David Donald Erdman

Michael Aaron Kadar-Kallen

Timothy Lee Kocher

Shelly Ann Buchter

John L Broschard, Iii

Dennis Leroy Kemmick

Nancy Lee Reeser

William Lamar Herb

Donald J Summers

Robert Nelson Fair, Jr

Michael E Bowman

Lalitkumar Bansal

Daniel E Gillis

A single-piece multi-fiber ferrule interconnect assembly including a ferrule body having a main surface, a front frame, and a rear opening, wherein the front frame includes a front face and a back face; a plurality of lenses arranged to form a lens array, wherein the lenses are fabricated within the front frame and recessed from the front face; a plurality of grooves on the main surface for receiving a plurality of optical fibers, the grooves extending from the back face toward the rear opening, wherein each groove comprises a terminus located at the focal point of a corresponding lens on the front frame; a well located on the main surface along the back face of the front frame, wherein inside edges of the well are curved and wherein the well is capable of accommodating an epoxy; and a plurality of guide pin passageways on the ferrule body each having a pin aperture for receiving alignment pins from a complementary ferrule body, wherein the pin aperture and the alignment pin from the complementary ferrule body align the ferrule front faces such that ends of the optical fibers align.

Multi-fiber ferrule connector

An optical interposer for optically coupling light between an OED supported on a substrate and an optical fiber, the interposer comprising: (a) an interposer of an optically-clear moldable material comprising at least the following features: (b) a port for receiving a ferrule containing at least one optical fiber, the port comprising an interface surface positioned to optically couple with an end face of the optical fiber; (c) an active lens adapted to optically couple with an OED, the active lens and the interface surface optically coupled along an optical path in the interposer; (d) a protrusion extending backward from the port, the protrusion defining a first register surface, the first register surface being a certain distance from the optical path such that, when a second register surface of a ferrule containing the optical fiber contacts the first register surface, the ferrule is aligned with the port such that the port can receive a front portion of the ferrule if the ferrule is pushed forward.

Interposer with alignment features

A body is configured for alignment to a substrate having an alignment feature. The body includes an alignment structure defining a viewing surface, and a dedicated lens adapted to focus an image of the substrate's alignment feature through an optically-clear material of the body and onto the viewing surface. In the fiber optic context, a lens body is provided for optically coupling a substrate's OED to a corresponding optical fiber. The lens body further includes at least one active lens adapted to cooperate optically with a respective OED. The dedicated lens is positioned externally to any optical path. An optical subassembly includes a substrate having at least one perceptible alignment feature provided in a predetermined spatial relationship to the OED, and a lens body secured to the substrate such that the image of the substrate's alignment feature appears aligned relative to the viewing surface.

Body having a dedicated lens for imaging an alignment feature

An electrical connector for terminating flat cable comprises a housing which holds a plurality of contacts, and a cover which is attachable to the housing. The cover is relatively movable on the housing from an initial position wherein the flat cable can be inserted between the cover and the housing, to a final position wherein the flat cable becomes terminated to the connector. The cover has latch arms receivable in wells in the housing, and the housing has protuberances which extend into the wells from side walls thereof. The protuberances serve as stops which are abutted by the latch arms when the cover is in the initial position, thereby temporarily preventing movement of the cover beyond the initial position.

Electrical connector having a cover with pre-stage positioning

A connector assembly (20) includes a plug connector (22) having a housing (24) and an array of first contacts (40), the housing including latch projections (36) extending laterally from at least both of the opposed sides (30) or both the opposed ends (32) thereof; and a complementary receptacle connector (50) having a housing with a plug receiving cavity (68) and corresponding array of second contacts (70), the housing (52) including latch receiving recesses (66) adjacent the cavity floor (68) alongside at least both of the sidewalls (62) or both of the endwalls (64) corresponding to the sides (30) and ends (32) of the plug portion. During initial mating of the plug and receptacle connectors (22) (50), the latch projections (36 ) of the plug housing (24) bear against and create an interference fit with the adjacent receptacle housing wall surfaces (65) and upon full mating of the plug and receptacle connectors (22) (50), the latch projections (36) release the walls upon their being received in the cavity recesses (66).

Board to board matable assembly

An electrical connector (10) is disclosed having a one piece housing (12), a plurality of cavities (18,20,22,24) in the housing, arranged in two vertical stacks (14,16) of four cavities each, and a contact (26,28,30,32) in each cavity. The cavities in each stack are separated by thin walls (48,50,52) of the housing. Each of the contacts has a contact end (68) for mating with a mating connector, and a tail (78) that exits from the contact at a right angle to the mounting surface (36) of the connector. Some of the contacts (28,30,32) have support members (94,96,98,100,102,104) that extend from the contact to engage the floor (53) of the cavity while the upper surface of the contact is in engagement with the ceiling (51) of the cavity. There is a bearing structure established from the tails (78) through the support members and the thin walls (48,50,52) to the top surface (34) of the connector housing. This permits installation of the connector (10) to a circuit board (112) by applying an insertion force directly to the top surface of the housing.

Electrical connector with integral supporting structure

A card ejecting mechanism with ESD protection, comprising: a sliding tray (36) between guide arms (5, 6) spaced apart to receive opposite side edges of a card (73), the guide arms (5, 6) being connected to an electrical connector (1), a lever arm (37) pivotally attached to the tray (36), a push button (38) slidably engaging the lever arm (37), a housing (39) mounting the button (38) slidably on one of the rails (5, 6), the tray (36 ) being engaged and moved by the lever arm (37 ) to urge the card (73) outwardly from the rails (5, 6) and conductive fingers (54, 68) on the tray (36) projecting to contact the card (73) received by the guide arms (5, 6).

Card ejecting mechanism

Growing community of inventors

Hellam, PA, United States of America

Donald Eugene Dellinger