Dialight Corporation

Antec, Incorporated

Other

William S Leib, Iii

John Patrick Peck

Kevin A Hebborn

Anthony Verdes

John William Curran

Ronald D Bechamps

David Weimer

Samual David Boege

Chakrakodi Vishnu Shastry

Gordon Routledge

Kenneth Jenkins

James S Fasano

The present disclosure is directed to a method for potting an electrical module. In one embodiment, the method includes placing the electrical component in a potting mold, wherein the potting mold comprises an interior topology that matches a topology of one or more components of the electrical module, filling the potting mold with a potting compound and curing the potting compound over the electrical module.

Method and apparatus for sky-line potting

The present invention is directed to a beacon light with a light emitting diode (LED) reflector optic. In one embodiment, the LED reflector optic includes a reflector having a plurality of reflecting surfaces and being associated with at least one optical axis, each reflecting surface including a curved cross-section and at least one LED positioned at a focal distance of a respective one of the plurality of reflecting surfaces.

Beacon light with reflector and light emitting diodes

A lighting source that can be deployed in a hazardous environment is disclosed. For example, the lighting source comprises at least one light emitting diode and a power supply for providing power to the at least one light emitting diode. The lighting source also comprises an enclosure for housing the at least one light emitting diode and the power supply, where said lighting source is for deployment in a hazardous environment.

Method and apparatus for providing an LED light for use in hazardous locations

The present invention relates generally to a light emitting diode lighting fixture. In one embodiment, the light fixture includes an extrusion, a plurality of light emitting diodes (LEDs) and a lens coupled to the extrusion. The plurality of LEDs has a uniform spacing between each one of the plurality of LEDs along the extrusion.

LED lighting fixture

The present invention relates generally to a light transmitting device and a total internal reflection lens with base. In one embodiment, the total internal reflection lens includes a light output portion and a first base coupled to the light output portion. The first base includes a cavity for receiving a light emitting diode (LED) and an undercut adjacent to the cavity.

Total internal reflection lens with base

A light-emitting diode (LED) reflector optic includes a reflector having a reflector having a plurality of reflecting surfaces, wherein each one of the plurality of reflecting surfaces is associated with at least one optical axis, each reflecting surface comprising a cross-section that is projected along a curved trajectory and a plurality of LEDs, wherein each one of the plurality of LEDs is positioned in a line parallel to the cross-section of an associated one of the plurality of reflecting surfaces and relative to the associated reflecting surface of the plurality of reflecting surfaces such that a central light-emitting axis of each one of the plurality of LEDs is angled relative to the at least one optical axis of the associated reflecting surface of the plurality of reflecting surfaces at about 90&#xb0; and such that each of the reflecting surfaces redirects and collimates a light output of a respective each one of the plurality of LEDs at an angle of about 90&#xb0; with respect to the central light emitting axis of each one of the plurality of LEDs, wherein each one of the plurality of reflecting surfaces receives light from each one of the plurality of LEDs from a focal distance of the associated one of the plurality of reflecting surfaces.

Beacon light with reflector and light-emitting diodes

A light-emitting diode (LED) reflector optic comprises a reflector having a plurality of reflecting surfaces. The reflector is associated with at least one optical axis. In one embodiment, each reflecting surface has a linearly projected cross-section. In one embodiment, the LED reflector optic also has at least one LED positioned such that a central light-emitting axis of the at least one LED is angled relative to the at least one optical axis at about 90&#xb0;. In one embodiment, the about 90&#xb0; has a tolerance of &#xb1;30&#xb0;. In one embodiment, each reflecting surface has at least one of: a conic or a substantially conic shape. In one embodiment, the at least one LED has a plurality of LEDs, the at least one optical axis has a plurality of optical axes, and each of the plurality of LEDs is angled relative to a respective one of the plurality of optical axes at about 90&#xb0;. In one embodiment, a plurality of linear extrusion axes is angled relative to each other.

Devices for routing and organizing fibers in a rack that houses optical equipment, including a strain relief member, a chaffing guard, and a sag reducer. The strain relief member includes a body having rounded upper and lower portions, each being at least equal to the minimum bend radius of the fibers exiting the equipment, and fins on top of the body. Fibers can be interference fit between adjacent fins, thereby relieving pressure on the connector caused by gravity when the fiber hangs down over the strain relief member. The chaffing guard includes a body having a rounded upper portion and a rounded lower portion that each maintain the minimum bend radius of fibers routed over the guard. The rounded upper portion has no sharp edges and therefore reduces chaffing of fibers routed over the top of the chaffing guard. The sag reducer includes a spine and a plurality of extending arms that are spaced apart to allow a plurality of fibers to pass between each adjacent arm, thereby reducing the sagging of horizontally routed fibers.

Devices for protecting and routing optical fibers in a rack

An apparatus for organizing fibers in a rack that houses optical equipment, including a guide that can be removably connected at one of a plurality of different locations to define paths in which fibers can be routed between equipment within the rack. The invention includes a panel having an array of mounting holes therein, and a plurality of guides that can be removably connected to the panel at a plurality of different locations defined by the mounting holes. The panel is located in the rack adjacent to each rack space that houses a piece of equipment and preferably includes a plurality of columns having a plurality of mounting holes in each column. This provides a plurality of vertical and horizontal locations at which a guide can be connected to the panel, thereby allowing the guide to be connected to an appropriate location depending on the size of the equipment in the rack space.

Adjustable guide for organizing optical fibers in an equipment rack

A cabinet for interconnecting and storing optical fibers. The cabinet includes a plurality of left side members and right side members, each of which extends generally horizontally. A plurality of trays are slidably situated in the cabinet between the respective left and right side members. Each tray includes a generally flat base and open sides. The open sides permit optical fibers to be introduced into the tray from any position along the side of the tray. A gap is defined between each side member and the side members immediately above and below it. Each gap extends between the entire length of each side member from the front of the cabinet to the back. The gap provides adequate clearance for fibers introduced into the trays to move along the length of the gap when the tray is slid in and out of the cabinet. The gaps between side members allow for optical fibers to be introduced into the tray by service personnel from the front of the cabinet without having to access the rear of the cabinet to feed optical fibers into the trays through openings in the back of the cabinet.

Growing community of inventors

Tinton Falls, NJ, United States of America

William S Leib, Iii