Echostar Technologies Corporation

Dish Wireless L.l.c.

Dish Technologies L.l.c.

Dish Network LLC

Jerome A LaPalme

William Michael Beals

Richard Ripp, Jr

Greg Ivey

Henry Gregg Martch

Morgan Kirby

Svitlana Trygubova

William Roberts

Steven Allen Nedved

Jamie Metzger

Kenneth Jones

Andrew McAuley

Christopher Johnson

Chris Patton

Charles Iversen

Jeffrey L Mailloux

Les Beller

William T Roberts

Philip Marcilliat

An assembly, devices and processes for protecting electrical equipment may include a first sleeve hemisphere, a first sleeve proximal gasket positioned within the first sleeve hemisphere, a second sleeve hemisphere which mates with the first sleeve hemisphere to form a full sleeve and a second sleeve proximal gasket positioned within the second sleeve hemisphere. A cable protector may be formed by the mating of the first sleeve hemisphere with the second sleeve hemisphere and around at least a cable center section of a cable. The cable center section may be coupled to a cable proximal portion which is further coupled to a cable external proximal portion. When the cable protector is formed, the first sleeve proximal gasket combined with the second sleeve proximal gasket contact and surround the cable proximal portion and inhibit a proximal water inflow from the cable external proximal portion into the cable center section.

Cable protector

The subject matter disclosed here relates to a mounting system that facilitates the mounting of a transceiver to an antenna structure in a cellular communication system. In general, the mounting system includes an antenna mounting bracket, a transceiver mounting bracket, and a pair of guide rails. The antenna mounting bracket is configured to attach to the antenna structure while the transceiver mounting bracket is configured to attach to the transceiver. The pair of guide rails are configured to attach to the antenna mounting bracket and include channels to receive corresponding hooked structures on the transceiver mounting bracket. Specifically, the transceiver mounting bracket includes first and second hooked structures, and guide rails include first and second channels that are considered to receive the hooked structures such that the hooked structures can slide into the first and second channels on the guide rails.

Apparatus for mounting a transceiver to an antenna structure in a cellular communication system

A process, device and system facilitate mounting of apparatus on a tower. The process includes positioning a tunnel void clip on a strap, positioning the strap on the tower, fastening the strap to the tower, resting a first bracket on the clip, and fastening the first bracket, at a mounting position, onto the tower. The tunnel void clip includes a top portion, inner and outer prongs, a top connecting portion couples the top portion to the outer prong, and to the tops of the inner and outer prongs. A bottom connecting portion couples bottoms of the inner and outer prongs. The top and bottom connecting portions separate the inner and outer prongs to form a void therebetween, and the top and bottom connection portions, the inner and outer prongs and the void collectively form a tunnel void within the tunnel void clip through which the strap may be inserted.

Adjustable strap collar

The subject matter disclosed here relates to a mounting system that facilitates mounting of an antenna structure or other communication equipment to a tower pole in a cellular communication system. In general, the mounting system includes a mounting bracket and a plurality of bands that encircle the tower pole and pull the mounting bracket toward the tower pole. The mounting bracket includes a mounting surface, two side flanges, and a top and bottom flange. In general, the mounting surface is configured to receive communication equipment and may be configured to attach to multiple different types of antenna structures from different manufacturers. The bracket may thus offer a 'universal' type mount. The two side flanges of the mounting bracket extend from the mounting surface at angles that engage with the outer surface of the tower pole.

Apparatus for mounting radio equipment to a tower in a cellular communication system

A device for testing remote controls includes a main board, a data acquisition module (DAM), and one or more testing components. The main board communicates a testing instruction to the testing components which, then provide stimuli to a remote under test (RUT). The DAM receives, from the testing components, result data indicative of reaction(s) by the RUT to the stimuli. At least one of the stimuli is provided to the RUT and the result data is received by the DAM from the testing components. A first testing component provides a first stimuli to the RUT substantially simultaneously with a second testing component providing a second stimuli to the RUT. The first stimuli may include an acceleration of the RUT and the second stimuli may emulate a user action. The emulated user action emulates a button press, a button release, an audible input, and a touch screen action.

Automated remote control tester

A mounting assembly for cellular communication components includes a support mast and a mast bracket with w-shaped geometry. The mast bracket includes a central body defining a groove to receive the support mast. The mast bracket also includes a first support tab extending from the central body opposite the groove in a first direction. The first support tab defines a first slot. A second support tab extends from the central body opposite the groove in the first direction with the second support tab substantially parallel to the first support tab and defining a second slot. A device bracket is coupled to the mast bracket and comprises an elongated body to receive cellular equipment. A third support tab extends from the elongated body opposite the mating surface and defines a fifth slot. A fastener extends through the first slot, the second slot, and the fifth slot.

Mounting brackets and systems

Various embodiments provide a dual purpose press-bar and heat sink for an integrated circuit card (ICC) reader. The dual purpose press-bar and heat sink provides two functions. First, the dual purpose press-bar and heat sink conducts and dissipates internal heat generated by a high data transfer ICC inserted in to the ICC reader. Second, the dual purpose press-bar and heat sink ensures that contact pads of the high data transfer ICC create reliable electrical connections with ICC contacts of the ICC reader. As such, the dual purpose press-bar and heat sink simultaneously dissipates heat from a high data transfer ICC and ensures that a high data transfer ICC maintains proper electrical connections with ICC contacts of an ICC reader.

Dual purpose press-bar and heat sink for high data transfer integrated circuit card reader

Various embodiments provide a card reader that provides heat dissipation for high data transfer ICCs. The card reader includes a body having a press bar that physically contacts an upper surface of the ICC when fully inserted into the card reader. The press bar includes an aperture directly overlying and aligned with the card contacts of the card reader and the contact pads of the ICC when fully inserted. The aperture allows any heat generated by the ICC to radiate to a surrounding cooling medium, such as air.

Integrated circuit card reader with improved heat dissipation

A heat sink embodiment has at least one anti-rocking tab that extends outwardly and downwardly from an edge of the body portion of the heat sink. A leading lower edge of the anti-rocking tab is above a top surface of the motherboard when the heat sink is being affixed to the motherboard over a flip chip. During installation of the heat sink to the motherboard, a travel distance limit is imposed by the leading lower edge of the anti-rocking tab, thereby limiting a force that is applied to the die of the flip chip so that an edge and/or a corner of the die of the flip chip is not crushed, or such that the die of the flip chip is not cracked.

Apparatus, systems and methods for limiting travel distance of a heat sink

A reverse tapered mounting tab for a signal connector is disclosed. The signal connector includes the reverse tapered mounting tab coupled to a connector body having a connector port inside. The reverse tapered mounting tab is configured to be secured in a through hole of a circuit board. Solder may be positioned in the through hole after positioning the mounting tab. The solder may prevent the mechanical tab from being forced through the through hole even after minor cracking and deformations in the solder.

Reverse taper, anti-pull out support feature for surface mount HDMI and USB connectors

An enhanced smartcard reader having a row of first reading contacts, a row of second reading contacts, and a row of third reading contacts. The first reading contacts have arm portions that are cantilevered off a first mounting member of the reader, the second reading contacts have arm portions that are cantilevered off a second mounting member of the reader, and the third reading contacts have arm portions that are cantilevered off a third mounting member of the reader. The third mounting member is located vertically distanced from the second mounting member, and the arm portions of the third reading contacts directly overlay the arm portions of the second reading contacts.

Enhanced smartcard reader with multi-level reading contacts

In various embodiments, a coaxial radio frequency (RF) connector has a circuit board surface mount signal pin that forms no sharp angles (and especially no sharp right angles) as it leads down from an axis of the connector to the level of a printed circuit boardto which the signal pinis to be surface mounted. The signal pin is flat and has a first section, a second section and a third section. The first section extends axially from the first end of the signal pin housing. The second section is a transition from the first section to the third section and has a filleted interior corner and a corresponding rounded exterior corner providing a gradual transition between a direction in which the first section extends to a different direction in which the third section extends. The third section then forms a downward curve around an axis that is substantially parallel to an axis of the first section.

Growing community of inventors

Aurora, CO, United States of America

Jerome A LaPalme