Delphi Technologies, Inc.

Intel Corporation

Matthew R Walsh

Scott David Brandenburg

Arun K Chaudhuri

Derek B Workman

Frank Stepniak

Thomas Alan Degenkolb

Jeenhuei S Tsai

Charles I Delheimer

David Wayne Zimmerman

Suresh K Chengalva

Darrel Eugene Peugh

David A Laudick

Gary Eugene Oberlin

Deepukumar M Nair

Michael E Miller

Bruce Wayne Butler

Brian D Thompson

Michael J Varnau

Benjamen E Haffke

A microwave communication package is constructed on an electrically conducting base plate having a first side defining a base plate cavity, with an antenna apparatus mounted on an opposite, second side. A dielectric substrate on the first side of the base plate covers the base plate cavity; and sealing apparatus contacting the dielectric substrate and the base plate completely around the base plate cavity hermetically seals the cavity. Circuitry mounted on a surface of the substrate within the base plate cavity includes one or more microstrip lines communicating components to one or more waveguides comprising openings extending through the base plate; and the waveguides are coupled at their opposite ends to the antenna apparatus.

Microwave communication package

A surface mount connector and assembly including the surface mount connector is shown and described. The assembly comprises a substrate and a connector including a carrier, and at least one electrical connecting element having first and second ends, wherein at least a portion of the first end extends through the carrier to electrically adjoin and physically secure the connector to the substrate. A reinforcement medium is disposed about at least a portion of surface mount connector and said substrate.

Surface mount connector

A technique for manufacturing an electronic assembly uses a mold that has a first mold portion and a second mold portion. The first mold portion includes a plurality of spaced mold pins extending from an inner surface. A cavity of the first and second mold portions provides a mold cavity, when joined. A backplate is also provided that includes a plurality of support pedestals and an integrated heatsink extending from a first side of the backplate. A substrate includes a first side of an integrated circuit (IC) die mounted to a first side of the substrate. The backplate and the substrate are placed within the cavity of the second mold portion and the support pedestals are in contact with the first side of the substrate. The first and second mold portions are joined and the mold pins contact a second surface of the substrate during an overmolding process.

Technique for manufacturing an overmolded electronic assembly

An electronic module includes a substrate, at least one surface mounted integrated circuit (IC) component and an underfill material. The substrate includes a plurality of electrically conductive traces, formed on at least one surface of the substrate, and the component is electrically coupled to at least one of the conductive traces. The underfill material is positioned between the component and the substrate and provides at least one pedestal that supports the component during encapsulation. The underfill material, when cured, maintains the integrity of the electrical connections between the component and the conductive traces.

Electronic module with form in-place pedestal

A thermally enhanced electronic module includes a thermally conductive case, a self-aligning thermally conductive heat sink and an integrated circuit (IC) package. The case includes an aperture sized for receiving a portion of the heat sink. The IC package includes a first surface and a second surface, opposite the first surface, and is mounted to a substrate with the first surface of the IC package facing the substrate. The second surface of the IC package is in thermal contact with the heat sink, when the heat sink is positioned in the aperture and secured to the case.

Thermally enhanced electronic module with self-aligning heat sink

A no-flow underfill material and process suitable for underfilling a bumped circuit component. The underfill material initially comprises a dielectric polymer material in which is dispersed a precursor capable of reacting to form an inorganic filler. The underfill process generally entails dispensing the underfill material over terminals on a substrate, and then placing the component on the substrate so that the underfill material is penetrated by the bumps on the component and the bumps contact the terminals on the substrate. The bumps are then reflowed to form solid electrical interconnects that are encapsulated by the resulting underfill layer. The precursor may be reacted to form the inorganic filler either during or after reflow.

No-flow underfill process and material therefor

A process for underfilling a bumped die surface using a lamination step and compound film such that solder bumps on the die are exposed during lamination. The compound film comprises a first layer containing an underfill material and a second layer on the first layer. The underfill material and the second layer comprise polymer materials that differ from each other. The compound film is laminated to the die, preferably at the wafer level, so that the underfill material is forced between the solder bumps and fills spaces between the bumps but does not cover the bumps. In contrast, the second layer covers the solder bumps, but is then selectively removed to re-expose the solder bumps and the underfill material therebetween.

Wafer-applied underfill process

A package and packaging method that incorporates multiple surface-mounted devices mounted to the package, which in turn can be mounted onto a circuit board. The package generally includes a pair of laminate substrates that together form a chip carrier and input/output (I/O) interface structure for the devices. The devices are mounted to opposite surface of a first of the substrates. The second substrate is attached to the first substrate, and has an interior opening therethrough. The first and second substrates are attached to each other such that devices mounted on one surface of the first substrate are disposed within the interior opening of the second laminate substrate. A mold compound can be applied to underfill and encapsulate the devices mounted to the surfaces of the first substrate.

Mutli-chip module

A conductive adhesive material characterized by metallurgical bonds between electrically-conductive particles dispersed in a polymer matrix of the material. The polymer matrix has a fluxing capability when heated to reduce metal oxides on the surfaces of the particles. At least the outer surfaces of the particles are formed of a fusible material, so that sufficiently heating the conductive adhesive material will reduce metal oxides on the particles, and at least partially melt the fusible metal, enabling the particles to metallurgically bond to each other and to metal surfaces contacted by the adhesive material.

Conductive adhesive material with metallurgically-bonded conductive particles

A no-flow underfill material and process for underfilling a flip chip component. The underfill material comprises at least three polymer layers. A first of the layers overlies terminals of a substrate to which the component is to be mounted. The first and second layers are substantially free of fillers, while the third layer contains a filler material to reduce its CTE. The underfill process entails placing the component so that solder terminals thereof penetrate the first, second and third layers and contact the terminals on the substrate. Because only the third layer contains filler material, penetration of the underfill material by the solder terminals is substantially unimpeded. The solder terminals are then reflowed, during which the filler material migrates into the unfilled first layer and the first, second and third layers consolidate and cure to form a single underfill layer.

Growing community of inventors

Sharpsville, IN, United States of America

Matthew R Walsh