Abstract: An uncured epoxy adhesive comprising a resin component, a hardener component, and a microencapsulated accelerator component. The microencapsulated accelerator component comprises an infrared absorber, an accelerator and a wall that covers substantially the entire surface of the accelerator. The epoxy adhesive is cured by exposing it to infrared energy. The infrared energy is absorbed by the infrared absorber which disintegrates the wall and allows the accelerator to come into contact with the other adhesive components and initiate the curing polymerization reaction.

Abstract: A method and device for cooling an electronic component during its manufacture, repair, or rework is disclosed. In certain examples, the cooling device includes a cooling device body optionally with one or more voids. In certain examples, a cooling medium that can receive, absorb or extract heat from the electronic component and/or the surrounding environment is disposed on or in the cooling device body. In some examples, a cooling device that includes a polymeric cooling device body, optionally with tape disposed on the polymeric cooling device body, is disclosed.

Abstract: A method and device for cooling an electronic component during its manufacture, repair, or rework is disclosed. In certain examples, the cooling device includes a cooling device body, and optionally a cooling medium, that can receive, absorb or extract heat from the electronic component and/or the surrounding environment.

Abstract: An assembly of the present invention has an integrated circuit device electrically and mechanically connected to the substrate. At least one electrically conductive connecting element is on one of the substrate and circuit device and at least one socket is on the other of the substrate and circuit device. The socket receives the at least one connecting element and comprises at least two resilient members. The resilient members are biased against the connecting element so that the circuit device and the substrate are held in electrical and mechanical connection by the biasing force of the resilient members against the connecting element.

Abstract: A process for masking an electronic component substrate involving application of a temporary mask material to the substrate to form a removably adhered temporary mask over the surface. Exemplary mask materials include polymer films and aqueous hardenable liquid coatings. An electronic component substrate having a temporary mask for masking the substrate surface from interconnect fill material.

Abstract: An assembly of the present invention has a substrate and a first MEMS device adapted to be electrically and mechanically connected to the substrate. A first set of MEMS/substrate fluid transfer ports on the first MEMS device and on the substrate are adapted to mate with one another when the first MEMS device and substrate are connected to permit the transfer of fluid between the first MEMS device and the substrate.

Abstract: A package for protecting an integrated circuit device having an active side. The package includes a substrate for mounting the integrated circuit device and a plastic cap mounted on the substrate to form an enclosed space for the active side of the integrated circuit device. A thermal bond is formed between the substrate and the plastic cap to effectively seal the enclosed space so as to prevent the ingress of moisture or particulate.

Abstract: An uncured epoxy adhesive comprising a resin component, a hardener component, and a microencapsulated accelerator component. The microencapsulated accelerator component comprises an infrared absorber, an accelerator and a wall that covers substantially the entire surface of the accelerator. The epoxy adhesive is cured by exposing it to infrared energy. The infrared energy is absorbed by the infrared absorber which disintegrates the wall and allows the accelerator to come into contact with the other adhesive components and initiate the curing polymerization reaction.