Abstract: Provided herein are conductive formulations which are useful for applying conductive material to a suitable substrate; the resulting coated articles have improved EMI shielding performance relative to articles coated with prior art formulations employing prior art methods. In accordance with certain aspects of the present invention, there are also provided methods for filling a gap in an electronic package to achieve electromagnetic interference (EMI) shielding thereof, as well as the resulting articles shielded thereby. Specifically, invention methods utilize capillary flow to substantially fill any gaps in the coating on the surface of an electronic package. Effective EMI shielding has been demonstrated with very thin coating thickness.

Abstract: Provided herein are conductive formulations which are useful for applying conductive material to a suitable substrate; the resulting coated articles have improved EMI shielding performance relative to articles coated with prior art formulations employing prior art methods. In accordance with certain aspects of the present invention, there are also provided methods for filling a gap in an electronic package to achieve electromagnetic interference (EMI) shielding thereof, as well as the resulting articles shielded thereby. Specifically, invention methods utilize capillary flow to substantially fill any gaps in the coating on the surface of an electronic package. Effective EMI shielding has been demonstrated with very thin coating thickness.

Abstract: Provided herein are conductive formulations which are useful for applying conductive material to a suitable substrate; the resulting coated articles have improved EMI shielding performance relative to articles coated with prior art formulations employing prior art methods. In accordance with certain aspects of the present invention, there are also provided methods for filling a gap in an electronic package to achieve electromagnetic interference (EMI) shielding thereof, as well as the resulting articles shielded thereby. Specifically, invention methods utilize capillary flow to substantially fill any gaps in the coating on the surface of an electronic package. Effective EMI shielding has been demonstrated with very thin coating thickness.

Abstract: The present invention provides a one part liquid underfill composition comprising an epoxy resin, a latent epoxy curing agent, a photocurable resin or monomer, a photoinitiator, an optional filler, and an optional thermal initiator. Also provided is a packaging process using the underfill composition.

Abstract: The present invention provides a one part liquid underfill composition comprising an epoxy resin, a latent epoxy curing agent, a photocurable resin or monomer, a photoinitiator, an optional filler, and an optional thermal initiator. Also provided is a packaging process using the underfill composition.

Abstract: A process is described that enables the active side of a bumped wafer to be coated with a front side protection (FSP) material or wafer level underfill (WLUF) without contaminating the solder bumps with the coating material and/or filler. In this process a repellent material is applied to a top portion of the solder bumps on the active side of the wafer, the front side of the wafer is then coated with the coating material, the coating material is hardened, and optionally the repellent material is removed from the solder bumps.

Abstract: A method for reducing the level of freeze-thaw voids in an uncured adhesive subjected to freezing and thawing comprises storing the adhesive in a container in which the walls of the container are a thermoplastic material and have been thinned and roughened.

Abstract: A method for reducing the level of freeze-thaw voids in an uncured adhesive subjected to freezing and thawing comprises storing the adhesive in a container in which the walls of the container are a thermoplastic material and have been thinned and roughened.