Abstract: A method of extracting hydrocarbons from a wellbore formed in a subterranean rock formation. The wellbore includes at least one fracture extending therefrom. The method includes forming a particle-free treatment fluid that includes an uncured, particle-free proppant material, and injecting the particle-free treatment fluid into the wellbore and towards the at least one fracture. The uncured, particle-free proppant material is configured to cure in-situ when positioned within the at least one fracture.

Abstract: An electronics package is provided. The electronics package may include an underfill layer having a surface that defines an opening. The electronics package may include a polymer bump structure disposed within the opening. A laminate for use as an underfill layer is provided. Associated methods are provided.

Abstract: The present invention provides an electrically conductive adhesive composition having cured low modulus elastomer and metallurgically-bonded micron-sized metal particles and nano-sized metal particles. The low modulus elastomer provides the mechanical robustness and reliability by relieving the stresses generated; and the metallurgically-bonded micron-sized metal particles and nano-sized metal particles provide a continuous conducting path with minimized interface resistance. Addition of nano-sized metal particles lowers the fusion temperature and allows the metallurgical-bonding to occur at manageable temperatures.

Abstract: The instant invention provides for an electrically and thermally conductive silicone adhesive composition comprising an alkenyl siloxane, a hydrido-siloxane, an electrically and thermally conductive filler, an optional thermally conductive filler, an adhesion promoter that does not deactivate the hydrosilylation catalyst, and a hydrosilylation catalyst and a hydrosilylation catalyst inhibitor.

Abstract: A nanostructure having at least one nanotube and at least one chemical moiety non-covalently attached to the at least one nanotube. At least one dendrimer is bonded to the chemical moiety. The chemical moiety may include soluble polymers, soluble oligomers, and combinations thereof. A method of dispersing at least one nanotube is also described. The method includes providing at least one nanotube and at least one chemical moiety to a solvent; debundling the nanotube; and non- covalently attaching a chemical moiety to the nanotube, wherein the non-covalently attached chemical moiety disperses the nanotube. A method of separating at least one semi-conducting carbon nanotube is also described.

Abstract: Thermal interface compositions contain both non-electrically conductive micron-sized fillers and electrically conductive nanoparticles blended with a polymer matrix. Such compositions increase the bulk thermal conductivity of the polymer composites as well as decrease thermal interfacial resistances that exist between thermal interface materials and the corresponding mating surfaces. Such compositions are electrically non-conductive. Formulations containing nanoparticles also show less phase separation of micron-sized particles than formulations without nanoparticles.