Abstract: Electrodes, particularly useful in bipolar plates of lead-acid batteries, include a metal-containing substrate, an electrically conductive material secured to the first side of the substrate, an electrically conductive layer including a polymer secured to the second side of the substrate; and a metallic layer secured to the electrically conductive layer so that the electrically conductive layer is located between the metallic layer and the substrate. Bipolar plates are provided and include an electrically conductive electrode element, a grid spaced apart from the electrode in proximity to the first side of the electrode element, positive active material in contact with the first side or second side of the electrode element and negative active material in contact with the first side or second side of the electrode element which is not in contact with the positive active material.

Abstract: Electrodes, particularly useful in bipolar plates of lead-acid batteries, include a metal-containing substrate, an electrically conductive material secured to the first side of the substrate, an electrically conductive layer including a polymer secured to the second side of the substrate; and a metallic layer secured to the electrically conductive layer so that the electrically conductive layer is located between the metallic layer and the substrate. Bipolar plates are provided and include an electrically conductive electrode element, a grid spaced apart from the electrode in proximity to the first side of the electrode element, positive active material in contact with the first side or second side of the electrode element and negative active material in contact with the first side or second side of the electrode element which is not in contact with the positive active material.

Abstract: Processes for coating substrates, in particular substrates including shielded surfaces, with transition metal oxide-containing coatings are disclosed. Such processes comprise contacting a substrate with a transition metal oxide precursor, preferably maintaining the precursor coated substrate at conditions to equilibrate the coating, and then oxidizing the precursor to form a substrate containing transition metal oxide. Also disclosed are substrates coated with transition metal oxide-containing coatings for use in various applications.

Abstract: Coated substrates are disclosed comprising a three-dimensional inorganic substrate having a coating of electrically conductive tin oxide on at least a portion of all three dimensions thereof and catalyst material produced by a unique process having particular applicability to the manufacture of tin oxide coated three-dimensional substrates. Certain novel catalysts, such as manufactured from various catalyst supports including monoliths are disclosed.

Abstract: A coated porous substrate comprising a porous substrate having a coating of electrically conductive tin oxide on at least a portion of all three dimensions thereof. The coated porous substrate is useful in the lead acid batteries, catalysis, heating, shielding porous membrane and field dependent fluid applications.

Abstract: Processes for coating substrates, in particular substrates including shielded surfaces, with transition metal oxide-containing coatings are disclosed. Such processes comprise contacting a substrate with a transition metal oxide precursor, preferably maintaining the precursor coated substrate at conditions to equilibrate the coating, and then oxidizing the precursor to form a substrate containing transition metal oxide. Also disclosed are substrates coated with transition metal oxide-containing coatings for use in various applications.

Abstract: A battery element comprising a porous substrate optionally having a coating of electrically conductive tin oxide on at least a portion of all three dimensions thereof. The porous substrate is useful in the positive active material of lead acid batteries.

Abstract: Processes for coating substrates, in particular substrates including shielded surfaces, with tin oxide-containing coatings are disclosed. Such processes comprise contacting a substrate with a tin oxide precursor; preferably maintaining the precursor coated substrate at conditions to distribute and equilibrate the coating; oxidizing the precursor containing material to form a substrate containing tin oxide and contacting the substrate with at least one catalyst material at conditions effective to form a catalyst material containing coating on at least a portion of the substrate. Also disclosed are substrates coated with tin oxide-containing coatings for use in various catalyst applications.

Abstract: Processes for coating substrates, in particular substrates including shielded surfaces, with zinc oxide-containing coatings are disclosed. Such processes comprise contacting a substrate with a zinc oxide precursor, preferably maintaining the precursor coated substrate at conditions to equilibrate the coating, and then oxidizing the precursor to form a substrate containing zinc oxide. Also disclosed are substrates coated with zinc oxide-containing coatings for use in various applications.

Abstract: An electrostatic dissipation/electromagnetic interference shielding element comprising a three dimensional substrate having shielded surfaces which are at least partially shielded by other portions of said substrate and having an electronically conductive tin oxide-containing coating on at least a portion of all three dimensions thereof and said shielded surface, said coated substrate being adapted and structured to provide at least one of the following: electrostatic dissipation and electromagnetic interference shielding.

Abstract: Processes for coating substrates, in particular substrates including shielded surfaces, with iron oxide-containing coatings are disclosed. Such processes comprise contacting a substrate with an iron oxide precursor, preferably maintaining the precursor coated substrate at conditions to equilibrate the coating, and then oxidizing the precursor to form a substrate containing iron oxide. Also disclosed are substrates coated with iron oxide-containing coatings for use in various magnetic applications.

Abstract: Processes for coating substrates, in particular substrates including shielded surfaces, with copper oxide-containing coatings are disclosed. Such processes comprise contacting a substrate with a copper oxide precursor, preferably maintaining the precursor coated substrate at conditions to equilibrate the coating, and then oxidizing the precursor to form a substrate containing copper oxide. Also disclosed are substrates coated with copper oxide-containing coatings for use in various applications.

Abstract: Coated substrates are disclosed comprising a three-dimensional inorganic substrate having a coating of electrically conductive tin oxide on at least a portion of all three dimensions thereof, produced by a unique process having particular applicability to the manufacture of tin oxide coated three-dimensional substrates. Certain novel coated substrates, such as flakes, spheres and monoliths are disclosed. The coated substrates are useful in battery, catalysis, heating, shielding and field dependent fluid applications.

Abstract: A heating element comprising a three dimensional substrate having coating-containing electrically conductive tin oxide on at least a portion of all three dimensions thereof, the coated substrate being adapted and structured to provide heat in response to the presence of one or more electrical and/or magnetic fields.

Abstract: Processes for coating substrates, in particular substrates including shielded surfaces, with zinc oxide-containing coatings are disclosed. Such processes comprise contacting a substrate with a zinc oxide precursor, preferably maintaining the precursor coated substrate at conditions to equilibrate the coating, and then oxidizing the precursor to form a substrate containing zinc oxide. Also disclosed are substrates coated with zinc oxide-containing coatings for use in various applications.

Abstract: A heating element includes a multi-channel monolith substrate having a coating containing electrically conductive tin oxide on at least a plurality of the channels thereof, the coated substrate being adapted and structured to provide heat in response to the presence of one or more electrical and/or magnetic fields.

Abstract: Processes for coating substrates, in particular substrates including shielded surfaces, with iron oxide-containing coatings are disclosed. Such processes comprise contacting a substrate with an iron oxide precursor, preferably maintaining the precursor coated substrate at conditions to equilibrate the coating, and then oxidizing the precursor to form a substrate containing iron oxide. Also disclosed are substrates coated with iron oxide-containing coatings for use in various magnetic applications.

Abstract: Processes for coating substrates, in particular substrates including shielded surfaces, with copper oxide-containing coatings are disclosed. Such processes comprise contacting a substrate with a copper oxide precursor, preferably maintaining the precursor coated substrate at conditions to equilibrate the coating, and then oxidizing the precursor to form a substrate containing copper oxide. Also disclosed are substrates coated with copper oxide-containing coatings for use in various applications.

Abstract: A field dependent fluid comprising a liquid phase and an inorganic particulate solid substrate having a coating containing electrically conductive tin oxide on at least a portion thereof, said coated substrate being adapted and structured to provide an electrorheological response to the presence of one or more electrical and/or magnetic fields.

Abstract: A porous membrane comprising a porous substrate and a tin oxide-containing material in contact with at least a portion of the porous substrate.