Abstract: A method and system utilizes ink jetting or printing of surface work function modification material or solution to form modified p-type and/or n-type electrodes. The proposed method is suitable for making complementary OTFT circuits in roll-to-roll fabrication environment.

Abstract: A method and system utilizes ink jetting or printing of surface work function modification material or solution to form modified p-type and/or n-type electrodes. The proposed method is suitable for making complementary OTFT circuits in roll-to-roll fabrication environment.

Abstract: A method and system utilizes ink jetting or printing of surface work function modification material or solution to form modified p-type and/or n-type electrodes. The proposed method is suitable for making complementary OTFT circuits in roll-to-roll fabrication environment.

Abstract: A printed resistive gas detector configuration that is simple, inexpensive and compact, fabricated for incorporation into an electronic device, such as an electronic computing and/or communication device, the printed resistive gas detector configuration designed to continuously monitor for predetermined types of gasses. The printed resistive gas detector configuration manufactured by the use of printing technology to print on a flexible substrate.

Abstract: A method and system utilizes ink jetting or printing of surface work function modification material or solution to form modified p-type and/or n-type electrodes. The proposed method is suitable for making complementary OTFT circuits in roll-to-roll fabrication environment.

Abstract: A printed resistive gas detector configuration that is simple, inexpensive and compact, fabricated for incorporation into an electronic device, such as an electronic computing and/or communication device, the printed resistive gas detector configuration designed to continuously monitor for predetermined types of gasses. The printed resistive gas detector configuration manufactured by the use of printing technology to print on a flexible substrate.

Abstract: A sensor including a sensing element comprising conductive features formed on a substrate; wherein the conductive features have been formed from a palladium complex ink composition that has been deposited onto the substrate to form the deposited features and wherein the deposited features have been heated to form the conductive features on the substrate. A method including disposing a palladium complex ink composition onto a substrate to form deposited features; and heating the deposited features to form conductive features on the substrate. A strain gauge sensor including a sensing element comprising conductive features formed on a substrate; wherein the conductive features conform to a two dimensional substrate surface; or wherein the conductive features conform to a three dimensional substrate surface.

Abstract: A sensor including a sensing element comprising conductive features formed on a substrate; wherein the conductive features have been formed from a palladium complex ink composition that has been deposited onto the substrate to form the deposited features and wherein the deposited features have been heated to form the conductive features on the substrate. A method including disposing a palladium complex ink composition onto a substrate to form deposited features; and heating the deposited features to form conductive features on the substrate. A strain gauge sensor including a sensing element comprising conductive features formed on a substrate; wherein the conductive features conform to a two dimensional substrate surface; or wherein the conductive features conform to a three dimensional substrate surface.