Abstract: Semiconductor device interconnect structures having low capacitance and associated systems and methods are disclosed herein. In one embodiment, a method of manufacturing an interconnect structure includes forming an opening in a surface of a semiconductor device and forming an interconnect structure at least within the opening. Forming the interconnect structure includes depositing a first insulator material on both the surface and a sidewall of the opening, selectively removing a first portion of the first insulator material on the surface over a second portion of the first insulator material on the sidewall, depositing a second insulator material on the second portion, and depositing a conductive material on the second insulator material. The method further includes selecting the thickness of the first and second insulators materials based on a threshold level of capacitance between the sidewall and the conductive material.

Abstract: Semiconductor device interconnect structures having low capacitance and associated systems and methods are disclosed herein. In one embodiment, a method of manufacturing an interconnect structure includes forming an opening in a surface of a semiconductor device and forming an interconnect structure at least within the opening. Forming the interconnect structure includes depositing a first insulator material on both the surface and a sidewall of the opening, selectively removing a first portion of the first insulator material on the surface over a second portion of the first insulator material on the sidewall, depositing a second insulator material on the second portion, and depositing a conductive material on the second insulator material. The method further includes selecting the thickness of the first and second insulators materials based on a threshold level of capacitance between the sidewall and the conductive material.

Abstract: Semiconductor device interconnect structures having low capacitance and associated systems and methods are disclosed herein. In one embodiment, a method of manufacturing an interconnect structure includes forming an opening in a surface of a semiconductor device and forming an interconnect structure at least within the opening. Forming the interconnect structure includes depositing a first insulator material on both the surface and a sidewall of the opening, selectively removing a first portion of the first insulator material on the surface over a second portion of the first insulator material on the sidewall, depositing a second insulator material on the second portion, and depositing a conductive material on the second insulator material. The method further includes selecting the thickness of the first and second insulators materials based on a threshold level of capacitance between the sidewall and the conductive material.

Abstract: Semiconductor device interconnect structures having low capacitance and associated systems and methods are disclosed herein. In one embodiment, a method of manufacturing an interconnect structure includes forming an opening in a surface of a semiconductor device and forming an interconnect structure at least within the opening. Forming the interconnect structure includes depositing a first insulator material on both the surface and a sidewall of the opening, selectively removing a first portion of the first insulator material on the surface over a second portion of the first insulator material on the sidewall, depositing a second insulator material on the second portion, and depositing a conductive material on the second insulator material. The method further includes selecting the thickness of the first and second insulators materials based on a threshold level of capacitance between the sidewall and the conductive material.

Abstract: Methods are disclosed that include selectively etching diffused regions to form recesses in semiconductor material, and forming charge storage structures in the recesses. Additional embodiments are disclosed.

Abstract: The critical dimension (CD) of features formed during the fabrication of a semiconductor device may be controlled through the use of a dry develop chemistry comprising O2, SO2 and a hydrogen halide. For example, a dry develop chemistry comprising a gas comprising O2 and a gas comprising SO2 and a gas comprising HBr may be used to remove exposed areas of a carbon-based mask. The addition of HBr to the conventional O2 and SO2 dry develop chemistry enables a user to tune the critical dimension by growing, trimming and/or sloping the sidewalls and to enhance sidewall passivation and reduce sidewall bowing.

Abstract: Methods are disclosed that include selectively etching diffused regions to form recesses in semiconductor material, and forming charge storage structures in the recesses. Additional embodiments are disclosed.

Abstract: Methods are disclosed that include selectively etching diffused regions to form recesses in semiconductor material, and forming charge storage structures in the recesses. Additional embodiments are disclosed.

Abstract: A platinum-comprising material is plasma etched by being exposed to a plasma etching chemistry that includes CHCl3, CO2 and O2. In one embodiment, a method of processing a semiconductor substrate in the fabrication of integrated circuitry includes forming metallic platinum-comprising nanoparticles over a material. A portion of the nanoparticles is masked and another portion of the nanoparticles is unmasked. The unmasked portion of the metallic platinum-comprising nanoparticles is plasma etched using a plasma etching chemistry comprising CHCl3, CO2 and O2. Other embodiments are disclosed.

Abstract: A method of forming a photoresist-comprising pattern on a substrate includes forming a patterned first photoresist having spaced first masking shields in at least one cross section over a substrate. The first masking shields are exposed to a fluorine-containing plasma effective to form a hydrogen and fluorine-containing organic polymer coating about outermost surfaces of the first masking shields. A second photoresist is deposited over and in direct physical touching contact with the hydrogen and fluorine-containing organic polymer coating. The second photoresist which is in direct physical touching contact with the hydrogen and fluorine-containing organic polymer coating is exposed to a pattern of actinic energy and thereafter spaced second masking shields are formed in the one cross section which comprise the second photoresist and correspond to the actinic energy pattern. The first and second masking shields together form at least a part of a photoresist-comprising pattern on the substrate.

Abstract: Methods are disclosed that include selectively etching diffused regions to form recesses in semiconductor material, and forming charge storage structures in the recesses. Additional embodiments are disclosed.

Abstract: The critical dimension (CD) of features formed during the fabrication of a semiconductor device may be controlled through the use of a dry develop chemistry comprising O2, SO2 and a hydrogen halide. For example, a dry develop chemistry comprising a gas comprising O2 and a gas comprising SO2 and a gas comprising HBr may be used to remove exposed areas of a carbon-based mask. The addition of HBr to the conventional O2 and SO2 dry develop chemistry enables a user to tune the critical dimension by growing, trimming and/or sloping the sidewalls and to enhance sidewall passivation and reduce sidewall bowing.

Abstract: A platinum-comprising material is plasma etched by being exposed to a plasma etching chemistry that includes CHCl3, CO2 and O2. In one embodiment, a method of processing a semiconductor substrate in the fabrication of integrated circuitry includes forming metallic platinum-comprising nanoparticles over a material. A portion of the nanoparticles is masked and another portion of the nanoparticles is unmasked. The unmasked portion of the metallic platinum-comprising nanoparticles is plasma etched using a plasma etching chemistry comprising CHCl3, CO2 and O2. Other embodiments are disclosed.

Abstract: A method of forming a photoresist-comprising pattern on a substrate includes forming a patterned first photoresist having spaced first masking shields in at least one cross section over a substrate. The first masking shields are exposed to a fluorine-containing plasma effective to form a hydrogen and fluorine-containing organic polymer coating about outermost surfaces of the first masking shields. A second photoresist is deposited over and in direct physical touching contact with the hydrogen and fluorine-containing organic polymer coating. The second photoresist which is in direct physical touching contact with the hydrogen and fluorine-containing organic polymer coating is exposed to a pattern of actinic energy and thereafter spaced second masking shields are formed in the one cross section which comprise the second photoresist and correspond to the actinic energy pattern. The first and second masking shields together form at least a part of a photoresist-comprising pattern on the substrate.

Abstract: A process and apparatus directed to forming a terraced film stack of a semiconductor device, for example, a DRAM memory device, is disclosed. The present invention addresses etch undercut resulting from materials of different etch selectivity used in the film stack, which if not addressed can cause device failure.

Abstract: A process and apparatus directed to forming a terraced film stack of a semiconductor device, for example, a DRAM memory device, is disclosed. The present invention addresses etch undercut resulting from materials of different etch selectivity used in the film stack, which if not addressed can cause device failure.

Abstract: A process directed to forming a terraced film stack of a semiconductor device, for example, a DRAM memory device, is disclosed. The present invention addresses etch undercut resulting from materials of different etch selectivity used in the film stack, which if not addressed can cause device failure.

Abstract: A process and apparatus directed to forming a terraced film stack of a semiconductor device, for example, a DRAM memory device, is disclosed. The present invention addresses etch undercut resulting from materials of different etch selectivity used in the film stack, which if not addressed can cause device failure.

Abstract: The critical dimension (CD) of features formed during the fabrication of a semiconductor device may be controlled through the use of a dry develop chemistry comprising O2, SO2 and a hydrogen halide. For example, a dry develop chemistry comprising a gas comprising O2 and a gas comprising SO2 and a gas comprising HBr may be used to remove exposed areas of a carbon-based mask. The addition of HBr to the conventional O2 and SO2 dry develop chemistry enables a user to tune the critical dimension by growing, trimming and/or sloping the sidewalls and to enhance sidewall passivation and reduce sidewall bowing.

Abstract: A process directed to forming a terraced film stack of a semiconductor device, for example, a DRAM memory device, is disclosed. The present invention addresses etch undercut resulting from materials of different etch selectivity used in the film stack, which if not addressed can cause device failure.