Abstract: A semiconductor structure may be covered with a thermally decomposing film. That film may then be covered by a sealing cover. Subsequently, the thermally decomposing material may be decomposed, forming a cavity.

Abstract: Embodiments of the invention provide a non-chemically amplified photoresist, which results in reduced line wide roughness (LWR). In accordance with one embodiment the photoresist includes a developer-soluble resin (DSR) and a photoactive compound (PAC). For one embodiment of the invention, the even distribution of the PAC within the DSR results in reduced acid diffusion thus reducing LWR. Prior to exposure to the light source, the PAC inhibits solubility of the DSR in the developer. Upon exposure the PAC converts to acid to promote solubility of the DSR. The even distribution of the PAC within the photoresist results in reduced LWR and a reduction in defects. For one embodiment the photoresist is applied in the EUV technology (e.g., wavelength is 13.4 nm). For such an embodiment the LWR may be reduced to less than 1.5 nm allowing for effective fabrication of devices having feature sizes of approximately 15 nm.

Abstract: In a formulation of a wafer cleaning brush, forming a polymer solution with a plurality of nano-scale porogens or with a synthetic pore forming agent and curing the polymer solution to form a porous polymeric material.

Abstract: A method for forming a zeolite-carbon doped oxide (CDO) composite dielectric material is herein described. Zeolite particles may be dispersed in a solvent. The zeolite solvent solution may then be deposited on an underlying layer, such as a wafer or other dielectric layer. At least some solvent may then be removed to form a zeolite film. A CDO may then be deposited in the zeolite film to form a zeolite-CDO composite film/dielectric. The Zeolite-CDO composite film/dielectric may then be calcinated to form a solid phase zeolite-CDO composite dielectric.

Abstract: Compositions for immersion liquid materials and associated immersion lithography systems and techniques. Examples of polymer or oligomer-based immersion liquids are described to exhibit superior material properties for immersion lithography in comparison with water and some other commonly-used immersion liquids. In addition, certain material additives may be added to water and water-based immersion liquids to improve the performance of the immersion liquids in immersion lithography.

Abstract: A method for forming a zeolite-carbon doped oxide (CDO) composite dielectric material is herein described. Zeolite particles may be dispersed in a solvent. The zeolite solvent solution may then be deposited on an underlying layer, such as a wafer of other dielectric layer. At least some solvent may then be removed to form a zeolite film. A CDO may then be deposited in the zeolite film to form a zeolite-CDO composite film/dielectric. The zeolite-CDO composite film/dielectric may then be calcinated to form a solid phase zeolite-CDO composite dilectric.

Abstract: A semiconductor structure may be covered with a thermally decomposing film. That film may then be covered by a sealing cover. Subsequently, the thermally decomposing material may be decomposed, forming a cavity.

Abstract: A method of forming an opening in a disclosed ILD is described. The ILD in one embodiment includes a matrix material and a photosensitive porogen. Hard sidewalls are formed in the ILD allowing a thin barrier layer to be used in a dual damascene copper and porous low-k without pore sealing steps.

Abstract: In a formulation of a wafer cleaning brush, forming a polymer solution with a plurality of nano-scale porogens or with a synthetic pore forming agent and curing the polymer solution to form a porous polymeric material.

Abstract: A method including introducing a precursor in the presence of a circuit substrate, and forming a film including a reaction product of the precursor on the substrate, wherein the precursor includes a molecule comprising a primary species of the film and a modifier. A method including introducing a precursor in the presence of a circuit substrate, the precursor including a primary species and a film modifier as a single source, and forming a film on the circuit substrate. An apparatus including a semiconductor substrate, and a film on a surface of the semiconductor substrate, the film including a reaction product of a precursor including a molecule comprising a primary species and a modifier.

Abstract: A method including introducing a precursor in the presence of a circuit substrate, and forming a film including a reaction product of the precursor on the substrate, wherein the precursor includes a molecule comprising a primary species of the film and a modifier. A method including introducing a precursor in the presence of a circuit substrate, the precursor including a primary species and a film modifier as a single source, and forming a film on the circuit substrate. An apparatus including a semiconductor substrate, and a film on a surface of the semiconductor substrate, the film including a reaction product of a precursor including a molecule comprising a primary species and a modifier.

Abstract: Method and structure for integrating conductive and dielectric materials in a microelectronic structure having air gaps are disclosed. Certain embodiments of the invention comprise isolating dielectric layers from conductive layers using an etch stop layer to facilitate controlled removal of portions of the dielectric layers and formation of air gaps or voids. Capping and peripheral structural layers may be incorporated to increase the structural integrity of the integration subsequent to removal of sacrificial material.

Abstract: Compositions for immersion liquid materials and associated immersion lithography systems and techniques. Examples of polymer or oligomer-based immersion liquids are described to exhibit superior material properties for immersion lithography in comparison with water and some other commonly-used immersion liquids. In addition, certain material additives may be added to water and water-based immersion liquids to improve the performance of the immersion liquids in immersion lithography.

Abstract: A method of forming an opening in a disclosed ILD is described. The ILD in one embodiment includes a matrix material and a photosensitive porogen. Hard sidewalls are formed in the ILD allowing a thin barrier layer to be used in a dual damascene copper and porous low-k without pore sealing steps.

Abstract: A method for forming a zeolite-carbon doped oxide (CDO) composite dielectric material is herein described. Zeolite particles may be dispersed in a solvent. The zeolite solvent solution may then be deposited on an underlying layer, such as a wafer of other dielectric layer. At least some solvent may then be removed to form a zeolite film. A CDO may then be deposited in the zeolite film to form a zeolite-CDO composite film/dielectric. The zeolite-CDO composite film/dielectric may then be calcinated to form a solid phase zeolite-CDO composite dilectric.

Abstract: Embodiments of the invention provide a non-chemically amplified photoresist, which results in reduced line wide roughness (LWR). In accordance with one embodiment the photoresist includes a developer-soluble resin (DSR) and a photoactive compound (PAC). For one embodiment of the invention, the even distribution of the PAC within the DSR results in reduced acid diffusion thus reducing LWR. Prior to exposure to the light source, the PAC inhibits solubility of the DSR in the developer. Upon exposure the PAC converts to acid to promote solubility of the DSR. The even distribution of the PAC within the photoresist results in reduced LWR and a reduction in defects. For one embodiment the photoresist is applied in the EUV technology (e.g., wavelength is 13.4 nm). For such an embodiment the LWR may be reduced to less than 1.5 nm allowing for effective fabrication of devices having feature sizes of approximately 15 nm.

Abstract: A Langmuir-Blodgett film may be utilized as a chemically amplified photoresist layer. Langmuir-Blodgett films have highly vertically oriented structures which may be effective in reducing line edge or line width roughness in chemically amplified photoresists.

Abstract: Method and structure for integrating conductive and dielectric materials in a microelectronic structure having air gaps are disclosed. Certain embodiments of the invention comprise isolating dielectric layers from conductive layers using an etch stop layer to facilitate controlled removal of portions of the dielectric layers and formation of air gaps or voids. Capping and peripheral structural layers may be incorporated to increase the structural integrity of the integration subsequent to removal of sacrificial material.

Abstract: A semiconductor structure may be covered with a thermally decomposing film. That film may then be covered by a sealing cover. Subsequently, the thermally decomposing material may be decomposed, forming a cavity.