Abstract:
Some embodiments include dielectric material having a first region containing HfO and having a second region containing ZrO, where the chemical formulas indicate primary constituents rather than specific stoichiometries. The first region contains substantially no Zr, and the second region contains substantially no Hf. Some embodiments include capacitors having a first electrode, a second electrode, and a dielectric material between the first and second electrodes. The dielectric material includes one or more first regions and one or more second regions. The first region(s) contain(s) Hf and substantially no Zr. The second region(s) contain(s) Zr and substantially no Hf. Some embodiments include memory arrays.
Abstract:
Some embodiments include an integrated transistor having an active region comprising semiconductor material. A conductive gating structure is adjacent to the active region. The conductive gating structure includes an inner region proximate the active region and includes an outer region distal from the active region. The inner region includes a first material containing titanium and nitrogen, and the outer region includes a metal-containing second material. The second material has a higher conductivity than the first material. Some embodiments include integrated assemblies. Some embodiments include methods of forming integrated assemblies.
Abstract:
Methods of forming silicon nitride. Silicon nitride is formed on a substrate by atomic layer deposition at a temperature of less than or equal to about 275° C. The as-formed silicon nitride is exposed to a plasma. The silicon nitride may be formed as a portion of silicon nitride and at least one other portion of silicon nitride. The portion of silicon nitride and the at least one other portion of silicon nitride may be exposed to a plasma treatment. Methods of forming a semiconductor structure are also disclosed, as are semiconductor structures and silicon precursors.
Abstract:
A silicon chalcogenate precursor comprising the chemical formula of Si(XR1)nR24-n, where X is sulfur, selenium, or tellurium, R1 is hydrogen, an alkyl group, a substituted alkyl group, an alkoxide group, a substituted alkoxide group, an amide group, a substituted amide group, an amine group, a substituted amine group, or a halogen group, each R2 is independently hydrogen, an alkyl group, a substituted alkyl group, an alkoxide group, a substituted alkoxide group, an amide group, a substituted amide group, an amine group, a substituted amine group, or a halogen group, and n is 1, 2, 3, or 4. Methods of forming the silicon chalcogenate precursor, methods of forming silicon nitride, and methods of forming a semiconductor structure are also disclosed.
Abstract:
Methods of forming silicon nitride. Silicon nitride is formed on a substrate by atomic layer deposition at a temperature of less than or equal to about 275° C. The as-formed silicon nitride is exposed to a plasma. The silicon nitride may be formed as a portion of silicon nitride and at least one other portion of silicon nitride. The portion of silicon nitride and the at least one other portion of silicon nitride may be exposed to a plasma treatment. Methods of forming a semiconductor structure are also disclosed, as are semiconductor structures and silicon precursors.
Abstract:
Methods for fabricating sub-lithographic, nanoscale microstructures utilizing self-assembling block copolymers, and films and devices formed from these methods are provided.
Abstract:
Methods of forming silicon nitride. Silicon nitride is formed on a substrate by atomic layer deposition at a temperature of less than or equal to about 275° C. The as-formed silicon nitride is exposed to a plasma. The silicon nitride may be formed as a portion of silicon nitride and at least one other portion of silicon nitride. The portion of silicon nitride and the at least one other portion of silicon nitride may be exposed to a plasma treatment. Methods of forming a semiconductor structure are also disclosed, as are semiconductor structures and silicon precursors.
Abstract:
Methods for fabricating sub-lithographic, nanoscale microstructures utilizing self-assembling block copolymers, and films and devices formed from these methods are provided.
Abstract:
A method of forming a phase change material which having germanium and tellurium therein includes depositing a germanium-containing material over a substrate. Such material includes elemental-form germanium. A gaseous tellurium-comprising precursor is flowed to the germanium-comprising material and tellurium is removed from the gaseous precursor to react with the elemental-form germanium in the germanium-comprising material to form a germanium and tellurium-comprising compound of a phase change material over the substrate. Other implementations are disclosed.
Abstract:
Methods for fabricating sub-lithographic, nanoscale microstructures utilizing self-assembling block copolymers, and films and devices formed from these methods are provided.