Abstract: Phase change material can be set with a multistage set process. Set control logic can heat a phase change semiconductor material (PM) to a first temperature for a first period of time. The first temperature is configured to promote nucleation of a crystalline state of the PM. The control logic can increase the temperature to a second temperature for a second period of time. The second temperature is configured to promote crystal growth within the PM. The nucleation and growth of the crystal set the PM to the crystalline state. The multistage ramping up of the temperature can improve the efficiency of the set process relative to traditional approaches.

Abstract: Phase change material can be set with a multistage set process. Set control logic can heat a phase change semiconductor material (PM) to a first temperature for a first period of time. The first temperature is configured to promote nucleation of a crystalline state of the PM. The control logic can increase the temperature to a second temperature for a second period of time. The second temperature is configured to promote crystal growth within the PM. The nucleation and growth of the crystal set the PM to the crystalline state. The multistage ramping up of the temperature can improve the efficiency of the set process relative to traditional approaches.

Abstract: Phase change material can be set with a multistage set process. Set control logic can heat a phase change semiconductor material (PM) to a first temperature for a first period of time. The first temperature is configured to promote nucleation of a crystalline state of the PM. The control logic can increase the temperature to a second temperature for a second period of time. The second temperature is configured to promote crystal growth within the PM. The nucleation and growth of the crystal set the PM to the crystalline state. The multistage ramping up of the temperature can improve the efficiency of the set process relative to traditional approaches.

Abstract: Phase change material can be set with a multistage set process. Set control logic can heat a phase change semiconductor material (PM) to a first temperature for a first period of time. The first temperature is configured to promote nucleation of a crystalline state of the PM. The control logic can increase the temperature to a second temperature for a second period of time. The second temperature is configured to promote crystal growth within the PM. The nucleation and growth of the crystal set the PM to the crystalline state. The multistage ramping up of the temperature can improve the efficiency of the set process relative to traditional approaches.

Abstract: Phase change material can be set with a multistage set process. Set control logic can heat a phase change semiconductor material (PM) to a first temperature for a first period of time. The first temperature is configured to promote nucleation of a crystalline state of the PM. The control logic can increase the temperature to a second temperature for a second period of time. The second temperature is configured to promote crystal growth within the PM. The nucleation and growth of the crystal set the PM to the crystalline state. The multistage ramping up of the temperature can improve the efficiency of the set process relative to traditional approaches.

Abstract: Phase change material can be set with a multistage set process. Set control logic can heat a phase change semiconductor material (PM) to a first temperature for a first period of time. The first temperature is configured to promote nucleation of a crystalline state of the PM. The control logic can increase the temperature to a second temperature for a second period of time. The second temperature is configured to promote crystal growth within the PM. The nucleation and growth of the crystal set the PM to the crystalline state. The multistage ramping up of the temperature can improve the efficiency of the set process relative to traditional approaches.

Abstract: Phase change material can be set with a multistage set process. Set control logic can heat a phase change semiconductor material (PM) to a first temperature for a first period of time. The first temperature is configured to promote nucleation of a crystalline state of the PM. The control logic can increase the temperature to a second temperature for a second period of time. The second temperature is configured to promote crystal growth within the PM. The nucleation and growth of the crystal set the PM to the crystalline state. The multistage ramping up of the temperature can improve the efficiency of the set process relative to traditional approaches.

Abstract: The present disclosure relates to thermal disturb as heater in cross-point memory. An apparatus includes a memory controller. The memory controller is configured to identify a target memory cell in response to at least one of a selection failure and a set fail memory read error associated with the target memory cell. The memory controller is further configured to apply a first sequence of recovery pulses to a first number of selected adjacent memory cells adjacent the target memory cell, the first sequence of recovery pulses configured to induce heating in the target memory cell.

Abstract: Phase change material can be set with a multistage set process. Set control logic can heat a phase change semiconductor material (PM) to a first temperature for a first period of time. The first temperature is configured to promote nucleation of a crystalline state of the PM. The control logic can increase the temperature to a second temperature for a second period of time. The second temperature is configured to promote crystal growth within the PM. The nucleation and growth of the crystal set the PM to the crystalline state. The multistage ramping up of the temperature can improve the efficiency of the set process relative to traditional approaches.

Abstract: The present disclosure relates to thermal disturb as heater in cross-point memory. An apparatus includes a memory controller. The memory controller is configured to identify a target memory cell in response to at least one of a selection failure and a set fail memory read error associated with the target memory cell. The memory controller is further configured to apply a first sequence of recovery pulses to a first number of selected adjacent memory cells adjacent the target memory cell, the first sequence of recovery pulses configured to induce heating in the target memory cell.

Abstract: Methods, systems, computer-readable media, and apparatuses for identifying employee capacity issues for performing document review are presented. In some embodiments, a computing device may categorize delegations of authority for a plurality of employees. Subsequently, the computing device may group a volume of documents into a plurality of groups by their monetary value. The computing device may then calculate the required employee capacity and the actual employee capacity available to assess each group of documents. Subsequently, the computing device may compare the actual employee capacity with the required employee capacity for each group of documents and determine, based on the comparison, whether a difference exists between the actual employee capacity and the required employee capacity. In response to determining that a difference exists, the computing device may provide one or more resolution.

Abstract: A method and apparatus are disclosed for forming thin polymer layers on semiconductor substrates. In one embodiment, the method and apparatus include the vaporization of stable di-pxylylene, the pyrolytic conversion of such gaseous dimer material into reactive monomers, and the optional blending of the resulting gaseous p-xylylene monomers with one or more polymerizable materials in gaseous form capable of copolymerizing with the p-xylylene monomers to form a low dielectric constant polymerized parylene material. An apparatus is also disclosed which provides for the distribution of the polymerizable gases into the deposition chamber, for cooling the substrate down to a temperature at which the gases will condense to form a polymerized dielectric material, for heating the walls of the deposition chamber to inhibit formation and accumulation of polymerized residues thereon, and for recapturing unreacted monomeric vapors exiting the deposition chamber.

Abstract: A method and apparatus are disclosed for forming thin polymer layers on semiconductor substrates. In one embodiment, the method and apparatus include the sublimation of stable dimer parylene material, the pyrolytic conversion of such gaseous dimer material into reactive monomers, and for the optional blending of the resulting gaseous parylene monomers with one or more polymerizable materials in gaseous form capable of copolymerizing with the parylene monomers to form a low dielectric constant polymerized parylene material. An apparatus is also disclosed which provides for the distribution of the polymerizable gases into the deposition chamber, for cooling the substrate down to a temperature at which the gases will condense to form a polymerized dielectric material, for heating the walls of the deposition chamber to inhibit formation and accumulation of polymerized residues thereon, and for recapturing unreacted monomeric vapors exiting the deposition chamber.