Abstract:
A method includes receiving an input signal representative of a desired two-dimensional non-uniform dose pattern for a front surface of a workpiece, driving the workpiece relative to an ion beam to distribute the ion beam across the front surface of the workpiece, and controlling at least one parameter of an ion implanter when the ion beam is incident on the front surface of the workpiece to directly create the desired two-dimensional non-uniform dose pattern in one pass of the front surface of workpiece relative to the ion beam. The beam may be a scanned beam or a ribbon beam. An ion implanter is also provided.
Abstract:
Methods and apparatus that introduce, within the ion implant chamber or an isolated chamber in communication therewith, the capability to remove contaminants and oxide surface layers on a wafer surface prior to ion implantation, are disclosed. The mechanisms for removal of contaminants include conducting: a low energy plasma etch, heating the wafer and application of ultraviolet illumination, either in combination or individually. As a result, implantation can occur immediately after the cleaning/preparation process without the contamination potential of exposure of the wafer to an external environment. The preparation allows for the removal of surface contaminants, such as water vapor, organic materials and surface oxides.
Abstract:
A method for fabricating a semiconductor-based device includes providing a substrate including a semiconductor layer, forming a gate dielectric layer on the semiconductor layer, forming a plasma including deuterium, plasma implanting deuterium from the plasma into the substrate, and annealing the substrate to promote passivation of the interface between the dielectric layer and the semiconductor layer.
Abstract:
Techniques for temperature-controlled ion implantation are disclosed. In one particular exemplary embodiment, the techniques may be realized as an apparatus for temperature-controlled ion implantation. The apparatus may comprise at least one thermal sensor adapted to measure a temperature of a wafer during an ion implantation process inside an end station of an ion implanter. The apparatus may also comprise a thermal conditioning unit coupled to the end station. The apparatus may further comprise a controller in communication with the thermal sensor and the thermal conditioning unit, wherein the controller compares the measured temperature to a desired wafer temperature and causes the thermal conditioning unit to adjust the temperature of the wafer based upon the comparison.
Abstract:
Techniques for temperature-controlled ion implantation are disclosed. In one particular exemplary embodiment, the techniques may be realized as an apparatus for temperature-controlled ion implantation. The apparatus may comprise at least one thermal sensor adapted to measure a temperature of a wafer during an ion implantation process inside an end station of an ion implanter. The apparatus may also comprise a thermal conditioning unit coupled to the end station. The apparatus may further comprise a controller in communication with the thermal sensor and the thermal conditioning unit, wherein the controller compares the measured temperature to a desired wafer temperature and causes the thermal conditioning unit to adjust the temperature of the wafer based upon the comparison.
Abstract:
A method includes receiving an input signal representative of a desired two-dimensional non-uniform dose pattern for a front surface of a workpiece, driving the workpiece relative to an ion beam to distribute the ion beam across the front surface of the workpiece, and controlling at least one parameter of an ion implanter when the ion beam is incident on the front surface of the workpiece to directly create the desired two-dimensional non-uniform dose pattern in one pass of the front surface of workpiece relative to the ion beam. The beam may be a scanned beam or a ribbon beam. An ion implanter is also provided.
Abstract:
Plasma ion implantation apparatus includes a process chamber, a platen located in the process chamber for supporting a substrate, a dopant source including a solid dopant element and a vaporizer to vaporize dopant material from the solid dopant element, a plasma source to produce a plasma containing ions of the dopant material, and an implant pulse source to apply implant pulses to the platen for accelerating the ions of the dopant material from the plasma into the substrate.
Abstract:
A method for fabricating a semiconductor-based device includes providing a substrate including a semiconductor layer, forming a gate dielectric layer on the semiconductor layer, forming a plasma including deuterium, plasma implanting deuterium from the plasma into the substrate, and annealing the substrate to promote passivation of the interface between the dielectric layer and the semiconductor layer.
Abstract:
A system, apparatus, and method to provide a systematic assessment learning approach that is utilized through a computing device to determine its users sport IQ score for one or more sports is disclosed. The system includes a multi-dimensional, systematic learning assessment processor to correlate answered questions and compute the sport IQ-score. In some cases, the questions in the database may include videos of sport content and other associated sport content. The system presents a quantifiable metric of a user's performance potential in a sport and provides a learning program for developing the user's skills across multiple dimensions.
Abstract:
A method for responding to a failure of hardware locus of at a communication installation having a plurality of control apparatuses for controlling a plurality of processes distributed among a plurality of hardware loci, the hardware loci including at least one spare hardware locus, includes the steps of: (a) Shifting control of a failed process from an initial control apparatus to an alternate control apparatus located at an alternate hardware locus than the failed hardware locus. The failed process is a respective process controlled by the initial control apparatus located at the failed hardware locus. (b) Relocating the respective control apparatuses located at the failed hardware locus to a spare hardware locus. (c) Shifting control of the failed process from the alternate control apparatus to the initial control apparatus relocated at the spare hardware locus.