Abstract: An electrostatic chuck, that includes (a) an electrostatic chuck body having a top surface and being configured to support a sample; (b) a space formed within the electrostatic chuck body, the space has a top opening; (c) a sharp conductive element; (d) a masking electrode; and (e) a movement unit that is configured to position the masking electrode in a masking position in which the masking electrode reduce an electric field formed by the sharp conductive element when the sharp conductive element is being biased and the top opening is not covered by a backside of the sample.

Abstract: A transistor structure includes a first channel layer over a second channel layer, where the first and the second channel layers include monocrystalline silicon. An epitaxial source material is coupled to a first end of the first and second channel layers. An epitaxial drain material is coupled to a second end of the first and second channel layers, a gate electrode is between the epitaxial source material and the epitaxial drain material, and around the first channel layer and around the second channel layer. The transistor structure further includes a first gate dielectric layer between the gate electrode and each of the first channel layer and the second channel layer, where the first gate dielectric layer has a first dielectric constant. A second gate dielectric layer is between the first gate dielectric layer and the gate electrode, where the second gate dielectric layer has a second dielectric constant.

Abstract: A device for discharging an electrostatic chuck located within a vacuum chamber, the device includes a plasma distribution unit that is configured to receive plasma from an external plasma source that is located outside the vacuum chamber, and perform a distribution of the plasma within the vacuum chamber that discharges the electrostatic chuck. The device also includes a controller for controlling the distribution of the plasma; wherein the distribution of the plasma occurs during a plasma distribution period that is shorter than a duration of a plasma based cleaning process of the electrostatic chuck.

Abstract: An electrostatic chuck, that includes (a) an electrostatic chuck body having a top surface and being configured to support a sample; (b) a space formed within the electrostatic chuck body, the space has a top opening; (c) a sharp conductive element; (d) a masking electrode; and (e) a movement unit that is configured to position the masking electrode in a masking position in which the masking electrode reduce an electric field formed by the sharp conductive element when the sharp conductive element is being biased and the top opening is not covered by a backside of the sample.

Abstract: A device for discharging an electrostatic chuck located within a vacuum chamber, the device includes a plasma distribution unit that is configured to receive plasma from an external plasma source that is located outside the vacuum chamber, and perform a distribution of the plasma within the vacuum chamber that discharges the electrostatic chuck. The device also includes a controller for controlling the distribution of the plasma; wherein the distribution of the plasma occurs during a plasma distribution period that is shorter than a duration of a plasma based cleaning process of the electrostatic chuck.

Abstract: A method, a non-transitory computer readable medium and a device. The method may include (a) introducing a voltage difference between an absolute value of a negative pole of the electrostatic chuck and an absolute value of a positive pole of the electrostatic chuck, the introducing occurs while the wafer is supported by the electrostatic chuck and is contacted by one or more conductive contact pins of the electrostatic chuck; (b) monitoring, by an electrostatic sensor that comprises a sensing element, a charge at a point of measurement located at a front side of the wafer, at different points of time that follow a start of the introducing of the voltage difference, to provide monitoring results; and (c) determining an electrical parameter of the contact between the wafer and the electrostatic chuck, based on the monitoring results.

Abstract: A method, a non-transitory computer readable medium and a device. The method may include (a) introducing a voltage difference between an absolute value of a negative pole of the electrostatic chuck and an absolute value of a positive pole of the electrostatic chuck, the introducing occurs while the wafer is supported by the electrostatic chuck and is contacted by one or more conductive contact pins of the electrostatic chuck; (b) monitoring, by an electrostatic sensor that comprises a sensing element, a charge at a point of measurement located at a front side of the wafer, at different points of time that follow a start of the introducing of the voltage difference, to provide monitoring results; and (c) determining an electrical parameter of the contact between the wafer and the electrostatic chuck, based on the monitoring results.

Abstract: A transistor structure includes a first channel layer over a second channel layer, where the first and the second channel layers include monocrystalline silicon. An epitaxial source material is coupled to a first end of the first and second channel layers. An epitaxial drain material is coupled to a second end of the first and second channel layers, a gate electrode is between the epitaxial source material and the epitaxial drain material, and around the first channel layer and around the second channel layer. The transistor structure further includes a first gate dielectric layer between the gate electrode and each of the first channel layer and the second channel layer, where the first gate dielectric layer has a first dielectric constant. A second gate dielectric layer is between the first gate dielectric layer and the gate electrode, where the second gate dielectric layer has a second dielectric constant.