In one embodiment, a method for inspecting a blanking plate includes generating a plurality of beams by causing a charged particle beam to pass through a shaping aperture array having a plurality of holes, performing blanking deflection on the plurality of beams by using a plurality of blankers provided in a blanking plate, each of the plurality of blankers corresponding to one of the plurality of beams, writing a first inspection pattern on a substrate by using a first writing mode in which beams that have not been deflected by the plurality of blankers are radiated onto the substrate, writing a second inspection pattern on the substrate by using a second writing mode in which beams that have been deflected by the plurality of blankers are radiated onto the substrate, obtaining a pattern image of the first inspection pattern and a pattern image of the second inspection pattern, the first and second inspection patterns having been formed on the substrate, and determining a defect by comparing the obtained pattern images.

A method of transferring functionalized graphene comprising the steps of providing graphene on a first substrate, functionalizing the graphene and forming functionalized graphene on the first substrate, delaminating the functionalized graphene from the first substrate, and applying the functionalized graphene to a second substrate.

Embodiments disclosed herein generally relate to an apparatus having an anodized gas distribution showerhead. In large area, parallel plate RF processing chambers, mastering the RF return path can be challenging. Arcing is a frequent problem encountered in RF processing chambers. To reduce arcing in RF processing chambers, straps may be coupled to the susceptor to shorten the RF return path, a ceramic or insulating or anodized shadow frame may be coupled to the susceptor during processing, and an anodized coating may be deposited onto the edge of the showerhead that is nearest the chamber walls. The anodized coating may reduce arcing between the showerhead and the chamber walls and therefore enhance film properties and increase deposition rate.

In one embodiment, a multi charged particle beam evaluation method includes writing a plurality of evaluation patterns on a substrate by using multi charged particle beams, with a design value of a line width changed by a predetermined change amount at a predetermined pitch, measuring the line widths of the plurality of evaluation patterns thus written, and extracting a variation in a specific period of a distribution of differences between results of a measurement value and the design value of each of the line widths of the plurality of evaluation patterns. The predetermined change amount is equal to or larger than data resolution and smaller than a size of each of pixels, each of which is a unit region to be irradiated with one of the multi charged particle beams.

An ion implanter includes a beam scanner that performs a scanning with an ion beam in a scanning direction perpendicular to a traveling direction of the ion beam, and a beam profiler that is disposed downstream of the beam scanner and measures a beam current distribution of the ion beam when the scanning by the beam scanner is performed. The beam profiler includes an aperture array that includes a first aperture and a second aperture, a cup electrode array that is disposed to be fixed with respect to the aperture array, the cup electrode array including a first cup electrode and a second cup electrode, and a plurality of magnets.

To provide a charged particle beam device capable of preventing generation of geometric aberration by aligning axes of electrostatic lenses with high accuracy even when center holes of respective electrodes which constitute the electrostatic lens are not disposed coaxially. The charged particle beam device according to the invention includes an electrostatic lens disposed between an acceleration electrode and an objective lens, wherein at least one of the electrodes which constitutes the electrostatic lens is formed of a magnetic body, and two or more magnetic field generating elements are disposed along an outer periphery of the electrode.

In a method of manufacturing a semiconductor device, an underlying structure is formed over a substrate. A film is formed over the underlying structure. Surface topography of the film is measured and the surface topography is stored as topography data. A local etching is performed by using directional etching and scanning the substrate so that an entire surface of the film is subjected to the directional etching. A plasma beam intensity of the directional etching is adjusted according to the topography data.

The present invention relates to a dry etching apparatus which can be applied regardless of materials. The dry etching apparatus may include: an anode unit; a cathode unit configured to receive a bidirectional voltage source of which the voltage polarity alternates between a positive voltage and a negative voltage with time, and separated from the anode unit; a positioning unit configured to position a work piece at a surface of the cathode unit, facing the anode unit; and a bidirectional voltage source supply unit configured to apply the bidirectional voltage source to the cathode unit.

The present invention relates to a dry etching apparatus which can be applied regardless of materials. The dry etching apparatus may include: an anode unit; a cathode unit configured to receive a bidirectional voltage source of which the voltage polarity alternates between a positive voltage and a negative voltage with time, and separated from the anode unit; a positioning unit configured to position a work piece at a surface of the cathode unit, facing the anode unit; and a bidirectional voltage source supply unit configured to apply the bidirectional voltage source to the cathode unit.

A method of operating a substrate support includes arranging a substrate on an inner portion of the substrate support and calculating a desired pocket depth of the substrate support using data indicative of a relationship between the desired pocket depth and at least one process parameter. The desired pocket depth corresponds to a desired distance between an upper surface of an edge ring surrounding the inner portion and an upper surface of the substrate. The method further includes selectively controlling, based on the desired pocket depth as calculated, an actuator to raise and lower at least one of the edge ring and the inner portion to adjust the distance between the upper surface of the edge ring and the upper surface of the substrate.