Abstract:
An electron beam observation device includes a mechanism which disposes a specimen at an upstream side in an electron beam traveling direction outside an objective lens, from which an image is transferred under a magnification of 1/5 to 1/30, in addition to an inside of the objective lens in which a specimen is disposed at a time of ordinary observation.
Abstract:
Die Erfindung betrifft ein Teilchenstrahlgerät (1) und ein Verfahren zur Anwendung bei einem Teilchenstrahlgerät (1), bei denen eine Probe auf einem Trägerelement (5) angeordnet ist. Der Erfindung liegt die Aufgabe zugrunde, ein Teilchenstrahlgerät und ein in diesem Teilchenstrahlgerät anwendbares Verfahren zur Probenpräparation und/oder Probenuntersuchung anzugeben, wobei die Vorrichtung einfach aufgebaut ist und wobei das Verfahren nicht sehr zeitaufwendig ist. Diese Aufgabe wird durch ein Teilchenstrahlgerät (1) gelöst, das ein bewegliches Trägerelement (5) mit zwei Aufnahmeelementen (6, 7) zur Aufnahme von jeweils einer Probe aufweist bzw. bei dem das Aufnahmeelement lösbar am Trägerelement angeordnet ist. Das erfindungsgemäße Verfahren sieht die Verwendung dieses Trägerelements (5) vor.
Abstract:
A particle-optical apparatus comprising: - A first source, for generating a first irradiating beam along a first axis; - A second source, for generating a second irradiating beam along a second axis that intersects the first axis at a beam intersection point, the first and second axes defining a beam plane, - A stage assembly (3) for positioning a sample in the vicinity of the beam intersection point, provided with: - A sample table (21) to which the sample can be mounted; - A set of actuators, arranged so as to effect translation of the sample table along directions substantially parallel to an X-axis perpendicular to the beam plane, a Y-axis parallel to the beam plane, and a Z-axis parallel to the beam plane, said X-axis, Y-axis and Z-axis being mutually orthogonal and passing through the beam intersection point, wherein the set of actuators is further arranged to effect: - rotation of the sample table about a rotation axis substantially parallel to the Z-axis, and; - rotation of the sample table about a flip axis substantially perpendicular to the Z-axis, whereby the flip axis can itself be rotated about the rotation axis.
Abstract:
A specimen holder for an electron microscope, comprising a bar-shaped body provided adjacent one end with means for receiving a specimen, with means being present for screening the specimen from the environment at least temporarily in airtight and moisture-proof manner in a first position, which screening means comprise at least one elastic seal surrounding the bar-shaped body at least in the first position, and supporting means for arranging the specimen holder in a service position. In a second position, wherein the screening means have been removed from the first position, the bar-shaped body with the specimen-receiving means is supported by the supporting means without intermediacy of the elastic seal. The invention further relates to a device for mounting a specimen in an electron microscope.
Abstract:
A B S T R A C T A method of visualizing a sample in a wet environment including introducing a sample into a specimen enclosure in a wet environment and scanning the sample in the specimen enclosure in a scanning electron microscope, thereby visualizing the sample.
Abstract:
A system may include a substrate stage to support a substrate, and a plurality of beam sources. The plurality of beam sources may include an ion beam source, the ion beam source arranged to direct an ion beam to the substrate, and a radical beam source, the radical beam source arranged to direct a radical beam to the substrate. The system may include a controller configured to control the ion beam source and the radical beam source to operate independently of one another, in at least one aspect, wherein the at least one aspect includes beam composition, beam angle of incidence, and relative scanning of a beam source with respect to the substrate.
Abstract:
A method of etching a substrate includes loading the substrate into a plasma etch chamber, the plasma etch chamber including a focus ring surrounding the substrate, the focus ring including a bulk material and a surface layer, the surface layer including a refractory metal; flowing a process gas including fluorine and carbon into the plasma etch chamber; coating a carbide layer over the surface layer of the focus ring, the coating including exposing the focus ring to a plasma generated from the process gas in the plasma etch chamber, the carbide layer including a carbide of the refractory metal; and etching the substrate, the etching including exposing the substrate to the plasma.
Abstract:
A manufacturing method of a sample collection component, by which a removable light shielding component is disposed on a main body of the sample collection component to shield at least a portion of the light that passes through a storing space of the sample collection component.
Abstract:
An ion beam deposition method includes placing a substrate into an ion beam deposition apparatus, irradiating an ion beam from an ion beam source toward a target plate, and rotating the target plate during the irradiating of the ion beam. The target plate includes a first region that includes a first material, and a second region that includes a second material different from the first material.
Abstract:
Disclosed herein are devices, systems, and methods for transporting a substrate for vacuum processing. The transport may be provided by a substrate carrying device that includes a support area by which a substrate carrier may be moveably supported. The substrate carrying device includes a plurality of electrodes that are galvanically separated from one another. The substrate carrying device includes a plurality of substrate carrying regions arranged consecutively in series with respect to one another, each substrate carrying region including an electrode of the plurality of electrodes and also including a substrate receiving device configured to receive a substrate placed in the substrate carrying region, preferably in physical contact with the electrode.