Abstract:
A method and apparatus for aligning a laser beam coincident with a charged particle beam. The invention described provides a method for aligning the laser beam through the center of an objective lens and ultimately targeting the eucentric point of a multi-beam system. The apparatus takes advantage of components of the laser beam alignment system being positioned within and outside of the vacuum chamber of the charged particle system.
Abstract:
A compound microscope device allows simultaneous observation of one specimen by a transmission electron microscope and an optical microscope. The compound microscope device 1 of the present invention has a transmission electron microscope 2 and an optical microscope 4. A specimen 10 and a reflection mirror 41 are disposed on an electron optical axis C of an electron ray. The reflection mirror 41 is inclined from the electron optical axis C toward the optical object lens 43 and the specimen 10. Light from the specimen 10 (fluorescent light, reflection light, and the like) is reflected by the reflection mirror 41 and enters into the optical object lens 43. The electron ray from the electron microscope 2 passes through a mounting center hole 42 of the reflection mirror 41. This makes it possible to observe one specimen simultaneously by the electron microscope 2 and the optical microscope 4.
Abstract:
An extreme ultraviolet light generation device may comprise: a chamber provided with a through-hole; an introduction optical system configured to introduce the pulse laser beam into a first predetermined region inside the chamber through the through-hole; a target supply device configured to output the target toward the first predetermined region; a light source configured to irradiate a second predetermined region with light whose optical path in the second predetermined region has a transverse section that is longer along a direction perpendicular to a direction of movement of the target than along the direction of movement of the target, the second predetermined region including part of a trajectory of the target between the target supply device and the first predetermined region; and an optical sensor configured to detect light incident on the optical sensor from the second predetermined region to detect the target passing through the second predetermined region.
Abstract:
A system uses number of analytical devices such as an electron microscope a Raman microscope, an ion beam column and a scanning probe microscope for sample analysis concurrent, consecutive or with the mutual correlation of the analysis performed by the different devices in the same sample area using the connection of the Raman microscope optical objective lens and objective manipulator, that significantly reduces time needed for analyzing by Raman microscope together with other devices and maintains high quality of the sensed signals comparable to stand alone analytical devices.
Abstract:
A method and apparatus for aligning a laser beam coincident with a charged particle beam. The invention described provides a method for aligning the laser beam through the center of an objective lens and ultimately targeting the eucentric point of a multi-beam system. The apparatus takes advantage of components of the laser beam alignment system being positioned within and outside of the vacuum chamber of the charged particle system.
Abstract:
A system includes a particle optical system and a photosensitive detector. The particle optical system includes a charged particle beam source and an objective lens. The charged particle beam source is configured to generate a charged particle beam that travels along a particle beam path, and the objective lens is configured to focus the particle beam onto an object plane of the particle optical system. The system is configured such that a light beam path of the system extends from the object plane to the photosensitive detector.
Abstract:
Observation fields of an electron microscope image and an optical magnifying observation image are smoothly switched. A magnifying observation apparatus includes: a pair of end-face plates closes end faces of a body portion; an electron beam imaging device mounted on a first position of a cylindrical shaped outer surface of the body portion; an optical imaging device mounted on a second position being different from the first position in the outer surface; a rotating device that rotates the both imaging devices along the outer surface such that a distance from each of the both imaging devices to a common rotation axis of the both imaging devices is kept constant and optical axes of the both imaging devices are oriented toward the rotation axis; a specimen stage that is disposed in the chamber, and arranged to a position that is substantially the same to a height of the rotation axis.
Abstract:
A detection device and a particle beam device having a detection device ensure a good efficiency in detecting interaction particles and electromagnetic radiation. The detection device has a detector for detecting electromagnetic radiation and/or interaction particles and a filter element through which the electromagnetic radiation is transmitted. The filter element prevents the interaction particles from striking the detector such that the filter element is situated to move between a first position and a second position, the filter element in the first position being situated in relation to the detector in such a way that the filter element prevents the interaction particles from striking the detector. The filter element in the second position is situated in relation to the detector in such a way that the filter element allows the interaction particles to strike the detector. As an alternative, the filter element may be an object holder.
Abstract:
In a charged particle beam analyzer irradiating a charged particle beam to a sample in a vacuum container and detecting an X-ray generated from the sample to analyze the sample, two or more X-ray lenses configured in different manners are provided in the vacuum container. This no longer requires air opening in the vacuum container following X-ray lens replacement and also no longer requires vacuuming, making it possible to perform analysis with high efficiency and high sensitivity.
Abstract:
This disclosure relates to a method and apparatus for producing multiple pixel-by-pixel simultaneous and overlapping images of a sample in a microscope with multiple imaging beams. A scanning electron microscope, a focused ion-beam microscope, or a microscope having both beams, also has an optical microscope. A region of interest on a sample is scanned by both charged-particle and optical beams, either by moving the sample beneath the beams by use of a mechanical stage, or by synchronized scanning of the stationary sample by the imaging beams, or by independently scanning the sample with the imaging beams and recording imaging signals so as to form pixel-by-pixel simultaneous and overlapping images.