Abstract:
A method of operating a charged-particle microscope, the method comprising: recording a first image of a first region of an object using the charged-particle microscope in a first setting; recording a second image of a second region of the object using the charged-particle microscope in a second setting, wherein the second setting differs from the first setting with respect to at least one of a kinetic energy of primary charged particles used for imaging, a detector setting used for imaging, a beam current of the primary charged particles used for imaging and a pressure in a measuring chamber of the charged-particle microscope; reading a third image of a third region of the object using the charged-particle microscope, wherein the first and second regions are contained at least partially within the third region; displaying at least a portion of the third image; displaying a representation of the first image at least partly within the displayed third image, wherein the representation of the first image includes a first indicator which is indicative of the first setting; displaying a representation of the second image at least partly within the displayed third image, wherein the representation of the second image includes a second indicator which is indicative of the second setting, and wherein the displayed second indicator is different from the displayed first indicator.
Abstract:
A scanning electron microscope suitable for producing an image of high resolution by detecting secondary electrons (450) produced when backscattered electrons (110) hit secondary electron conversion electrode (440) and secondary electrons (109) emitted by the specimen (107), at a low accelerating voltage in a separate or synthesis fashion. In the scanning electron microscope electric and magnetic fields for separating trajectories of backscattered electrons and secondary electrons emitted from the specimen are established, and a secondary electron conversion electrode (440) for converting backscattered electrons into secondary electrons is disposed on the trajectory of the backscattered electrons. Since the secondary electrons emitted by the specimen and the secondary electrons emitted by the secondary electron conversion electrode can be efficiently detected separately from each other and the primary electron beam (104), images of high resolution can be obtained.
Abstract:
An electron microscope includes: a display control unit which sequentially acquires electron microscope images of a sample and causes a display unit to display the electron microscope images as a live image; an analysis area setting unit which sets an analysis area on the sample based on a designated position on the live image designated by pointing means; and an analysis control unit which performs control for executing elemental analysis of the set analysis area, wherein the analysis area setting unit sets, as the analysis area, an area on the sample which corresponds to a continuous area including the designated position and having brightness comparable to brightness of the designated position.
Abstract:
A data analysis system for generating analysis data depending on microscopic data of an object generated by a charged particle microscope. The microscopic data comprises an image showing a structure. The method comprises displaying a graphical representation of the structure on the display by the graphical user interface. The method further comprises generating separation data representing at least one path of a separation cut, which separates pixels of the structure from each other. The method further comprises visually marking the separation cut by the graphical user interface, depending on the separation data, by differently marking different area portions of the representation, which represent different pixels of the structure which are separated from each other by the separation cut. The method further comprises generating separate analysis data for each of at least two portions of the object, depending on the microscopic data and depending on the separation data.
Abstract:
A data analysis system for generating analysis data depending on microscopic data of an object generated by a charged particle microscope. The microscopic data comprises an image showing a structure. The method comprises displaying a graphical representation of the structure on the display by the graphical user interface. The method further comprises generating separation data representing at least one path of a separation cut, which separates pixels of the structure from each other. The method further comprises visually marking the separation cut by the graphical user interface, depending on the separation data, by differently marking different area portions of the representation, which represent different pixels of the structure which are separated from each other by the separation cut. The method further comprises generating separate analysis data for each of at least two portions of the object, depending on the microscopic data and depending on the separation data.
Abstract:
The invention relates to a transmission electron microscope equipped with a 2k x 2k pixel area Slow Scan Cooled Charge Coupled Device Camera connected to an image processing software for generating an image of a sample. A segmentation of gold particles in the sample is achieved by the separation from specimen structure and background noise. An identification and classification of particle types is carried out according to the shape and size of the detected particles or particle pairs and finally, the gold particle distribution is visualized by the generation of false color overlay images as well as the indication of the numbers in the image.
Abstract:
The invention relates to an apparatus and method for inspecting a sample, provided with an optical microscope to observe a region of interest on a sample and a charged particle system generating a focused charged particle beam to observe or modify the same or parts of the same region of interest, the apparatus provided with a control unit for electronically controlling said systems, adapted for recording two or more spectrally separated images of the region of interest on the sample, the control unit adapted for acquiring processing and representing the images as detected with said optical and said charged particle microscope systems, the unit further adapted for performing a registration procedure mutually correlating a region of interest in the optical images, wherein the apparatus is adapted for using a detection of a change in the optical images as caused therein by the charged particle beam for correlating said images.
Abstract:
The invention relates to an apparatus and method for inspecting a sample, provided with an optical microscope to observe a region of interest on a sample and a charged particle system generating a focused charged particle beam to observe or modify the same or parts of the same region of interest, the apparatus provided with a control unit for electronically controlling said systems, adapted for recording two or more spectrally separated images of the region of interest on the sample, the control unit adapted for acquiring processing and representing the images as detected with said optical and said charged particle microscope systems, the unit further adapted for performing a registration procedure mutually correlating a region of interest in the optical images, wherein the apparatus is adapted for using a detection of a change in the optical images as caused therein by the charged particle beam for correlating said images.