Abstract:
An improved method and apparatus for S/TEM sample preparation and analysis. Preferred embodiments of the present invention provide improved methods for TEM sample creation, especially for small geometry (
Abstract:
Sample inspection apparatus, sample inspection method, and sample inspection system are offered which can give a stimulus to a sample held on a film when the sample is inspected by irradiating it with a primary beam (e.g., an electron beam or other charged-particle beam) via the film. The apparatus has the film, a vacuum chamber, primary beam irradiation column, signal detector, and a controller for controlling the operations of the beam irradiation column and signal detector. The sample is held on a first surface of the film opened to permit access to the film. The vacuum chamber reduces the pressure of the ambient in contact with a second surface of the film. The irradiation column irradiates the sample with the primary beam via the film from the second surface side. The detector detects a secondary signal produced from the sample in response to the irradiation.
Abstract:
A method for sample examination in a dual-beam FIB calculates a first angle as a function of second, third and fourth angles defined by the geometry of the FIB and the tilt of the specimen stage. A fifth angle is calculated as a function of the stated angles, where the fifth angle is the angle between the long axis of an excised sample and the projection of the axis of the probe shaft onto the X-Y plane. The specimen stage is rotated by the calculated fifth angle, followed by attachment to the probe tip and lift-out. The sample may then be positioned perpendicular to the axis of the FIB electron beam for STEM analysis by rotation of the probe shaft through the first angle.
Abstract:
A focused ion beam system includes a sample holder having a fixing plane for fixing a sample, a sample base on which the sample holder is provided, a focused ion beam irradiating mechanism that irradiates a focused ion beam to the sample, microtweezers that hold the sample and have the axial direction at a predetermined angle to a surface of the sample base, an opening/closing mechanism that opens and closes the microtweezers, a rotating mechanism that rotates the microtweezers about the axial direction, and a moving mechanism that moves the position of the microtweezers.
Abstract:
Information of a specimen holder or information of a specimen mounted on the specimen holder is stored in a memory inside the specimen holder mounted to an electron microscope. The memory is accessed to transmit the information of the specimen holder to the electron microscope, thereby ensuring that the user can use the specimen holder without mistaking characteristics of the specimen holder and danger of erroneous recording of the specimen information can be reduced.
Abstract:
Information of a specimen holder or information of a specimen mounted on the specimen holder is stored in a memory inside the specimen holder mounted to an electron microscope. The memory is accessed to transmit the information of the specimen holder to the electron microscope, thereby ensuring that the user can use the specimen holder without mistaking characteristics of the specimen holder and danger of erroneous recording of the specimen information can be reduced.
Abstract:
The invention is directed to a more positive pick up of a micro sample by means of a microscope system with manipulator. The microscope system with manipulator incorporates therein a low-vibration probe rotary mechanism, which is used for precisely correcting the rotational direction of the micro sample without applying vibrations thereto.
Abstract:
There are disclosed a method for fabricating (processing) a micro-sample used for the observation, analysis, and measurement by, for example, a transmission electron microscope (TEM), and an equipment for specimen fabrication (processing) used for carrying out the method. With the method for specimen fabrication (processing) of the present invention, a micro-sample to be separated and extracted from a specimen substrate is sandwiched and held between a plurality of branch beams formed at the tip of a beam. The beam holding the micro-sample is transferred onto a sample holder, and the micro-sample is mounted (firmly held) on the sample holder. After mounting the micro-sample on the sample holder, the beam is detached and separated from the mounted micro-sample. By adopting such a method, it is possible to fabricate a specimen for high reliability observation, analysis, and measurement entailing less contamination, in a shorter time and with efficiency.
Abstract:
There are disclosed a method for fabricating (processing) a micro-sample used for the observation, analysis, and measurement by, for example, a transmission electron microscope (TEM), and an equipment for specimen fabrication (processing) used for carrying out the method. With the method for specimen fabrication (processing) of the present invention, a micro-sample to be separated and extracted from a specimen substrate is sandwiched and held between a plurality of branch beams formed at the tip of a beam. The beam holding the micro-sample is transferred onto a sample holder, and the micro-sample is mounted (firmly held) on the sample holder. After mounting the micro-sample on the sample holder, the beam is detached and separated from the mounted micro-sample. By adopting such a method for separating, extracting, and mounting the micro-sample, it is possible to separate and extract the minute micro-sample from a desired region on the specimen substrate with precision and stability, and to fabricate a specimen for high reliability observation, analysis, and measurement entailing less contamination, in a shorter time and with efficiency.
Abstract:
A guide pin includes a support part and a frictional column coupled to the support part, and the support part includes a lower support member including a screw structure on an outer surface thereof, and an upper support member on the lower support member. The frictional column surrounds an outer surface of the upper support member. A hardness of the frictional column is lower than a hardness of the support part.