Abstract: A probe driving method and a probe apparatus for bringing a probe into contact with the surface of a sample in a safe and efficient manner by monitoring the probe height. Information about the height of the probe from the sample surface is obtained by detecting a probe shadow (54) appearing immediately before the probe contacts the sample, or based on a change in relative positions of a probe image and a sample image that are formed as an ion beam is irradiated diagonally.

Abstract: A pattern inspection apparatus including: an image detecting part for detecting a digital image of an object substrate; a display having a screen on which the digital image of the object substrate and/or a distribution of defect candidates in a map form are displayable; an input device for inputting information of a non-inspection region to be masked on the object substrate by defining a region on the screen on which said distribution of defect candidates is displayed in a map form; a memory part for storing coordinate data, pattern data or feature quantity data of the non-inspection region to be masked on the object substrate inputted on the screen by the input device; and a defect judging part in which the digital image detected by the image detecting part is examined in a state that a region matching with a condition stored in the memory part is masked and a defect is detected in a region other than said masked region.

Abstract: A pattern inspection method in which an image can be detected without an image detection error caused by an adverse effect to be given by such factors as ions implanted in a wafer, pattern connection/non-connection, and pattern edge formation. A digital image of an object substrate is attained through microscopic observation thereof, the attained digital image is examined to detect defects, while masking a region pre-registered in terms of coordinates, or while masking a pattern meeting a pre-registered pattern, and an image of each of the defects thus detected is displayed. Further, each of the defects detected using the digital image attained through microscopic observation is checked to determine whether its feature meets a pre-registered feature or not. Defects having a feature that meets the pre-registered feature are so displayed that they can be turned on/off, or they are so displayed as to be distinguishable from the other defects.

Abstract: The present invention relates to detection of defects with simple specification of the coordinates, in the inspection of an object having a plurality of patterns in which a portion having the two-dimensional repetition and portions having the repetition only in the X direction and in the Y direction are mixedly present. The cross comparison between a notice point and comparison points, for example which are repetitive pitches away from the notice point, is carried out, and only the portion having the difference which can be found out with any of the comparison points is extracted as a defect candidate, which results in that the portion having the two-dimensional repetition as well as the portion having the repetition only in the X direction or in the Y direction can be inspected.

Abstract: A pattern inspection method in which an image can be detected without an image detection error caused by an adverse effect to be given by such factors as ions implanted in a wafer, pattern connection/non-connection, and pattern edge formation. A digital image of an object substrate is attained through microscopic observation thereof, the attained digital image is examined to detect defects, while masking a region pre-registered in terms of coordinates, or while masking a pattern meeting a pre-registered pattern, and an image of each of the defects thus detected is displayed. Further, each of the defects detected using the digital image attained through microscopic observation is checked to determine whether its feature meets a pre-registered feature or not. Defects having a feature that meets the pre-registered feature are so displayed that they can be turned on/off, or they are so displayed as to be distinguishable from the other defects.

Abstract: An inspection method and apparatus includes control of an acceleration voltage of an electron beam, irradiation of the electron beam to an object to be inspected mounted on a stage which is continuously moving at least in one direction, and detection of at least one of secondary electrons and reflected electrons emanated from the object in response to the irradiation. An image of the object is obtained from the detected electron by using positional information of the stage and inspection or measurement of the object is conducted using and obtained image. In the detection, an electric field in the vicinity of the object mounted on the stage is controlled so that at least one secondary electrons and the reflected electrons emanated from the object in response to the irradiation of the electron beam are decelerated.

Abstract: An area for fabricating a photomask having light-shielding patterns each formed of an organic film, and areas for fabricating a semiconductor integrated circuit device are provided within the same clean room. A manufacturing device and an inspecting device are commonly used during the fabrication of the photomask and the fabrication of the semiconductor integrated circuit device.

Abstract: To make possible the in-line inspection of a pattern of an insulating material. A patterned wafer 40 formed with a pattern by a resist film is placed on a specimen table 21 of a patterned wafer inspection apparatus 1 in opposed relation to a SEM 3. An electron beam 10 of a large current is emitted from an electron gun 11 and the pattern of the patterned wafer is scanned only once at a high scanning rate. The secondary electrons generated by this scanning from the patterned wafer are detected by a secondary electron detector 16 thereby to acquire an electron beam image. Using this electron beam image, the comparative inspection is conducted on the patterned wafer through an arithmetic operation unit 32 and a defect determining unit 33. Since an electron beam image of high contrast can be obtained by scanning an electron beam only once, a patterned wafer inspection method using a SEM can be implemented in the IC fabrication method.

Abstract: A circuit pattern inspection method and an apparatus therefor, in which the whole of a portion to be inspected of a sample to be inspected is made to be in a predetermined charged state, the portion to be inspected is irradiated with an image-forming high-density electron beam while scanning the electron beam, secondary charged particles are detected at a portion irradiated with the electron beam after a predetermined period of time from an instance when the electron beam is irradiated, an image is formed on the basis of the thus detected secondary charged particle signal, and the portion to be inspected is inspected by using the thus formed image.

Abstract: A probe driving method and a probe apparatus for bringing a probe into contact with the surface of a sample in a safe and efficient manner by monitoring the probe height. Information about the height of the probe from the sample surface is obtained by detecting a probe shadow (54) appearing immediately before the probe contacts the sample, or based on a change in relative positions of a probe image and a sample image that are formed as an ion beam is irradiated diagonally.

Abstract: Disconnection defects, short-circuit defects and the like in wiring patterns of submicron sizes within TEGs (a square of 1 to 2.5 mm for each) numerously arranged in a large chip (a square of 20 to 25 mm) can be inspected with respect to all the TEGs, with good operability, high reliability and high efficiency. A conductor probe for applying voltage to the wiring patterns by mechanical contact is composed of synchronous type conductor probe that synchronizes with movement of a sample stage (16), and fixed type conductor probe means (21) that is relatively fixed to an FIB generator (10). Positions of probe tips are superimposed to an SIM image and displayed on a display unit (19).

Abstract: A probe driving method and a probe apparatus for bringing a probe into contact with the surface of a sample in a safe and efficient manner by monitoring the probe height. Information about the height of the probe from the sample surface is obtained by detecting a probe shadow appearing immediately before the probe contacts the sample, or based on a change in relative positions of a probe image and a sample image that are formed as an ion beam is irradiated diagonally.

Abstract: An apparatus for inspecting foreign matter in repeated micro-miniature patterns formed upon a surface of an object to be inspected, comprising: an inspection light illuminating device for irradiating an inspection light directed upon the surface of the object to be inspected, on which the repeated micro-miniature patterns are formed; a scattered light detector for detecting scattered light of the inspection light being scattered upon the surface said object to be inspected; means for obtaining a first information related to a foreign matter attaching upon the surface of said object to be inspected, which is obtained on a basis of the detection of said scattered light by said scattered light detector; an illumination means for applying a bright field illumination upon the surface of the object to be inspected, on which the repeated micro-miniature patterns are formed; means for picking up the image of the foreign matter, under a bright field illumination by said illumination means; means for obtaining a second

Abstract: A manufacturing method of an electronic device is to improve test efficiency using test structure and improve yield. The manufacturing method performs test using a first lead wire disposed on an insulating layer formed on a substrate and a second lead wire electrically connected to the substrate and disposed on the insulating layer and manages the electronic device on the basis of results of the test to manufacture the electronic device. The manufacturing method includes a step of testing whether the first lead wire is disconnected or not by measuring an electric resistance between both ends of the first lead wire and a step of testing whether the first and second lead wires are short-circuited or not by measuring an electric resistance between the first lead wire and the substrate.

Abstract: An inspection method and apparatus includes control of an acceleration voltage of an electron beam, irradiation of the electron beam to an object to be inspected mounted on a stage which is continuously moving at least in one direction, and detection of at least one of secondary electrons and reflected electrons emanated from the object in response to the irradiation. An image of the object is obtained from the detected electron by using positional information of the stage and inspection or measurement of the object is conducted using and obtained image. In the detection, an electric field in the vicinity of the object mounted on the stage is controlled so that at least one secondary electrons and the reflected electrons emanated from the object in response to the irradiation of the electron beam are decelerated.

Abstract: A semiconductor substrate has a peculiar crystal defect. Crystal defects in a fixed area of a substrate can be treated as data acquired by coding the distribution of the crystal defects. The coded data is utilized for certificate data of an IC card by identifying a semiconductor substrate itself.

Abstract: A manufacturing method of an electronic device is to improve test efficiency using test structure and improve yield. The manufacturing method performs test using a first lead wire disposed on an insulating layer formed on a substrate and a second lead wire electrically connected to the substrate and disposed on the insulating layer and manages the electronic device on the basis of results of the test to manufacture the electronic device. The manufacturing method includes a step of testing whether the first lead wire is disconnected or not by measuring an electric resistance between both ends of the first lead wire and a step of testing whether the first and second lead wires are short-circuited or not by measuring an electric resistance between the first lead wire and the substrate.

Abstract: A method of detecting a defect includes of determining an image acquisition condition for irradiating a converged electron beam onto a specimen and detecting a secondary electron emanated from the specimen, acquiring an image by detecting the secondary electron emanated from the specimen in synchronism with the irradiation of the electron beam, processing the acquired image to detect a defect on the specimen, and outputting information regarding the detected defect. The image acquisition condition is determined based on plural images which are acquired by changing at least one of acceleration condition of the secondary electron and an electrical field in the vicinity of the specimen.

Abstract: Disconnection defects, short-circuit defects and the like in wiring patterns of submicron sizes within TEGs (a square of 1 to 2.5 mm for each) numerously arranged in a large chip (a square of 20 to 25 mm) can be inspected with respect to all the TEGs, with good operability, high reliability and high efficiency. A conductor probe for applying voltage to the wiring patterns by mechanical contact is composed of synchronous type conductor probe that synchronizes with movement of a sample stage (16), and fixed type conductor probe means (21) that is relatively fixed to an FIB generator (10). Positions of probe tips are superimposed to an SIM image and displayed on a display unit (19).

Abstract: A method of detecting a defect includes of determining an image acquisition condition for irradiating a converged electron beam onto a specimen and detecting a secondary electron emanated from the specimen, acquiring an image by detecting the secondary electron emanated from the specimen in synchronism with the irradiation of the electron beam, processing the acquired image to detect a defect on the specimen, and outputting information regarding the detected defect. The image acquisition condition is determined based on plural images which are acquired by changing at least one of acceleration condition of the secondary electron and an electrical field in the vicinity of the specimen.