Abstract: A display device with high resolution is provided. Manufacturing cost of a display device using a micro LED as a display element is reduced. The display device includes a substrate, a plurality of transistors, and a plurality of light-emitting diodes. The plurality of light-emitting diodes are provided in a matrix over the substrate. Each of the plurality of transistors are electrically connected to at least one of the plurality of light-emitting diodes. The plurality of light-emitting diodes are positioned closer to the substrate than the plurality of transistors are. The plurality of light-emitting diodes emit light to the opposite side of the substrate.

Abstract: A focus adjustment method for a charged particle beam device having a magnetic field lens used for focus adjustment and an astigmatism corrector includes: acquiring a plurality of first images by varying an excitation current of the magnetic field lens within a focus search range, and determining a reference value of the excitation current; removing hysteresis from the magnetic field lens by setting the excitation current of the magnetic field lens outside the focus search range before and after varying the excitation current of the magnetic field lens within the focus search range; and acquiring a plurality of second images by varying the excitation current of the magnetic field lens using the reference value as a reference and varying a stigma correction value of the astigmatism corrector at each excitation current, and then determining optimum values of the excitation current and the stigma correction value.

Abstract: In an analyzer, an image processing unit performs processing of: dividing a measurement image into a plurality of partial measurement images, and dividing a reference image into a plurality of partial reference images; calculating a positional deviation amount of each of the partial measurement images relative to a corresponding partial reference image among the partial reference images; determining whether the positional deviation amount is a threshold or less; and correcting positional deviation of the measurement image based on the positional deviation amounts of the plurality of partial measurement images when the image processing unit has determined that the positional deviation amount is not the threshold or less.

Abstract: An analyzer includes a wavelength-dispersive X-ray spectrometer and a control unit that controls the wavelength-dispersive X-ray spectrometer, the control unit performing: processing of acquiring an analysis result of preparatory analysis performed on a specimen to be analyzed; processing of setting spectroscopic conditions for WDS analysis using the wavelength-dispersive X-ray spectrometer based on the analysis result of the preparatory analysis; and processing of performing the WDS analysis on the specimen to be analyzed under the set spectroscopic conditions.

Abstract: Provided is a scatter diagram display device that creates a plurality of scatter diagrams based on mapping data acquired by an analyzer and displays a scatter diagram matrix in which the created plurality of scatter diagrams are arranged in a matrix on a display section, the scatter diagram display device including: a display condition acceptance section that accepts a designation of a display range of an item in each of the plurality of scatter diagrams, and a display control section that extracts all scatter diagrams having the item whose display range has been designated from the plurality of scatter diagrams and changes the display range of the item in the extracted scatter diagrams based on the designation of the display range.

Abstract: An X-ray analyzer includes: a specimen stage; a spectrometer having a spectroscopic element and an X-ray detector; a temperature measuring unit including at least one of a first temperature sensor for measuring a temperature of the specimen stage and a second temperature sensor for measuring a temperature of the spectrometer; a storage unit which stores calibration data of the spectrometer, and a previous measurement result by the temperature measuring unit at the time of execution of the calibration of the spectrometer; and a notifying unit which acquires a measurement result by the temperature measuring unit, calculates a temperature variation amount of the acquired measurement result with respect to the previous measurement result stored in the storage unit, and notifies that calibration is needed, based on the temperature variation amount.

Abstract: In an analyzer, an image processing unit performs processing of: dividing a measurement image into a plurality of partial measurement images, and dividing a reference image into a plurality of partial reference images; calculating a positional deviation amount of each of the partial measurement images relative to a corresponding partial reference image among the partial reference images; determining whether the positional deviation amount is a threshold or less; and correcting positional deviation of the measurement image based on the positional deviation amounts of the plurality of partial measurement images when the image processing unit has determined that the positional deviation amount is not the threshold or less.

Abstract: A vacuum apparatus equipped with an automatic transport mechanism for transporting a specimen and a sensor for detecting a state of the vacuum apparatus includes: a determining unit which determines whether a recoverable error has occurred based on a signal from the sensor; and a display control unit which causes, when it is determined that a recoverable error has occurred, a display unit to display a procedure of a recovery operation in a wizard format. The display control unit determines whether the recovery operation has been performed according to the procedure displayed on the display unit based on a signal from the sensor, and causes the display unit to display a next procedure of the recovery operation when it is determined that the recovery operation has been performed according to the procedure.

Abstract: A focus adjustment method for a charged particle beam device having a magnetic field lens used for focus adjustment and an astigmatism corrector includes: acquiring a plurality of first images by varying an excitation current of the magnetic field lens within a focus search range, and determining a reference value of the excitation current; removing hysteresis from the magnetic field lens by setting the excitation current of the magnetic field lens outside the focus search range before and after varying the excitation current of the magnetic field lens within the focus search range; and acquiring a plurality of second images by varying the excitation current of the magnetic field lens using the reference value as a reference and varying a stigma correction value of the astigmatism corrector at each excitation current, and then determining optimum values of the excitation current and the stigma correction value.

Abstract: An analyzer includes a wavelength-dispersive X-ray spectrometer and a control unit that controls the wavelength-dispersive X-ray spectrometer, the control unit performing: processing of acquiring an analysis result of preparatory analysis performed on a specimen to be analyzed; processing of setting spectroscopic conditions for WDS analysis using the wavelength-dispersive X-ray spectrometer based on the analysis result of the preparatory analysis; and processing of performing the WDS analysis on the specimen to be analyzed under the set spectroscopic conditions.

Abstract: An X-ray analyzer includes: a specimen stage; a spectrometer having a spectroscopic element and an X-ray detector; a temperature measuring unit including at least one of a first temperature sensor for measuring a temperature of the specimen stage and a second temperature sensor for measuring a temperature of the spectrometer; a storage unit which stores calibration data of the spectrometer, and a previous measurement result by the temperature measuring unit at the time of execution of the calibration of the spectrometer; and a notifying unit which acquires a measurement result by the temperature measuring unit, calculates a temperature variation amount of the acquired measurement result with respect to the previous measurement result stored in the storage unit, and notifies that calibration is needed, based on the temperature variation amount.

Abstract: An X-ray analyzer includes: an X-ray detector that detects an X-ray emitted from a specimen and outputs a signal having a step that has a height corresponding to energy of the X-ray; a pulse generation circuit that converts the signal output from the X-ray detector into a first pulse signal; a pulse-width setting circuit that sets a pulse width; a pulse-width conversion circuit that converts a pulse width of the first pulse signal into the pulse width set by the pulse-width setting circuit to form a second pulse signal; a pulse-height discriminator that discriminates the second pulse signal according to a pulse height of the second pulse signal; a counting circuit that calculates a counting rate of the discriminated second pulse signal; and a counting-loss correction processing unit that corrects the counting rate. The counting-loss correction processing unit corrects the counting rate based on the pulse width.

Abstract: A vacuum apparatus equipped with an automatic transport mechanism for transporting a specimen and a sensor for detecting a state of the vacuum apparatus includes: a determining unit which determines whether a recoverable error has occurred based on a signal from the sensor; and a display control unit which causes, when it is determined that a recoverable error has occurred, a display unit to display a procedure of a recovery operation in a wizard format. The display control unit determines whether the recovery operation has been performed according to the procedure displayed on the display unit based on a signal from the sensor, and causes the display unit to display a next procedure of the recovery operation when it is determined that the recovery operation has been performed according to the procedure.

Abstract: An X-ray analyzer includes: an X-ray detector that detects an X-ray emitted from a specimen and outputs a signal having a step that has a height corresponding to energy of the X-ray; a pulse generation circuit that converts the signal output from the X-ray detector into a first pulse signal; a pulse-width setting circuit that sets a pulse width; a pulse-width conversion circuit that converts a pulse width of the first pulse signal into the pulse width set by the pulse-width setting circuit to form a second pulse signal; a pulse-height discriminator that discriminates the second pulse signal according to a pulse height of the second pulse signal; a counting circuit that calculates a counting rate of the discriminated second pulse signal; and a counting-loss correction processing unit that corrects the counting rate. The counting-loss correction processing unit corrects the counting rate based on the pulse width.

Abstract: A medicine dispensing apparatus fills a vial having a polygonal cross-sectional shape with medicines to dispense the medicines. The apparatus contains a stocker, a first vial transporting unit, a vial orienting unit, a labeling unit, a second vial transporting unit, a medicine filling unit, and a vial discharging window. The stocker stores the vial. The first vial transporting unit transports the vial from the stocker to the labeling unit. The vial orienting unit adjusts an orientation of the vial. The labeling unit labels the vial. The second vial transporting unit transports the vial from the labeling unit to the medicine filling unit. The medicine filling unit fills the vial with the medicines. The second vial transporting unit further transports the vial from the medicine filling unit to the vial discharging window, where the vial is discharged through the vial discharging window.

Abstract: The medicine packing machine is equipped with a loading unit that is capable of receiving and delivering vials retrieved from a stocker, and a supplying unit that is capable of delivering the vials from the loading unit in an upright position. A control unit is also disposed between the loading unit and the supplying unit. As a result of the presence of the control unit, the transfer of vials received by the loading unit is controlled by the control unit in such a manner that the vials are not ejected towards the supplying unit. The vials are also controlled so as to be in an upright position once loaded into the loading unit. As a result of these actions, the vials received by the loading unit are reliably delivered to the supplying unit without being ejected or jamming at unanticipated locations.

Abstract: This invention aims at providing a medicine filling device which can supply the vial container in a smooth manner without getting caught in the vial supply means designed to supply the empty vial container, before filling the drug. The supply means 60 has the structure that the vial container can pass in it and the vial container passage 68. The vial container passage 68 has the passage width goes on tapering from the region on the upper end side towards the region on the lower end side. The vial container passage 68 also has the inner wall surface 62 a, 62 b and 62 c. The vial container passage 68 has the passage portion 68 b being steeper than the inclination of the inner wall surface 62 a and the taper ratio of the passage portion 68 b being smaller than the taper ratio of the passage width in the receiving portion 62.

Abstract: A medicine filling device for filling empty vials of different shapes and sizes with medicine without having to replace any members or having to perform any special operations is disclosed. More specifically, the medicine filling device is provided with a first transfer means to transfer an empty vial B stored within a stocker while the vial B is positioned on a side, a vial lifter (second transfer means) to hold the transferred vial B in an upright position and to move said vial B towards a medicine filling unit, and a vial orientation detection means to detect the orientation of the vial B which was removed from the stocker by the first transfer means. The first transfer means is provided with a reversal mechanism and the vial B is supplied to the vial lifter from the first transfer means while the bottom of the vial B faces a vial guiding means.

Abstract: Provided is a medicine filling device for filling empty vials of different shapes and sizes with medicine without having to replace any members or to perform any special operations. More Specifically, the medicine filling device is provided with: a first transfer means to transfer an empty vial B stored within a stocker while the vial B is positioned on a side; a vial lifter (second transfer means) to hold the transferred vial B in an upright position and to move said vial B towards a medicine filling unit; and a vial orientation detection means to detect the orientation of the vial B which was removed from the stocker by the first transfer means. The first transfer means is provided with a reversal mechanism and the vial B is supplied to the vial lifter from the first transfer means while the bottom of the vial B faces a vial guiding means.

Abstract: A medicine dispensing apparatus fills a vial having a polygonal cross-sectional shape with medicines to dispense the medicines. The apparatus contains a stocker, a first vial transporting unit, a vial orienting unit, a labeling unit, a second vial transporting unit, a medicine filling unit, and a vial discharging window. The stocker stores the vial. The first vial transporting unit transports the vial from the stocker to the labeling unit. The vial orienting unit adjusts an orientation of the vial. The labeling unit labels the vial. The second vial transporting unit transports the vial from the labeling unit to the medicine filling unit. The medicine filling unit fills the vial with the medicines. The second vial transporting unit further transports the vial from the medicine filling unit to the vial discharging window, where the vial is discharged through the vial discharging window.