Patent classifications
H01J37/27
Method for producing phosphor panel, phosphor panel, image intensifier and scanning-type electronic microscope
A method of manufacturing a phosphor panel includes: forming a phosphor layer having a plurality of phosphor particles on an exit window; forming an organic film on the phosphor layer; forming a metal reflection film on the organic film; forming an oxide film on the metal reflection film; removing the organic film by firing; and forming an oxide film integrally covering a surface of the metal reflection film and surfaces of the phosphor particles by atomic layer deposition.
METHOD FOR PRODUCING PHOSPHOR PANEL, PHOSPHOR PANEL, IMAGE INTENSIFIER AND SCANNING-TYPE ELECTRONIC MICROSCOPE
A method of manufacturing a phosphor panel includes: forming a phosphor layer having a plurality of phosphor particles on an exit window; forming an organic film on the phosphor layer; forming a metal reflection film on the organic film; forming an oxide film on the metal reflection film; removing the organic film by firing; and forming an oxide film integrally covering a surface of the metal reflection film and surfaces of the phosphor particles by atomic layer deposition.
Adaptive periodic waveform controller
A repeating setpoint generator module selectively varies a setpoint for an output parameter according to a predetermined pattern that repeats during successive time intervals. A closed-loop module, during a first one of the time intervals, generates N closed-loop values based on N differences between (i) N values of the setpoint at N times during the first one of the time intervals and (ii) N measurements of the output parameter at the N times during the first one of the time intervals, respectively. An adjusting module, during the first one of the time intervals, generates N adjustment values based on N differences between (i) N values of the setpoint at the N times during a second one of the time intervals and (ii) N measurements of the output parameter at the N times during the second one of the time intervals, respectively.
Determining a depth of a hidden structural element background
A method for determining a depth of a hidden structural element of an object, the method may include (i) obtaining contrast information regarding a contrast between (a) hidden structural element detection signals that are indicative of electrons emitted from the hidden structural element, and (b) surroundings detection signals that are indicative of electrons emitted from a surroundings of the hidden structural element; wherein the hidden structural element detection signals and the surroundings detection signals are detected as a result of a scanning of a region of the object, with an illuminating electron beam; wherein the region comprises the hidden structural element and the surroundings; and (ii) determining the depth of the hidden structural element based, at least in part, on the contrast information.
CHARGED PARTICLE MICROSCOPE HAVING A CHARGED PARTICLE DETECTOR
A charged particle microscope that incorporates dual data stream output interfaces within its imaging system. These interfaces enable the microscope to capture and process data from the charged particle camera in two distinct ways, leading to enhanced imaging capabilities and improved flexibility. This invention has the potential to significantly advance the field of charged particle microscopy and find applications in various scientific and industrial settings.
CHARGED PARTICLE MICROSCOPE HAVING A CHARGED PARTICLE DETECTOR
A charged particle microscope that incorporates dual data stream output interfaces within its imaging system. These interfaces enable the microscope to capture and process data from the charged particle camera in two distinct ways, leading to enhanced imaging capabilities and improved flexibility. This invention has the potential to significantly advance the field of charged particle microscopy and find applications in various scientific and industrial settings.