Abstract: An imaging device includes an image processor configured to: i) determine that a detection intensity distribution indicating detection intensity with respect to position coordinates of a stage is a convolution of an image intensity distribution on an extension line of a linear pixel and a window function; (ii) calculate an image intensity distribution for each linear pixel by deconvolution from the detection intensity distribution; and (iii) generate an image of the subject by disposing the image intensity distribution calculated in all the linear pixels in an arrangement direction of the linear pixels.

Abstract: An image pickup device includes a disk with an aperture formed with an aperture through which X-rays can transmit, a vacuum suction ring having an inner peripheral ring and an outer peripheral ring having different heights, and fixes a position of the aperture with respect to a subject. Further, the image pickup device includes a rotation stage that holds the subject and the disk with an aperture fixed by the vacuum suction ring, and can rotate at a desired angle about a rotation axis along a direction perpendicular to a surface of the subject, and a one-dimensional detector in which line-shaped pixels are disposed at a predetermined pixel pitch.

Abstract: A particle detector according to one embodiment includes: superconductive lines, conductive lines, insulating films, a first detection circuit, and a second detection circuit. The superconductive lines extend in a first direction and are arranged in a second direction intersecting the first direction. The conductive lines extend in a third direction different from the first direction and are arranged in a fourth direction intersecting the third direction. The insulating films are each interposed at an intersection point between one of the superconductive lines and one of the conductive lines. The first detection circuit detects a voltage change occurring in the superconductive lines. The second detection circuit detects a current or a voltage generated in the conductive lines when the voltage change occurs.

Abstract: An imaging device of an embodiment comprises an aperture that transmits imaging light applied to a sample, a detector including a linear sensor comprising a linear light receiving surface extending in a first direction, a first image forming element that collects components of the imaging light in the first direction and forms an image on the light receiving surface with a first wave front aberration amount, and a second image forming element that collects components of the imaging light in a second direction orthogonal to the first direction and forms an image on the light receiving surface with a second wave front aberration amount smaller than the first wave front aberration amount.

Abstract: A particle detection device of an embodiment includes: a detector including a plurality of superconducting strips, and detecting a particle generated from a particle generation source; a conversion mechanism including a plurality of channels provided for the respective superconducting strips, and converting an analog signal from a corresponding one of the superconducting strips into a digital signal; an aggregation mechanism including a circuit which receives an output from the conversion mechanism; a first temperature maintaining portion maintaining a first temperature equal to or lower than a superconducting transition temperature; a first low-temperature container housing the first temperature maintaining portion; and a vacuum container housing the conversion mechanism and the first low-temperature container, and including an opening, the detector being housed in the first low-temperature container, and being connected to the first temperature maintaining portion, and the conversion mechanism being maintai

Abstract: A particle detection device of an embodiment includes: a detector including a plurality of superconducting strips, and detecting a particle generated from a particle generation source; a conversion mechanism including a plurality of channels provided for the respective superconducting strips, and converting an analog signal from a corresponding one of the superconducting strips into a digital signal; an aggregation mechanism including a circuit which receives an output from the conversion mechanism; a first temperature maintaining portion maintaining a first temperature equal to or lower than a superconducting transition temperature; a first low-temperature container housing the first temperature maintaining portion; and a vacuum container housing the conversion mechanism and the first low-temperature container, and including an opening, the detector being housed in the first low-temperature container, and being connected to the first temperature maintaining portion, and the conversion mechanism being maintai

Abstract: According to one embodiment, a particle detector is disclosed. The particle detector includes a substrate, and detection regions provided on the substrate and insulated from the substrate. Each of the detection regions includes superconducting strips having a longitudinal direction and configured for detecting a particle, and the superconducting strips are arranged in arrangement directions differing between the detection regions. The numbers of particles detected by the respective detection regions are used to generate accumulated detection number profiles of particles in the arrangement directions of the superconducting strips of the respective detection regions, and each of the accumulated detection number profiles includes a profile obtained by accumulating the numbers of particles detected by the respective superconducting strips along the longitudinal direction.

Abstract: A particle detector according to one embodiment includes: superconductive lines, conductive lines, insulating films, a first detection circuit, and a second detection circuit. The superconductive lines extend in a first direction and are arranged in a second direction intersecting the first direction. The conductive lines extend in a third direction different from the first direction and are arranged in a fourth direction intersecting the third direction. The insulating films are each interposed at an intersection point between one of the superconductive lines and one of the conductive lines. The first detection circuit detects a voltage change occurring in the superconductive lines. The second detection circuit detects a current or a voltage generated in the conductive lines when the voltage change occurs.

Abstract: According to one embodiment, a superconducting element used as a pixel for detecting a particle is disclosed. The superconducting element includes at least one superconducting strip. The at least one superconducting strip includes a superconducting portion extending in a first direction, including first and second ends and made of a first superconducting material, a first conductive portion connected to the first end of the superconducting portion, and a second conductive portion connected to the second end of the superconducting portion. A superconducting region of the superconducting portion is configured to be dived when the particle is made incident on the superconducting portion along the first direction via the first conductive portion.

Abstract: An imaging device of an embodiment comprises an aperture that transmits imaging light applied to a sample, a detector including a linear sensor comprising a linear light receiving surface extending in a first direction, a first image forming element that collects components of the imaging light in the first direction and forms an image on the light receiving surface with a first wave front aberration amount, and a second image forming element that collects components of the imaging light in a second direction orthogonal to the first direction and forms an image on the light receiving surface with a second wave front aberration amount smaller than the first wave front aberration amount.

Abstract: According to one embodiment, an image acquisition apparatus includes a light source, a stage on which an object to be observed is placed, a reflection mirror reflecting light from the light source and supplying reflected light to a surface of the object placed on the stage, an imaging optical system receiving an optical image from the surface of the object illuminated by the reflected light from the reflection mirror, and a detector detecting the optical image acquired by the imaging optical system. The reflection mirror includes a first portion reflecting light from the light source, and a second portion provided at a position opposite to the first portion with respect to a center of the reflection mirror and through which light from the surface of the object passes.

Abstract: According to one embodiment, a superconducting element used as a pixel for detecting a particle is disclosed. The superconducting element includes at least one superconducting strip. The at least one superconducting strip includes a meandering structure. The meandering structure includes a first portion extending in a first direction and made of a superconducting material, a second portion connected to the first portion, extending in a second direction perpendicular to the first direction, and being conductive, and a third portion connected to the second portion, extending in a direction opposite to the first direction, and made of a superconducting material. A superconducting region of any one of the first portion and the third portion is configured to be divided when the particle is radiated to the first portion.

Abstract: A power generation system includes a plurality of power generation apparatuses. The power generation system is configured to supply electric power to a load by performing interconnecting operation of the plurality of power generation apparatuses sets one of the plurality of apparatuses as a master apparatus and the other power generation apparatus as a slave apparatus. When power consumption by the load is less than electric power, the master apparatus causes the master apparatus and the slave apparatus to generate power in such a manner that the electric power supplied to the load follows the power consumption by the load. The electric power is generated by rated operation of the master apparatus and the slave apparatus.

Abstract: In order to provide a management apparatus that can reliably notify the user of the device state even when a device in a consumer's facility is operated via an external server, a management apparatus includes a first communication interface that transmits an operating instruction for devices in a consumer's facility to the devices, a storage that stores an operation history of the devices, and a second communication interface that transmits the operation history of the device to a server.

Abstract: According to one embodiment, an image acquisition apparatus includes a light source, a stage on which an object to be observed is placed, a reflection mirror reflecting light from the light source and supplying reflected light to a surface of the object placed on the stage, an imaging optical system receiving an optical image from the surface of the object illuminated by the reflected light from the reflection mirror, and a detector detecting the optical image acquired by the imaging optical system. The reflection mirror includes a first portion reflecting light from the light source, and a second portion provided at a position opposite to the first portion with respect to a center of the reflection mirror and through which light from the surface of the object passes.

Abstract: A fuel cell apparatus corresponds to a first slave apparatus among a plurality of fuel cell apparatuses that includes a master apparatus and slave apparatuses including the first slave apparatus and a second slave apparatus. The first slave apparatus includes a cell stack, a communication unit, and a controller. The communication unit communicably connects to the master apparatus and the second slave apparatus. The controller controls the cell stack on the basis of control information acquired from the master apparatus. The controller transmits a master candidacy message indicating assumption by proxy of functionality of the master apparatus to the second slave apparatus from the communication unit when the controller detects that the master apparatus has lost functionality.

Abstract: A reflection-type exposure mask includes a light reflector provided in a pattern on a substrate. The light reflector has a multilayer structure including first-type layers and second-type layers that are alternately stacked. The second-type layers have a refractive index higher at an extreme ultraviolet wavelength than a refractive index of the first-type layer at the extreme ultraviolet wavelength. A light transmitting medium is on a side surface of the light reflector.

Abstract: Equipment (300) is controlled and/or managed by EMS (200) by exchanging, with the EMS (200), a message configured to comply with a predetermined communication protocol through a network. The equipment (300) comprises a controller (330) that determines to execute a process requested by a request message requesting execution of the process on the equipment (300) when the request message is received from the EMS (200) and the request message includes predetermined authentication information.

Abstract: According to one embodiment, a particle detector is disclosed. The particle detector includes a substrate, and detection regions provided on the substrate and insulated from the substrate. Each of the detection regions includes superconducting strips having a longitudinal direction and configured for detecting a particle, and the superconducting strips are arranged in arrangement directions differing between the detection regions. The numbers of particles detected by the respective detection regions are used to generate accumulated detection number profiles of particles in the arrangement directions of the superconducting strips of the respective detection regions, and each of the accumulated detection number profiles includes a profile obtained by accumulating the numbers of particles detected by the respective superconducting strips along the longitudinal direction.

Abstract: According to one embodiment, a superconducting element used as a pixel for detecting a particle is disclosed. The superconducting element includes at least one superconducting strip. The at least one superconducting strip includes a meandering structure. The meandering structure includes a first portion extending in a first direction and made of a superconducting material, a second portion connected to the first portion, extending in a second direction perpendicular to the first direction, and being conductive, and a third portion connected to the second portion, extending in a direction opposite to the first direction, and made of a superconducting material. A superconducting region of any one of the first portion and the third portion is configured to be divided when the particle is radiated to the first portion.