Abstract: A medical information processing device according to an embodiment includes processing circuitry configured to acquire a plurality of X-ray images including a device inserted into a body of a subject, suppress movement of a characteristic portion characterized in a shape that is positioned distant from a distal end of the device among the X-ray images, and output the X-ray images in which movement of the characteristic portion is suppressed.

Abstract: A transmission type small-angle scattering device of the present invention includes a goniometer 10 including a rotation arm 11. The rotation arm 11 is freely turnable around a ?-axis extending in a horizontal direction from an origin with a vertical arrangement state of the rotation arm 11 being defined as the origin, and has a vertical arrangement structure in which an X-ray irradiation unit 20 is installed on a lower-side end portion of the rotation arm 11, and a two-dimensional X-ray detector 30 is installed on an upper-side end portion of the rotation arm 11 to form a vertical arrangement structure.

Abstract: A sample inspection system is described. The system comprises at least first and second inspection units positioned above a sample region. Each of said at least first and second inspection unit comprises at least one X-ray radiation source and respective detector arrangement and configured for X-ray fluorescent inspection of a sample. Wherein the first and second x-ray inspection units provide first and second inspection properties different in at least one of: bandwidth of emitted X-ray energies, energy of emitted X-rays, spot size of X-ray beam generated on a sample.

Abstract: Disclosed is an X-ray fluorescence analyzer instrument for analyzing the elemental composition of a sample, including: a measurement chamber including air and a measurement aperture sealed by a sample window; a radiation source inside the measurement chamber to invoke secondary radiation from the sample adjacent to the sample window exterior of the measurement chamber; a radiation detector having its receiver inside the measurement chamber, the radiation detector receiving the secondary radiation from the sample window and providing a measurement signal describing intensity of the received radiation; a controller analyzing composition of the sample based on an energy spectrum of the measurement signal based on a calibration established at a reference air density inside the measurement chamber; and a device adjusting a volume of the measurement chamber restoring the reference air density inside the measurement chamber after a change in air density inside the measurement chamber to maintain calibration validity

Abstract: The radiographic imaging apparatus includes a preset setting unit for presetting a dose of X-rays, a standard state setting unit for setting the preset dose as a standard state, and a dose change unit for relatively changing the dose of X-rays from the standard state to at least one of a high-dose state in which the dose of the X-rays is higher than that in the standard state by a predetermined dose and a low-dose state in which the dose of the X-rays is lower than that in the standard state by a predetermined dose.

Abstract: Provided are an X-ray fluorescence spectrometer and a control method for an X-ray fluorescence spectrometer which are capable of preventing deterioration and breakage of a sample, and contamination of an inside of an apparatus even when an abnormality occurs in the X-ray fluorescence spectrometer. The X-ray fluorescence spectrometer includes: a measuring unit including: a moving mechanism configured to move a sample between a standby position and a measurement position; an X-ray source; a detector; and a first control unit; and an information processing unit including: an analysis unit; and a second control unit configured to control the measuring unit by communicating with the first control unit, the first control unit including retreat controller configured to perform retreat control for causing the moving mechanism to retreat the sample present at the measurement position to the standby position when communication between the first control unit and the second control unit is interrupted.

Abstract: Provided is an anti-counterfeit marking technique for verifying authenticity of objects using x-ray fluorescence (XRF) analysis.

Abstract: A system and a method use x-ray fluorescence to analyze a specimen by illuminating a specimen with an incident x-ray beam having a near-grazing incident angle relative to a surface of the specimen and while the specimen has different rotational orientations relative to the incident x-ray beam. Fluorescence x-rays generated by the specimen in response to the incident x-ray beam are collected while the specimen has the different rotational orientations.

Abstract: A control system and method are presented for controlling operation of an X-ray Fluorescent (XRF) system for detecting at least one material carried by a sample, for example at least one marker carried by the sample. The control system comprises: data input utility for receiving input data comprising material/marker related data about said at least one material/marker; and data processor and analyzer utility. The data processor and analyzer utility is configured and operable for analyzing the input data and determining optimal geometrical characteristics of the XRF system for optimizing operational conditions of said XRF system to maximize amount of primary X-ray radiation that reaches a predetermined region of the sample and is absorbed by a volume of said region and to maximize a portion of secondary radiation emitted from said region that reaches a detector of the XRF system; and for generating operational data to the XRF system enabling adjustment of the geometrical characteristics of the XRF system.

Abstract: Provided is a substrate contamination analysis system capable of individually analyzing impurities present in a film and impurities present on a surface of the film. The substrate contamination analysis system includes: a vapor phase decomposition device configured to expose a film formed on a surface of a first substrate to a gas that reacts with the film, to thereby dissolve the film; a recovery device configured to perform a first recovery operation of moving an object to be measured to a first measurement position before the film is dissolved and a second recovery operation of moving the object to be measured to a second measurement position after the film is dissolved; and an analyzer configured to analyze the object to be measured every time the recovery device performs the first recovery operation and the second recovery operation.

Abstract: Provided is an X-ray analysis system with which it is possible to set appropriate conditions for vapor phase decomposition with ease. The X-ray analysis system includes an X-ray spectrometer and a vapor phase decomposition apparatus. The X-ray spectrometer includes: an X-ray source configured to irradiate a measurement sample having a thin film present on its surface with primary X-rays; a detector configured to measure an intensity of reflected X-rays, or an intensity of fluorescent X-rays; and a calculation unit configured to calculate a film thickness or a coating mass of the thin film based on the intensity of the reflected X-rays or the fluorescent X-rays. The vapor phase decomposition apparatus includes: a vapor phase decomposition portion configured to perform vapor phase decomposition on the thin film; and a control portion configured to determine a vapor phase decomposition time based on the film thickness or the coating mass.

Abstract: A hybrid inspection system of the present invention is an inspection system including a first inspection device (1) for inspecting a sample (11) based on X-ray measurement data obtained by irradiating the sample (11) with X-rays, and a second inspection device (2) for inspecting the sample (11) by a measuring method using no X-rays. The X-ray measurement data obtained by the first inspection device or an analysis result of the X-ray measurement data is output to the second inspection device (2). In the second inspection device (2), the structure of the sample (11) is analyzed by using the X-ray measurement data input from the first inspection device (1) or the analysis result of the X-ray measurement data.

Abstract: An x-ray spectrometer system includes an x-ray source, an x-ray optical system, a mount, and an x-ray spectrometer. The x-ray optical system is configured to receive, focus, and spectrally filter x-rays from the x-ray source to form an x-ray beam having a spectrum that is attenuated in an energy range above a predetermined energy and having a focus at a predetermined focal plane.

Abstract: An X-ray fluorescence spectrometric system includes: a job execution unit configured to execute a job; a storage unit configured to store in advance a time required for each of operations in association with the each of the operations; a calculation unit configured to calculate, when the job is generated, a time to be taken until execution of the job is completed, for each job based on the time stored in the storage unit; and a control unit configured to newly store, when the job is executed, a time taken for the operation in the storage unit in association with the operation. The calculation unit is configured to further calculate, when the job is executed, the time to be taken until the execution of the job is completed, based on the time newly stored in the storage unit.

Abstract: [Technical Problem] To provide an inspection device for inspecting a tissue using reflected light from a tissue, and a control method, a system, a light guide, and a scale of the inspection device. [Solution to Problem] An inspection device 100 of the present invention comprises an imaging device 106 and an inspection module 115 for allowing the imaging device 106 to take a tissue image. The inspection module 115 includes an objective lens 104 for focusing reflected light from a tissue to the imaging device 106; a plurality of LEDs 103a for surrounding the optic axis of the objective lens 104 and exposing light to the tissue; a circular polarization filter 102 comprising polarization state-regulating parts 102a for exposing the light from the LEDs 103a to the tissue directly or as circularly polarized light; and an alignment mechanism 110a for aligning the polarization state-regulating part 102a with the position of the LED 103a.

Abstract: An airborne particle collection system includes a monitoring device and a collection media. The monitoring device includes a housing having an air-intake slot, and a motor. The collection media includes an adhesive-coated tape contained within a removable cartridge inserted into the housing. The removable cartridge includes a particle intake zone, proximate to the air-intake slot, and through which the adhesive-coated tape is exposed to capture airborne particles passing through the air-intake slot, and an inspection zone at which the airborne particles captured at the intake zone are transported for optical imaging. The motor moves the airborne particles captured by the adhesive-coated tape from the particle intake zone to the inspection zone.

Abstract: A simultaneous multi-elements analysis type X-ray fluorescence spectrometer according to the present invention includes: a sample table (2) on which a sample (1) is placed and a conveyance arm (22) for the sample (1). The sample table (2) has a cutout (2e) formed therein, through which the conveyance arm (22) is allowed to pass in a vertical direction. Regarding respective measurement points (Pn) on a blank wafer (1b), a background correction unit (21) previously stores, as background intensities at the measurement points (Pn), intensities obtained by subtracting a measured intensity at a reference measurement point (P0) located above the cutout (2e) from each of measured intensities at the measurement points (Pn), and regarding respective measurement points (Pn) on an analytical sample (1a), the background correction unit (21) subtracts the background intensities at the measurement points (Pn) from measured intensities at the measurement points (Pn), thereby correcting background.

Abstract: An analyzing apparatus is disclosed that is capable of preventing an intentional or negligent interventional action on an analysis. An analyzing apparatus 1 is connected to a controlling computer 2 and performs a predetermined analysis according to a control instruction given through the controlling computer 2. The analyzing apparatus 1 includes an operation unit 11 for enabling a user to perform an input operation for controlling the analyzing apparatus 1. When the analyzing apparatus 1 is under control of the controlling computer 2, the input operation performed through the operation unit 11 is disabled.

Abstract: Provided is a sample holder for an X-ray fluorescence spectrometer, which enables measurement of a liquid sample that is in a small amount and cannot be dropped and dried, when the measurement is performed with a tube-above optics X-ray fluorescence spectrometer. The sample holder for an X-ray fluorescence spectrometer includes: a first substrate including: a support substrate having a hole in which a liquid sample is placed; a first polymer film, which is bonded to a surface of the support substrate on an X-ray incident side so as to cover the hole; and an adhesive layer, which is provided on a back surface of the surface of the support substrate to which the first polymer film is bonded; and a second substrate including: a fixed substrate having a hole at a position corresponding to the hole of the support substrate; and a second polymer film, which is bonded to a surface of the fixed substrate on the X-ray incident side, the second substrate being bonded to the first substrate with the adhesive layer.

Abstract: An apparatus for capturing a radiation image includes a radiation source configured to emit radiation, a wavelength converter configured to receive the radiation emitted from the radiation source through an entrance plane after the emitted radiation has been transmitted by an object, to convert the received radiation to scintillation light, and to output the scintillation light from the entrance plane, a first optical system configured to focus on the entrance plane and to image the output scintillation light thereby generating a first radiation image of the object, and a first image sensor configured to capture the first radiation image to generate first image data.

Abstract: A sample handling apparatus/technique/method for a material analyze including a sample carrier for presenting a pressurized sample (e.g., LPG) to a sample focal area of the analyzer; a removable fixture for charging the pressurized sample into the sample carrier; the removable fixture including at least one port to provide sample to and from the fixture and carrier. The sample handling apparatus may include a retainer, wherein the sample carrier is removeably combined with the fixture using the retainer, the apparatus being insertable into the analyzer for sample analysis; and wherein the retainer includes an aperture for presenting the sample to the focal area from a filmed, lower end of the carrier in proximity therewith.

Abstract: A method of making X-ray fluorescence, XRF, measurements of a layered sample is described. At least two measurements are made, one through one surface of the sample and another through the opposite surface. This may be conveniently done by inverting the sample between the measurements. The data from the additional measurements may be used to calculate multiple parameters of the sample, such as the concentration, density or thickness of each of the layers.

Abstract: An x-ray source and an x-ray interferometry system utilizing the x-ray source are provided. The x-ray source includes a target that includes a substrate and a plurality of structures. The substrate includes a thermally conductive first material and a first surface. The plurality of structures is on or embedded in at least a portion of the first surface. The structures are separate from one another and are in thermal communication with the substrate. The structures include at least one second material different from the first material, the at least one second material configured to generate x-rays upon irradiation by electrons having energies in an energy range of 0.5 keV to 160 keV. The x-ray source further includes an electron source configured to generate the electrons and to direct the electrons to impinge the target and to irradiate at least some of the structures along a direction that is at a non-zero angle relative to a surface normal of the portion of the first surface.

Abstract: An apparatus for X-ray measurement, includes an X-ray source, an X-ray detector, an optical inclinometer, and a processor. The X-ray source is configured to generate and direct an X-ray beam to be incident at a grazing angle on a surface of a sample. The X-ray detector is configured to measure X-ray fluorescence emitted from the surface of the sample in response to being excited by the X-ray beam. The optical inclinometer is configured to measure an inclination of the surface of the sample. The processor is configured to calibrate the grazing angle of the X-ray beam based on the measured inclination, and to further fine-tune the grazing angle based on the X-ray fluorescence measured by the X-ray detector.

Abstract: A device includes illuminator configured to emit first and second illumination signal having first and second illumination intensities, respectively, in the direction of a surface region of an object to be measured, the second illumination intensity being smaller than the first illumination intensity. The device includes sensor configured to provide a first and second measurement signals based on first and second reflections of the first and second illumination signals on the surface region, respectively. The device includes evaluator configured to combine the first and second measurement signals with each other so as to obtain a combination result from which a position of the first illumination signal on the surface region may be derived, wherein an influence of a reflectance of the surface region within the combination result is reduced as compared to the influence on the first and second measurement signals.

Abstract: Methods are provided for producing disposable diagnostic test elements and monitoring a property thereof, where such methods include detecting X-ray fluorescent (XRF) signals of one or more metallic components in a composite of first and second layers applied to a substrate using XRF spectrometry, determining a quantity value for each metallic component in a measured area from the XRF signals, and then calculating an areal coating quantity of the first and the second layers using the quantity values of the metallic components. Additionally or alternatively, the methods can include determining a batch specific code from the XRF signals that can be used when performing a test with a test element. Further provided are systems for monitoring a property of disposable test elements.

Abstract: An X-ray thin film inspection device according to the present invention has an X-ray irradiation unit 40 mounted in a first rotation arm 32, an X-ray detector 50 mounted in a second rotation arm 33, a fluorescence X-ray detector 60 for detecting fluorescent X-ray occurring from an inspection target due to irradiation of X-ray, a temperature measuring unit 110 for measuring the temperature corresponding to the temperature of the X-ray thin film inspection device, and a temperature correcting system (central processing unit 100) for correcting an inspection position on the basis of the temperature measured by the temperature measuring unit 110.

Abstract: A handheld XRF device having a shutter including a calibration material. An automatic calibration sequence may be performed with the shutter in the closed position.

Abstract: An x-ray interrogation system having one or more x-ray beams interrogates an object (i.e., object). A structured source producing an array of x-ray micro-sources can be imaged onto the object. Each of the one or more beams may have a high resolution, such as for example a diameter of about 15 microns or less, at the surface of the object. The illuminating one or more micro-beams can be high resolution in one dimension and/or two dimensions, and can be directed at the object to illuminate the object. The incident beam that illuminates the object has an energy that is greater than the x-ray fluorescence energy.

Abstract: Embodiments of the present disclosure provide a collimating device and a ray inspection device. The collimating device comprises: a beam guiding cylinder, a first collimator mounted at an inlet end of the beam guiding cylinder; a second collimator mounted an outlet end of the beam guiding cylinder; a beam guiding cylinder adjusting device disposed adjacent to the inlet of the beam guiding cylinder to adjust a direction of the beam guiding cylinder such that the first collimator is aligned with the first direction. The outlet end of the beam guiding cylinder is fixed to the frame and the second collimator is aligned with an object to be irradiated by a radiation beam, and the beam guiding cylinder is configured to have flexibility to allow the adjusting device to adjust a direction towards which the inlet end of the beam guiding cylinder is directed, in a direction transverse to the first direction.

Abstract: The present invention provides a ray beam guiding device for guiding a ray beam in a ray inspection apparatus. The ray beam guiding device is provided in a housing of the ray inspection apparatus, and two ends of the ray beam guiding device are connected to a front collimator and a rear collimator, respectively. The ray beam guiding device comprises a plurality of guiding walls and a guiding cavity surrounded by the guiding walls. The guiding wall is formed of a first material which is capable of absorbing rays or the first material is coated on an inside of the guiding wall, and the guiding cavity has a central axis extending in a direction from the rear collimator to the front collimator, and the ray beam guiding device further comprises at least one fin plate provided in the guiding cavity of the ray beam guiding device. The at least one fin plate is configured for blocking and/or absorbing scattered rays.

Abstract: An analysis system 10 can include an analysis tool 20, such as an XRF analyzer, a LIBS spectrometer, an XRD analyzer, or Raman spectroscopy equipment which can communicate wirelessly with other devices. The system 10 can also include remote-processor software configured to be loaded onto a handheld electronic device 23 and/or remote-computer software configured to be loaded onto a remote-computer 28. The analysis tool 20 can include a microphone 18 and/or an output device 31 to allow a user 19 to communicate conveniently with the analysis tool 20.

Abstract: A medical image data processing system comprising processing circuitry configured to receive three-dimensional medical imaging data; and process the three-dimensional medical imaging data to generate using a virtual light source an image for display, wherein the processing circuitry is configured to vary at least one parameter relevant to the virtual light source in dependence on at least one of a position of a medical device inserted into a human or animal body, a position of a viewing point for virtual endoscopic imaging, and the progress of a procedure.

Abstract: An x-ray transmission spectrometer system to be used with a compact x-ray source to measure x-ray absorption with both high spatial and high spectral resolution. The spectrometer system comprises a compact high brightness x-ray source, an optical system with a low pass spectral filter property to focus the x-rays through an object to be examined, and a spectrometer comprising a crystal analyzer (and, in some embodiments, a mosaic crystal) to disperse the transmitted beam, and in some instances an array detector. The high brightness/high flux x-ray source may have a take-off angle between 0 and 15 degrees, and be coupled to an optical system that collects and focuses the high flux x-rays to micron-scale spots, leading to high flux density. The x-ray optical system may also act as a “low-pass” filter, allowing a predetermined bandwidth of x-rays to be observed at one time while excluding the higher harmonics.

Abstract: Three or more tubular radiation detectors are arranged around an irradiation axis of radiation directed to a sample from an irradiation unit such that the end face thereof is opposed to the position irradiated with radiation. The radiation emitted from the sample enters the radiation detector through an end face and is detected. In the radiation detector, the length in the direction parallel to the straight line which is on the plane orthogonal to the irradiation axis and is perpendicular to the central axis continuously decreases from a position along the central axis to the end face. The size of each radiation detector around the irradiation axis is reduced as it approaches the end face, preventing the radiation detectors from interfering with one another and allowing the radiation detector to be closer to the sample compared to the conventional case. This makes it possible for the radiation detection apparatus to detect radiation from the sample with high efficiency.

Abstract: The invention includes an XRF analyzer with reduced x-ray attenuation between sample and target and between sample and detector. Attenuation can be reduced by removing atmospheric-air paths through which the x-rays must travel. Reduced x-ray attenuation can allow for easier detection of low-atomic-number elements. Cost saving can be achieved by reducing the number of x-ray windows.

Abstract: A radiation image acquisition device includes: a radiation source which emits radiation; a wavelength conversion member which generates scintillation light according to incidence of the radiation emitted from the radiation source and transmitted by an object; first imaging means which condenses and images the scintillation light emitted from an entrance surface for the radiation in the wavelength conversion member; and second imaging means which condenses and images the scintillation light emitted from a surface opposite to the entrance surface in the wavelength conversion member, wherein one of the first imaging means and the second imaging means condenses the scintillation light emitted from the entrance surface or the opposite surface in a direction of a normal thereto, and wherein the other condenses the scintillation light emitted from the entrance surface or the opposite surface in a direction inclined with respect to a direction of a normal thereto.

Abstract: Methods and systems for feed-forward of multi-layer and multi-process information using XPS and XRF technolgies are disclosed. In an example, a method of thin film characterization includes measuring first XPS and XRF intensity signals for a sample having a first layer above a substrate. A thickness of the first layer is determined based on the first XPS and XRF intensity signals. The information for the first layer and for the substrate is combined to estimate an effective substrate. Second XPS and XRF intensity signals are measured for a sample having a second layer above the first layer above the substrate. The method also involves determining a thickness of the second layer based on the second XPS and XRF intensity signals, the thickness accounting for the effective substrate.

Abstract: A radiographic imaging apparatus includes an electronic cassette and a console device for radio communication with the electronic cassette. The electronic cassette includes a transmitter for transmitting a beacon for the radio communication. A regulation unit regulates beaconing of the beacon in a predetermined specific state among plural operational states. The console device includes a receiver for receiving the beacon. A communication failure detector checks whether a communication failure has occurred in the radio communication according to a receiving state of the beacon in the receiver. A display panel or speaker generates alert notification to notify the communication failure assuming that the communication failure detector judges that the communication failure has occurred. An operational state detector checks whether the electronic cassette is in the specific state.

Abstract: An apparatus includes at least one X-ray source that emits X-rays toward a sample, an X-ray fluorescence (XRF) detector that detects X-ray radiation scattered from the sample, an internal standard that emits scattered X-ray radiation in response to X-rays emitted from the at least one X-ray source, and a carriage assembly that translates the at least one X-ray source and XRF detector between a sample measurement position and an internal standard measurement position.

Abstract: A measurement line evaluation unit (23): calculates, for all of specified measurement lines, estimated measured intensities by theoretical calculation on the basis of a composition and/or a thickness specified for a thin film; changes, by a predetermined amount, only an estimated measured intensity of one measurement line, and obtains quantitative values of the composition and/or the thickness of the thin film after change of the estimated measured intensity, for each changed measurement line, by a fundamental parameter method; and estimates a quantitative error and/or determines possibility of analysis, on the basis of the obtained quantitative values and the specified composition and/or the specified thickness.

Abstract: A portable XRF analyzer includes a hand shield and a handle. In one embodiment, the XRF analyzer further comprises a power component spaced-apart from an engine component. The handle and the hand shield extend in parallel between the engine component and the power component, attaching the engine component to the power component. In another embodiment, the XRF analyzer further comprises two housing portions, each integrally formed in a single, monolithic body formed together at the same time. The two housing portions are joined together to form an XRF analyzer housing. In another embodiment, the hand shield is shorter than the handle.

Abstract: Periodic spatial patterns of x-ray illumination are used to gather information about periodic objects. The structured illumination may be created using the interaction of a coherent or partially coherent x-ray source with a beam splitting grating to create a Talbot interference pattern with periodic structure. The object having periodic structures to be measured is then placed into the structured illumination, and the ensemble of signals from the multiple illumination spots is analyzed to determine various properties of the object and its structures. Applications to x-ray absorption/transmission, small angle x-ray scattering, x-ray fluorescence, x-ray reflectance, and x-ray diffraction are all possible using the method of the invention.

Abstract: A system and method for reconstructing locations of sensors in radiopaque images may estimate sensor locations in two groups of good radiographic images and use them to estimate candidate sensor locations in a group of bad radiographic images B1, . . . , Bn in which many sensors are indiscernible. A first iterative process pervading from the first image B1 to the last image Bn may determine a first set of candidate sensor locations, and a second iterative process pervading from the last image Bn to the first image B1 may determine a second set of candidate sensor location for each image. Location of a sensor in each image Bi may be estimated based on the pertinent first and second candidate sensor locations related, or determined for, the particular sensor in the particular image. Sensor locations still missing in the series of images are, then, estimated using the already estimated sensor locations.

Abstract: A sample plate is for X-ray analysis to which a sample is fixed in performing an analysis using an X-ray fluorescent analyzer, and includes: a plate-like body that supports the sample; and a code-indicated portion provided on the plate-like body in which information on the sample is encoded and indicated.

Abstract: An XRF analyzer can include a rotatable filter structure to separately position at least two different x-ray source modification regions between an x-ray source and a focal point and at least two different x-ray detector modification regions between an x-ray detector and the focal point. An XRF analyzer can include a rotatable source filter wheel between an x-ray source and a focal point and a rotatable detector filter wheel between an x-ray detector and the focal point. The source filter wheel can include multiple x-ray source modification regions. The detector filter wheel can include multiple x-ray detector modification regions. A gear wheel can mesh with a gear on the source filter wheel and with a gear on the detector filter wheel and can cause the source filter wheel and the detector filter wheel to rotate together.

Abstract: Disclosed herein is a device for controlling a sample temperature during photoelectric measurement of the sample. The device for controlling a sample temperature during photoelectric measurement of the sample includes: a sample stage to which a measurement target sample is fixed; a cooling unit for cooling the sample by injecting air; and a temperature measuring unit having a thermometer that measures a temperature of the sample. The device has an effect of easily controlling the temperature of a measurement target sample by employing a direct control method for a sample temperature, in which air or cooled air is injected to the sample.

Abstract: A hybrid x-ray device for mounted and portable use. The hybrid x-ray device can include a housing, an x-ray source, a support connector, a shield connector, and an interlock. The x-ray source is coupled to the housing and configured to generate x-ray radiation. The support connector is coupled to the housing and configured to mechanically couple to a support arm. The shield connector is coupled to the housing and configured to mechanically couple to a removable radiation shield. The interlock is coupled to the x-ray source and configured to disable activation of the x-ray source when both: (a) the support connector is mechanically uncoupled from the support arm, and (b) the shield connector is mechanically uncoupled from the removable radiation shield.

Abstract: In an analyzing apparatus for analyzing compositions using a fluorescent X-ray in the atmosphere, a calibration to eliminate influences caused by a time-dependent change is performed. The analyzing apparatus includes an emission unit, a detection unit, an environment measurement unit, and a time-dependent change calculation unit. The emission unit emits a primary X-ray. The detection unit detects an intensity of a secondary X-ray passing through the atmosphere. The environment measurement unit measures an environment parameter defining the atmosphere. The time-dependent change calculation unit calculates a time-dependent change of the intensity of the secondary X-ray between a first timing and a second timing, based on a first environment parameter, a first intensity of the secondary X-ray, a second environment parameter, and a second intensity of the secondary X-ray.

Abstract: A method includes directing an X-ray beam to be incident at a grazing angle on a location on a surface of the sample. An X-ray fluorescence excited at the location is measured. A reflection angle of the X-ray beam from the surface and a transmission angle of the X-ray beam are measured. An angle of incidence of the X-ray beam on the surface is evaluated using the measured reflection and transmission angles, and the measured X-ray fluorescence is analyzed using the evaluated angle of incidence.