mhurhangee/ep-ind-claims huggingface dataset:
LIDAR device for scanning a region to be scanned by means of at least one beam, comprising at least one radiation source for generating the at least one beam (3, 5), comprising at least three mirrors (6, 7) rotatable about an axis of rotation for deflecting beams reflected at an object onto a detector oriented perpendicularly to the axis of rotation, wherein the at least three mirrors (6, 7) have a reflectivity for respective wavelength ranges and are connected to one another at an angle in a region of the axis of rotation (R, 8), wherein the at least one radiation source is oriented perpendicularly to the axis of rotation and the at least three mirrors (6, 7) are configured to deflect the at least one generated beam for scanning the region to be scanned; and wherein the reflected beams are reflectable perpendicularly to the axis of rotation of the rotatable mirror (6, 7); wherein the at least three mirrors (6, 7) are connected to one another indirectly rotationally symmetrically at a drive shaft, wherein the at least three mirrors (6, 7) are Bragg mirrors; and wherein each mirror (6, 7) has an active angle range around the axis of rotation and is configured to reflect beams incident within the active angle range onto the detector; and wherein each mirror (6, 7) transmits beams incident outside the active angle range onto at least one further mirror (6, 7).
A heat transfer element having at least one flexible mat on which at least one distributor and at least one collector are arranged, said flexible mat having at least one flow channel, at least one end face (4, 8), at least one longitudinal face, and at least one width, at least one distributor and at least one collector being arranged on the same end face of the flexible mat, characterised in that at least one longitudinal face is arranged on a distributor at an acute angle with respect to at least one longitudinal axis of at least one distributor and/or is arranged in an obtuse angle with respect to at least one longitudinal axis of at least one distributor and/or in that at least one longitudinal face is arranged on a collector at an acute angle with respect to at least one longitudinal axis of at least one collector and/or is arranged in an obtuse angle with respect to at least one longitudinal axis of at least one collector. at least one longitudinal face is arranged on a distributor at an acute angle with respect to at least one longitudinal axis of at least one distributor and/or is arranged in an obtuse angle with respect to at least one longitudinal axis of at least one distributor and/or in that at least one longitudinal face is arranged on a collector at an acute angle with respect to at least one longitudinal axis of at least one collector and/or is arranged in an obtuse angle with respect to at least one longitudinal axis of at least one collector.
A modular architectural assembly, comprising: a substantially horizontal work surface having an upper side and a lower side, the work surface shaped to define at least one opening in the work surface; a lower vertical section (118, 164) extending a distance below the work surface from the opening of the work surface, the lower vertical section (118, 164) housing a resource tray having one or more power receptacles and data receptacles (146, 192), wherein the opening provides access to the resource tray within an interior of the lower vertical section (118, 164) and wherein the resource tray is configured to house one or more user wires extending to the upper or lower side of the work surface; and an access component configured to enclose the opening of the work surface, the access component being selectively changeable from a closed configuration wherein the opening is partitioned from the work surface to an open configuration wherein the opening is accessible from the work surface wherein the access component is a wire cover configured to overlie the opening to form a substantially flat surface across the work surface and the wire cover, wherein the modular architectural assembly is characterized in that the resource tray is at least partially defined by one or more tray panels, and wherein one or more of a rear edge of the opening of the work surface and an upper edge of a corresponding tray panel are angled and form an angled passage leading from an area outside of the resource tray and underneath the work surface to the interior of the resource tray. a substantially horizontal work surface having an upper side and a lower side, the work surface shaped to define at least one opening in the work surface; a lower vertical section (118, 164) extending a distance below the work surface from the opening of the work surface, the lower vertical section (118, 164) housing a resource tray having one or more power receptacles and data receptacles (146, 192), wherein the opening provides access to the resource tray within an interior of the lower vertical section (118, 164) and wherein the resource tray is configured to house one or more user wires extending to the upper or lower side of the work surface; and an access component configured to enclose the opening of the work surface, the access component being selectively changeable from a closed configuration wherein the opening is partitioned from the work surface to an open configuration wherein the opening is accessible from the work surface wherein the access component is a wire cover configured to overlie the opening to form a substantially flat surface across the work surface and the wire cover, wherein the modular architectural assembly is characterized in that the resource tray is at least partially defined by one or more tray panels, and wherein one or more of a rear edge of the opening of the work surface and an upper edge of a corresponding tray panel are angled and form an angled passage leading from an area outside of the resource tray and underneath the work surface to the interior of the resource tray.
An image-forming device, comprising: a developer-accommodating section that accommodates a developer, the developer-accommodating section defining a plurality of detection light transmitting points through which a detection light is transmitted to detect an amount of developer accommodated in the developer-accommodating section; and a residual developer detecting unit that has a light-emitting unit configured to irradiate a detection light through one of the detection light transmitting points and a light-receiving unit configured to receive the detection light that has passed through the subject one detection light transmitting point, wherein the developer-accommodating section is movably disposed, and the detection light transmitting points are configured to be switched through movement of the developer-accommodating section and a determining unit configured to determine the amount of developer in the developer-accommodating section based on the movement of the developer-accommodating section and on a detection result for each of at least two of the different detection light transmitting points indicating whether the light-receiving unit has received the detection light that has passed through the each of the at least two detection light transmitting points. a developer-accommodating section that accommodates a developer, the developer-accommodating section defining a plurality of detection light transmitting points through which a detection light is transmitted to detect an amount of developer accommodated in the developer-accommodating section; and a residual developer detecting unit that has a light-emitting unit configured to irradiate a detection light through one of the detection light transmitting points and a light-receiving unit configured to receive the detection light that has passed through the subject one detection light transmitting point, wherein the developer-accommodating section is movably disposed, and the detection light transmitting points are configured to be switched through movement of the developer-accommodating section and a determining unit configured to determine the amount of developer in the developer-accommodating section based on the movement of the developer-accommodating section and on a detection result for each of at least two of the different detection light transmitting points indicating whether the light-receiving unit has received the detection light that has passed through the each of the at least two detection light transmitting points.
A method for assessing a concentration of an analyte present within an environment, wherein said method comprises: (a) obtaining, by a voltammetry device, voltammetric data by multi pulse cyclic voltammetry, with repeated series of pulses of a waveform, (b) determining a voltammogram from said data, (c) determining, by a computing system, a detection value based on said voltammogram, wherein said detection value provides an indication about said concentration, and (d) providing information about said detection value or said concentration to a computer or for display to a user. (a) obtaining, by a voltammetry device, voltammetric data by multi pulse cyclic voltammetry, with repeated series of pulses of a waveform, (b) determining a voltammogram from said data, (c) determining, by a computing system, a detection value based on said voltammogram, wherein said detection value provides an indication about said concentration, and (d) providing information about said detection value or said concentration to a computer or for display to a user.
Device for detecting fires, comprising - a housing, - a measuring chamber arranged in the housing, - one or more smoke inlet openings that are arranged in the housing, open into the measuring chamber and are intended to guide smoke into the measuring chamber, - a detector for detecting the smoke in the measuring chamber and for generating corresponding signals, and - a signal transmitter that can be activated depending on the signals generated by the detector and is intended for generating a warning signal, - an infrared receiver for receiving infrared signals which can be emitted by an infrared remote control unit and by means of which the signal transmitter can be deactivated, - a control unit for turning the infrared receiver on and off or for clocking said receiver, characterised in that the infrared receiver has a sensitivity of between 36 and 38 kHz. - a housing, - a measuring chamber arranged in the housing, - one or more smoke inlet openings that are arranged in the housing, open into the measuring chamber and are intended to guide smoke into the measuring chamber, - a detector for detecting the smoke in the measuring chamber and for generating corresponding signals, and - a signal transmitter that can be activated depending on the signals generated by the detector and is intended for generating a warning signal, - an infrared receiver for receiving infrared signals which can be emitted by an infrared remote control unit and by means of which the signal transmitter can be deactivated, - a control unit for turning the infrared receiver on and off or for clocking said receiver,
A tracer projectile intended for small-caliber and medium-caliber weapons, comprising a jacketed metal core comprising a tracer device disposed inside a cavity in the metal core in the rear part of the projectile, the cross-sectional area S 1, S 2 of the cavity is polygon-shaped for increased adhesion between the tracer device and the cavity, characterized in that the surface roughness (Ra) of the cavity is in the range 0.2-3.2 μm, and wherein the tracer device is applied in the polygon-shaped cavity by a pressing process.
An image pickup device comprising a two-dimensional array of pixels that are semiconductor light-receiving elements made of group lll-V semiconductors formed on an InP substrate, the image pickup device being configured to capture an image of an object by receiving light in a near-infrared region reflected by the object, wherein each of the semiconductor light-receiving elements includes a light-receiving layer that is formed on the InP substrate and has a multi-quantum well structure composed of group III-V semiconductors; and a diffusion concentration distribution control layer made of group III-V semiconductors is disposed in contact with the light-receiving layer on a side of the light-receiving layer so as to be opposite the side adjacent the InP substrate, the light-receiving layer has a band gap wavelength of 1.65 to 3 μm, the diffusion concentration distribution control layer has a lower band gap energy than InP, a pn junction is formed in the light receiving layer of each of the pixels by selectively diffusing a p-type impurity element through the diffusion concentration distribution control layer, the light-receiving layer has a concentration of the p-type impurity element of 5 × 10 16 /cm 3 or less, and the diffusion concentration distribution control layer has a distribution of a concentration of the p-type impurity element decreasing from a surface opposite the light-receiving layer to a surface close to the light-receiving layer, the concentration of the p-type impurity element being 5 × 10 16 /cm 3 or less at the surface close to the light-receiving layer.
A take-up unit for a circular knitting machine adapted to collect a knitted fabric knitted by a knitting unit of a circular knitting machine, the take-up unit comprising: a base provided at a bottom portion of the take-up unit; side members (302, 303) respectively provided on both ends of the base; a take-up roller rotatably provided between the two side members (302, 303); two arm rotation shafts rotatably connected respectively to opposing surfaces of the two side members (302, 303); two arms provided so as to be rotatable parallel to each other about the two arm rotation shafts; a drive roller provided between the two arms so as to be rotationally driven; and a roller drive device adapted to rotationally drive the drive roller; an arm drive device; and a stopper that is provided on a rotational trajectory of the arms and the drive roller, and arranged to come into contact with each of the arms or with the drive roller to stop rotation of the arms and the drive roller, characterized in that the arm drive device is connected to the arm rotation shafts, the arm drive device being capable of driving the arm rotations shaft, and rotating the arms with a constant torque selectively in either a forward direction or a backward direction, the forward direction being a direction in which the drive roller moves toward the take-up roller, and the backward direction being a direction in which the drive roller moves away from the take-up roller.. a base provided at a bottom portion of the take-up unit; side members (302, 303) respectively provided on both ends of the base; a take-up roller rotatably provided between the two side members (302, 303); two arm rotation shafts rotatably connected respectively to opposing surfaces of the two side members (302, 303); two arms provided so as to be rotatable parallel to each other about the two arm rotation shafts; a drive roller provided between the two arms so as to be rotationally driven; and a roller drive device adapted to rotationally drive the drive roller; an arm drive device; and a stopper that is provided on a rotational trajectory of the arms and the drive roller, and arranged to come into contact with each of the arms or with the drive roller to stop rotation of the arms and the drive roller, characterized in that the arm drive device is connected to the arm rotation shafts, the arm drive device being capable of driving the arm rotations shaft, and rotating the arms with a constant torque selectively in either a forward direction or a backward direction, the forward direction being a direction in which the drive roller moves toward the take-up roller, and the backward direction being a direction in which the drive roller moves away from the take-up roller..
An apparatus for treating a substrate, the apparatus including: a pre-supercritical process zone (130; 230) for receiving a supercritical fluid therein; and a supercritical process zone (120; 220) in fluid communication with the pre-supercritical process zone (130; 230), the supercritical process zone (120; 220) being configured to enable treating a substrate (110; 210) therein using the supercritical fluid, wherein the pre-supercritical process zone (130; 230) is arranged and structured to permit expansion of the supercritical fluid before the supercritical fluid reaches the supercritical process zone (120; 220), and wherein the pre-supercritical process zone (130; 230) and the supercritical process zones (120; 220) are divided from each other, characterized in that the pre-supercritical process zone (130; 230) and the supercritical process zone (120; 220) are physically divided from each other by a blocking plate (140; 240), and the apparatus further comprises supporting parts (144; 244) disposed along a circumferential edge of the blocking plate (140; 240) to support the blocking plate (140; 240) at a predetermined distance above a bottom surface of the pre-supercritical process zone (130; 230), the supporting parts (144; 244) being spaced apart from each other. a pre-supercritical process zone (130; 230) for receiving a supercritical fluid therein; and a supercritical process zone (120; 220) in fluid communication with the pre-supercritical process zone (130; 230), the supercritical process zone (120; 220) being configured to enable treating a substrate (110; 210) therein using the supercritical fluid,
A method for detecting radiation emitted from one or more organs in a body undergoing internal radionuclide therapy, and transmitting signals characterizing the detected radiation, the method comprising providing a garment configured to be secured around the body during positron emission tomography-computed tomography (PET/CT) and to permit imaging a portion of the body through the garment, wherein the garment further comprises grid markings that are configured to be visible in computed tomography images through the garment; marking the body with a plurality of fiducial markers; attaching the garment to the body in a repeatable position using the fiducial markers; imaging the body with the garment in the repeatable position using a PET/CT scanner to generate images showing the organs and the grid markings; fixing a plurality of radiation detectors to the garment in locations based on the image obtained from the PET/CT scanner, wherein the detectors are positioned to detect radiation emitted from the organ, and wherein the detectors are operatively connectable to the computer and configured to transmit signals characterizing the radiation detected by the detectors to the computer; and attaching the garment to the body in the repeatable position after the body has been injected with a radionuclide and transmitting signals corresponding to the radiation detected by the detectors to the computer. providing a garment configured to be secured around the body during positron emission tomography-computed tomography (PET/CT) and to permit imaging a portion of the body through the garment, wherein the garment further comprises grid markings that are configured to be visible in computed tomography images through the garment; marking the body with a plurality of fiducial markers; attaching the garment to the body in a repeatable position using the fiducial markers; imaging the body with the garment in the repeatable position using a PET/CT scanner to generate images showing the organs and the grid markings; fixing a plurality of radiation detectors to the garment in locations based on the image obtained from the PET/CT scanner, wherein the detectors are positioned to detect radiation emitted from the organ, and wherein the detectors are operatively connectable to the computer and configured to transmit signals characterizing the radiation detected by the detectors to the computer; and attaching the garment to the body in the repeatable position after the body has been injected with a radionuclide and transmitting signals corresponding to the radiation detected by the detectors to the computer.
A method for reinforcing a fouling control coating, comprising the steps of: (i) forming a reinforcing coating by applying and curing a reinforcing coating composition [o] comprising - an organopolysiloxane having two or more silanol groups or hydrolyzable groups in the molecule, and - a pyrithione salt compound of formula: wherein R 1 each independently is H, optionally halogenated C 1-6 -alkyl, C 3-6 -cycloalkyl, C 2-6 -alkenyl, C 6 -aryl or C 1-6 -alkoxy, M is a metal selected from Cu, Zn, Na, Mg, Ca, Ba, Fe and Sr, and n is the valence of the metal M); and (ii) providing, onto the reinforcing coating, a fouling control coating formed by applying and curing a fouling control coating composition [x] comprising - an organopolysiloxane having two or more silanol groups or hydrolyzable groups in the molecule, and - an antifouling agent; wherein the content of the pyrithione salt compound in the reinforcing coating is not more than 10 wt%, wherein the reinforcing coating gives reinforcement to the fouling control coating and wherein the content (wt.-%) of the pyrithione salt compound in the reinforcing coating is smaller than that of the antifouling agent in the fouling control coating. (i) forming a reinforcing coating by applying and curing a reinforcing coating composition [o] comprising - an organopolysiloxane having two or more silanol groups or hydrolyzable groups in the molecule, and - a pyrithione salt compound of formula: wherein R 1 each independently is H, optionally halogenated C 1-6 -alkyl, C 3-6 -cycloalkyl, C 2-6 -alkenyl, C 6 -aryl or C 1-6 -alkoxy, M is a metal selected from Cu, Zn, Na, Mg, Ca, Ba, Fe and Sr, and n is the valence of the metal M); and - an organopolysiloxane having two or more silanol groups or hydrolyzable groups in the molecule, and - a pyrithione salt compound of formula: wherein R 1 each independently is H, optionally halogenated C 1-6 -alkyl, C 3-6 -cycloalkyl, C 2-6 -alkenyl, C 6 -aryl or C 1-6 -alkoxy, M is a metal selected from Cu, Zn, Na, Mg, Ca, Ba, Fe and Sr, and n is the valence of the metal M); and R 1 each independently is H, optionally halogenated C 1-6 -alkyl, C 3-6 -cycloalkyl, C 2-6 -alkenyl, C 6 -aryl or C 1-6 -alkoxy, M is a metal selected from Cu, Zn, Na, Mg, Ca, Ba, Fe and Sr, and n is the valence of the metal M); and (ii) providing, onto the reinforcing coating, a fouling control coating formed by applying and curing a fouling control coating composition [x] comprising - an organopolysiloxane having two or more silanol groups or hydrolyzable groups in the molecule, and - an antifouling agent; wherein the content of the pyrithione salt compound in the reinforcing coating is not more than 10 wt%, wherein the reinforcing coating gives reinforcement to the fouling control coating and wherein the content (wt.-%) of the pyrithione salt compound in the reinforcing coating is smaller than that of the antifouling agent in the fouling control coating. - an organopolysiloxane having two or more silanol groups or hydrolyzable groups in the molecule, and - an antifouling agent;