mhurhangee/ep-ind-claims huggingface dataset:
A radiographic imaging apparatus, comprising: a radiation irradiator configured to irradiate radiation to an object; a radiation detector configured to detect an intensity of the radiation passing through the object; a loader configured to load the object; characterised in a controller configured to obtain one or more zones of the object by dividing the object based on the intensity of the radiation; wherein the controller is further configured to change at least one of a movement speed of the loader and a range of radiation irradiation of the radiation irradiator according to a change in the intensity of the radiation with respect to a zone of the object, when the change in the intensity of the radiation in the zone is greater than or equal to a threshold value. a radiation irradiator configured to irradiate radiation to an object; a radiation detector configured to detect an intensity of the radiation passing through the object; a loader configured to load the object; characterised in a controller configured to obtain one or more zones of the object by dividing the object based on the intensity of the radiation; wherein the controller is further configured to change at least one of a movement speed of the loader and a range of radiation irradiation of the radiation irradiator according to a change in the intensity of the radiation with respect to a zone of the object, when the change in the intensity of the radiation in the zone is greater than or equal to a threshold value.
Fluid system for conducting at least one fluid, comprising at least one fluid-conducting bearing part extending axially with respect to an axis of longitudinal extent, and at least one fluid-conducting rotary part mounted on the bearing part so as to be rotatable about the axis of longitudinal extent, wherein the bearing part and the rotary part are fluidically connected to each other via at least one fluid connection, wherein at least one axially displaceably mounted sealing element is arranged between the bearing part and the rotary part, wherein the sealing element annularly surrounds the bearing part, wherein the sealing element is arranged between the fluid connection and at least one bearing surface of the fluid system, which bearing surface is assigned to the sealing element, wherein the sealing element has at least one hydraulic inner surface to which the fluid can be applied and which faces the fluid connection, wherein pressurization of the hydraulic inner surface causes a hydraulic force to be exertable on the sealing element in the direction of the bearing surface assigned to the sealing element, wherein the sealing element is configured in multiple parts and has at least one axially displaceably mounted sliding ring surrounding the bearing part and at least one further sealing element, wherein the further sealing element seals off the sliding ring from at least one other component of the fluid system, wherein the sealing element furthermore has at least one hydraulic outer surface which lies opposite the hydraulic inner surface and can be acted upon by an ambient pressure, wherein the hydraulic outer surface together with the at least one bearing surface assigned to the sealing element forms an annular gap, wherein the annular gap is fluidically connected to an environment of the fluid system, wherein the further sealing element seals off the sliding ring from a component, selected from the group consisting of the bearing part and the rotary part, characterized in that the sliding ring is not sealed off from the respective other component of the group consisting of the bearing part and the rotary part, and therefore fluid can pass between the sliding ring and the other component, in that the sliding ring is produced from at least one rigid material, and in that the at least one further sealing element is produced from at least one deformable material.
Use of a genetic marker for determining meat quality traits of pigs, comprising a polynucleotide consisting of 5 to 300 consecutive nucleotides in the polynucleotide of SEQ ID NO:1, comprising the nucleotides from the 1524 th to the 1527 th positions in the polynucleotide of SEQ ID NO: 1, or a polynucleotide complementary thereto.
Method for automatic detection of refrigerant filling quantities in cooling circuits, preferably a heat pump, with a compressor, a condenser, an expansion valve with variable cross-section as well as detection of a degree of opening, an evaporator, a first pressure sensor between the compressor and the expansion valve, a first temperature sensor between the condenser and the expansion valve, a second pressure sensor as well as a second temperature sensor between the evaporator and the compressor, characterized in that the overheating ΔT O is determined from the pressure determined by the second pressure sensor and the temperatures of the second temperature sensor, the variable cross-section of the expansion valve is altered until a predetermined overheating ΔT O,soll occurs, whereupon one or both of the following checks are carried out: a) the degree of opening of the expansion valve is determined for a predetermined overheating ΔT O,soll, a target degree of opening of the expansion valve is determined for the overheating ΔT O,soll from a stored characteristic map or algorithm, the difference between the measured degree of opening and the target degree of opening of the expansion valve is determined, wherein for a predetermined deviation between the detected degree of opening and the target degree of opening of the expansion valve there is a shortage of refrigerant or a surplus of refrigerant, b) the undercooling ΔT U is determined from the pressure detected by the first pressure sensor and the temperatures of the first temperature sensor, a target undercooling ΔT U,soll is determined for the overheating ΔT O,soll from a stored characteristic map or algorithm, the difference between the measured undercooling ΔT U and the target undercooling ΔT U,soll is determined, wherein for a predetermined deviation between the measured undercooling ΔT U and the target undercooling ΔT U,soll there is a shortage of refrigerant or a surplus of refrigerant. a) the degree of opening of the expansion valve is determined for a predetermined overheating ΔT O,soll, a target degree of opening of the expansion valve is determined for the overheating ΔT O,soll from a stored characteristic map or algorithm, the difference between the measured degree of opening and the target degree of opening of the expansion valve is determined, wherein for a predetermined deviation between the detected degree of opening and the target degree of opening of the expansion valve there is a shortage of refrigerant or a surplus of refrigerant, b) the undercooling ΔT U is determined from the pressure detected by the first pressure sensor and the temperatures of the first temperature sensor,
A fertilizer composition comprising: a base fertilizer granule, wherein the base fertilizer is a phosphate; a barrier coating covering at least a portion of an outer surface of the base fertilizer granule, the barrier coating being selected from the group consisting of urea, langbeinite, ammonium sulfate, potassium sulfate, magnesium sulfate, calcium sulfate, elemental sulfur, silicates, respective hydrates, and combinations thereof; characterized in that it further comprises one or more micronutrients dispersed within the barrier coating such that the one or more micronutrients are isolated from the base fertilizer granule; and a polymer coating covering at least a portion of the barrier coating, and one or more additional micronutrients covering at least a portion of the outer surface of the polymer coating. a base fertilizer granule, wherein the base fertilizer is a phosphate; a barrier coating covering at least a portion of an outer surface of the base fertilizer granule, the barrier coating being selected from the group consisting of urea, langbeinite, ammonium sulfate, potassium sulfate, magnesium sulfate, calcium sulfate, elemental sulfur, silicates, respective hydrates, and combinations thereof; characterized in that it further comprises one or more micronutrients dispersed within the barrier coating such that the one or more micronutrients are isolated from the base fertilizer granule; and a polymer coating covering at least a portion of the barrier coating, and one or more additional micronutrients covering at least a portion of the outer surface of the polymer coating.
Method for fastening a flexible sheet-like structure on a tubular winding shaft, comprising the steps: 1) introducing, in a circumference of the tubular winding shaft, at least one aperture which passes through a wall of the winding shaft, a width B_S of the aperture being greater than a thickness of the flexible sheet-like structure, 2) producing bendable tabs on the flexible sheet-like structure by perforations extending in the longitudinal direction L of the sheet-like structure, 3) inserting the tab into the aperture of the winding shaft, 4) the flexible sheet-like structure is fixed to the winding shaft by a bushing, in particular a bearing bushing, to be introduced into the end of the winding shaft, and 5) the aperture is manufactured as a recess open towards an end of the winding shaft. 1) introducing, in a circumference of the tubular winding shaft, at least one aperture which passes through a wall of the winding shaft, a width B_S of the aperture being greater than a thickness of the flexible sheet-like structure, 2) producing bendable tabs on the flexible sheet-like structure by perforations extending in the longitudinal direction L of the sheet-like structure, 3) inserting the tab into the aperture of the winding shaft, 4) the flexible sheet-like structure is fixed to the winding shaft by a bushing, in particular a bearing bushing, to be introduced into the end of the winding shaft, and 5) the aperture is manufactured as a recess open towards an end of the winding shaft.
A tool clamping method for a tool holder, the tool holder comprising: a clamping member for clamping and holding a tool; a holder body having, at a leading end thereof, a receiving portion for receiving the clamping member along an axis; and an operational member for attaching the clamping member to the holder body; said method comprising the step of moving the clamping member towards the holder body in the axial direction by an operation of the operational member, thus increasing a clamping of the clamping member by the holder body due to a pressed contact therebetween, characterized in that the method comprises the step of when the clamping member clamps the tool during said moving of the clamping member, applying vibration to a contact portion between the clamping member and the holder body, to axially align the clamping member with the holder body. a clamping member for clamping and holding a tool; a holder body having, at a leading end thereof, a receiving portion for receiving the clamping member along an axis; and an operational member for attaching the clamping member to the holder body; said method comprising the step of moving the clamping member towards the holder body in the axial direction by an operation of the operational member, thus increasing a clamping of the clamping member by the holder body due to a pressed contact therebetween, characterized in that the method comprises the step of when the clamping member clamps the tool during said moving of the clamping member, applying vibration to a contact portion between the clamping member and the holder body, to axially align the clamping member with the holder body.
A substrate working device comprising: an imaging device configured to image a substrate; a memory device configured to memorize various information; and an image processing device configured to perform, for a leading substrate among multiple of the substrates that are a target for specified work, leading-substrate processing of performing imaging processing for detecting a specified detection target required for the specified work with respect to a leading image obtained by imaging the leading substrate using the imaging device, acquiring region information related to a region in the leading image in which the detection target was detected, and memorizing the region information in the memory device, and, for subsequent substrates among the multiple of the substrates that are the target for specified work except for the leading substrate, subsequent-substrate processing of setting a partial processing region in a subsequent image of the subsequent substrate captured by the imaging device based on the region information memorized in the memory device, and performing the image processing with respect to the set processing region. an imaging device configured to image a substrate; a memory device configured to memorize various information; and an image processing device configured to perform, for a leading substrate among multiple of the substrates that are a target for specified work, leading-substrate processing of performing imaging processing for detecting a specified detection target required for the specified work with respect to a leading image obtained by imaging the leading substrate using the imaging device, acquiring region information related to a region in the leading image in which the detection target was detected, and memorizing the region information in the memory device, and, for subsequent substrates among the multiple of the substrates that are the target for specified work except for the leading substrate, subsequent-substrate processing of setting a partial processing region in a subsequent image of the subsequent substrate captured by the imaging device based on the region information memorized in the memory device, and performing the image processing with respect to the set processing region.
A system (250, 250') for enhancing the efficiency of administering microencapsulated therapeutic agents and delivering a therapeutically effective amount of the therapeutic agent to the wall of a biological conduit in a treatment region of interest, the biological conduit having a diameter, comprising: a catheter configured to be inserted at least partially within the biological conduit and comprising a lumen; an inflatable balloon attached proximate a distal end of the catheter and comprising: an inflatable section, an intermediate section in the inflatable section and comprising a plurality of apertures therethrough, a distal end having an interior surface, and an ultrasound reflector attached to the interior surface of the distal end of the inflatable balloon; a therapeutic agent infusion lumen in fluid communication with the plurality of apertures; a balloon infusion lumen in fluid communication with an air supply, and with the inflatable section and intermediate section of the inflatable balloon; a therapeutic agent reservoir comprising microencapsulated therapeutic agent therein and in fluid communication with the therapeutic agent infusion lumen; a pumping mechanism in fluid communication with the therapeutic agent reservoir, the therapeutic agent infusion lumen and the apertures; and at least one ultrasonic transducer disposed on the catheter at a location proximal to the inflatable balloon and in operational communication with the balloon infusion lumen and the ultrasound reflector. a catheter configured to be inserted at least partially within the biological conduit and comprising a lumen; an inflatable balloon attached proximate a distal end of the catheter and comprising: an inflatable section, an intermediate section in the inflatable section and comprising a plurality of apertures therethrough, a distal end having an interior surface, and an inflatable section, an intermediate section in the inflatable section and comprising a plurality of apertures therethrough, a distal end having an interior surface, and an ultrasound reflector attached to the interior surface of the distal end of the inflatable balloon; a therapeutic agent infusion lumen in fluid communication with the plurality of apertures; a balloon infusion lumen in fluid communication with an air supply, and with the inflatable section and intermediate section of the inflatable balloon; a therapeutic agent reservoir comprising microencapsulated therapeutic agent therein and in fluid communication with the therapeutic agent infusion lumen; a pumping mechanism in fluid communication with the therapeutic agent reservoir, the therapeutic agent infusion lumen and the apertures; and at least one ultrasonic transducer disposed on the catheter at a location proximal to the inflatable balloon and in operational communication with the balloon infusion lumen and the ultrasound reflector.
A valve assembly for a vehicle, the valve assembly comprising: - a fastening element provided with a fastening body and a plurality of fastening islands, the fastening body being of longitudinal shape along a direction of elongation, and configured to be fastened in a vehicle, each fastening island having a face, said fastening face; - at least one valve provided with a casing, said valve being configured to be removably mounted, in a position said mounted position, to one of the fastening islands by the fastening face of said fastening island, via attachment means, said attachment means being configured to mount the valve to one of the fastening islands according to a sliding movement and/or a rotating movement, characterised in that each fastening island is mechanically bonded to the fastening body by flexible means. - a fastening element provided with a fastening body and a plurality of fastening islands, the fastening body being of longitudinal shape along a direction of elongation, and configured to be fastened in a vehicle, each fastening island having a face, said fastening face; - at least one valve provided with a casing, said valve being configured to be removably mounted, in a position said mounted position, to one of the fastening islands by the fastening face of said fastening island, via attachment means, said attachment means being configured to mount the valve to one of the fastening islands according to a sliding movement and/or a rotating movement,
Agricultural attachment with a cutter bar that can be driven in an oscillating manner by a hydraulic motor via an eccentric gear mechanism, wherein the hydraulic motor can be connected via a supply line and a return line to a hydraulic circuit that is supplied with a hydrostatic fluid by a hydraulic pump, wherein a changeover valve is integrated into the hydraulic circuit, which has at least two different switching positions (A, B) between which the changeover valve can be adjusted back and forth, and the hydraulic motor is driven in a first direction of rotation in the first switching position of the changeover valve and in a second direction of rotation opposite to the first direction of rotation in the second switching position of the changeover valve, characterized in that the changeover valve switches in a pressure-dependent manner.
Mounting flange (10, 10') for the installation of junction and/or wallplate boxes for electrical systems, especially suitable for installation on panels intended for the formation of lightweight walls of the plasterboard, wood or plastic laminate type, comprising a plate-shaped element or flange (12, 12') provided with a central through opening with geometry substantially corresponding to that of the junction or wallplate boxes and with coupling means to be coupled to the same box, characterised in that the device further comprises removable means defining a centring template.
A staple drive assembly comprising: a cartridge defining a knife slot and defining retention slots in a plurality of linear rows (1144a-1144c) for retaining staples and having a proximal end and a distal end, the plurality of linear rows of retention slots (1144a-1144c) including an innermost row, which is disposed adjacent the knife slot; an actuation sled disposed in the cartridge; and a single staple pusher disposed in the innermost row of retention slots and having a first cam member for interaction with the actuation sled, a second cam member for interaction with the actuation sled, and a pusher plate, the pusher plate having a top surface adapted for releasably engaging a backspan of a staple, said staple drive assembly being characterized in that each of the first cam member and the second cam member includes a first cam surface (1172a,1174a) and a second cam surface (1172b,1174b). a cartridge defining a knife slot and defining retention slots in a plurality of linear rows (1144a-1144c) for retaining staples and having a proximal end and a distal end, the plurality of linear rows of retention slots (1144a-1144c) including an innermost row, which is disposed adjacent the knife slot; an actuation sled disposed in the cartridge; and a single staple pusher disposed in the innermost row of retention slots and having a first cam member for interaction with the actuation sled, a second cam member for interaction with the actuation sled, and a pusher plate, the pusher plate having a top surface adapted for releasably engaging a backspan of a staple, said staple drive assembly being characterized in that each of the first cam member and the second cam member includes a first cam surface (1172a,1174a) and a second cam surface (1172b,1174b).
A medical imaging system (100, 300) comprising: - a memory storing machine executable instructions; - a processor for controlling the medical imaging system, wherein execution of the machine executable instructions causes the processor to: - receive magnetic resonance image data acquired according to a CEST magnetic resonance imaging protocol, wherein the magnetic resonance image data comprises voxels, wherein each of the voxels comprises a measured Z-spectrum for a set of saturation frequency offsets (502, 504, 504', 506, 506', 508, 510); - form a motion likelihood map that represents a voxel-wise probability of motion by comparing the measured Z-spectrum of each voxel to predetermined criteria; and - reconstruct a CEST magnetic resonance image from the magnetic resonance image data and including correction of motion artefacts on the basis of the motion likelihood map. - a memory storing machine executable instructions; - a processor for controlling the medical imaging system, wherein execution of the machine executable instructions causes the processor to: - receive magnetic resonance image data acquired according to a CEST magnetic resonance imaging protocol, wherein the magnetic resonance image data comprises voxels, wherein each of the voxels comprises a measured Z-spectrum for a set of saturation frequency offsets (502, 504, 504', 506, 506', 508, 510); - form a motion likelihood map that represents a voxel-wise probability of motion by comparing the measured Z-spectrum of each voxel to predetermined criteria; and - reconstruct a CEST magnetic resonance image from the magnetic resonance image data and including correction of motion artefacts on the basis of the motion likelihood map. - receive magnetic resonance image data acquired according to a CEST magnetic resonance imaging protocol, wherein the magnetic resonance image data comprises voxels, wherein each of the voxels comprises a measured Z-spectrum for a set of saturation frequency offsets (502, 504, 504', 506, 506', 508, 510); - form a motion likelihood map that represents a voxel-wise probability of motion by comparing the measured Z-spectrum of each voxel to predetermined criteria; and - reconstruct a CEST magnetic resonance image from the magnetic resonance image data and including correction of motion artefacts on the basis of the motion likelihood map.