mhurhangee/ep-ind-claims huggingface dataset:
A data acquisition device for a gamma ray detector, comprising: a summing circuit configured to receive a plurality of electrical signals from a plurality of sensors and to sum the electrical signals to generate a first signal, the sensors being coupled to an array of scintillation crystals that is an array of crystals that generate light by interaction in response to incident gamma rays generated by an annihilation event and receiving and converting the light into the electrical signals; a delay summing circuit (303,305) configured to selectively delay and sum the electrical signals to generate a second signal; and a first circuit configured to receive the first signal and to determine an energy and an event time of the first signal; Characterised By: a second circuit (503,505,509) configured to receive the first signal and the second signal and to determine, based on when the first and second signals respectively exceed a predetermined threshold, which of the sensors corresponds to a location of a crystal of the interaction. a summing circuit configured to receive a plurality of electrical signals from a plurality of sensors and to sum the electrical signals to generate a first signal, the sensors being coupled to an array of scintillation crystals that is an array of crystals that generate light by interaction in response to incident gamma rays generated by an annihilation event and receiving and converting the light into the electrical signals; a delay summing circuit (303,305) configured to selectively delay and sum the electrical signals to generate a second signal; and a first circuit configured to receive the first signal and to determine an energy and an event time of the first signal; Characterised By: a second circuit (503,505,509) configured to receive the first signal and the second signal and to determine, based on when the first and second signals respectively exceed a predetermined threshold, which of the sensors corresponds to a location of a crystal of the interaction. a second circuit (503,505,509) configured to receive the first signal and the second signal and to determine, based on when the first and second signals respectively exceed a predetermined threshold, which of the sensors corresponds to a location of a crystal of the interaction.
An excavator comprising: at least one of gyro sensors that detect a slope of an excavator; a swing motor that rotates an upper body relative to a lower body of the excavator; a first pressure sensor that detects an operational hydraulic pressure value applied to the swing motor; a swing joystick for driving the swing motor; and a second pressure sensor that detects an operational value inputted to the swing joystick; characterized in that the excavator further comprises a controller that receives an information detected by the gyro sensor, the first pressure sensor, and the second pressure sensor, and detects the operational hydraulic pressure value of the swing motor by the first pressure sensor when a maximum manipulation is applied to the joystick for more than a minimum measurement time at a swing friction force measurement mode in which the swing friction force of the upper body of the excavator is measured, wherein the minimum measurement time is set to be longer than a time taken for the swing motor to reach a maximum speed when the swing motor swings the upper body of the excavator, for which the upper body of the excavator maintains a posture having the least inertia moment of rotation and the swing joystick is manipulated to the maximum. at least one of gyro sensors that detect a slope of an excavator; a swing motor that rotates an upper body relative to a lower body of the excavator; a first pressure sensor that detects an operational hydraulic pressure value applied to the swing motor; a swing joystick for driving the swing motor; and a second pressure sensor that detects an operational value inputted to the swing joystick; characterized in that the excavator further comprises a controller that receives an information detected by the gyro sensor, the first pressure sensor, and the second pressure sensor, and detects the operational hydraulic pressure value of the swing motor by the first pressure sensor when a maximum manipulation is applied to the joystick for more than a minimum measurement time at a swing friction force measurement mode in which the swing friction force of the upper body of the excavator is measured, wherein the minimum measurement time is set to be longer than a time taken for the swing motor to reach a maximum speed when the swing motor swings the upper body of the excavator, for which the upper body of the excavator maintains a posture having the least inertia moment of rotation and the swing joystick is manipulated to the maximum.
A laryngeal mask having a supraglottic tube for insertion of a laryngeal mask head over the larynx, wherein the supraglottic tube has three lumens, namely a respiration lumen, which serves to supply respiration air and for instrumentation, an esophageal lumen, which serves to provide esophageal access, and a guide lumen that runs medially in between the two former lumens and is closed at the proximal end, characterized in that the supraglottic tube and the laryngeal mask head are manufactured by injection molding in one piece, wherein a slot, which connects the two lumens runs over at least a portion of the length of the supraglottic tube from the distal end the slot runs between the lateral lumen (4,5) and the medial guide lumen.
Construction material comprising from 2 wt. % to 40 wt. % of a hydrophobic, inorganic particulate material, wherein the hydrophobic inorganic particulate material has a crush strength of at least 1500 kPa and wherein the inorganic particulate material has a d 10 of at least 50 μm, and a d 50 of at least 100 μm, and a d 90 of at least 160μm, wherein the inorganic particulate material comprises perlite, wherein the perlite is expanded perlite, and wherein the hydrophobic inorganic particulate material comprises a hydrophobic coating.
A method for determining a concentration of epithelial cells in a blood sample or aspirate sample which originates from a human or mammal and has been admixed with an anticoagulant, comprising the following steps: a) lysing the erythrocytes present in the blood sample or aspirate sample by addition of a buffer which brings about a lysis of the erythrocytes, segregating cells which are not lysed in the course of this, and suspending the segregated cells in a buffer, wherein the blood sample or the aspirate sample is stored at a temperature between 0 and 40°C for at least 24 hours before the erythrocytes are lysed, b) adding antibodies, antibody fragments or antibody mimetics which each bear at least one label and which are each directed against the Epithelial Cell Adhesion Molecule (EpCAM) and/or at least one other antigen specific for epithelial cells to a cell suspension obtained in step a) or to a subquantity of said cell suspension, which subquantity has been obtained by segregation, mixing the antibodies, antibody fragments or antibody mimetics and the cell suspension or the subquantity, and incubating a mixture obtained as a result for at least a time which is required for the attainment of a decreasing binding rate of binding of the antibodies, antibody fragments or antibody mimetics to the cells, wherein the incubation is done for at least 6 hours, c) determining the number of cells labeled by binding of the antibodies, antibody fragments or antibody mimetics, in the mixture obtained in step b), and d) calculating the concentration of the labeled cells, the number of which has been determined in step c), in the blood sample or aspirate sample. a) lysing the erythrocytes present in the blood sample or aspirate sample by addition of a buffer which brings about a lysis of the erythrocytes, segregating cells which are not lysed in the course of this, and suspending the segregated cells in a buffer, wherein the blood sample or the aspirate sample is stored at a temperature between 0 and 40°C for at least 24 hours before the erythrocytes are lysed, b) adding antibodies, antibody fragments or antibody mimetics which each bear at least one label and which are each directed against the Epithelial Cell Adhesion Molecule (EpCAM) and/or at least one other antigen specific for epithelial cells to a cell suspension obtained in step a) or to a subquantity of said cell suspension, which subquantity has been obtained by segregation, mixing the antibodies, antibody fragments or antibody mimetics and the cell suspension or the subquantity, and incubating a mixture obtained as a result for at least a time which is required for the attainment of a decreasing binding rate of binding of the antibodies, antibody fragments or antibody mimetics to the cells, wherein the incubation is done for at least 6 hours, c) determining the number of cells labeled by binding of the antibodies, antibody fragments or antibody mimetics, in the mixture obtained in step b), and d) calculating the concentration of the labeled cells, the number of which has been determined in step c), in the blood sample or aspirate sample.
A glass roll comprising a bobbin and a glass ribbon that is wound on the bobbin, wherein: the bobbin has flanges at both ends thereof, the glass ribbon has a thickness of 100 μm or less and a thickness unevenness of 20% or less of the thickness, the glass ribbon comprising flat surfaces and side surfaces, each of the side surfaces being entirely constituted of a convex curved surface portion of fire-polished surface, the flat surfaces and side surfaces being smoothly continuous to each other, wherein the thickness unevenness is obtained by measuring the thickness of the glass ribbon at five points arranged on the flat surface at an equal interval in a width direction of the glass ribbon, and dividing a difference between a maximum value and a minimum value of the measured thicknesses by an average value of the measured thicknesses, and the glass ribbon is wound on the bobbin in a state of being superimposed on a packaging buffer sheet. the bobbin has flanges at both ends thereof, the glass ribbon has a thickness of 100 μm or less and a thickness unevenness of 20% or less of the thickness, the glass ribbon comprising flat surfaces and side surfaces, each of the side surfaces being entirely constituted of a convex curved surface portion of fire-polished surface, the flat surfaces and side surfaces being smoothly continuous to each other, wherein the thickness unevenness is obtained by measuring the thickness of the glass ribbon at five points arranged on the flat surface at an equal interval in a width direction of the glass ribbon, and dividing a difference between a maximum value and a minimum value of the measured thicknesses by an average value of the measured thicknesses, and the glass ribbon is wound on the bobbin in a state of being superimposed on a packaging buffer sheet.
Use of a steel which comprises (in wt%): C: 0.08 - 0.35%, Si: 0 - 0.80%, Mn: 0.20 - 2.00%, Cr: 0 - 4.00%, Mo: 0.3 - 3.0%, N: 0.004 - 0.020%, Al: 0.004 - 0.050%, B: 0 - 0.0025%, at least one element from the group "Nb, Ti, V, S" with the proviso that the Nb content is 0.003-0.20 wt%, the Ti content is 0.001-0.02 wt%, the V content is 0.02-0.40 wt% and/or the S content is 0.001-0.4 wt%, Ni: 0 - 1.5%, Cu: 0 - 0.3%, Co: 0 - 2.0%, with the remainder being iron and unavoidable impurities, wherein the unavoidable impurities have a P content of up to 0.0035 wt% wherein the Al content %Al, the Nb content %Nb, the Ti content %Ti, the V content %V and the N content %N of the steel satisfy the following condition: %Al/ 27 + %Nb/ 45 + %Ti/ 48 + %V/ 25 > %N/ 3.5, as a steel powder for the production of steel components by an additive manufacturing process, wherein the grains of the steel powder have an average diameter of 5-150 μm. the Nb content is 0.003-0.20 wt%, the Ti content is 0.001-0.02 wt%, the V content is 0.02-0.40 wt% and/or the S content is 0.001-0.4 wt%, Ni: 0 - 1.5%, Cu: 0 - 0.3%, Co: 0 - 2.0%,
A blade outer air seal system for a gas turbine engine, comprising: a plurality of ring carriers made of a first material having a first coefficient of thermal expansion; a plurality of seal segments carried, respectively, on the plurality of ring carriers; a ring member carried in the plurality of ring carriers, the ring member being made of a second material having a second coefficient of thermal expansion such that the first coefficient of thermal expansion is 75-175% of the second coefficient of thermal expansion, characterized in that the first coefficient of thermal expansion and the second coefficient of thermal expansion are each greater than 5 parts per million per degree Celsius, and wherein the first material and the second material are different metallic alloys which have a density that is greater than 4.5 grams per centimeter cubed. a plurality of ring carriers made of a first material having a first coefficient of thermal expansion; a plurality of seal segments carried, respectively, on the plurality of ring carriers; a ring member carried in the plurality of ring carriers, the ring member being made of a second material having a second coefficient of thermal expansion such that the first coefficient of thermal expansion is 75-175% of the second coefficient of thermal expansion, characterized in that the first coefficient of thermal expansion and the second coefficient of thermal expansion are each greater than 5 parts per million per degree Celsius, and wherein the first material and the second material are different metallic alloys which have a density that is greater than 4.5 grams per centimeter cubed.
Seal (100; 502; 602; 702; 800) for a wing of a door, comprising a sealing profile and a fastening profile, wherein the sealing profile can be fastened to the fastening profile, wherein - the seal (100; 502; 602; 702; 800) is designed to be set into a groove (200; 300; 400; 500; 600;) on a lower side and/or top side of the wing of the door, - the seal (100; 502; 602; 702; 800) comprises a magnetic means (103; 503; 801), characterised in that - the fastening profile can be fastened directly to the wing of the door with the magnetic means (103; 503, 801), wherein - at the direct fastening, the fastening profile is in direct contact with the magnetic means and the magnetic means is in direct contact with the wing of the door. - the seal (100; 502; 602; 702; 800) is designed to be set into a groove (200; 300; 400; 500; 600;) on a lower side and/or top side of the wing of the door, - the seal (100; 502; 602; 702; 800) comprises a magnetic means (103; 503; 801), characterised in that - the fastening profile can be fastened directly to the wing of the door with the magnetic means (103; 503, 801), wherein - at the direct fastening, the fastening profile is in direct contact with the magnetic means and the magnetic means is in direct contact with the wing of the door.
A bogie (4; 4') for a rail vehicle, the bogie comprising - a bogie frame arranged to be fastened to the rail vehicle, - two longitudinal beams (7, 8) of the bogie frame that are provided on opposite sides of the bogie (4; 4') and parallel to a direction of travel of the bogie (4; 4'), and - rail wheels supported on the longitudinal beams (7, 8), adjacent thereto, rail wheels on one side of the bogie on one longitudinal beam and rail wheels on the other side of the bogie on the other longitudinal beam, characterised in that one longitudinal beam with its whole length is placed within an area between the rail wheels located on the opposite sides of the bogie (4; 4'), and the other longitudinal beam with its whole length is placed outside said area between the rail wheels, at an outer edge of the bogie (4; 4'), all longitudinal beams (7, 8) of the bogie thus being located asymmetrically with respect to a centre line of the bogie (4; 4'). - a bogie frame arranged to be fastened to the rail vehicle, - two longitudinal beams (7, 8) of the bogie frame that are provided on opposite sides of the bogie (4; 4') and parallel to a direction of travel of the bogie (4; 4'), and - rail wheels supported on the longitudinal beams (7, 8), adjacent thereto, rail wheels on one side of the bogie on one longitudinal beam and rail wheels on the other side of the bogie on the other longitudinal beam,
A flexible mount converter for fabricating absorbent articles, characterized in that the flexible mount converter comprises: a. a machine direction, a cross direction, a drive side, an operator side, a top side, a left end, and a right end; b. a length in the machine direction and a width in the cross direction; c. a drive side and an operator side; d. a base supporting a horizontal rail mount system; e. two or more modular unit operations (830, 840, 1500, 1610, 1650, 1700, 1800, 1910, 2030, 2100, 2200, 2640) removeably mountable to the horizontal rail mount system in a close-coupled manner, such that a distance between adjacent modular unit operations is less than 1 m; f. complete access guarding; and g. a virtual mirror plate formed of a plurality of plates selected from the group consisting of scab plates, barrier plates, or combinations thereof, wherein the virtual mirror plates are supported by vertical and/or horizontal members attached to the flexible mount converter; wherein the flexible mount converter is capable of producing an absorbent article that comprises the web. a. a machine direction, a cross direction, a drive side, an operator side, a top side, a left end, and a right end; b. a length in the machine direction and a width in the cross direction; c. a drive side and an operator side; d. a base supporting a horizontal rail mount system; e. two or more modular unit operations (830, 840, 1500, 1610, 1650, 1700, 1800, 1910, 2030, 2100, 2200, 2640) removeably mountable to the horizontal rail mount system in a close-coupled manner, such that a distance between adjacent modular unit operations is less than 1 m; f. complete access guarding; and g. a virtual mirror plate formed of a plurality of plates selected from the group consisting of scab plates, barrier plates, or combinations thereof, wherein the virtual mirror plates are supported by vertical and/or horizontal members attached to the flexible mount converter;
A method of establishing a hybrid automatic retransmission request, HARQ, process in a wireless access system supporting machine type communication, MTC, the method performed by a base station and comprising: determining a number of HARQ processes to be applied to an MTC user equipment, UE; and transmitting downlink control information including a HARQ process value allocated to the MTC UE in the determined number of HARQ processes, wherein the number of HARQ processes is determined based on relative sizes of a number N1 of times of repeated transmission of a physical downlink control channel, PDCCH, to the MTC UE and a number N2 of times of repeated transmission of a physical downlink shared channel, PDSCH, and one or more of a time F necessary for the MTC UE to receive and process the repeatedly received PDCCH, a time p1 necessary for the MTC UE to receive and process the repeatedly received PUCCH, a number N3 of times of repeated transmission of a physical uplink control channel, PUCCH, and a time p0 necessary for the base station to receive and process the repeatedly transmitted PUCCH. determining a number of HARQ processes to be applied to an MTC user equipment, UE; and transmitting downlink control information including a HARQ process value allocated to the MTC UE in the determined number of HARQ processes, wherein the number of HARQ processes is determined based on relative sizes of a number N1 of times of repeated transmission of a physical downlink control channel, PDCCH, to the MTC UE and a number N2 of times of repeated transmission of a physical downlink shared channel, PDSCH, and one or more of a time F necessary for the MTC UE to receive and process the repeatedly received PDCCH, a time p1 necessary for the MTC UE to receive and process the repeatedly received PUCCH, a number N3 of times of repeated transmission of a physical uplink control channel, PUCCH, and a time p0 necessary for the base station to receive and process the repeatedly transmitted PUCCH.
Optically variable surface pattern having a carrier comprising a first and a second surface region (24, 25), wherein the two surface regions (24, 25) take such a form that in a first solid angle range (α1) the first surface region presents a first view that appears curved and in a second solid angle range (α2), which differs from the first solid angle range (α1), the second surface region presents a second view that appears curved, wherein at least one of the two surface regions (24, 25) presents the view (14, 15) that appears curved by imitating the reflection behaviour of a curved surface, and wherein the imitation of the reflection behaviour of the curved surface is effected by optically effective relief structures (16, 17), wherein the surface regions are nested.
A single-sided support induction heated roll apparatus including: a stationary shaft including one side supported by a machine base; a roller body having a cylindrical shape and rotatably supported by the stationary shaft with a bearing (3, 4) interposed between the roller body and the stationary shaft; an induction heater provided inside the roller body and configured to allow the roller body to inductively generate heat; and an axial gap motor provided between the machine base and the roller body and configured to rotate the roller body with respect to the stationary shaft. a stationary shaft including one side supported by a machine base; a roller body having a cylindrical shape and rotatably supported by the stationary shaft with a bearing (3, 4) interposed between the roller body and the stationary shaft; an induction heater provided inside the roller body and configured to allow the roller body to inductively generate heat; and an axial gap motor provided between the machine base and the roller body and configured to rotate the roller body with respect to the stationary shaft.
A manufacturing method of a vehicular disc brake rotor, the method comprising: performing in a gas nitrocarburizing furnace a gas nitrocarburizing treatment on a cast-iron workpiece at a treatment temperature of 500°C to 600°C to thus form a nitrogen compound layer on a surface of the workpiece and cooling within in the gas nitrocarburizing furnace the cast workpiece to a temperature of 400°C to 480°C; and when a temperature becomes 400°C to 480°C after performing the nitrocarburizing treatment, to form an iron oxide layer including Fe 3 O 4 on a surface of the nitrogen compound layer by taking out the cast workpiece from the gas nitrocarburizing furnace and thereby exposing the workpiece continuously to an atmosphere containing oxygen until the workpiece is cooled to a room temperature, wherein a cooling rate from exposing the workpiece to the atmosphere containing oxygen to room temperature is between 1°C/min to 10°C/min. performing in a gas nitrocarburizing furnace a gas nitrocarburizing treatment on a cast-iron workpiece at a treatment temperature of 500°C to 600°C to thus form a nitrogen compound layer on a surface of the workpiece and cooling within in the gas nitrocarburizing furnace the cast workpiece to a temperature of 400°C to 480°C; and when a temperature becomes 400°C to 480°C after performing the nitrocarburizing treatment, to form an iron oxide layer including Fe 3 O 4 on a surface of the nitrogen compound layer by taking out the cast workpiece from the gas nitrocarburizing furnace and thereby exposing the workpiece continuously to an atmosphere containing oxygen until the workpiece is cooled to a room temperature, wherein a cooling rate from exposing the workpiece to the atmosphere containing oxygen to room temperature is between 1°C/min to 10°C/min.