mhurhangee/ep-ind-claims huggingface dataset:
A method of processing myocardial nuclear medicine image data for determining an increase rate of blood flow under stress relative to at rest, comprising: storing at least part of first myocardial nuclear medicine image data (130; 134) collected earlier and corresponding to one of myocardial nuclear medicine image data collected at rest and myocardial nuclear medicine image data collected under stress; storing at least part of second myocardial nuclear medicine image data collected between the collection of the first and third myocardial nuclear medicine image data (130; 134) and without administration of a radiopharmaceutical agent; storing at least part of the third myocardial nuclear medicine image data (130; 134) collected later and corresponding to the other one of the myocardial nuclear medicine image data collected at rest and the myocardial nuclear medicine image data collected under stress; correcting at least part of the third myocardial nuclear medicine image data (130; 134) using at least part of the second myocardial nuclear medicine image data to eliminate an effect of the first myocardial nuclear medicine image data (130; 134) remaining in the third myocardial nuclear medicine image data (130; 134); and determining the blood flow increase rate using at least part of the first myocardial nuclear medicine image data (130; 134) and at least part of the third myocardial nuclear medicine image data (130; 134) after the correction. storing at least part of first myocardial nuclear medicine image data (130; 134) collected earlier and corresponding to one of myocardial nuclear medicine image data collected at rest and myocardial nuclear medicine image data collected under stress; storing at least part of second myocardial nuclear medicine image data collected between the collection of the first and third myocardial nuclear medicine image data (130; 134) and without administration of a radiopharmaceutical agent; storing at least part of the third myocardial nuclear medicine image data (130; 134) collected later and corresponding to the other one of the myocardial nuclear medicine image data collected at rest and the myocardial nuclear medicine image data collected under stress; correcting at least part of the third myocardial nuclear medicine image data (130; 134) using at least part of the second myocardial nuclear medicine image data to eliminate an effect of the first myocardial nuclear medicine image data (130; 134) remaining in the third myocardial nuclear medicine image data (130; 134); and determining the blood flow increase rate using at least part of the first myocardial nuclear medicine image data (130; 134) and at least part of the third myocardial nuclear medicine image data (130; 134) after the correction.
A method for producing gelatin particles, comprising the steps of: discharging droplets of a liquid containing melted gelatin into an atmosphere in a heating tube or a drying chamber whose difference in temperature from the droplets is 235°C or less; and drying the droplets to obtain gelatin particles. discharging droplets of a liquid containing melted gelatin into an atmosphere in a heating tube or a drying chamber whose difference in temperature from the droplets is 235°C or less; and drying the droplets to obtain gelatin particles.
Tibial baseplate (1, 1', 1") for tibial component of a knee prosthesis comprising: - a bulk solid portion comprising a proximally facing surface adapted to accommodate a bearing element for the articulation of a femoral component of said knee prosthesis; - a plurality of porous portions to allow bone ingrowth, being integral with said bulk solid portion and having a porous portion contacting surface opposite to said proximally facing surface adapted to contact a proximal tibia; wherein said plurality of porous portions are seamlessly incorporated in said bulk solid portion, wherein said plurality of porous portions are embedded into the bulk solid portion, and wherein said tibial baseplate (1, 1', 1") is completely manufactured by means of additive manufacturing. - a bulk solid portion comprising a proximally facing surface adapted to accommodate a bearing element for the articulation of a femoral component of said knee prosthesis; - a plurality of porous portions to allow bone ingrowth, being integral with said bulk solid portion and having a porous portion contacting surface opposite to said proximally facing surface adapted to contact a proximal tibia; wherein said plurality of porous portions are seamlessly incorporated in said bulk solid portion, wherein said plurality of porous portions are embedded into the bulk solid portion, and wherein said tibial baseplate (1, 1', 1") is completely manufactured by means of additive manufacturing. wherein said plurality of porous portions are seamlessly incorporated in said bulk solid portion, wherein said plurality of porous portions are embedded into the bulk solid portion, and wherein said tibial baseplate (1, 1', 1") is completely manufactured by means of additive manufacturing.
A freezer comprising: a cabinet; a first freezer chamber having insulated peripheral walls including a pair of side walls (13, 14), a rear wall, a top wall and a bottom wall disposed in a top portion of said cabinet; a second freezer chamber having insulated peripheral walls including a pair of side walls (15, 16), a rear wall, a top wall and a bottom wall disposed in a bottom portion of said cabinet; an upper insulated door hingedly secured to one of said side walls of said first freezer chamber; a lower insulated door hingedly secured to one of said side walls of said second freezer chamber; said cabinet further comprises outer vertical doors (8, 10) hingedly secured along said top and bottom portions, respectively; a refrigeration unit comprising a dual cascade system comprising first and second evaporators which independently cool said first and second freezer chambers; and means for independently controlling cooling of said first and said second freezer chambers via said refrigeration unit; characterized in that the refrigeration unit is adapted to cool said first and second freezer chambers (22, 24) to a substantially uniform temperature between -40 °C and -80 °C, and refrigerants R404a and R508b are used in a dual cascade system connected to said first freezer chamber and said second freezer chamber. a cabinet; a first freezer chamber having insulated peripheral walls including a pair of side walls (13, 14), a rear wall, a top wall and a bottom wall disposed in a top portion of said cabinet; a second freezer chamber having insulated peripheral walls including a pair of side walls (15, 16), a rear wall, a top wall and a bottom wall disposed in a bottom portion of said cabinet; an upper insulated door hingedly secured to one of said side walls of said first freezer chamber; a lower insulated door hingedly secured to one of said side walls of said second freezer chamber; said cabinet further comprises outer vertical doors (8, 10) hingedly secured along said top and bottom portions, respectively; a refrigeration unit comprising a dual cascade system comprising first and second evaporators which independently cool said first and second freezer chambers; and means for independently controlling cooling of said first and said second freezer chambers via said refrigeration unit; characterized in that the refrigeration unit is adapted to cool said first and second freezer chambers (22, 24) to a substantially uniform temperature between -40 °C and -80 °C, and refrigerants R404a and R508b are used in a dual cascade system connected to said first freezer chamber and said second freezer chamber.
A method for controlling a power battery, wherein the power battery comprises a plurality of battery modules, each battery module comprises a plurality of single cells, and the method comprises: detecting a maximum temperature and a minimum temperature of the plurality of single cells, a plurality of first temperatures of positive electrodes of the plurality of battery modules and/or a plurality of second temperatures of negative electrodes of the plurality of battery modules, and a plurality of third temperatures of cores of the plurality of single cells by a temperature detecting module; determining whether the plurality of first temperatures and/or the plurality of second temperatures are within a first temperature range; determining whether the plurality of third temperatures are within a second temperature range; managing the power battery according to the maximum temperature and the minimum temperature if the plurality of first temperatures and/or the plurality of second temperatures are within the first temperature range and the plurality of third temperatures are within the second temperature range; determining that a connection failure occurs in the power battery if one of the plurality of first temperatures and/or one of the plurality of second temperatures is not within the first temperature range; and determining a core related failure if the third temperature of a first single cell is not within the second temperature range. detecting a maximum temperature and a minimum temperature of the plurality of single cells, a plurality of first temperatures of positive electrodes of the plurality of battery modules and/or a plurality of second temperatures of negative electrodes of the plurality of battery modules, and a plurality of third temperatures of cores of the plurality of single cells by a temperature detecting module; determining whether the plurality of first temperatures and/or the plurality of second temperatures are within a first temperature range; determining whether the plurality of third temperatures are within a second temperature range; managing the power battery according to the maximum temperature and the minimum temperature if the plurality of first temperatures and/or the plurality of second temperatures are within the first temperature range and the plurality of third temperatures are within the second temperature range; determining that a connection failure occurs in the power battery if one of the plurality of first temperatures and/or one of the plurality of second temperatures is not within the first temperature range; and determining a core related failure if the third temperature of a first single cell is not within the second temperature range.
A silver powder comprising a large number of particles, wherein each particle has a body containing silver as a main component, and a coating layer covering a surface of the body and containing organic matter as a main component, the particles include polyhedral particles having an aspect ratio of equal to or less than 3.0, and a ratio P1 of a number of the polyhedral particles to a total number of the particles is equal to or greater than 80%, wherein the silver powder has a tap density of equal to or greater than 5.5 g/cm 3, wherein the tap density is measured in accordance with the standards of JIS Z 2512: 2012, characterized in that the silver powder has a median diameter of equal to or less than 0.5 pm, wherein, in measurement of the median diameter, a cumulative curve of the silver powder is determined by a laser diffraction/scattering particle-size distribution measurement method, wherein the cumulative curve is determined by using a laser diffraction/scattering particle-size distribution meter. each particle has a body containing silver as a main component, and a coating layer covering a surface of the body and containing organic matter as a main component, the particles include polyhedral particles having an aspect ratio of equal to or less than 3.0, and a ratio P1 of a number of the polyhedral particles to a total number of the particles is equal to or greater than 80%, wherein the silver powder has a tap density of equal to or greater than 5.5 g/cm 3, wherein the tap density is measured in accordance with the standards of JIS Z 2512: 2012,
A magnetic field sensor comprising at least first, second, and third spaced magnetic field sensing elements (24a-c), each providing a respective first, second, and third magnetic field signal (124a-c) having an amplitude proportional to a magnetic field associated with a target, comprising: a first differential channel comprising a first pair (24a, 24b) of the first, second, and third magnetic field sensing elements and configured to provide a first channel signal based on a difference between the magnetic field signals provided by the first pair of magnetic field sensing elements; a second differential channel comprising a second pair (24b, 24c) of the first, second, and third magnetic field sensing elements and configured to provide a second channel signal based on a difference between the magnetic field signals provided by the second pair of magnetic field sensing elements; a third differential channel comprising a third pair (24c, 24a) of the first, second, and third magnetic field sensing elements and configured to provide a third channel signal based on a difference between the magnetic field signals provided by the third pair of magnetic field sensing elements; a combining element to generate a combined signal based on the first, second, and third magnetic field signals; and control circuitry, coupled to receive the combined signal and coupled to receive the first, second, and third channel signals, to generate a sensor output signal that is indicative of a speed of motion and a direction of motion of the target and that is independent of an installation angle of the magnetic field sensor relative to the target. a first differential channel comprising a first pair (24a, 24b) of the first, second, and third magnetic field sensing elements and configured to provide a first channel signal based on a difference between the magnetic field signals provided by the first pair of magnetic field sensing elements; a second differential channel comprising a second pair (24b, 24c) of the first, second, and third magnetic field sensing elements and configured to provide a second channel signal based on a difference between the magnetic field signals provided by the second pair of magnetic field sensing elements; a third differential channel comprising a third pair (24c, 24a) of the first, second, and third magnetic field sensing elements and configured to provide a third channel signal based on a difference between the magnetic field signals provided by the third pair of magnetic field sensing elements; a combining element to generate a combined signal based on the first, second, and third magnetic field signals; and control circuitry, coupled to receive the combined signal and coupled to receive the first, second, and third channel signals, to generate a sensor output signal that is indicative of a speed of motion and a direction of motion of the target and that is independent of an installation angle of the magnetic field sensor relative to the target.
Air-conditioning system for the cabin of a motor vehicle, comprising at least one blower for entraining a hot or cold air flow in several distinct zones of the cabin, elements (10, 11, 12) for distributing the air flow in said zones, and means for regulating the air temperature in each of said zones, the regulating means comprising a temperature probe able to measure an interior temperature of the cabin, means for estimating a comfort temperature (T comfort) experienced by the driver, and user means allowing the user to issue a comfort temperature setpoint (Setpoint), the regulating means comprising a regulator for distributing the air flow receiving as input the difference (ε) between the comfort temperature setpoint (Setpoint) and the estimation of the comfort temperature (T comfort) and characterized in that the regulator is capable of delivering as output a control signal (PosMixDriver) for one of the elements for distributing the air flow in a first zone, and means for determining the control signals (PosMixPassenger, PosMixRE) for the elements (11, 12) for distributing the air flow in the zones distinct from said first zone on the basis of the control signal (PosMixDriver) for the element for distributing the air flow in said first zone.
A method for wireless communications at a user equipment, UE (102, 206, 650, 720, 812, 906, 1202), comprising: maintaining separate power control processes for at least a first aperiodic sounding reference signal, A-SRS, and a second A-SRS, wherein the power control process for the first A-SRS comprises a closed loop power control process; receiving, in a first subframe, a downlink transmission triggering transmission of at least one of the first and second A-SRS in a subsequent subframe; identifying which of the first and second A-SRS to transmit in the subsequent subframe; receiving a first power control command that indicates a power control value to apply to the identified A-SRS; and transmitting the identified A-SRS based in accordance with the first power control command. maintaining separate power control processes for at least a first aperiodic sounding reference signal, A-SRS, and a second A-SRS, wherein the power control process for the first A-SRS comprises a closed loop power control process; receiving, in a first subframe, a downlink transmission triggering transmission of at least one of the first and second A-SRS in a subsequent subframe; identifying which of the first and second A-SRS to transmit in the subsequent subframe; receiving a first power control command that indicates a power control value to apply to the identified A-SRS; and transmitting the identified A-SRS based in accordance with the first power control command.
An oral pouched smokeless tobacco product comprising a filling material and a saliva-permeable pouch enclosing the filling material, the product having a rectangular shape with a maximum length and a maximum width, characterized in that the maximum width of the product is within the range of from 5 mm to 10 mm, the maximum length of the product is within the range of from 25 mm to 40 mm, the ratio of maximum length to maximum width is within the range of from 3 to 6, the oral pouched smokeless tobacco product has a weight within the range of from 0.3 g to 0.7 g, the oral pouched smokeless tobacco product has a moisture content within the range of 40 to 60% w/w based on the total weight of the oral pouched smokeless tobacco product, and the product has a thickness in a direction perpendicular to the width of the product, said thickness being within the range of from 2 to 8 mm.
A middle or large-sized battery module having secondary batteries or unit modules, each of which has two or more secondary batteries mounted therein, stacked in a state in which the secondary batteries or the unit modules are erected vertically, the battery module comprising: a base plate on which the secondary batteries or the unit modules are horizontally stacked in a vertically erected state; a pair of end plates disposed in tight contact with outer sides of the outermost secondary batteries or the outermost unit modules in a state in which the bottom of each of the end plates is fixed to the base plate; and supporting bars connected between opposite sides of upper parts or side parts of the end plates so as to interconnect and support the end plates, wherein the base plate is provided at opposite sides thereof with a pair of upward protrusions extending in a longitudinal direction of the base plate to prevent the base plate from being deformed due to vertical vibration and to disperse load pressure, and opposite sides of the bottom of each of the secondary batteries or unit modules are disposed on the top of the upward protrusions, and wherein the edge of the base plate is filleted to prevent stress from concentrating upon the edge of the base plate. a base plate on which the secondary batteries or the unit modules are horizontally stacked in a vertically erected state; a pair of end plates disposed in tight contact with outer sides of the outermost secondary batteries or the outermost unit modules in a state in which the bottom of each of the end plates is fixed to the base plate; and supporting bars connected between opposite sides of upper parts or side parts of the end plates so as to interconnect and support the end plates, wherein the base plate is provided at opposite sides thereof with a pair of upward protrusions extending in a longitudinal direction of the base plate to prevent the base plate from being deformed due to vertical vibration and to disperse load pressure, and opposite sides of the bottom of each of the secondary batteries or unit modules are disposed on the top of the upward protrusions, and wherein the edge of the base plate is filleted to prevent stress from concentrating upon the edge of the base plate.
Value and/or security document with a first layer and at least a second layer connected to the first layer by an adhesive layer, wherein the adhesion between the adhesive layer and the first layer and/or the adhesion between the adhesive layer and the second layer is different in at least two different areas (31', 32'), characterized in that the adhesive layer has a different degree of cross-linking within the at least two different areas (31', 32').
A transporting apparatus for portion-wise transport of moulds of a confectionery production installation along a transport path including at least one mould of a confectionery production installation, a respective driven first entrainment member (1a, 1b, 1c, 1d) for each of the transport portions (a, b, c, d) of the transport path, wherein there is provided at least one adjusting means so that each first entrainment member is reciprocatingly adjustable perpendicularly to the transport direction of the mould between an entrainment position in which it engages behind a mould and a disengagement position in which it can pass the mould, wherein the first entrainment member (1a, 1b, 1c, 1d) is moveable with a translatory movement parallel to the plane of the mould lying on the transporting apparatus and perpendicularly to the mould transport direction.
A display comprising a plurality of a sub-pixel group; said sub-pixel group further comprising eight sub-pixels arranged in a matrix of rows and columns; wherein each said sub-pixel is one of a first color sub-pixel, a second color sub-pixel and a third color sub-pixel; wherein said sub-pixel group further comprises four sub-pixels of said first color, two sub-pixels of said second color and two sub-pixels of said third color; wherein further said sub-pixels of said second color and said sub-pixels of said third color form a checkerboard pattern such that the two sub pixels of said second color are disposed in different rows and in different columns of the sub-pixel repeating group and such that the two sub pixels of said third color are disposed in different rows and in different columns of the sub-pixel repeating group, characterised in that each of said sub-pixels of said first color comprises a smaller area than each of said sub-pixels of said second color and each of said sub-pixels of said third color.