mhurhangee/ep-ind-claims huggingface dataset:
A drug delivery device, comprising, a cartridge of a first medicament; a first medicament dose delivery mechanism configured for user settable and administration of multiple doses of the first medicament through a first dispense interface; a plurality of micro-reservoirs of a second medicament; and a second medicament delivery system configured to deliver a preset dose of the second medicament through the first dispense interface or a second dispense interface, characterized in that the second medicament delivery system is independent from said delivery mechanism and comprises a microchip coupled to a microprocessor for controlling delivery of the preset dose.
An evaporative emissions control canister system 100 comprising: an initial adsorbent volume 201 having an effective incremental adsorption capacity at 25°C of greater than about 35 grams n-butane/L between vapor concentration of 5 vol% and 50 vol% n-butane; and at least one subsequent adsorbent volume 202 having an effective incremental adsorption capacity at 25°C of less than about 35 grams n-butane/L between vapor concentration of 5 vol% and 50 vol% n-butane, characterized in that the subsequent adsorbent volume 202 is configured to have or exhibit at least one of: (i) a substantially uniform structure that facilitates approximately uniform air and vapor flow distribution across its flow path cross section, or (ii) a substantially uniform structure that facilitates approximately uniform air and vapor flow distribution and an effective butane working capacity of less than about 3 g/dL and a g-total BWC of from about 2 to about 6 grams, wherein the initial 201 and subsequent adsorbent volumes 202 are in communication, and wherein the canister system 100 has a two-day diurnal breathing loss emissions of no more than 20 mg at no more than about 210 liters of purge applied after a 40 g/hr BETP butane loading step. an initial adsorbent volume 201 having an effective incremental adsorption capacity at 25°C of greater than about 35 grams n-butane/L between vapor concentration of 5 vol% and 50 vol% n-butane; and at least one subsequent adsorbent volume 202 having an effective incremental adsorption capacity at 25°C of less than about 35 grams n-butane/L between vapor concentration of 5 vol% and 50 vol% n-butane, characterized in that the subsequent adsorbent volume 202 is configured to have or exhibit at least one of: (i) a substantially uniform structure that facilitates approximately uniform air and vapor flow distribution across its flow path cross section, or (ii) a substantially uniform structure that facilitates approximately uniform air and vapor flow distribution and an effective butane working capacity of less than about 3 g/dL and a g-total BWC of from about 2 to about 6 grams, wherein the initial 201 and subsequent adsorbent volumes 202 are in communication, and wherein the canister system 100 has a two-day diurnal breathing loss emissions of no more than 20 mg at no more than about 210 liters of purge applied after a 40 g/hr BETP butane loading step.
A single correction container configured to be mounted between either: (i) a cylindrical Marinelli beaker or (ii) a sample measuring bottle and a cylindrical detector of a detecting system for nuclide analysis, the correction container comprising: a cylindric container body having a diameter corresponding to an inner diameter of a recessed lower portion of a Marinelli beaker, configured to be inserted into the recessed lower portion of said Marinelli beaker; a first cylindrical groove having an inner diameter corresponding to a diameter of a detector, and formed in a lower portion of the container body and configured to surround the detector; characterized in that the correction container further comprises: a second cylindrical groove configured to fix a sample measuring bottle, formed in a upper portion of the container body, and having an inner diameter smaller than the first groove; and an intake and exhaust hole formed through the first groove to the second groove. (i) a cylindrical Marinelli beaker or (ii) a sample measuring bottle and a cylindrical detector of a detecting system for nuclide analysis, the correction container comprising: a cylindric container body having a diameter corresponding to an inner diameter of a recessed lower portion of a Marinelli beaker, configured to be inserted into the recessed lower portion of said Marinelli beaker; a first cylindrical groove having an inner diameter corresponding to a diameter of a detector, and formed in a lower portion of the container body and configured to surround the detector; a cylindric container body having a diameter corresponding to an inner diameter of a recessed lower portion of a Marinelli beaker, configured to be inserted into the recessed lower portion of said Marinelli beaker; a first cylindrical groove having an inner diameter corresponding to a diameter of a detector, and formed in a lower portion of the container body and configured to surround the detector; a second cylindrical groove configured to fix a sample measuring bottle, formed in a upper portion of the container body, and having an inner diameter smaller than the first groove; and an intake and exhaust hole formed through the first groove to the second groove.
An inkjet printing system comprising a print head, a plurality of ink nozzles arranged on the print head, a first gas source, first gas ducts arranged at least partially in the print head, wherein at least a first end of the first gas ducts is connected to the first gas source and a plurality of second ends of the first gas ducts is arranged at the ink nozzles, wherein the printing system is characterized by at least one evaporator arranged along the first gas ducts before the nozzles and adapted to evaporate at least one fluid into the gas before it arrives at the nozzles. a print head, a plurality of ink nozzles arranged on the print head, a first gas source, first gas ducts arranged at least partially in the print head, wherein at least a first end of the first gas ducts is connected to the first gas source and a plurality of second ends of the first gas ducts is arranged at the ink nozzles, wherein the printing system is characterized by at least one evaporator arranged along the first gas ducts before the nozzles and adapted to evaporate at least one fluid into the gas before it arrives at the nozzles.
A lower-body garment having a torso portion, a first leg portion, and a second leg portion, the lower-body garment comprising: a base textile forming the first leg portion and the second leg portion; and a plurality of discrete overlay film structures (326, 328) affixed to the base textile and extending circumferentially around the first leg portion and the second leg portion, wherein upon exposure to moisture the plurality of discrete overlay film structures (326, 328) undergo a change in dimension in at least a direction that extends away from a surface of the lower-body garment in a positive or negative direction, and the first leg portion and the second leg portion undergo a decrease in circumference. a base textile forming the first leg portion and the second leg portion; and a plurality of discrete overlay film structures (326, 328) affixed to the base textile and extending circumferentially around the first leg portion and the second leg portion, wherein upon exposure to moisture the plurality of discrete overlay film structures (326, 328) undergo a change in dimension in at least a direction that extends away from a surface of the lower-body garment in a positive or negative direction, and the first leg portion and the second leg portion undergo a decrease in circumference.
A method comprising: obtaining a channel matrix comprising channel transfer elements corresponding to different channels in a multiple input multiple output, MIMO, wireless communication system, wherein each column of channel transfer elements of the channel matrix corresponds to one antenna layer of a plurality of antenna layers, each of the plurality of antenna layers associated with a transmitted data stream that was transmitted from a transmit antenna; generating a Hermitian transpose of the channel matrix; generating a product of the Hermitian transpose of the channel matrix and the channel matrix to provide a first product having a plurality of diagonal elements; the method characterized by generating a partial matrix inversion for the plurality of diagonal elements of the first product to provide a diagonal vector; selecting a first one of the antenna layers from the plurality of antenna layers based on a function of the diagonal vector; generating a partial matrix inversion of the first product along a row corresponding to the first selected antenna layer to provide a row vector; and generating a product of the row vector and the Hermitian transpose of the channel matrix to provide an inverse channel gain vector. obtaining a channel matrix comprising channel transfer elements corresponding to different channels in a multiple input multiple output, MIMO, wireless communication system, wherein each column of channel transfer elements of the channel matrix corresponds to one antenna layer of a plurality of antenna layers, each of the plurality of antenna layers associated with a transmitted data stream that was transmitted from a transmit antenna; generating a Hermitian transpose of the channel matrix; generating a product of the Hermitian transpose of the channel matrix and the channel matrix to provide a first product having a plurality of diagonal elements; the method characterized by generating a partial matrix inversion for the plurality of diagonal elements of the first product to provide a diagonal vector; selecting a first one of the antenna layers from the plurality of antenna layers based on a function of the diagonal vector; generating a partial matrix inversion of the first product along a row corresponding to the first selected antenna layer to provide a row vector; and generating a product of the row vector and the Hermitian transpose of the channel matrix to provide an inverse channel gain vector.
A high strength steel plate having a low yield ratio, the steel plate having a chemical composition consisting of, by mass%, C: 0.03% or more and 0.08% or less, Si: 0.01% or more and 1.0% or less, Mn: 1.2% or more and 3.0% or less, P: 0.015% or less, S: 0.005% or less, Al: 0.08% or less, Nb: 0.005% or more and 0.07% or less, Ti: 0.005% or more and 0.025% or less, N: 0.010% or less, O: 0.005% or less, optionally further, by mass%, Cu: 0.5% or less, Ni: 1% or less, Cr: 0.5% or less, Mo: 0.5% or less, V: 0.1% or less, Ca: 0.0005% or more and 0.003% or less, B: 0.005% or less and the balance being Fe and inevitable impurities, a metallographic structure being a dual-phase structure consisting of a bainite phase and island martensite, wherein the area fraction of the island martensite is 3% or more and 15% or less, wherein the equivalent circle diameter of the island martensite is 3.0 μm or less, and wherein the remainder of the metallographic structure is a bainite phase, a hardness variation in the thickness direction of ΔHV30 or less in terms of Vickers hardness, a hardness variation in the width direction of ΔHV30 or less in terms of Vickers hardness, a maximum hardness in the surface portions of the steel plate of HV230 or less in terms of Vickers hardness and a yield ratio of 85% or less and an elongation of 22% or more in a full-thickness tensile test using a test piece having a shape in accordance with GOST standards.
A protective helmet for the head of a human being, comprising an outer protective shell and an inner support structure, which support structure comprises a forehead strip defining a head accommodating opening and a upper head support, and the support structure comprises on the forehead strip a forehead accommodating side and a side accommodating the back of the head, wherein the support structure is secured onto the protective shell by means of at least one force-transmitting connecting mechanism, characterized in that a longitudinal adjusting mechanism is arranged between the protective shell and the support structure, by means of which longitudinal adjusting mechanism the protective shell can be adjusted relative to the support structure in the direction towards the forehead accommodating side or in the direction towards the side accommodating the back of the head and that the longitudinal adjusting mechanism comprises a support strap, which support strap extends from both temples over the forehead accommodating side and the support strap is connected to the protective shell in the region of the temples respectively by a form-fitting and/or force-fitting connecting arrangement, and that the support strap comprises at least one first coupling element, which interacts with at least one second coupling element on the support structure.
A non-pneumatic tire and wheel assembly comprising a non-pneumatic tire and a wheel, the non-pneumatic tire comprising a ground contacting annular tread portion, a shear band and at least one spoke loop structure connected to the shear band, wherein the spoke loop structure has a plurality of flexible loops extending inward from the shear band, wherein each flexible loop is formed from a strip of elastomeric material, and a wherein each flexible loop is connected to the wheel, wherein said plurality of flexible loops form a first set of flexible loops and a second set of flexible loops, which are spaced apart in the axial direction, characterized in that the flexible loops in the second set of flexible loops are reinforced with stiffer reinforcement cords than the flexible loops in the first set of flexible loops, and, optionally wherein the flexible loops in the second set of flexible loops are aligned in the circumferential direction.
Clutch assembly for coupling an internal combustion engine to a drive train of a motor vehicle, having a friction clutch for coupling a drive shaft of the internal combustion engine to an output shaft, an actuating device for opening and/or closing the friction clutch, an eddy current brake for introducing an actuating force into the actuating device, and a control device for energizing the eddy current brake with a current which is predetermined in a defined manner, characterized in that the control device is set up to specify, for the eddy current brake, a current for opening, in particular for setting a slipping operation of the friction clutch in an acceleration phase of a torsional vibration of the drive shaft, and to specify a current for closing, in particular for coupling the friction clutch in a rotationally fixed and frictionally locking manner in a deceleration phase of the torsional vibration of the drive shaft.
A method of manufacturing a secondary battery electrode constituted by the steps of: - depositing an ink comprising at least one active electrode material, on a substrate; - drying the ink; - depositing a protection layer on the previously dried ink; - calendering the electrode thus formed; the protection layer being deposited before the calendering of the electrode. - depositing an ink comprising at least one active electrode material, on a substrate; - drying the ink; - depositing a protection layer on the previously dried ink; - calendering the electrode thus formed;
A gas turbine engine component comprising: a structure having a surface configured to be exposed to a hot working fluid, the surface includes a recessed pocket that is circumscribed by an overhang, and at least one cooling groove provided by the overhang, characterised in that: the overhang includes a radially inwardly extending lip that provides an interior perimeter of the recessed pocket, the cooling groove is provided between the overhang and an end wall, the cooling groove is bounded by the lip, and the overhang substantially encloses the cooling groove and provides an exit that fluidly interconnects the cooling groove with the recessed pocket,
A system for delivering electrosurgical energy, comprising: an electrosurgical instrument (2, 12) comprising at least one electrode (3, 14, 16); and an electrosurgical generator coupled to the electrosurgical instrument, the electrosurgical generator comprising: an output stage configured to generate electrosurgical energy; and a controller coupled to the output stage, wherein the controller is configured to control the output stage to output electrosurgical energy at a predetermined power level to generate an arc between the at least one electrode and tissue, and characterised by the controller configured to output electrosurgical energy at a predetermined current level once the arc is generated to sustain the arc. an electrosurgical instrument (2, 12) comprising at least one electrode (3, 14, 16); and an electrosurgical generator coupled to the electrosurgical instrument, the electrosurgical generator comprising: an output stage configured to generate electrosurgical energy; and a controller coupled to the output stage, wherein the controller is configured to control the output stage to output electrosurgical energy at a predetermined power level to generate an arc between the at least one electrode and tissue, and characterised by the controller configured to output electrosurgical energy at a predetermined current level once the arc is generated to sustain the arc. an output stage configured to generate electrosurgical energy; and a controller coupled to the output stage, wherein the controller is configured to control the output stage to output electrosurgical energy at a predetermined power level to generate an arc between the at least one electrode and tissue, and characterised by the controller configured to output electrosurgical energy at a predetermined current level once the arc is generated to sustain the arc.
A method for encoding a point cloud to generate a bitstream of compressed point cloud data, wherein the point cloud's geometry is represented by an octree-based structure with a plurality of nodes having parent-child relationships by recursively splitting a volumetric space containing the point cloud into sub-volumes each associated with a node of the octree-based structure, comprising the steps: Determining an occupancy pattern for a parent node based on the occupancy of its child nodes; Determining a planar context information for at least one of the child nodes (102, 120); and Entropy encoding the occupancy pattern of the at least one of the child nodes (102, 120) based on the determined planar context information to produce encoded data for the bitstream; wherein the occupancy pattern for the present child node (102, 120) comprises planar information, wherein the planar information comprises isPlanar information and planePosition information, and the planar context information for the entropy encoding/decoding of the planar information includes context information indicating the likelihood that the present child (102, 120) node belongs to a surface defined by points of the point cloud and the likely position of the plane within the present child node; and characterised in that the planar context information is determined according to an occupied status of a first group of four child nodes of the neighboring parent node (104, 106, 108) that are directly next to the present parent node (100, 122) and the occupied status of a second group of four child nodes of the present parent node (100, 122) directly opposite the first group wherein the occupied status is fulfilled if at least one of the child nodes of the first group or second group, respectively, is not empty. Determining an occupancy pattern for a parent node based on the occupancy of its child nodes; Determining a planar context information for at least one of the child nodes (102, 120); and Entropy encoding the occupancy pattern of the at least one of the child nodes (102, 120) based on the determined planar context information to produce encoded data for the bitstream; wherein the occupancy pattern for the present child node (102, 120) comprises planar information, wherein the planar information comprises isPlanar information and planePosition information, and the planar context information for the entropy encoding/decoding of the planar information includes context information indicating the likelihood that the present child (102, 120) node belongs to a surface defined by points of the point cloud and the likely position of the plane within the present child node; and characterised in that the planar context information is determined according to an occupied status of a first group of four child nodes of the neighboring parent node (104, 106, 108) that are directly next to the present parent node (100, 122) and the occupied status of a second group of four child nodes of the present parent node (100, 122) directly opposite the first group wherein the occupied status is fulfilled if at least one of the child nodes of the first group or second group, respectively, is not empty.
A wireless communication device configured to connect wirelessly to an external device, comprising: a first wireless communicator configured to communicate by a first proximity communication; a second wireless communicator configured to communicate by a second proximity communication having a shorter communication range than the first proximity communication; and a controller configured to execute a process enabling communication by the second proximity communication when the first wireless communicator receives a beacon signal from the external device, characterized in that the controller is configured to turn on the second wireless communicator in response to the first wireless communicator receiving a beacon signal from the external device via the first proximity communication in a state in which the second wireless communicator is turned off. a first wireless communicator configured to communicate by a first proximity communication; a second wireless communicator configured to communicate by a second proximity communication having a shorter communication range than the first proximity communication; and a controller configured to execute a process enabling communication by the second proximity communication when the first wireless communicator receives a beacon signal from the external device, characterized in that the controller is configured to turn on the second wireless communicator in response to the first wireless communicator receiving a beacon signal from the external device via the first proximity communication in a state in which the second wireless communicator is turned off.
Inhibitor of surface protein D (SP-D) for use in the prevention and/or treatment of secondary infection, wherein the inhibitor of surface protein (SP-D) is selected from anti-SP-D antibody, an anti-SP-D antibody fragment, a recombinant anti-SP-D antibody, a binding peptide, a siRNA, an antisense oligo or a ligand trap.
A composition comprising nicotinamide riboside and pterostilbene for use in treating or preventing fatty liver in a subject, wherein each dose of the composition administered to the subject comprises 250 mg of nicotinamide riboside and 50 mg pterostilbene.