mhurhangee/ep-ind-claims huggingface dataset:
A method of controlling operation of an inhaling device (100, 700), the inhaling device comprising a gas flow path through which gas can be drawn by the action of a user puff, a gas flow sensor (111,711) within the gas flow path and a memory, the method comprising: recording gas flow measurements from the gas flow sensor; comparing the gas flow measurements with a user puff signature (300, 310, 320) stored in memory to provide a correlation score; and enabling or disabling further operation of the device based on a value of the correlation score. recording gas flow measurements from the gas flow sensor; comparing the gas flow measurements with a user puff signature (300, 310, 320) stored in memory to provide a correlation score; and enabling or disabling further operation of the device based on a value of the correlation score.
A composition for use in the treatment of osteoarthritis, wherein said composition comprises from 5 to 40 mg of sodium chlodronate, or an equivalent amount of chlodronic acid, or other pharmaceutically acceptable salts thereof, and wherein said composition is in a unitary dosage form administered intra-articularly once monthly.
A test fixture for determining circumferential shear properties of an arcuate test specimen, comprising: an outer fixture configured to be coupled to an outer side of a test specimen having an arcuate shape defining a center of curvature, the outer fixture being rotatably mounted on a central pin coaxial with the center of curvature and including a rocker arm; an inner fixture configured to be coupled to an inner side of the test specimen, the inner fixture being rotatably mounted on the central pin and including a load arm extending in a direction opposite the rocker arm; and the inner fixture and the outer fixture being configured such that application of a test load to the rocker arm and the load arm causes rotation thereof about the central pin producing circumferential movement of the inner side relative to the outer side and inducing a circumferential shear load in the test specimen, the test fixture further comprising: a spanner having two opposing spanner ends; a pair of side links interconnecting the rocker arm and the load arm to respectively the first and the second end of the spanner; and the spanner and the side links transmitting the test load to the rocker arm and the load arm. an outer fixture configured to be coupled to an outer side of a test specimen having an arcuate shape defining a center of curvature, the outer fixture being rotatably mounted on a central pin coaxial with the center of curvature and including a rocker arm; an inner fixture configured to be coupled to an inner side of the test specimen, the inner fixture being rotatably mounted on the central pin and including a load arm extending in a direction opposite the rocker arm; and the inner fixture and the outer fixture being configured such that application of a test load to the rocker arm and the load arm causes rotation thereof about the central pin producing circumferential movement of the inner side relative to the outer side and inducing a circumferential shear load in the test specimen, the test fixture further comprising: a spanner having two opposing spanner ends; a pair of side links interconnecting the rocker arm and the load arm to respectively the first and the second end of the spanner; and the spanner and the side links transmitting the test load to the rocker arm and the load arm. a spanner having two opposing spanner ends; a pair of side links interconnecting the rocker arm and the load arm to respectively the first and the second end of the spanner; and the spanner and the side links transmitting the test load to the rocker arm and the load arm.
Fastening clip for fastening a bracket, in particular a metal bracket, in a vehicle, wherein the fastening clip can be pushed into an opening in a body part and fixed in said opening, and wherein the fastening clip has a housing, with a push-in opening and an elongate receiving space for the bracket, and a latching element is provided in the receiving space, said latching element being moveable resiliently from a retaining position, in which the latching element retains the bracket in the receiving space, into a release position, in which the bracket can be inserted into or pulled out from the receiving space, and a fixing position, wherein corresponding retaining elements (46, 48) which fix the latching element in the fixing position are provided in the receiving space and on the latching element, characterized in that the latching element is moveable from the retaining position into the fixing positon counter to the push-in direction, the retaining elements (46, 48) are arranged one behind the other in the push-in direction and at least partially overlap in the push-in direction in the retaining position and the fixing position.
An up-conversion phosphor comprising, in a ZnMoO 4 -based matrix material thereof, Yb 3+, at least one rare earth metal ion selected from the group consisting of Tm 3+, Er 3+ and Ho 3+, and at least one monovalent metal ion selected from the group consisting of Li +, K +, Na + and Rb +.
An organic electronic device comprising an organic semiconductor material comprising a chalcogen-containing aromatic compound represented by the general formula: wherein in formula each X independently represents oxygen, sulfur, or selenium, each A independently represents an alkyl group having 1 to 30 carbon atoms, a cycloalkyl group having 3 to 30 carbon atoms, an alkenyl group having 2 to 30 carbon atoms, an alkynyl group having 2 to 30 carbon atoms, an aromatic hydrocarbon group having 6 to 50 carbon atoms, an aromatic heterocyclic group having 3 to 50 carbon atoms and being free of a fused heterocycle having 4 or more rings, or an amino group having 2 to 30 carbon atoms, and each n independently represents an integer of 0 to 2, provided that a sum of two n's is an integer of 1 to 4. each X independently represents oxygen, sulfur, or selenium, each A independently represents an alkyl group having 1 to 30 carbon atoms, a cycloalkyl group having 3 to 30 carbon atoms, an alkenyl group having 2 to 30 carbon atoms, an alkynyl group having 2 to 30 carbon atoms, an aromatic hydrocarbon group having 6 to 50 carbon atoms, an aromatic heterocyclic group having 3 to 50 carbon atoms and being free of a fused heterocycle having 4 or more rings, or an amino group having 2 to 30 carbon atoms, and each n independently represents an integer of 0 to 2, provided that a sum of two n's is an integer of 1 to 4.
A method for performing vehicle-to-everything, V2X, communication by sharing an uplink resource and a sidelink resource in a wireless communication system, the method comprising: transmitting, by a first user equipment, UE, a reference signal to a base station; receiving, by the first UE, a downlink control signal from the base station, the downlink control signal comprising beam restriction information indicating a beam not to be used to reduce interference in an uplink signal when the first UE transmits a sidelink signal; and transmitting, by the first UE, the sidelink signal to a second UE using a beam other than the beam indicated by the beam restriction information, the sidelink signal being transmitted through a resource pool in which the uplink resource and the sidelink resource overlap in time and frequency domains, wherein the downlink control signal further comprises beam recommendation information indicating a beam to used when the first UE transmits an uplink signal, the uplink signal is transmitted to the base station through the resource pool using the beam indicated by the beam recommendation information, the downlink control signal further comprises a channel information type field, the beam recommendation information is comprised in the downlink control signal when the channel information type field indicates a first value, and the beam restriction information is comprised in the downlink control signal when the channel information type field indicates a second value. transmitting, by a first user equipment, UE, a reference signal to a base station; receiving, by the first UE, a downlink control signal from the base station, the downlink control signal comprising beam restriction information indicating a beam not to be used to reduce interference in an uplink signal when the first UE transmits a sidelink signal; and transmitting, by the first UE, the sidelink signal to a second UE using a beam other than the beam indicated by the beam restriction information, the sidelink signal being transmitted through a resource pool in which the uplink resource and the sidelink resource overlap in time and frequency domains, wherein the downlink control signal further comprises beam recommendation information indicating a beam to used when the first UE transmits an uplink signal, the uplink signal is transmitted to the base station through the resource pool using the beam indicated by the beam recommendation information, the downlink control signal further comprises a channel information type field, the beam recommendation information is comprised in the downlink control signal when the channel information type field indicates a first value, and the beam restriction information is comprised in the downlink control signal when the channel information type field indicates a second value.
A process for producing a plastic parison (preform) of an inflatable large-volume container, wherein the plastic parison has a closure region and an inflatable hollow body region, wherein at least the inflatable hollow body region of the plastic parison is composed of several layers (1a, 1b, 1c,...), wherein plastic material M is melted and injected into a moulding tool (5, 5a, 5b), wherein at least for the hollow body region of the plastic parison several cavities are formed in succession for the production of individual layers, wherein in each cavity a layer is formed, wherein firstly a first cavity is formed for the production of a first layer which forms the innermost layer of the plastic parison, wherein the thus formed cavity is filled with the melted plastic material and the first, inner layer is formed, wherein subsequently for each further layer (1b, 1c,...) respectively a further cavity of suitable size is formed and is filled with plastic material, wherein each further layer (1b, 1c,...) is formed onto the layer formed in a preceding step, and wherein in each step layers with a layer thickness (d1, d2, d3,...) are formed, which only slightly differ from one another taking into consideration the cooling rate of the respective layer (1a, 1b, 1c...) in such a way that for each of the layers a substantially identical cycle time is provided for their production or respectively moulding.
A touch input method in a mobile terminal having a touch screen that includes a transparent display panel, a front touch panel configured to detect a touch input corresponding to a front of the transparent display panel, and a rear touch panel configured to detect a touch input corresponding to a rear of the transparent display panel, the method comprising: detecting a touch input from one of the front touch panel and the rear touch panel; and displaying, in response to the detected touch input via the rear touch panel having been determined to initiate data input, a keypad at a top of the touch screen and ignoring any touch input via the front touch panel. detecting a touch input from one of the front touch panel and the rear touch panel; and displaying, in response to the detected touch input via the rear touch panel having been determined to initiate data input, a keypad at a top of the touch screen and ignoring any touch input via the front touch panel.
A method of printing a 3D part with an additive manufacturing system, comprising: printing a first portion of the part; pre-heating the first portion of the part along an upcoming tool path to a temperature at or above a material-specific bonding temperature and below a degradation temperature of the material; extruding material onto the first portion along the pre-heated tool path while the temperature along the part surface remains at or above a material-specific bonding temperature and below the degradation temperature of the material thereby forming a newly extruded road, wherein the newly extruded road is thereby bonded to the first portion of the part; characterised by cooling the newly extruded road along the pre-heated tool path to remove heat imparted by the preheating step such that a thermally stable temperature is reached, wherein the preheating, extruding and cooling is performed in less than ten seconds. printing a first portion of the part; pre-heating the first portion of the part along an upcoming tool path to a temperature at or above a material-specific bonding temperature and below a degradation temperature of the material; extruding material onto the first portion along the pre-heated tool path while the temperature along the part surface remains at or above a material-specific bonding temperature and below the degradation temperature of the material thereby forming a newly extruded road, wherein the newly extruded road is thereby bonded to the first portion of the part; characterised by cooling the newly extruded road along the pre-heated tool path to remove heat imparted by the preheating step such that a thermally stable temperature is reached, wherein the preheating, extruding and cooling is performed in less than ten seconds.
A piezoelectric ceramic plate comprising a plurality of crystal grains containing a lead zirconate titanate-type crystal containing Zn and Bi, and crystal grain boundaries existing between the crystal grains, and a pair of quadrangular main surfaces, a pair of first side surfaces opposing each other, and a pair of second side surfaces opposing each other, wherein the pair of first side surfaces are surfaces that have not been processed after firing, and where the distance between the pair of first side surfaces measured at the center in the longitudinal direction of the first side surfaces is denoted by Lc and the distance between the pair of first side surfaces measured at ends in the longitudinal direction of the first side surfaces is denoted by Le, the ratio of the difference ΔL between Le and Lc to Lc (ΔL/Lc) is 1.0% or less, wherein the crystal grains include a first crystal grain, in which is Ci < Cb, and a second crystal grain, in which is Ci ≥ Cb, followed by comparison of the content Ci of at least one element of Zn and Bi at the inside of the crystal grain with the content Cb thereof at the crystal grain boundary adjoining the crystal grain, and wherein the percentage of the first crystal grains is 80% or more of the crystal grains as expressed by the ratio of the number of the first crystal grains to the total number of the first crystal grains and the second crystal grains. a plurality of crystal grains containing a lead zirconate titanate-type crystal containing Zn and Bi, and crystal grain boundaries existing between the crystal grains, and a pair of quadrangular main surfaces, a pair of first side surfaces opposing each other, and a pair of second side surfaces opposing each other, wherein the pair of first side surfaces are surfaces that have not been processed after firing, and where the distance between the pair of first side surfaces measured at the center in the longitudinal direction of the first side surfaces is denoted by Lc and the distance between the pair of first side surfaces measured at ends in the longitudinal direction of the first side surfaces is denoted by Le, the ratio of the difference ΔL between Le and Lc to Lc (ΔL/Lc) is 1.0% or less, wherein the crystal grains include a first crystal grain, in which is Ci < Cb, and a second crystal grain, in which is Ci ≥ Cb, followed by comparison of the content Ci of at least one element of Zn and Bi at the inside of the crystal grain with the content Cb thereof at the crystal grain boundary adjoining the crystal grain, and wherein the percentage of the first crystal grains is 80% or more of the crystal grains as expressed by the ratio of the number of the first crystal grains to the total number of the first crystal grains and the second crystal grains.
An image forming apparatus configured to perform non-decolorable printing and decolorable printing, comprising: a first control circuit configured to communicate with an information processing device; a second control circuit configured to communicate with the first control circuit; and a third control circuit configured to communicate with the second control circuit and control a printer, the first control circuit being configured to: receive print information from the information processing device during a power-saving mode; and control a start of the second control circuit based on the print information; and the second control circuit being configured to: control a power supply to the third control circuit based on the start by the first control circuit; and transmit a warm-up start instruction for the printer to the third control circuit based on the print information acquired from the first control circuit after communication with the third control circuit becomes possible; wherein the print information includes a print mode indicating either non-decolorable printing or decolorable printing. a first control circuit configured to communicate with an information processing device; a second control circuit configured to communicate with the first control circuit; and a third control circuit configured to communicate with the second control circuit and control a printer, the first control circuit being configured to: receive print information from the information processing device during a power-saving mode; and control a start of the second control circuit based on the print information; and receive print information from the information processing device during a power-saving mode; and control a start of the second control circuit based on the print information; and the second control circuit being configured to: control a power supply to the third control circuit based on the start by the first control circuit; and transmit a warm-up start instruction for the printer to the third control circuit based on the print information acquired from the first control circuit after communication with the third control circuit becomes possible; wherein the print information includes a print mode indicating either non-decolorable printing or decolorable printing. control a power supply to the third control circuit based on the start by the first control circuit; and transmit a warm-up start instruction for the printer to the third control circuit based on the print information acquired from the first control circuit after communication with the third control circuit becomes possible; wherein the print information includes a print mode indicating either non-decolorable printing or decolorable printing.
A method for determining a precoding matrix indicator, comprising: determining a precoding matrix indicator PMI, wherein the PMI corresponds to a precoding matrix W, and the precoding matrix W satisfies that: the precoding matrix W comprises one or more column vectors of a block diagonal matrix W 1, or the precoding matrix W is obtained by performing weighted combination on one or more column vectors of a block diagonal matrix W 1, wherein W 1 = diag { X 1..., X N B}, and N B ≥ 1, wherein at least one block matrix X is a product X = DV of a matrix D and a matrix V, and X ∈ { X 1, X 2,..., X N B}; the matrix D is a diagonal matrix, D = α ⋅ diag u 1, u 2,..., u n, u n ∗, u n − 1 ∗,..., u 1 ∗, α is a complex factor, a complex number u i ∗ is a conjugate complex number of a complex number u i, and n is determined by a quantity of antenna ports; and the matrix V is a constant modulus matrix whose elements have a same module or amplitude. the precoding matrix W comprises one or more column vectors of a block diagonal matrix W 1, or the precoding matrix W is obtained by performing weighted combination on one or more column vectors of a block diagonal matrix W 1, wherein W 1 = diag { X 1..., X N B}, and N B ≥ 1, wherein at least one block matrix X is a product X = DV of a matrix D and a matrix V, and X ∈ { X 1, X 2,..., X N B}; the matrix D is a diagonal matrix, D = α ⋅ diag u 1, u 2,..., u n, u n ∗, u n − 1 ∗,..., u 1 ∗, α is a complex factor, a complex number u i ∗ is a conjugate complex number of a complex number u i, and n is determined by a quantity of antenna ports; and the matrix V is a constant modulus matrix whose elements have a same module or amplitude.
Dexamethasone for use in a method of treating a condition in an individual, the method comprising administering the dexamethasone to the individual prior to or together with stem cell treatment, wherein the condition is selected from the group consisting of: osteoarthritis, liver failure, type 2 diabetes mellitus, stroke, and Parkinson's disease.
A heat exchanger, comprising: a casing configured to direct a working fluid therethrough; at least one heat exchanger section in the casing, each HE section including a pair of spaced supports, each spaced support including: an upstream support and a downstream support, wherein at least one of the upstream support and the downstream support includes a coolant carrying body configured to direct a coolant therethrough; a first cross-support coupled to and extending between respective upstream and downstream supports (172U, 172D); at least one second cross-support coupled to and extending between the respective upstream and downstream supports (172U, 172D), each second cross-support vertically distanced from an adjacent first or another second cross-support (174, 176) thereabove; and a plurality of tube positioners (180, 280) suspended from each of the first and at least one second cross-support (174, 176), each tube positioner (180, 280) positioning a plurality of heat exchange tubes extending across at least a portion of a working fluid path through the casing. a casing configured to direct a working fluid therethrough; at least one heat exchanger section in the casing, each HE section including a pair of spaced supports, each spaced support including: an upstream support and a downstream support, wherein at least one of the upstream support and the downstream support includes a coolant carrying body configured to direct a coolant therethrough; a first cross-support coupled to and extending between respective upstream and downstream supports (172U, 172D); at least one second cross-support coupled to and extending between the respective upstream and downstream supports (172U, 172D), each second cross-support vertically distanced from an adjacent first or another second cross-support (174, 176) thereabove; and a plurality of tube positioners (180, 280) suspended from each of the first and at least one second cross-support (174, 176), each tube positioner (180, 280) positioning a plurality of heat exchange tubes extending across at least a portion of a working fluid path through the casing. an upstream support and a downstream support, wherein at least one of the upstream support and the downstream support includes a coolant carrying body configured to direct a coolant therethrough; a first cross-support coupled to and extending between respective upstream and downstream supports (172U, 172D); at least one second cross-support coupled to and extending between the respective upstream and downstream supports (172U, 172D), each second cross-support vertically distanced from an adjacent first or another second cross-support (174, 176) thereabove; and a plurality of tube positioners (180, 280) suspended from each of the first and at least one second cross-support (174, 176), each tube positioner (180, 280) positioning a plurality of heat exchange tubes extending across at least a portion of a working fluid path through the casing.