mhurhangee/ep-ind-claims huggingface dataset:
A method for connecting terminals, comprising: sending, by a first terminal, a first message to a second terminal, wherein the first message comprises a first access layer configuration parameter, the first access layer configuration parameter being used by the second terminal to configure a parameter of an access layer to communicate with the first terminal; receiving, by the first terminal, a second message from the second terminal, wherein the second message comprises a second access layer configuration parameter; wherein the first terminal receives the second message when at least one of the following conditions is met: a bearer used by at least one of the first terminal or the second terminal is different from a bearer of an existing connection; or the bearer used by at least one of the first terminal or the second terminal is the same as the bearer used by the existing connection, but a configured destination terminal is different. sending, by a first terminal, a first message to a second terminal, wherein the first message comprises a first access layer configuration parameter, the first access layer configuration parameter being used by the second terminal to configure a parameter of an access layer to communicate with the first terminal; receiving, by the first terminal, a second message from the second terminal, wherein the second message comprises a second access layer configuration parameter; wherein the first terminal receives the second message when at least one of the following conditions is met: a bearer used by at least one of the first terminal or the second terminal is different from a bearer of an existing connection; or the bearer used by at least one of the first terminal or the second terminal is the same as the bearer used by the existing connection, but a configured destination terminal is different. a bearer used by at least one of the first terminal or the second terminal is different from a bearer of an existing connection; or the bearer used by at least one of the first terminal or the second terminal is the same as the bearer used by the existing connection, but a configured destination terminal is different.
An electronic apparatus comprising: a collapsible, flexible electronic display configured to be extendable, said flexible electronic display comprising a substantially deformable area (32a, 32b) and a substantially non-deformable area (23a, 23b, 23c); display drivers (35a, 35b, 35c, 35d) for driving the flexible electronic display, wherein the display drivers (35a, 35b, 35c, 35d) are arranged on the substantially non-deformable area (31a, 31 b, 31 c); and an interconnecting element for providing an electrical interconnection between the display drivers (35a, 35b, 35c, 35d), wherein the interconnecting element comprises a first layer of electrically conductive material patterned on a substrate of the flexible display; wherein the first layer of electrically conductive material is separated from a second layer of electrically conducting material of the flexible electronic display by an electrically insulating layer, and said first layer and said second layer are locally electrically interconnected, at an edge portion of the flexible electronic display, using a conducting bridging means, said conducting bridging means comprising an anisotropically conducting foil having a plurality of electrically conducting tracks (79a, 79b, 79c) separated by areas of electrically insulating material. a collapsible, flexible electronic display configured to be extendable, said flexible electronic display comprising a substantially deformable area (32a, 32b) and a substantially non-deformable area (23a, 23b, 23c); display drivers (35a, 35b, 35c, 35d) for driving the flexible electronic display, wherein the display drivers (35a, 35b, 35c, 35d) are arranged on the substantially non-deformable area (31a, 31 b, 31 c); and an interconnecting element for providing an electrical interconnection between the display drivers (35a, 35b, 35c, 35d), wherein the interconnecting element comprises a first layer of electrically conductive material patterned on a substrate of the flexible display; wherein the first layer of electrically conductive material is separated from a second layer of electrically conducting material of the flexible electronic display by an electrically insulating layer, and said first layer and said second layer are locally electrically interconnected, at an edge portion of the flexible electronic display, using a conducting bridging means, said conducting bridging means comprising an anisotropically conducting foil having a plurality of electrically conducting tracks (79a, 79b, 79c) separated by areas of electrically insulating material.
A gas turbine arrangement comprising a combustion chamber for combustion of oxidizer and fuel to form exhaust gas, a fresh gas side with conduit means upstream of the combustion chamber for conduit of oxidizer and/or fuel to the combustion chamber and an exhaust gas side having conduit means downstream of the combustion chamber for conduit of exhaust gas leading away from the combustion chamber, a compressor device arranged on the fresh gas side for compressing oxidizer, a turbine device, which is arranged on the exhaust gas side and is mechanically coupled to the compressor device by means of a shaft, for expanding the exhaust gas with decoupling of energy, a heat pump arrangement, to which energy contained in the exhaust gas can be transferred, wherein the exhaust gas can flow through at least one heat exchange device of the heat pump arrangement on the exhaust gas side downstream of the turbine device, which heat exchange device forms a heat source of the heat pump arrangement, and comprising an exhaust gas recirculation line for external exhaust gas recirculation with the addition of at least a portion of the exhaust gas to the fresh gas side, which branches off from the exhaust gas side downstream of the turbine device and opens on the fresh gas side, upstream of the compressor device, characterized in that the exhaust gas recirculation line branches off downstream of the heat exchange device of the heat pump arrangement. a combustion chamber for combustion of oxidizer and fuel to form exhaust gas, a fresh gas side with conduit means upstream of the combustion chamber for conduit of oxidizer and/or fuel to the combustion chamber and an exhaust gas side having conduit means downstream of the combustion chamber for conduit of exhaust gas leading away from the combustion chamber, a compressor device arranged on the fresh gas side for compressing oxidizer, a turbine device, which is arranged on the exhaust gas side and is mechanically coupled to the compressor device by means of a shaft, for expanding the exhaust gas with decoupling of energy, a heat pump arrangement, to which energy contained in the exhaust gas can be transferred, wherein the exhaust gas can flow through at least one heat exchange device of the heat pump arrangement on the exhaust gas side downstream of the turbine device, which heat exchange device forms a heat source of the heat pump arrangement, and comprising an exhaust gas recirculation line for external exhaust gas recirculation with the addition of at least a portion of the exhaust gas to the fresh gas side, which branches off from the exhaust gas side downstream of the turbine device and opens on the fresh gas side, upstream of the compressor device, characterized in that the exhaust gas recirculation line branches off downstream of the heat exchange device of the heat pump arrangement.
A filtering and pumping apparatus (1; 100; 200) for medical use comprising: - Feeding lines and removal lines (13, 15, 18, 20, 22, 24, 26) of a fluid to be pumped and filtered; - A pumping unit (10, 11, 12) to pump said fluid along said lines (13, 15, 18, 20, 22, 24, 26); - A filter unit to filter said fluid; said lines (13, 15, 18, 20, 22, 24, 26), said pumping unit (10, 11, 12), said filter unit being all reciprocally associated in a single compact body characterized in that said single compact body comprises a flat body which has a longitudinal axis and a longitudinal housing chamber obtained therein and wherein a filter unit is housed, said longitudinal housing chamber having at least one outer projection projecting therefrom toward, but not over, one of two opposed flat outer faces (1A, 1B) defined by said flat body, so that said projection has dimensions contained within the plan projection of said flat body on a plane perpendicular to said longitudinal axis, within said projection said pumping unit (10, 11, 12) is housed. - Feeding lines and removal lines (13, 15, 18, 20, 22, 24, 26) of a fluid to be pumped and filtered; - A pumping unit (10, 11, 12) to pump said fluid along said lines (13, 15, 18, 20, 22, 24, 26); - A filter unit to filter said fluid;
A method for transmitting, by an Access Point, AP, data in a wireless local area network, WLAN, system, the method comprising: receiving an uplink, UL, frame from a first STA, wherein the UL frame comprising first receive, Rx, operating mode information representing a first Rx operating mode to be changed by the first STA; and transmitting, to the first STA, an acknowledgement, ACK, frame for UL multiuser, MU, transmission, wherein the ACK frame comprises mode change acceptance information representing an acceptance or denial of change of the first Rx operating mode based on the first Rx operating mode information, wherein based on the mode change acceptance information representing the denial of change of the first Rx operating mode, the ACK frame further comprises second Rx operating mode information for the first STA, wherein the second Rx operating mode information represents a second Rx operating mode different from the first Rx operating mode, wherein each of the first Rx operating mode information and the second Rx operating mode information comprises Rx spatial stream number information and Rx channel bandwidth information, and wherein the Rx spatial stream number information and the Rx channel bandwidth information included in the first Rx operating mode information are different from the Rx spatial stream number information and the Rx channel bandwidth information included in the second Rx operating mode information. receiving an uplink, UL, frame from a first STA, wherein the UL frame comprising first receive, Rx, operating mode information representing a first Rx operating mode to be changed by the first STA; and transmitting, to the first STA, an acknowledgement, ACK, frame for UL multiuser, MU, transmission, wherein the ACK frame comprises mode change acceptance information representing an acceptance or denial of change of the first Rx operating mode based on the first Rx operating mode information, wherein based on the mode change acceptance information representing the denial of change of the first Rx operating mode, the ACK frame further comprises second Rx operating mode information for the first STA, wherein the second Rx operating mode information represents a second Rx operating mode different from the first Rx operating mode, wherein each of the first Rx operating mode information and the second Rx operating mode information comprises Rx spatial stream number information and Rx channel bandwidth information, and wherein the Rx spatial stream number information and the Rx channel bandwidth information included in the first Rx operating mode information are different from the Rx spatial stream number information and the Rx channel bandwidth information included in the second Rx operating mode information.
A cutter head (200, 400, 800) for an electric trimmer, the cutter head (200, 400, 800) comprising: a housing (202, 402, 802) having an interior compartment; and a cutting assembly (208, 408, 808) comprising a pair of cutting blades (210, 212, 410, 412, 810, 812), at least one of the cutting blades (210, 212, 410, 412, 810, 812) being configured for reciprocating movement, at least a portion of the cutting assembly (208, 408, 808) being disposed within the interior compartment of the housing (202, 402, 802), the cutting assembly (208, 408, 808) further having a front edge (218, 418, 818) disposed exterior of the housing (202, 402, 802) for trimming hair upon operation of the trimmer, said housing (202, 402, 802) comprising a plurality of guard fingers (234, 280, 434, 480, 880) extending beyond but not over the front edge (218, 418, 818) of the cutting assembly (208, 408, 808) to inhibit the front edge (218, 418, 818) against contacting a person's skin during hair trimming, characterized in that the plurality of guard fingers (234, 280, 434, 480, 880) including a plurality of first guard fingers extending above the cutting assembly (208, 408, 808) at an oblique angle relative to the blades (210, 212, 410, 412, 810, 812) and a plurality of second guard fingers extending below the cutting assembly (208, 408, 808) substantially parallel to the blades (210, 212, 410, 412, 810, 812). a housing (202, 402, 802) having an interior compartment; and a cutting assembly (208, 408, 808) comprising a pair of cutting blades (210, 212, 410, 412, 810, 812), at least one of the cutting blades (210, 212, 410, 412, 810, 812) being configured for reciprocating movement, at least a portion of the cutting assembly (208, 408, 808) being disposed within the interior compartment of the housing (202, 402, 802), the cutting assembly (208, 408, 808) further having a front edge (218, 418, 818) disposed exterior of the housing (202, 402, 802) for trimming hair upon operation of the trimmer, said housing (202, 402, 802) comprising a plurality of guard fingers (234, 280, 434, 480, 880) extending beyond but not over the front edge (218, 418, 818) of the cutting assembly (208, 408, 808) to inhibit the front edge (218, 418, 818) against contacting a person's skin during hair trimming, characterized in that the plurality of guard fingers (234, 280, 434, 480, 880) including a plurality of first guard fingers extending above the cutting assembly (208, 408, 808) at an oblique angle relative to the blades (210, 212, 410, 412, 810, 812) and a plurality of second guard fingers extending below the cutting assembly (208, 408, 808) substantially parallel to the blades (210, 212, 410, 412, 810, 812).
Power electronic system having a cooling device with a first base body, at least one subsystem and a housing, the cooling device having at least one recess in its first base body, the at least one subsystem having a switching device with a power electronic circuit having load connection elements (52, 54, 56) and auxiliary connection elements of different polarity and with a cooling component which extends into an associated recess in the cooling device, which recess forms a depression in the first base body, and, respectively consisting only of a second base body which is accommodated completely in a formfitting manner in the recess of the first base body of the cooling device and therefore comes to rest there and the housing covering the at least one subsystem towards the cooling device.
An injectable composition comprising a reverse-temperature sensitive hydrogel comprising hyaluronic acid having a molecular weight of 1 million Da or greater and a synthetic polymer comprising 15% wt/vol to 20% wt/vol poloxamer F127, and an amount of amobarbital, pentobarbital, secobarbital, phenobarbital, barbital, adenosine diphosphate ribose, or metformin effective to inhibit post-traumatic osteoarthritis.
A computer-implemented method for determining an optimal individual dosing regimen of at least one drug for a patient suffering from a known disease associated with a disease progression model in accordance with the Non-Linear Mixed Effects modeling approach referred to as NLME modeling approach, wherein the method comprises the steps of: (a) Accessing a mathematical model adapted to model a disease progression of said disease, the mathematical model comprising a basic mathematical model together with the application of the NLME modeling approach to describe a given population of patients by its population parameters, covariates and parameter distributions, wherein the basic mathematical model is a pharmacokinetic model or a pharmacokinetic-pharmacodynamic model characterized by one or more differential equations, comprising a disease state as a variable characterizing the disease progression, (b) Using empirical Bayesian estimation to compute, based on patient data and the mathematical model, estimated individual model parameters for the patient belonging to the given population by maximizing the conditional probability density function for an individual with said population parameters and the patient data of said patient, (c) Calculating an optimal individual dosing regimen for the patient by solving an optimal control problem with an optimal control algorithm by minimizing a cost functional, which characterizes the difference between the disease state and a desired disease progression based on the mathematical model, and the individual model parameters of the patient, and starting with an initial control corresponding to an initial guess for the dosing regimen. (a) Accessing a mathematical model adapted to model a disease progression of said disease, the mathematical model comprising a basic mathematical model together with the application of the NLME modeling approach to describe a given population of patients by its population parameters, covariates and parameter distributions, wherein the basic mathematical model is a pharmacokinetic model or a pharmacokinetic-pharmacodynamic model characterized by one or more differential equations, comprising a disease state as a variable characterizing the disease progression, (b) Using empirical Bayesian estimation to compute, based on patient data and the mathematical model, estimated individual model parameters for the patient belonging to the given population by maximizing the conditional probability density function for an individual with said population parameters and the patient data of said patient, (c) Calculating an optimal individual dosing regimen for the patient by solving an optimal control problem with an optimal control algorithm by minimizing a cost functional, which characterizes the difference between the disease state and a desired disease progression based on the mathematical model, and the individual model parameters of the patient, and starting with an initial control corresponding to an initial guess for the dosing regimen.
Oil premix burner having a burner element, a burner surface on the outer lateral surface, a distribution chamber beneath the burner surface, a central oil injection device, a combustion air duct connected to a fan arranged upstream, and an air heat exchanger for pre-heating the combustion air in the region of the burner surface, wherein the air heat exchanger consists of at least one double-tube element with an inner tube and, concentric with the latter, an outer tube, characterized in that the inner tube and the outer tube are flowed through in series.
A compound of Formula: an ester of the compound of Formula, or a pharmaceutically acceptable salt of each of the foregoing, for use in a method of treating a patient diagnosed with idiopathic pulmonary fibrosis.
A reagent composition for flow cytometric detection of B-cell precursor ALL (BCP-ALL) in a human subject, comprising a panel of at least eight distinct fluorochrome-conjugated antibodies, the panel comprising at least antibodies against the core markers CD10, CD19, CD20, CD34 and CD45, and wherein the panel further comprises one or more antibodies selected from the group of antibodies against CD38, CD81, CyIgμ, and deoxynucleotidyl transferase (NuTdT), and wherein the panel further comprises one or more sets of antibodies selected from (a) set of antibodies against CD66c and CD123; (b) set of antibodies against CD304 and CD73; and (c) set of antibodies against SmIgκ and SmIgλ. wherein the antibodies within each set are conjugated to the same fluorochrome and wherein between different sets the fluorochromes are distinguishable. (a) set of antibodies against CD66c and CD123; (b) set of antibodies against CD304 and CD73; and (c) set of antibodies against SmIgκ and SmIgλ.
A method of cleaning a torch (13, 113) of a plasma coating plant in which the torch (13, 113) is impinged by a cleaning agent (30, 130) exiting from a cleaning nozzle (28, 128) during an interruption of a coating process and wherein spray material particles adhering at the torch (13, 113) are thus removed, characterized in that the cleaning agent (30, 130) is designed in such a way that it is gaseous under normal conditions and changes into a gaseous state after leaving the cleaning nozzle (28, 128).
A process for preparing a stable boron nitride powder-containing silicone gel personal care composition for application to skin or hair and comprising: combining (a) a source of silicone gel(s) containing not more than 10 weight percent thereof of non-silicone gel material(s), (b) a source of boron nitride powder(s) and (c) a source of silicone oil(s) to provide a stable, uniform mixture of (a), (b) and (c), which contains from 50 to 80 weight percent of silicone gel(s), with the balance of the composition being made up of boron nitride powder and silicone oil; and, combining the stable, uniform mixture of (a), (b) and (c) with at least one component selected from the group consisting of other silicone, surfactant, emulsifier, solvent, emollient, moisturizer, humectant, pigment, colorant, fragrance, preservative, antioxidant, biocide, biostat, antiperspirant, exfoliant, hormone, enzyme, medicinal, vitamin substance, hydroxy acid, retinal, retinol derivative, niacinamide, skin lightening agent, salt, electrolyte, alcohol, polyol, ester scattering and/or absorbing agent for ultraviolet radiation, botanical extract, peptide, protein, organic oil, gum, saccharide, oligosaccharide, polysaccharide, wax, film former, thickening agent, particulate filler, plasticizer, humectant, sensory enhancer, resin and optically active particle. combining (a) a source of silicone gel(s) containing not more than 10 weight percent thereof of non-silicone gel material(s), (b) a source of boron nitride powder(s) and (c) a source of silicone oil(s) to provide a stable, uniform mixture of (a), (b) and (c), which contains from 50 to 80 weight percent of silicone gel(s), with the balance of the composition being made up of boron nitride powder and silicone oil; and, (a) a source of silicone gel(s) containing not more than 10 weight percent thereof of non-silicone gel material(s), (b) a source of boron nitride powder(s) and (c) a source of silicone oil(s) combining the stable, uniform mixture of (a), (b) and (c) with at least one component selected from the group consisting of other silicone, surfactant, emulsifier, solvent, emollient, moisturizer, humectant, pigment, colorant, fragrance, preservative, antioxidant, biocide, biostat, antiperspirant, exfoliant, hormone, enzyme, medicinal, vitamin substance, hydroxy acid, retinal, retinol derivative, niacinamide, skin lightening agent, salt, electrolyte, alcohol, polyol, ester scattering and/or absorbing agent for ultraviolet radiation, botanical extract, peptide, protein, organic oil, gum, saccharide, oligosaccharide, polysaccharide, wax, film former, thickening agent, particulate filler, plasticizer, humectant, sensory enhancer, resin and optically active particle.