mhurhangee/patent-ind-claim-en huggingface dataset:
Use of a composition for a hole-collecting layer in an organic photoelectric conversion device, the composition comprising a charge-transporting substance consisting of a polyaniline derivative of formula wherein R 1 to R 6 are each independently a hydrogen atom, a halogen atom, a nitro group, a cyano group, a sulfonic acid group, an alkoxy group of 1 to 20 carbon atoms, a thioalkoxy group of 1 to 20 carbon atoms, an alkyl group of 1 to 20 carbon atoms, an alkenyl group of 2 to 20 carbon atoms, an alkynyl group of 2 to 20 carbon atoms, a haloalkyl group of 1 to 20 carbon atoms, an aryl group of 6 to 20 carbon atoms, an aralkyl group of 7 to 20 carbon atoms or an acyl group of 1 to 20 carbon atoms, with one of the R 1 to R 4 moieties being a sulfonic acid group and at least one of the remaining R 1 to R 4 moieties being an alkoxy group of 1 to 20 carbon atoms, a thioalkoxy group of 1 to 20 carbon atoms, an alkyl group of 1 to 20 carbon atoms, an alkenyl group of 2 to 20 carbon atoms, an alkynyl group of 2 to 20 carbon atoms, a haloalkyl group of 1 to 20 carbon atoms, an aryl group of 6 to 20 carbon atoms or an aralkyl group of 7 to 20 carbon atoms; and m and n are each numbers which satisfy the conditions 0 ≤ m ≤ 1, 0 ≤ n ≤ 1 and m+n = 1; and a solvent. wherein R 1 to R 6 are each independently a hydrogen atom, a halogen atom, a nitro group, a cyano group, a sulfonic acid group, an alkoxy group of 1 to 20 carbon atoms, a thioalkoxy group of 1 to 20 carbon atoms, an alkyl group of 1 to 20 carbon atoms, an alkenyl group of 2 to 20 carbon atoms, an alkynyl group of 2 to 20 carbon atoms, a haloalkyl group of 1 to 20 carbon atoms, an aryl group of 6 to 20 carbon atoms, an aralkyl group of 7 to 20 carbon atoms or an acyl group of 1 to 20 carbon atoms, with one of the R 1 to R 4 moieties being a sulfonic acid group and at least one of the remaining R 1 to R 4 moieties being an alkoxy group of 1 to 20 carbon atoms, a thioalkoxy group of 1 to 20 carbon atoms, an alkyl group of 1 to 20 carbon atoms, an alkenyl group of 2 to 20 carbon atoms, an alkynyl group of 2 to 20 carbon atoms, a haloalkyl group of 1 to 20 carbon atoms, an aryl group of 6 to 20 carbon atoms or an aralkyl group of 7 to 20 carbon atoms; and m and n are each numbers which satisfy the conditions 0 ≤ m ≤ 1, 0 ≤ n ≤ 1 and m+n = 1; and a solvent.
A pharmaceutical composition comprising ibrutinib, wherein ibrutinib is a compound with the structure of Compound 1, and wherein the pharmaceutical composition comprises i) at least 60% w/w of ibrutinib, and ii) excipients comprising 4-7% w/w of mannitol, and 13-16% w/w of crospovidone of the total weight of the pharmaceutical composition.
A water-based ink comprising a pigment (A), a water-soluble organic solvent (C), a surfactant (D) and water, in which: a content of water in the water-based ink is not less than 45% by mass and not more than 60% by mass, a boiling point of the water-soluble organic solvent (C) is not higher than 230°C, and a content of a high-boiling point organic solvent having a boiling point of not lower than 250°C in the water-based ink is not more than 4% by mass; and the surfactant (D) comprises a silicone-based surfactant (d-1) and an acetylene glycol-based surfactant (d-2) which satisfy the following conditions 1 and 2: [(content of component (d-1))/(content of component (C))] x 100 = 0.15 to 4; and [(content of component (d-2))/(content of component (C))] x 100 = 0.35 to 1.65; and wherein the water-soluble organic solvent means such an organic solvent whose solubility in water as measured by dissolving the organic solvent in 100 g of ion-exchanged water at 25°C until reaching a saturated concentration thereof is not less than 10 g. a content of water in the water-based ink is not less than 45% by mass and not more than 60% by mass, a boiling point of the water-soluble organic solvent (C) is not higher than 230°C, and a content of a high-boiling point organic solvent having a boiling point of not lower than 250°C in the water-based ink is not more than 4% by mass; and the surfactant (D) comprises a silicone-based surfactant (d-1) and an acetylene glycol-based surfactant (d-2) which satisfy the following conditions 1 and 2: [(content of component (d-1))/(content of component (C))] x 100 = 0.15 to 4; and [(content of component (d-2))/(content of component (C))] x 100 = 0.35 to 1.65; and wherein the water-soluble organic solvent means such an organic solvent whose solubility in water as measured by dissolving the organic solvent in 100 g of ion-exchanged water at 25°C until reaching a saturated concentration thereof is not less than 10 g.
An apparatus comprising: an acoustic sensing system positioned relative to an object , wherein the acoustic sensing system detects acoustic emissions and generates acoustic waveform data for the acoustic emissions detected; and an analyzer module implemented in a computer system that is configured to receive load data and the acoustic waveform data for the object , create a plurality of bins for the load data , generate a plurality of frequency distribution functions for the plurality of bins using the acoustic waveform data comprising creating a frequency distribution function for one of the bins, and repeating for each of the plurality of bins to create the plurality of frequency distribution functions, and apply a set of learning algorithms to the plurality of frequency distribution functions and the acoustic waveform data to generate an output that allows an operator to more easily and quickly assess a structural integrity of the object ; wherein the analyzer module is configured to generate each of the frequency distribution functions of the plurality of frequency distribution functions by dividing a selected frequency range into a plurality of frequency bins and to hold an incrementable count for each frequency bin in the plurality of frequency bins. an acoustic sensing system positioned relative to an object , wherein the acoustic sensing system detects acoustic emissions and generates acoustic waveform data for the acoustic emissions detected; and an analyzer module implemented in a computer system that is configured to receive load data and the acoustic waveform data for the object , create a plurality of bins for the load data , generate a plurality of frequency distribution functions for the plurality of bins using the acoustic waveform data comprising creating a frequency distribution function for one of the bins, and repeating for each of the plurality of bins to create the plurality of frequency distribution functions, and apply a set of learning algorithms to the plurality of frequency distribution functions and the acoustic waveform data to generate an output that allows an operator to more easily and quickly assess a structural integrity of the object ; wherein the analyzer module is configured to generate each of the frequency distribution functions of the plurality of frequency distribution functions by dividing a selected frequency range into a plurality of frequency bins and to hold an incrementable count for each frequency bin in the plurality of frequency bins.
A mobile charging station for electrical charging of electric vehicles, comprising at least one battery unit , at least one first charging interface for charging the battery unit , at least one second interface for charging an electric vehicle from the battery unit , means for automatic navigation of the mobile charging station and means for receiving a charging request, characterized in that the mobile charging station has a mobile robot platform and a passive platform with wheels that are mechanically couplable to one another, wherein the mobile robot platform has at least one electrical drive , which is supplied with power by a further battery unit , wherein the battery unit for charging an electric vehicle is arranged on the passive platform .
A plasticizing device , comprising: a feeder configured to supply a resin to a cylinder ; a screw configured to move axially in the cylinder ; a cylinder pressure sensor installed at a predetermined position in the cylinder and configured to detect a pressure at the predetermined position in the cylinder ; a pressure-rise point estimating part configured to estimate a position of a pressure-rise point (IL) where a pressure in the cylinder starts to increase due to resin supplied into the cylinder during a metering process based on a value detected by the cylinder pressure sensor . a feeder configured to supply a resin to a cylinder ; a screw configured to move axially in the cylinder ; a cylinder pressure sensor installed at a predetermined position in the cylinder and configured to detect a pressure at the predetermined position in the cylinder ; a pressure-rise point estimating part configured to estimate a position of a pressure-rise point (IL) where a pressure in the cylinder starts to increase due to resin supplied into the cylinder during a metering process based on a value detected by the cylinder pressure sensor .
Mixing system for parenteral nutrition, comprising at least two containers (2, 2a-2d), wherein the at least two containers (2, 2a-2d) form a modular system, wherein a first container (2a-2d) of the at least two containers (2, 2a-2d) is filled with a first liquid for parenteral nutrition and a second container (2a-2d) of the at least two containers (2, 2a-2d) is filled with a second liquid for parenteral nutrition, wherein the mixing system comprises a septum which is pierceable by a spike or a needle, characterized in that , the mixing system comprises a hanger for attaching the mixing system to an infusion rack, and wherein the first container (2a-2d) comprises a male connector and the second container (2a-2d) comprises a female connector which fit together, and wherein the first and the second container (2a-2d) can be coupled together by connecting the male connector of the first container (2a-2d) to the female connector of the second container (2a-2d), thereby forming a channel , which enables the passage of liquid and the mixing of the first and the second liquid. wherein a first container (2a-2d) of the at least two containers (2, 2a-2d) is filled with a first liquid for parenteral nutrition and a second container (2a-2d) of the at least two containers (2, 2a-2d) is filled with a second liquid for parenteral nutrition, wherein the mixing system comprises a septum which is pierceable by a spike or a needle, characterized in that , the mixing system comprises a hanger for attaching the mixing system to an infusion rack, and wherein the first container (2a-2d) comprises a male connector and the second container (2a-2d) comprises a female connector which fit together, and wherein the first and the second container (2a-2d) can be coupled together by connecting the male connector of the first container (2a-2d) to the female connector of the second container (2a-2d), thereby forming a channel , which enables the passage of liquid and the mixing of the first and the second liquid.
Method for operating a plant for storing bulk material, having at least one stockpile-like storage region, in particular a plant for material handling of bulk material or a material extraction plant, wherein a digital stockpile model is compiled for the at least one storage region and that the occurrence of physical and/or chemical states that may arise during the storage of the respectively stored material is predicted on the basis of the compiled stockpile model, and that predicted physical respectively chemical states are used during storage operation in order to ensure material-friendly storage of the stored material, characterized in that material-friendly storage prevents the bulk material having to be broken up again during storage before being taken out again because of hardening or caking, during the compilation of the digital stockpile model, a stockpile-like storage region being decomposed into a multiplicity of smaller volume elements (100 - 115, 200 - 220), and in that the physical forces and/or chemical influences acting on an individual volume element are calculated, the pressure locally prevailing in a volume element and/or the temperature existing in this volume element and/or the air humidity respectively material moisture content prevailing in this volume element being taken into account in the calculation of the volume elements (100 - 115, 200 - 220) of the stockpile model, in order to calculate from these factors how probable hardening of the material of the respectively considered volume element is and/or how probable caking of the material of this volume element with the material of one of the neighboring elements is.
Vehicle door handle comprising a coupling device having a handle lever movable between: - a flush position in which said handle lever is flush with an exterior door panel surface - a ready position in which said handle lever is extended and graspable by a user so as to open the door panel , - and an inwards pushed position in which said handle lever is retracted at an angle α said vehicle door handle comprising: - a handle lever shaft , rotatively connected to a handle lever base , - a positioning means able to detect a rotation angle α of the handle lever shaft - at least one coupling gear , driven in rotation by an electric motor and driving in rotation the handle lever shaft - and an electronic control unit able to receive inputs from the positioning means and to send a signal to the motor wherein the electronic control unit is able to create a motor short circuit so as to generate a torque resistance on the handle lever once an inwards pushed predetermined angle of rotation α of the handle lever is reached. - a flush position in which said handle lever is flush with an exterior door panel surface - a ready position in which said handle lever is extended and graspable by a user so as to open the door panel , - and an inwards pushed position in which said handle lever is retracted at an angle α - a handle lever shaft , rotatively connected to a handle lever base , - a positioning means able to detect a rotation angle α of the handle lever shaft - at least one coupling gear , driven in rotation by an electric motor and driving in rotation the handle lever shaft - and an electronic control unit able to receive inputs from the positioning means and to send a signal to the motor
An apparatus configured for charging a battery , comprising: means for defining a plurality of charging profiles for the battery , each charging profile configured for charging the battery at a different charge rate; means for selecting a charging profile of the plurality responsive to a determinable time event; means for monitoring charging start times and charging durations and developing a device charging history, the device comprising the battery; means for adjusting at least one of a charging start time, a charging duration, and a charging stop time for the selected charging profile of the plurality of charging profiles responsive to the device charging history; and means for supplying a charging power to the battery at a power level responsive to the selected charging profile. means for defining a plurality of charging profiles for the battery , each charging profile configured for charging the battery at a different charge rate; means for selecting a charging profile of the plurality responsive to a determinable time event; means for monitoring charging start times and charging durations and developing a device charging history, the device comprising the battery; means for adjusting at least one of a charging start time, a charging duration, and a charging stop time for the selected charging profile of the plurality of charging profiles responsive to the device charging history; and means for supplying a charging power to the battery at a power level responsive to the selected charging profile.
An optical waveguide comprising - a waveguide body capable of guiding light in a waveguide plane in two dimensions, and - a diffractive optical element provided on a surface or within the waveguide body , the diffractive optical element extending in said two dimensions and each location of the diffractive optical element having a diffractive optical response for light directed thereto, wherein - the diffractive optical element is a multi-region element comprising a plurality of constant-response regions each having a constant diffractive optical response , and intermediate regions between said constant-response regions ; characterized in that - each of the intermediate regions being adjacent at least a first and a second constant-response region of said plurality of constant-response regions , said constant diffractive optical response of said first constant-response region having a first value, said constant diffractive optical response of said second constant-response region having a second value different from said first value, and said intermediate region being configured such that the diffractive optical response of said intermediate region has a continuous transition in the waveguide plane from said first value to said second value - a waveguide body capable of guiding light in a waveguide plane in two dimensions, and - a diffractive optical element provided on a surface or within the waveguide body , the diffractive optical element extending in said two dimensions and each location of the diffractive optical element having a diffractive optical response for light directed thereto, - the diffractive optical element is a multi-region element comprising a plurality of constant-response regions each having a constant diffractive optical response , and intermediate regions between said constant-response regions ; characterized in that - each of the intermediate regions being adjacent at least a first and a second constant-response region of said plurality of constant-response regions , said constant diffractive optical response of said first constant-response region having a first value, said constant diffractive optical response of said second constant-response region having a second value different from said first value, and said intermediate region being configured such that the diffractive optical response of said intermediate region has a continuous transition in the waveguide plane from said first value to said second value
Emergency ventilator for emergency medicine artificial respiration of patients, comprising - A housing with an ambient air aspiration aperture and a respiratory gas output aperture , and - A fan which is configured and arranged in the housing in order to convey ambient air from the ambient air aspiration aperture to the respiratory gas output aperture , Wherein the fan comprises a fan housing with an air conveyor movable relative to the fan housing and wherein the fan housing is arranged housing-tight in the housing , wherein the fan housing is fixed to the housing with the interposition of a heat-conducting body , wherein the heat-conducting body comprises a material or is made from a material which is chosen out of light metal, non-ferrous metal, and/or a synthetic filled with heat-conducting filling material Characterized in that an outer surface (42a1) of the fan housing is exposed in a section of a flow path from the ambient air aspiration aperture to the respiratory gas output aperture in such a way that during the ventilation operation of the emergency ventilator it can be bathed by respiratory gas conveyed by the fan , wherein a surface of the heat-conducting body forms a wall of a region enclosing a respiratory gas, wherein the heat-conducting body surrounds a section of the flow path of the respiratory gas on at least three sides forming a recess, wherein the outer surface (42a1) of the fan housing which can be bathed by respiratory gas is arranged in the recess formed by the heat-conducting body . - A housing with an ambient air aspiration aperture and a respiratory gas output aperture , and - A fan which is configured and arranged in the housing in order to convey ambient air from the ambient air aspiration aperture to the respiratory gas output aperture , Wherein the fan comprises a fan housing with an air conveyor movable relative to the fan housing and wherein the fan housing is arranged housing-tight in the housing , wherein the fan housing is fixed to the housing with the interposition of a heat-conducting body , wherein the heat-conducting body comprises a material or is made from a material which is chosen out of light metal, non-ferrous metal, and/or a synthetic filled with heat-conducting filling material Characterized in that an outer surface (42a1) of the fan housing is exposed in a section of a flow path from the ambient air aspiration aperture to the respiratory gas output aperture in such a way that during the ventilation operation of the emergency ventilator it can be bathed by respiratory gas conveyed by the fan , wherein a surface of the heat-conducting body forms a wall of a region enclosing a respiratory gas, wherein the heat-conducting body surrounds a section of the flow path of the respiratory gas on at least three sides forming a recess, wherein the outer surface (42a1) of the fan housing which can be bathed by respiratory gas is arranged in the recess formed by the heat-conducting body .