mhurhangee/ep-ind-claims huggingface dataset:
An electric power information provision apparatus comprising: a display section adapted to display an information regarding an electric power supplied to an electric vehicle from a battery, the electric vehicle including the battery and an electric motor and operating upon supply of electric power from the battery; a determination section adapted to determine whether or not green electric power is contained in the electric power supplied to the electric vehicle from the battery, wherein examples of power generation schemes which use green energy include wind power generation, solar power generation, biomass power generation, hydraulic power generation, geothermal power generation, and fossil fuel/biomass mixed combustion power generation; and a display control section (S20, S22) adapted to control the display section such that a display mode of the display section changes in accordance with the result of the determination by the determination section, wherein the display section is attached to an exterior portion of the electric vehicle and is further disposed inside an instrument panel provided in front of a driver's seat of the electric vehicle, and the determination section is adapted to determine whether or not the green electric power is contained in the electric power supplied to the electric vehicle from the battery based on a quantity of the green electric power stored in the battery before the start of the operation of the electric vehicle and on an electric power consumption up to the present. a display section adapted to display an information regarding an electric power supplied to an electric vehicle from a battery, the electric vehicle including the battery and an electric motor and operating upon supply of electric power from the battery; a determination section adapted to determine whether or not green electric power is contained in the electric power supplied to the electric vehicle from the battery, wherein examples of power generation schemes which use green energy include wind power generation, solar power generation, biomass power generation, hydraulic power generation, geothermal power generation, and fossil fuel/biomass mixed combustion power generation; and a display control section (S20, S22) adapted to control the display section such that a display mode of the display section changes in accordance with the result of the determination by the determination section, wherein the display section is attached to an exterior portion of the electric vehicle and is further disposed inside an instrument panel provided in front of a driver's seat of the electric vehicle, and the determination section is adapted to determine whether or not the green electric power is contained in the electric power supplied to the electric vehicle from the battery based on a quantity of the green electric power stored in the battery before the start of the operation of the electric vehicle and on an electric power consumption up to the present.
A compound consisting of a fatty acid ester moiety selected from diglycerides and/or triglycerides, wherein the fatty acid ester moiety comprises at least one epoxy group and wherein the fatty acid ester moiety is substituted at least with a first substituent which is a first acyloxy group and with a second substituent which is a second acyloxy group, which is different from the first acyloxy group, or an alkoxy group, wherein the first substituent and the second substituent are substituted on adjacent carbon atoms in the fatty acid ester moiety.
A computer-implemented method for controlling a robot using control parameter values from a non-Euclidean control parameter space comprising: Performing a Bayesian optimization of an objective function representing a desired control objective of the robot over the control parameter space, wherein evaluation points of the objective function are determined by searching an optimum of an acquisition function in an iterative search, comprising, in each iteration, updating a candidate evaluation point using a search direction in the tangent space of the parameter space at the candidate evaluation point; mapping the updated candidate evaluation point from the tangent space to the parameter space; and using the mapped updated candidate evaluation point as candidate evaluation point for a next iteration until a stop criterion is fulfilled; and Controlling a mechanical part, in particular a manipulator (102,103,104), of the robot in accordance with a control parameter value found in the Bayesian optimization. Performing a Bayesian optimization of an objective function representing a desired control objective of the robot over the control parameter space, wherein evaluation points of the objective function are determined by searching an optimum of an acquisition function in an iterative search, comprising, in each iteration, updating a candidate evaluation point using a search direction in the tangent space of the parameter space at the candidate evaluation point; mapping the updated candidate evaluation point from the tangent space to the parameter space; and using the mapped updated candidate evaluation point as candidate evaluation point for a next iteration until a stop criterion is fulfilled; and Controlling a mechanical part, in particular a manipulator (102,103,104), of the robot in accordance with a control parameter value found in the Bayesian optimization.
Storage and picking system (31, 41, 51, 62) comprising at least one stacker crane (32, 42, 52) mobile within the storage and picking system (31, 41, 51, 62), shelving units (33, 45, 55) containing magazines (11, 21, 34, 56, 71) accessible by the crane (32, 42, 52), a pickup terminal (36, 48, 63) accessible from outside the storage and picking system (31, 41, 51, 62), a path (37, 44) running alongside the shelving units (33, 45, 55), a track defining the path, a first goods issuing mechanism (38, 46) arranged between the path (37, 44) and the terminal (36, 48, 63), wherein each of the magazines (11, 21, 34, 56, 71) comprises packaged goods (17,27,77), wherein the stacker crane (32, 42, 52) comprises a mast bound to the track and a carriage (53,73) slidably guided along the mast, and wherein the carriage comprises a tray for receiving the goods (17, 27, 77), characterized in that each magazine (11, 21, 34, 56, 71) comprises a slide rail (12, 22) slidably guided along the magazine (11, 21, 34, 56, 71), a pusher slide (13, 23) mounted on the slide rail (12, 22), a restraint (14, 24) affixed to a front end of the slide rail (12, 22), the pusher slide (13, 23) and the restraint (14, 24) biased toward each other, and a catch (15, 25) affixed to the restraint (14, 24), and in that the carriage (53,73) comprises a raising mechanism recessed complementarily to the catch (15, 25) and sloping toward the tray, and an extendible hook for engaging the catch (15, 25) of one of the magazines and for retracting the slide rail (12, 22) of said one of the magazines such that the slide rail (12, 22) projects beyond said one of the magazines (11, 21, 34, 56, 71), wherein, after the retraction of the slide rail (12, 22) including the packaged goods (17, 27, 77), the raising mechanism is for raising an item (29, 78) above the restraint (14, 24) such that the item (29, 78) slides down the raising mechanism onto the tray, and in that each magazine (11, 21, 34, 56, 71), in particular each restraint (14, 24), comprises an identification tag (16, 26) for identifying the packaged goods (17, 27, 77) contained in the magazine (11, 21, 34, 56, 71), and in that each magazine (11, 21, 34, 56, 71) comprises a notch (18, 28) for retaining the magazine (11, 21, 34, 56, 71) within a shelving unit (33, 45, 55) by a bar.
A compliance monitoring module for an inhaler comprising: a miniature barometric pressure sensor configured to measure barometric pressure, a sensor port of said sensor being configured to be pneumatically coupled to a flow channel of said inhaler through which a user can inhale, wherein the miniature barometric pressure sensor sa microelectromechanical system pressure sensor or a nanoelectromechanical system pressure sensor; a processor configured to: receive data from the miniature barometric pressure sensor; receive data from a mode sensor; determine, based on the data from the mode sensor, the orientation of the inhaler or whether the inhaler has been primed for use; and based on said data from said miniature barometric pressure sensor and said data from said mode sensor, compile a compliance report; and a transmitter configured to issue said compliance report. a miniature barometric pressure sensor configured to measure barometric pressure, a sensor port of said sensor being configured to be pneumatically coupled to a flow channel of said inhaler through which a user can inhale, wherein the miniature barometric pressure sensor sa microelectromechanical system pressure sensor or a nanoelectromechanical system pressure sensor; a processor configured to: receive data from the miniature barometric pressure sensor; receive data from a mode sensor; determine, based on the data from the mode sensor, the orientation of the inhaler or whether the inhaler has been primed for use; and based on said data from said miniature barometric pressure sensor and said data from said mode sensor, compile a compliance report; and a transmitter configured to issue said compliance report. receive data from the miniature barometric pressure sensor; receive data from a mode sensor; determine, based on the data from the mode sensor, the orientation of the inhaler or whether the inhaler has been primed for use; and based on said data from said miniature barometric pressure sensor and said data from said mode sensor, compile a compliance report; and a transmitter configured to issue said compliance report.
Co-layered propellant grain having an exposed outer surface, wherein said propellant grain comprises an outer layer comprising a slow burning propellant composition located on essentially the entire outer surface of the grain, and an inner layer comprising a fast burning propellant composition having a higher linear burn rate than said slow burning propellant composition; wherein said propellant grain has a structure such that after ignition, the inner layer becomes gradually increasingly exposed at the outer surface when the grain burns essentially symmetrical, wherein the grain further comprises an exposed inner surface having an area that increases after ignition.
Tiller head for an industrial truck, comprising - a central portion, - a left handle portion that is attached to a left side of the central portion and a right handle portion that is attached to a right side of the central portion, which is opposite to its left side, and - an actuating element, wherein the handle portions (8, 10) and the central portion define a front side of the tiller head and a back side of the tiller head, which is opposite to its front side, wherein the front side of the tiller head and the back side of the tiller head extend transverse to the left side of the central portion and the right side of the central portion, wherein the actuating element has an operable front surface and an operable back surface (24, 25), characterized in that the actuating element is mounted to a front side of the central portion. - a central portion, - a left handle portion that is attached to a left side of the central portion and a right handle portion that is attached to a right side of the central portion, which is opposite to its left side, and - an actuating element, wherein the handle portions (8, 10) and the central portion define a front side of the tiller head and a back side of the tiller head, which is opposite to its front side, wherein the front side of the tiller head and the back side of the tiller head extend transverse to the left side of the central portion and the right side of the central portion, wherein the actuating element has an operable front surface and an operable back surface (24, 25), characterized in that the actuating element is mounted to a front side of the central portion.
Method for shortening at least one rotor blade of a turbomachine by removal of material at the blade tip, characterized in that a belt grinding apparatus (1; 19) is used to shorten the rotor blade, in which the rotor blades remain installed in a casing of the turbomachine during the shortening, wherein the method has the steps of: - removing a casing part, at least partially exposing the rotor blades to be machined and a parting joint of the casing; - attaching a belt grinding apparatus to the parting joint of the casing in the region of the rotor blades to be machined; - orienting the belt grinding apparatus relative to the rotor blades to be shortened and - shortening the rotor blades in situ using the belt grinding apparatus while the rotor is continuously rotated and the grinding dust produced during the grinding machining is extracted. - removing a casing part, at least partially exposing the rotor blades to be machined and a parting joint of the casing; - attaching a belt grinding apparatus to the parting joint of the casing in the region of the rotor blades to be machined; - orienting the belt grinding apparatus relative to the rotor blades to be shortened and - shortening the rotor blades in situ using the belt grinding apparatus while the rotor is continuously rotated and the grinding dust produced during the grinding machining is extracted.
Method for assisting a driver of a motor vehicle when parking, in which a parking space is measured by means of a sensing device of the motor vehicle, and a starting position in the motor vehicle for the process of parking in the parking space is determined in accordance with the measurement of the parking space, wherein during the measurement of the parking space an expected stopping position, dependent on at least one current and/or at least one future value of at least one parameter characterizing the operating state of the motor vehicle, is determined, and the stopping position is compared with the starting position, characterized in that the comparison of the stopping position with the starting position is carried out as soon as a predetermined accuracy threshold value for the determination of the stopping position is exceeded.
Container for the temporary storage of waste and/or recyclable materials comprising: - a circumferential side wall, which laterally delimits a container interior space, - an opening, which is arranged at a first end of the side wall, - a bottom element, which is arranged at a second end of the side wall, and - at least two wheels, wherein the bottom element is movable in the direction of the opening, and in the region of the container interior space, in which the bottom element is movable, the cross-sectional shape of the container interior space orientated parallel to the bottom element corresponds to the bottom element, characterized in that at least one of the wheels is designed and/or mounted in a noise-damping manner, wherein the cross-sectional area and/or the cross-sectional shape of the container interior space is constant in the area of the container interior space in which the bottom element is movable. - a circumferential side wall, which laterally delimits a container interior space, - an opening, which is arranged at a first end of the side wall, - a bottom element, which is arranged at a second end of the side wall, and - at least two wheels, wherein the bottom element is movable in the direction of the opening, and in the region of the container interior space, in which the bottom element is movable, the cross-sectional shape of the container interior space orientated parallel to the bottom element corresponds to the bottom element, characterized in that at least one of the wheels is designed and/or mounted in a noise-damping manner, wherein the cross-sectional area and/or the cross-sectional shape of the container interior space is constant in the area of the container interior space in which the bottom element is movable.
UV- and thermally curable, solventborne clearcoat material, comprising at least one polyhydroxy-functional poly(meth)acrylate having grafted-on unsaturated (meth)acrylate side groups, at least one polyisocyanate-functional aliphatic urethane containing at least two (meth)acrylate groups, at least one (meth)acrylate-functional aliphatic urethane free from isocyanate groups, at least one hydroxy-functional, (meth)acrylate-functional aliphatic component free from isocyanate groups and from urethane groups and having a molecular weight of not more than 1000 g/mol and a (meth)acrylate functionality of at least 4, at least one aliphatic polymercaptan, at least one phosphoric acid or phosphonic acid blocked with an amine, the amine possessing a pK b of ≥ 3 and a boiling point under atmospheric pressure of > 100°C, and at least one photoinitiator selected from the group consisting of α-hydroxyalkyl phenyl ketones and monoacylphosphine oxides, where it comprises 15% to 33% by weight of component, 5% to 30% by weight of component, 1% to 9% by weight of component, 3% to 16% by weight of component, 0.5% to 25% by weight of component, 0.009% to 0.1% by weight of component, and 0.03% to 3.1% by weight of component, based in each case on the total weight of the clearcoat material. at least one polyhydroxy-functional poly(meth)acrylate having grafted-on unsaturated (meth)acrylate side groups, at least one polyisocyanate-functional aliphatic urethane containing at least two (meth)acrylate groups, at least one (meth)acrylate-functional aliphatic urethane free from isocyanate groups, at least one hydroxy-functional, (meth)acrylate-functional aliphatic component free from isocyanate groups and from urethane groups and having a molecular weight of not more than 1000 g/mol and a (meth)acrylate functionality of at least 4, at least one aliphatic polymercaptan, at least one phosphoric acid or phosphonic acid blocked with an amine, the amine possessing a pK b of ≥ 3 and a boiling point under atmospheric pressure of > 100°C, and at least one photoinitiator selected from the group consisting of α-hydroxyalkyl phenyl ketones and monoacylphosphine oxides, where it comprises
A heterodimeric antibody against PD-1 and CTLA-4 consisting of a) a first monomer having the amino acid sequence of SEQ ID NO: 23576; b) a second monomer having the amino acid sequence of SEQ ID NO: 23581; and c) a third monomer having the amino acid sequence of SEQ ID NO: 23591. a) a first monomer having the amino acid sequence of SEQ ID NO: 23576; b) a second monomer having the amino acid sequence of SEQ ID NO: 23581; and c) a third monomer having the amino acid sequence of SEQ ID NO: 23591.
A system for facilitating treatment via a vascular wall defining a vascular lumen containing an occlusion therein, the system comprising: an intramural orienting device having an elongate shaft with a central lumen extending therethrough to a distal opening, the device terminating at a distal tip configured for controlled deflection; a first actuation member connected to the distal tip and extending to a proximal end of the shaft for causing deflection of the distal tip upon movement of the first actuation member; an orienting element having a first collapsed configuration and a second expanded, substantially planar configuration; and a second actuation member connected to a portion of the planar orienting element and extending to a proximal end of the shaft for causing expansion of the orienting element upon actuation of the second actuation member relative to the elongate shaft. an intramural orienting device having an elongate shaft with a central lumen extending therethrough to a distal opening, the device terminating at a distal tip configured for controlled deflection; a first actuation member connected to the distal tip and extending to a proximal end of the shaft for causing deflection of the distal tip upon movement of the first actuation member; an orienting element having a first collapsed configuration and a second expanded, substantially planar configuration; and a second actuation member connected to a portion of the planar orienting element and extending to a proximal end of the shaft for causing expansion of the orienting element upon actuation of the second actuation member relative to the elongate shaft.
A protective helmet with a convex helmet shell, characterized in that insert pockets open to the top are provided on the outer side of the helmet shell on opposite sides, the insert pockets having an oval shape in top plan view.
A polymerizable liquid crystal having a smectic phase S X where X is not A or C, wherein the polymerizable liquid crystal is one of the formula: U-V-W-X-Y-X'-Y'-X"-W'-V'-U' wherein X, X' and X" are each, independently of one another, Ph or Cyc; where Ph is a 1,4-phenylene unit and Cyc is a trans 1,4-cyclohexylene unit; Y, Y' are each, independent of one another, -CH 2 CH 2 -, -CH 2 O- or -OCH 2 -, -OCO-, -COO-; U is a polymerizable group and U' = H or U = H and U' is a polymerizable group; V, V' are each, independent of one another, a spacer; and W, W' are each, independent of one another, a direct bond or -O-; with the proviso that if X, X' and X" are each Ph then Y' is -CH 2 CH 2 -, -CH 2 O- or -OCH 2 -.
Method for forecasting wind speeds, comprising the following steps: - determining an effective wind speed to which a respective vehicle is exposed while driving, for a plurality of vehicles; - transmitting the respectively determined effective wind speed from the plurality of vehicles to a backend via a wireless communication connection, - collecting data in relation to the effective wind speeds that have been determined on the basis of drive powers acquired from the plurality of vehicles in the backend and storing them in a database, characterized in that the effective wind speed is determined in each case on the basis of an active drive power ( P m) of the vehicle as determined while driving, and by the following step: - evaluating the stored data in relation to the effective wind speeds with the aid of statistical methods and/or using artificial intelligence methods, wherein evaluating the collected data in relation to wind speeds comprises forecasting future wind speeds. comprising the following steps: - determining an effective wind speed to which a respective vehicle is exposed while driving, for a plurality of vehicles; - transmitting the respectively determined effective wind speed from the plurality of vehicles to a backend via a wireless communication connection, - collecting data in relation to the effective wind speeds that have been determined on the basis of drive powers acquired from the plurality of vehicles in the backend and storing them in a database, characterized in that - determining an effective wind speed to which a respective vehicle is exposed while driving, for a plurality of vehicles; - transmitting the respectively determined effective wind speed from the plurality of vehicles to a backend via a wireless communication connection, - collecting data in relation to the effective wind speeds that have been determined on the basis of drive powers acquired from the plurality of vehicles in the backend and storing them in a database, characterized in that the effective wind speed is determined in each case on the basis of an active drive power ( P m) of the vehicle as determined while driving, and by the following step: - evaluating the stored data in relation to the effective wind speeds with the aid of statistical methods and/or using artificial intelligence methods, wherein evaluating the collected data in relation to wind speeds comprises forecasting future wind speeds. - evaluating the stored data in relation to the effective wind speeds with the aid of statistical methods and/or using artificial intelligence methods, wherein evaluating the collected data in relation to wind speeds comprises forecasting future wind speeds.