mhurhangee/patent-ind-claim-en huggingface dataset:
An exchangeable pharmacy formulation preparation device lifting arm for being arranged on a lifting unit of a pharmacy formulation preparation device for preparing an individual pharmaceutical product and for attaching a mixing vessel for such an individual pharmaceutical product thereto, comprising: a substantially elongated basic body, in which an elongated recess for sliding the basic body onto a lifting unit fixing pin is provided, the elongated recess extending from a first longitudinal end of the basic body over part of the longitudinal direction of the basic body towards the opposite second longitudinal end ; wherein the first longitudinal end of the basic body comprises a stopping region for a front surface of the lifting unit and a bearing region for a supporting surface of the lifting unit ; and wherein a fastening unit for a mixing vessel is provided at the or close to the second longitudinal end of the basic body. a substantially elongated basic body, in which an elongated recess for sliding the basic body onto a lifting unit fixing pin is provided, the elongated recess extending from a first longitudinal end of the basic body over part of the longitudinal direction of the basic body towards the opposite second longitudinal end ; wherein the first longitudinal end of the basic body comprises a stopping region for a front surface of the lifting unit and a bearing region for a supporting surface of the lifting unit ; and wherein a fastening unit for a mixing vessel is provided at the or close to the second longitudinal end of the basic body.
Insertion method for inserting in a cell a connector of a terminal crimped at the end of a cable , such that, during said insertion method, the following steps are performed: - Step A: using an insertion clamp mounted on a robot adapted to move said insertion clamp in translation in three independent directions (XX', YY', ZZ') and in rotation about each of these three directions, gripping the cable at a gripping point close to the terminal , and positioning the insertion clamp such that, at the gripping point , the cable is substantially tangential to an insertion direction (XX') in which the terminal is inserted in the cell in a coordinate system (OXYZ), - Step B: moving forward the insertion clamp along the insertion direction (XX') to bring the terminal within the field of a first camera and of a second camera whose fields of vision are oriented along two orthogonal axes (ZZ', YY') located in a plane perpendicular to the insertion direction (XX'), characterised by : - Step C: using the images formed by each camera in the planes (P 1 , P 2 ) or on axes (YY', ZZ') perpendicular to the axis of each field of vision of said cameras, determining the position in the coordinate system (OXYZ) of a longitudinal axis (LL') of the terminal , - Step D: using the robot , moving the insertion clamp so that the longitudinal axis (LL') of the terminal coincides with the insertion axis (XX') of the terminal in the cell . - Step A: using an insertion clamp mounted on a robot adapted to move said insertion clamp in translation in three independent directions (XX', YY', ZZ') and in rotation about each of these three directions, gripping the cable at a gripping point close to the terminal , and positioning the insertion clamp such that, at the gripping point , the cable is substantially tangential to an insertion direction (XX') in which the terminal is inserted in the cell in a coordinate system (OXYZ), - Step B: moving forward the insertion clamp along the insertion direction (XX') to bring the terminal within the field of a first camera and of a second camera whose fields of vision are oriented along two orthogonal axes (ZZ', YY') located in a plane perpendicular to the insertion direction (XX'), characterised by : - Step C: using the images formed by each camera in the planes (P 1 , P 2 ) or on axes (YY', ZZ') perpendicular to the axis of each field of vision of said cameras, determining the position in the coordinate system (OXYZ) of a longitudinal axis (LL') of the terminal , - Step D: using the robot , moving the insertion clamp so that the longitudinal axis (LL') of the terminal coincides with the insertion axis (XX') of the terminal in the cell .
Electrical heating device for decontamination baths of vertical design, containing a heater arranged to be located on the outer surface of the baths and made of wire with high electrical resistivity, and containing current conducting wires and connecting couplings and containing thermal insulation units , characterized in that the device consists of at least three heat insulation units made of coaxial metal screens and installed with an air gap from the heater , wherein the heater with current conducting wires is made in sealed design, each thermal insulation unit is supplemented with an coaxial metal protective shell , the air gap between the heat insulation units and the protective shell in the upper part is closed by a baffle the diameter thereof exceeds the external diameter of the protective shell , wherein a sealed connector coupling is installed on the cover of the upper protective shell , and in that through holes are made in the upper and lower parts of the side surface of the protective shell , the total area of the through holes is equal to or greater than the cross-sectional area of the air gap between the heat insulation units and the protective shell .
Light guide for a lighting device of a vehicle, comprising - an entrance surface into which light can enter, - at least one lateral exit surface from which a portion of the light that has entered can exit, - an end region through which a portion of the light that has entered can exit, the end region is structured and/or shaped in such a way that the portion of light which laterally emerges from the region adjacent to the end region after reflection at or in the end region is reduced or minimised, characterized in that the end region comprises a plurality of conical or frustoconical sections, wherein the base of the cone or the frustum of a cone faces the light guide . - an entrance surface into which light can enter, - at least one lateral exit surface from which a portion of the light that has entered can exit, - an end region through which a portion of the light that has entered can exit, the end region is structured and/or shaped in such a way that the portion of light which laterally emerges from the region adjacent to the end region after reflection at or in the end region is reduced or minimised,
A weighing apparatus , the apparatus comprising: a container (201; 202) suitable for containing at least one object to be weighed; a supporting frame movably coupled to said container (201; 202) for relative movement therebetween and configured to freely support said container (201; 202); a load cell (204; 205) operable to measure a force exerted on said supporting frame by said container (201;202); and a motor apparatus operable to exert a force on said load cell (204; 205); wherein said weighing apparatus further comprises a bracket member (211; 212), said bracket member comprising of two parts, a first part being rigidly mechanically coupled to said container and a second part being rigidly mechanically coupled to said supporting frame , the first part being movably mechanically coupled to said second part ; wherein said motor apparatus is operable to exert a force on said load cell (204; 205) in a first direction via said bracket member (211; 212). a container (201; 202) suitable for containing at least one object to be weighed; a supporting frame movably coupled to said container (201; 202) for relative movement therebetween and configured to freely support said container (201; 202); a load cell (204; 205) operable to measure a force exerted on said supporting frame by said container (201;202); and a motor apparatus operable to exert a force on said load cell (204; 205); wherein said weighing apparatus further comprises a bracket member (211; 212), said bracket member comprising of two parts, a first part being rigidly mechanically coupled to said container and a second part being rigidly mechanically coupled to said supporting frame , the first part being movably mechanically coupled to said second part ; wherein said motor apparatus is operable to exert a force on said load cell (204; 205) in a first direction via said bracket member (211; 212).
A system for controlling one or more lighting devices (13-14) to render light effects while a display device displays video content, said system comprising: at least one output interface ; and at least one processor configured to: - obtain a level of dynamicity of said video content, - select one or more lighting devices (13-14) from a plurality of lighting devices (13-16) based on said level of dynamicity, a first quantity of lighting devices being selected when said level of dynamicity exceeds a threshold and a second quantity of lighting devices being selected when said level of dynamicity does not exceed said threshold, said first quantity being higher than said second quantity, - determine light effects for said one or more lighting devices (13-14) based on said video content, and - control, via said at least one output interface , said one or more lighting devices (13-14) to render said light effects. at least one output interface ; and at least one processor configured to: - obtain a level of dynamicity of said video content, - select one or more lighting devices (13-14) from a plurality of lighting devices (13-16) based on said level of dynamicity, a first quantity of lighting devices being selected when said level of dynamicity exceeds a threshold and a second quantity of lighting devices being selected when said level of dynamicity does not exceed said threshold, said first quantity being higher than said second quantity, - determine light effects for said one or more lighting devices (13-14) based on said video content, and - control, via said at least one output interface , said one or more lighting devices (13-14) to render said light effects. - obtain a level of dynamicity of said video content, - select one or more lighting devices (13-14) from a plurality of lighting devices (13-16) based on said level of dynamicity, a first quantity of lighting devices being selected when said level of dynamicity exceeds a threshold and a second quantity of lighting devices being selected when said level of dynamicity does not exceed said threshold, said first quantity being higher than said second quantity, - determine light effects for said one or more lighting devices (13-14) based on said video content, and - control, via said at least one output interface , said one or more lighting devices (13-14) to render said light effects.
A method of operating an electronic device for performing ranging by using an ultra-wideband, UWB, in a wireless communication system, the method comprising: receiving (S1020) a ranging frame, RFRAME, from a second electronic device , wherein the RFRAME includes a scrambled timestamp sequence, STS, and a preamble; obtaining (S1030, S1040) a first ranging result using the STS, and a second ranging result using the preamble; and performing integrity checking (S1050), based on a result of comparing the first ranging result with the second ranging result. receiving (S1020) a ranging frame, RFRAME, from a second electronic device , wherein the RFRAME includes a scrambled timestamp sequence, STS, and a preamble; obtaining (S1030, S1040) a first ranging result using the STS, and a second ranging result using the preamble; and performing integrity checking (S1050), based on a result of comparing the first ranging result with the second ranging result.
A signal generation apparatus comprising: a first pulse generator configured to generate a pulse to be supplied to a light source that irradiates light upon a distance measurement target; a second pulse generator configured to generate a pulse to be supplied to a pixel that receives the light reflected by the distance measurement target; wherein the apparatus is characterised by : a signal generation section configured to generate a pseudo-random signal for inverting a phase of signals to be generated by the first pulse generator and the second pulse generator wherein each of the first pulse generator and the second pulse generator includes: a first counter configured to determine a phase of the pulse to be outputted and used for distance measurement of the distance measurement target using an input signal; and a second counter configured to determine a frequency of the pulse using the input signal. a first pulse generator configured to generate a pulse to be supplied to a light source that irradiates light upon a distance measurement target; a second pulse generator configured to generate a pulse to be supplied to a pixel that receives the light reflected by the distance measurement target; wherein the apparatus is characterised by : a signal generation section configured to generate a pseudo-random signal for inverting a phase of signals to be generated by the first pulse generator and the second pulse generator wherein each of the first pulse generator and the second pulse generator includes: a first counter configured to determine a phase of the pulse to be outputted and used for distance measurement of the distance measurement target using an input signal; and a second counter configured to determine a frequency of the pulse using the input signal. a first counter configured to determine a phase of the pulse to be outputted and used for distance measurement of the distance measurement target using an input signal; and a second counter configured to determine a frequency of the pulse using the input signal.
An electric power steering apparatus that assist-controls a steering by driving a motor with a current command value calculated based on at least a steering torque, a vibration-damping compensating section that calculates a vibration-damping compensation command value for suppressing a vibration of a handle based on a motor velocity of said motor , wherein said vibration-damping compensating section comprises a first velocity-sensitive table converting before and behind zero of said motor velocity into a trapezoidal-wave type first vibration-damping compensation value and a band pass filter (BPF) to output second vibration-damping compensation value by BPF-filtering said first vibration-damping compensation value, wherein said current command value is corrected by said vibration-damping compensation command value.
Applicator for applying a cosmetic, makeup or care, product (P) to the eyelashes and/or eyebrows, having a moulded applicator member having: - a core that extends along a longitudinal axis (X), - spikes that are carried by the core and are disposed in a plurality of longitudinal rows , wherein, within one longitudinal row out of at least two about the longitudinal axis (X) of the core , at least one spike is reinforced at its base and extends between spikes that do not have a reinforcement, the applicator being characterized by the fact that the two spikes adjacent to a reinforced spike within a circumferential row to which said reinforced spike belongs and the two closest spikes within the two adjacent longitudinal rows do not have a reinforcement, and by the fact that the reinforcements of the reinforced spikes have a cross section with an elongate shape in the direction of the longitudinal axis of the core. - a core that extends along a longitudinal axis (X), - spikes that are carried by the core and are disposed in a plurality of longitudinal rows , wherein, within one longitudinal row out of at least two about the longitudinal axis (X) of the core , at least one spike is reinforced at its base and extends between spikes that do not have a reinforcement, the applicator being characterized by the fact that the two spikes adjacent to a reinforced spike within a circumferential row to which said reinforced spike belongs and the two closest spikes within the two adjacent longitudinal rows do not have a reinforcement, and by the fact that the reinforcements of the reinforced spikes have a cross section with an elongate shape in the direction of the longitudinal axis of the core.
A system for sensing the volume, or the viscosity, or both, of concrete in a rotating container or drum, comprising: a sensor configured to attach inside a rotating container or drum having a known geometry, sense angular positions of the sensor and sense associated entry and exit points when the sensor enters and exits a slurry, including concrete, contained in the rotating container or drum, and provide signaling containing information about the angular positions and the associated entry and exit points; and a signal processor configured to receive the signaling, and determine corresponding signaling containing information about a volumetric amount, or a viscosity, or both, of the slurry in the rotating container or drum, based upon the signaling received, characterized in that the sensor is an acoustic based sensor. a sensor configured to attach inside a rotating container or drum having a known geometry, sense angular positions of the sensor and sense associated entry and exit points when the sensor enters and exits a slurry, including concrete, contained in the rotating container or drum, and provide signaling containing information about the angular positions and the associated entry and exit points; and a signal processor configured to receive the signaling, and determine corresponding signaling containing information about a volumetric amount, or a viscosity, or both, of the slurry in the rotating container or drum, based upon the signaling received, characterized in that the sensor is an acoustic based sensor. receive the signaling, and determine corresponding signaling containing information about a volumetric amount, or a viscosity, or both, of the slurry in the rotating container or drum, based upon the signaling received, characterized in that the sensor is an acoustic based sensor.
A method to control a vehicle system, the method comprising: detecting a deviating vehicle having at least one of a deviating behaviour and a deviating vehicle property by means of a perception system of a first vehicle , wherein the perception system comprises at least one sensor device configured to monitor a surrounding environment of the first vehicle , determining a timestamped location relating to the deviating vehicle ; assigning a deviating vehicle classification to the deviating vehicle based on the deviating behaviour and/or deviating vehicle property, determining at least one second vehicle to receive information relating to the deviating vehicle , wherein the determination of the at least one second vehicle is based on the determined timestamped location, transmitting to each determined second vehicle a set of information relating to the deviating vehicle , said set of information comprising at least one of the deviating vehicle classification and a predetermined instruction to be performed by the determined second vehicle, wherein the predetermined instruction is dependent on the deviating vehicle classification, receiving at each determined second vehicle the set of information, and controlling a vehicle system at each determined second vehicle so as to perform a predetermined action based on the deviating vehicle classification or based on the predetermined instruction. detecting a deviating vehicle having at least one of a deviating behaviour and a deviating vehicle property by means of a perception system of a first vehicle , wherein the perception system comprises at least one sensor device configured to monitor a surrounding environment of the first vehicle , determining a timestamped location relating to the deviating vehicle ; assigning a deviating vehicle classification to the deviating vehicle based on the deviating behaviour and/or deviating vehicle property, determining at least one second vehicle to receive information relating to the deviating vehicle , wherein the determination of the at least one second vehicle is based on the determined timestamped location, transmitting to each determined second vehicle a set of information relating to the deviating vehicle , said set of information comprising at least one of the deviating vehicle classification and a predetermined instruction to be performed by the determined second vehicle, wherein the predetermined instruction is dependent on the deviating vehicle classification, receiving at each determined second vehicle the set of information, and controlling a vehicle system at each determined second vehicle so as to perform a predetermined action based on the deviating vehicle classification or based on the predetermined instruction.
Lifting hardware for in particular drawers, shelves, pull-out mechanisms and similar components of pieces of furniture such as e.g. kitchen cabinets comprising articulated levers which are attachable to a carcass of the piece of furniture at one end and to the component at the other end and pairs of which form four-bar lever assemblies associated with an outer face of the component , wherein a longitudinal guide comprising abutments for the component is associated with each four-bar lever assembly such that the component can translate relative to the four-bar lever assembly within a movement path delimited by the abutments, wherein a counter-bearing element is provided in each case on one of the articulated levers of the four-bar lever assembly , said counter-bearing element forming a second abutment for the associated longitudinal guide , in that in each case one link member can be arranged on the component at its outer sides, behind said link member the associated counter-bearing element being transferrable, during the pivot movement of the four-bar lever assembly , from the open intermediate position into the pivoted open raised position located in front of the carcass of the piece of furniture and in this pivoted open raised position located in front of the carcass of the piece of furniture forms the second abutment and prevents the component from translating relative to the associated four-bar lever assembly , characterised in that the counter-bearing elements are formed by rotatable rollers.
Vehicle having an engine compartment that delimits an air inlet for air intended for cooling an internal combustion engine , in particular of the direct-injection diesel engine type, that has at least: - one supply circuit for supplying the engine with fuel, said supply circuit having at least one fuel tank with which a booster pump is associated, means for filtering the fuel, a high-pressure pump and a sensor for measuring the temperature of the fuel; - one cooling circuit for cooling the engine by the circulation of at least one cooling liquid, said cooling circuit having at least a pump and a sensor for measuring the temperature of the cooling liquid, the vehicle having shut-off means for shutting off the air inlet, improving the energy efficiency of the vehicle, said shut-off means being controlled according to a strategy for reducing the aerodynamic drag of the engine, characterized in that the engine has a cooling system for selectively cooling the cooling liquid through at least one heat exchanger by means of the fuel, and in that the engine cooling system is used to selectively cool the cooling liquid through at least one heat exchanger by means of the fuel and delay the deactivation of the strategy for reducing the aerodynamic drag of the engine by redirecting the stream of air, in particular by diverting it around the front of the vehicle so that it flows over the sides thereof rather than through the engine compartment where it encounters strong aerodynamic resistance. - one supply circuit for supplying the engine with fuel, said supply circuit having at least one fuel tank with which a booster pump is associated, means for filtering the fuel, a high-pressure pump and a sensor for measuring the temperature of the fuel; - one cooling circuit for cooling the engine by the circulation of at least one cooling liquid, said cooling circuit having at least a pump and a sensor for measuring the temperature of the cooling liquid,