mhurhangee/ep-ind-claims huggingface dataset:
An arrangement for inductively charging an energy store vehicle, wherein in the arrangement an electronic circuit is provided in the interior of a hood, the opening of which is arranged on the underside of the hood, wherein the hood is arranged on the underside of a cover, in particular a cover plate, characterised in that the cover has a ferrite plate and a primary winding provided thereon, the cover having a supporting part which is embodied as a plate made of plastics material, the ferrite plate being arranged on the underside of the supporting plate, on the upper side of which ferrite plate the primary winding is arranged, so that the primary winding is arranged between the plate made of plastics material and the ferrite plate, the primary winding being surrounded by potting compound, the side wall of the hood being connected to the supporting part, the potting compound and/or the ferrite plate.
A fuel injection system of an internal combustion engine in which an exhaust gas purification catalyst, which adsorbs nitrogen oxides in an exhaust gas when it is in a cold state lower in temperature than an activation temperature thereof, is arranged on an exhaust system, said fuel injection system characterized by comprising: a supply device that is configured to supply to said internal combustion engine either a first fuel or a second fuel, the burned gas of which contains a small amount of non-methane hydrocarbons as compared with the burned gas of the first; and a control unit that is configured to control said supply device in such a manner that said second fuel is first supplied to said internal combustion engine when said exhaust gas purification catalyst is in a cold state, and a change from said second fuel to said first fuel is then made when determining, based on the temperature of said exhaust gas purification catalyst or output of a NOX sensor arranged on an exhaust passage downstream of the exhaust gas purification catalyst, a maximum amount of adsorption which is a maximum value an amount of nitrogen oxides which can be adsorbed to said exhaust gas purification catalyst decreases to less than a lower limit value thereof wherein said control unit is configured to make a determination that a maximum amount of adsorption of said exhaust gas purification catalyst has become less than a lower limit value, when the temperature of said exhaust gas purification catalyst exceeds an adsorption limit temperature which is lower than said activation temperature. a supply device that is configured to supply to said internal combustion engine either a first fuel or a second fuel, the burned gas of which contains a small amount of non-methane hydrocarbons as compared with the burned gas of the first; and a control unit that is configured to control said supply device in such a manner that said second fuel is first supplied to said internal combustion engine when said exhaust gas purification catalyst is in a cold state, and a change from said second fuel to said first fuel is then made when determining, based on the temperature of said exhaust gas purification catalyst or output of a NOX sensor arranged on an exhaust passage downstream of the exhaust gas purification catalyst, a maximum amount of adsorption which is a maximum value an amount of nitrogen oxides which can be adsorbed to said exhaust gas purification catalyst decreases to less than a lower limit value thereof wherein said control unit is configured to make a determination that a maximum amount of adsorption of said exhaust gas purification catalyst has become less than a lower limit value, when the temperature of said exhaust gas purification catalyst exceeds an adsorption limit temperature which is lower than said activation temperature.
A cover glass article, comprising: a glass body having: a three-dimensional shape, an inside surface, an outside surface, and wherein: at least one of the inside and outside surfaces has a surface roughness (Ra) less than 3.0 nm and is free of indentations having diameters larger than 150 μm, and the glass article has at least one bend section having a bend radius from 1 mm to 20mm. a three-dimensional shape, an inside surface, an outside surface, and wherein: at least one of the inside and outside surfaces has a surface roughness (Ra) less than 3.0 nm and is free of indentations having diameters larger than 150 μm, and the glass article has at least one bend section having a bend radius from 1 mm to 20mm. at least one of the inside and outside surfaces has a surface roughness (Ra) less than 3.0 nm and is free of indentations having diameters larger than 150 μm, and the glass article has at least one bend section having a bend radius from 1 mm to 20mm.
A computer-implemented method comprising: receiving input for a virtual user (304, 306a, 306b) in a virtual environment, the input being based on a plurality of movements performed by a physical user accessing the virtual environment; based on the plurality of movements, detecting that a hand of the virtual user is within a threshold distance of a collision zone, the collision zone associated with at least one virtual object; selecting, in response to determining that the at least one virtual object is configured to receive input in a target area on the virtual object that is smaller than the hand of the virtual user, a collision mode for the virtual user (304, 306a, 306b) based on the hand of the virtual user and the at least one virtual object (310, 320, 330), wherein collision modes vary between fine and coarse; wherein in the fine collision mode, the user interacts with the virtual object using finger gestures and in the coarse collision mode, the user interacts with the virtual object using hand gestures; and dynamically modifying the hand of the virtual user (304, 306a, 306b) based on the selected collision mode. receiving input for a virtual user (304, 306a, 306b) in a virtual environment, the input being based on a plurality of movements performed by a physical user accessing the virtual environment; based on the plurality of movements, detecting that a hand of the virtual user is within a threshold distance of a collision zone, the collision zone associated with at least one virtual object; selecting, in response to determining that the at least one virtual object is configured to receive input in a target area on the virtual object that is smaller than the hand of the virtual user, a collision mode for the virtual user (304, 306a, 306b) based on the hand of the virtual user and the at least one virtual object (310, 320, 330), wherein collision modes vary between fine and coarse; wherein in the fine collision mode, the user interacts with the virtual object using finger gestures and in the coarse collision mode, the user interacts with the virtual object using hand gestures; and dynamically modifying the hand of the virtual user (304, 306a, 306b) based on the selected collision mode.
Device for locating and detecting the cardiac regions responsible for irregular cardiac arrhythmias which comprises a number of surface electrodes, comprising: • three-dimensional reconstruction means that generate a three-dimensional reconstruction of the patient's torso through a number of images obtained by means of at least one camera, wherein the at least one camera is a visible imaging camera, wherein the number of images is at least two and wherein images are taken from different positions; • means for locating the surface electrodes, which detect the position of the electrodes with respect to the patient's torso; • means for processing electrical signals originating from the surface electrodes; • data processing means for correlating the electrical signals with the areas of the body where each of the electrodes is placed, using the three-dimensional reconstruction, the position of the electrodes and the processed electrical signals to generate a surface electrocardiographic map and determine where an irregular arrhythmia is located; wherein the means for locating the surface electrodes detect the position of the electrodes by processing the images with which the three-dimensional reconstruction of the patient's torso is performed. • three-dimensional reconstruction means that generate a three-dimensional reconstruction of the patient's torso through a number of images obtained by means of at least one camera, wherein the at least one camera is a visible imaging camera, wherein the number of images is at least two and wherein images are taken from different positions; • means for locating the surface electrodes, which detect the position of the electrodes with respect to the patient's torso; • means for processing electrical signals originating from the surface electrodes; • data processing means for correlating the electrical signals with the areas of the body where each of the electrodes is placed, using the three-dimensional reconstruction, the position of the electrodes and the processed electrical signals to generate a surface electrocardiographic map and determine where an irregular arrhythmia is located;
A wire electric discharge machine that supports a wire electrode by upper and lower wire guides (5, 6) provided in upper and lower nozzles (1, 2), respectively, and performs electric discharge machining while moving the wire electrode relative to a workpiece according to a machining program and supplying a machining fluid from the upper and lower nozzles (1, 2), the wire electric discharge machine comprising: a fluid pressure detecting unit (7, 8) that detects the pressure of the machining fluid supplied from the upper nozzle and the pressure of the machining fluid supplied from the lower nozzle during the electric discharge machining; a memory device that stores a relational expression representing a relation between the pressure of the machining fluid detected by the fluid pressure detecting unit (7, 8) and a displacement amount of each of the upper and lower wire guides (5, 6) corresponding to the pressure of the machining fluid; and a controller that obtains displacement amounts of the upper and lower wire guides (5, 6), which correspond to the pressure of the machining fluid detected by the fluid pressure detecting unit (7, 8), from the relational expression stored in the memory device, calculates positional compensation values of the upper and lower wire guides (5, 6) on the basis of the obtained displacement amounts, and compensates the position of the wire electrode relative to the workpiece by compensating command values of the machining program on the basis of the calculated positional compensation values. a fluid pressure detecting unit (7, 8) that detects the pressure of the machining fluid supplied from the upper nozzle and the pressure of the machining fluid supplied from the lower nozzle during the electric discharge machining; a memory device that stores a relational expression representing a relation between the pressure of the machining fluid detected by the fluid pressure detecting unit (7, 8) and a displacement amount of each of the upper and lower wire guides (5, 6) corresponding to the pressure of the machining fluid; and a controller that obtains displacement amounts of the upper and lower wire guides (5, 6), which correspond to the pressure of the machining fluid detected by the fluid pressure detecting unit (7, 8), from the relational expression stored in the memory device, calculates positional compensation values of the upper and lower wire guides (5, 6) on the basis of the obtained displacement amounts, and compensates the position of the wire electrode relative to the workpiece by compensating command values of the machining program on the basis of the calculated positional compensation values.
A mounted reversible plough comprising a frame and an attachment member for attaching said frame to a tractor, said frame carrying at least a first ploughing element and at least a second ploughing element which are mutually opposing and the frame being rotatably secured to said attachment member about an inversion axis in order to invert said frame, said plough further comprising a wheel which is configured for adjusting a working depth of the plough in two opposing operating positions of the wheel, in which said first ploughing element and second ploughing element are operative, respectively, an arm which, on the one hand, supports said wheel and, on the other hand, is rotatably connected to a support of said frame about an oscillation axis which is transverse with respect to said inversion axis so as to allow an oscillation of said arm between the first and the second operating position of the wheel, the oscillation of the arm during the inversion of the frame being slowed down by means of a damper, characterized in that said damper comprises a movable element which is kinematically connected to said arm during the inversion of the frame, said movable element being configured to slide along a support of the movable element which support extends longitudinally and the ends of which are rigidly secured to said support of said frame so as to slow down the oscillation of the arm during said inversion.
A method for distributing resource units among instances of actors (A1, A2, A3, A4, A5, A6), the method being performed by a requesting runtime environment, the method comprising: providing, to responding runtime environments (200b, 200c), a request for resource units to be used by at least one of the instances when run by the requesting runtime environment; obtaining, from the responding runtime environments (200b, 200c), indications of amount of resource units made available from a respective one of the responding runtime environments (200b, 200c) to the requesting runtime environment; determining, based on the obtained indications, individual amounts of resource units required by the requesting runtime environment from each of the responding runtime environments (200b, 200c); and indicating, to the responding runtime environments (200b, 200c), said individual amounts of resource units required by the requesting runtime environment. providing, to responding runtime environments (200b, 200c), a request for resource units to be used by at least one of the instances when run by the requesting runtime environment; obtaining, from the responding runtime environments (200b, 200c), indications of amount of resource units made available from a respective one of the responding runtime environments (200b, 200c) to the requesting runtime environment; determining, based on the obtained indications, individual amounts of resource units required by the requesting runtime environment from each of the responding runtime environments (200b, 200c); and indicating, to the responding runtime environments (200b, 200c), said individual amounts of resource units required by the requesting runtime environment.
Method for producing an endoprosthesis for implantation in an aneurysm of a patient, the aneurysm resulting from a deformation of a vessel wall, in particular an arterial wall, comprising: - producing a tubular envelope (22, 24) which extends according to a direction (Y-Y'), and - fixing a plurality of pressure probes to the envelope (22, 24), wherein each probe comprises: - a sensor for carrying out a pressure measurement, and - means (34, 36) for transmitting the pressure measurement to a monitoring device located outside the patient's body, wherein the means (34, 36) for transmitting the pressure measurement of each probe are suitable for generating an electromagnetic pressure measurement transmission signal containing at least one characteristic that is distinctive to the probe of which the means (34, 36) form part, the method being characterized in that the sensor of each probe of the plurality is a directional sensor, its sensitivity being maximal for pressures exerted perpendicularly to its measuring surface, and comprising the following steps: - obtaining a visual representation of the aneurysm of the patient by medical imagery, - producing an envelope (22, 24) of a shape adapted to that of the aneurysm, - locating at least one local pressure maximum (A, B) exerted on the wall of the aneurysm of the patient by blood flows within the aneurysm, and - fixing at least one of the pressure probes to the envelope (22, 24), the probe being oriented towards the outside of the envelope so that the probe is oriented towards the local pressure maximum when the endoprosthesis is implanted in the aneurysm. - producing a tubular envelope (22, 24) which extends according to a direction (Y-Y'), and - fixing a plurality of pressure probes to the envelope (22, 24), - a sensor for carrying out a pressure measurement, and - means (34, 36) for transmitting the pressure measurement to a monitoring device located outside the patient's body, - obtaining a visual representation of the aneurysm of the patient by medical imagery, - producing an envelope (22, 24) of a shape adapted to that of the aneurysm, - locating at least one local pressure maximum (A, B) exerted on the wall of the aneurysm of the patient by blood flows within the aneurysm, and - fixing at least one of the pressure probes to the envelope (22, 24), the probe being oriented towards the outside of the envelope so that the probe is oriented towards the local pressure maximum when the endoprosthesis is implanted in the aneurysm.
A method of provisioning geofences, the method implemented at a computing device and comprising: displaying a map comprising one or more geographic entities, each of the one or more geographic entities selectable by a user and associated with prestored zone delineation information defining the boundaries of the geographic entity; and receiving, in response to the displaying, a selection by the user, of one or more selected geographic entities of the one or more geographic entities; creating at least one geofence in response to the selection, wherein creating the at least one geofence includes identifying the prestored zone delineation information associated with each of the one or more selected geographic entities, such that the at least one geofence includes boundaries defined by the prestored zone delineation information. displaying a map comprising one or more geographic entities, each of the one or more geographic entities selectable by a user and associated with prestored zone delineation information defining the boundaries of the geographic entity; and receiving, in response to the displaying, a selection by the user, of one or more selected geographic entities of the one or more geographic entities; creating at least one geofence in response to the selection, wherein creating the at least one geofence includes identifying the prestored zone delineation information associated with each of the one or more selected geographic entities, such that the at least one geofence includes boundaries defined by the prestored zone delineation information.
A method for controlling a plurality of sodium-sulfur batteries that, in an interconnected system in which a power generation device that fluctuates in output power and an electric power storage-compensation device are combined to supply power to an electric power system, are each included in the electric power storage-compensation device and compensate for fluctuations of the output power of the power generation device, the method comprising managing a remaining battery level of each individual sodium-sulfur battery constituting the plurality of sodium-sulfur batteries, setting a remaining battery level target value common to all sodium-sulfur batteries, and controlling input/output power distributed to each individual sodium-sulfur battery based on a total control quantity which is distributed between the sodium-sulfur batteries and weighted by a multiplying factor for each individual sodium-sulfur battery according to a difference between the target value and the remaining battery level of the sodium-sulfur battery.
An automated medical system, comprising: a robot support system comprising: a robot arm; an end effector coupled at a distal end of the robot arm and configured to hold an end effector tool; a plurality of motors operable to move the robot arm; and a light indicator configured to illuminate to indicate conditions in which automated medical system is currently operating; wherein the end effector includes a load cell configured to track the force applied to the end effector, an activation assembly operable to send a move signal allowing an operator to move the robot arm, and a tool connection, the tool connection attaches to the load cell, the tool connection comprises attachment points and tool guides or tool connections, characterised in that the light indicator is positioned on top of the robot arm; the end effector includes a saddle joint adapted to attach to the robot arm; the activation assembly is configured to encircle the tool connection and the load cell; and the tool connection comprises a sensory button, wherein when the end effector tool is connected to the end effector, the sensory button is depressed alerting the robot support system, and medical personnel, that the end effector tool has been attached to the end effector. a robot arm; an end effector coupled at a distal end of the robot arm and configured to hold an end effector tool; a plurality of motors operable to move the robot arm; and a light indicator configured to illuminate to indicate conditions in which automated medical system is currently operating; wherein the end effector includes a load cell configured to track the force applied to the end effector, an activation assembly operable to send a move signal allowing an operator to move the robot arm, and a tool connection, the tool connection attaches to the load cell, the tool connection comprises attachment points and tool guides or tool connections, characterised in that the light indicator is positioned on top of the robot arm; the end effector includes a saddle joint adapted to attach to the robot arm; the activation assembly is configured to encircle the tool connection and the load cell; and the tool connection comprises a sensory button, wherein when the end effector tool is connected to the end effector, the sensory button is depressed alerting the robot support system, and medical personnel, that the end effector tool has been attached to the end effector.