mhurhangee/ep-ind-claims huggingface dataset:
Depilating device, comprising: - a depilating body which is rotatable about a rotation axis extending in a longitudinal direction with respect to the depilating body and which is provided with at least one hair-catching space, wherein the size of the at least one hair-catching space in the longitudinal direction is variable through compression and extension of the depilating body in the longitudinal direction, and - an actuating mechanism configured to act on the depilating body so as to cause compression and extension of the depilating body in the longitudinal direction during rotational movement of the depilating body about the rotation axis, wherein the actuating mechanism includes a force-inducing member which is compressible and extensible in the longitudinal direction and which is configured to determine the level of a force exerted by the actuating mechanism on the depilating body in the longitudinal direction when the size of the force-inducing member in the longitudinal direction is varied while the at least one hair-catching space of the depilating body is in a closed condition; wherein a force-displacement characteristic of compression and extension of the force-inducing member in the longitudinal direction is significantly stronger than a force-displacement characteristic of compression and extension of the depilating body in the longitudinal direction. - a depilating body which is rotatable about a rotation axis extending in a longitudinal direction with respect to the depilating body and which is provided with at least one hair-catching space, wherein the size of the at least one hair-catching space in the longitudinal direction is variable through compression and extension of the depilating body in the longitudinal direction, and - an actuating mechanism configured to act on the depilating body so as to cause compression and extension of the depilating body in the longitudinal direction during rotational movement of the depilating body about the rotation axis, wherein the actuating mechanism includes a force-inducing member which is compressible and extensible in the longitudinal direction and which is configured to determine the level of a force exerted by the actuating mechanism on the depilating body in the longitudinal direction when the size of the force-inducing member in the longitudinal direction is varied while the at least one hair-catching space of the depilating body is in a closed condition;
Glazing, and in particular vehicle glazing, comprising a window, in particular a laminated window comprising an exterior layer of glass, an interior layer of glass and a plastic material interlayer situated between said two layers of glass, said window having an exterior face, an edge surface and an interior face, said window including along at least one part of at least one longitudinal edge a profiled bead, said glazing further including an adjacent window, in particular an adjacent laminated window comprising an exterior layer of glass as well as an interior layer of glass and a plastic material interlayer situated between said two layers of glass, said adjacent window having an exterior face, an edge surface and an interior face, characterized in that said profiled bead includes a groove for clipping a cover piece to said profiled bead, said cover piece including, seen in cross section, a harpoon penetrating into said groove during clipping, when said harpoon is situated in said groove, said cover piece further including on the one hand, farther toward the exterior than said harpoon and outside of said groove, a base situated facing and at a distance from both at least one part of said edge surface of said window and at least one part of said edge surface of said adjacent window and on the other hand, farther toward the exterior than said base, a flexible exterior covering having a Shore A hardness between 45 and 90 inclusive, or even between 55 and 85 inclusive and situated facing both at least one part of said edge surface of said window and at least one part of said edge surface of said adjacent window.
A vehicle body side portion structure in which a roof side rail provided at a side portion of a roof and a side sill provided at a side portion of a floor are connected by a center pillar, wherein: the center pillar includes an upper pillar section having an upper end joined to the roof side rail and a lower pillar section having a lower end joined to the side sill; and the upper pillar section is formed by a hollow metallic pipe which is constituted by a high-strength steel plate, has a substantially constant cross-sectional shape, and is convexly curved outwardly in a vehicle width direction, characterized in that the lower pillar section is formed by two pressed components (13, 14) which are constituted by a steel plate having lower strength than the steel plate of the hollow metallic pipe of the upper pillar section and are joined to each other in the vehicle width direction into a closed cross-sectional shape; and a circumference of a lower edge part of the upper pillar section is joined to the two pressed components (13, 14) in a state where the lower edge part of the upper pillar section is inserted within a section configured by the two pressed components (13, 14) of the lower pillar section and having the closed cross-sectional shape. the center pillar includes an upper pillar section having an upper end joined to the roof side rail and a lower pillar section having a lower end joined to the side sill; and the upper pillar section is formed by a hollow metallic pipe which is constituted by a high-strength steel plate, has a substantially constant cross-sectional shape, and is convexly curved outwardly in a vehicle width direction,
A method for controlling an engine, wherein the fuel is in a gaseous form, wherein an intake charge provided, during operation of the engine, to a combustion chamber of the engine, wherein the intake charge is comprising an air component, a fuel component, and a diluent component; wherein the method comprises determining an amount of a diluent component in the intake charge by subtracting the determined amount of the air component in the intake charge and the determined amount of the fuel component in the intake charge from the determined amount of the intake charge; wherein the method is adjusting an amount of a diluent supplied to the intake charge based at least in part on the determined amount of diluent component of the intake charge; wherein the method comprises determining the amount of intake charge based on a speed/density equation using the engine speed measured by an engine speed sensor; characterised in that the method further comprises determining the amount of the fuel diluent component in the intake charge based at least on the engine torque, measured by a torque indicating characteristic sensor, the engine's volumetric efficiency and the engine density of fuel; and determining the amount of air component in the intake charge based on an air-fuel ratio measured by an air-fuel ratio sensor; and, the stoichiometric ratio of the fuel and the determined amount of the fuel component. wherein the method comprises determining an amount of a diluent component in the intake charge by subtracting the determined amount of the air component in the intake charge and the determined amount of the fuel component in the intake charge from the determined amount of the intake charge; wherein the method is adjusting an amount of a diluent supplied to the intake charge based at least in part on the determined amount of diluent component of the intake charge; wherein the method comprises determining the amount of intake charge based on a speed/density equation using the engine speed measured by an engine speed sensor; characterised in that the method further comprises determining the amount of the fuel diluent component in the intake charge based at least on the engine torque, measured by a torque indicating characteristic sensor, the engine's volumetric efficiency and the engine density of fuel; and determining the amount of air component in the intake charge based on an air-fuel ratio measured by an air-fuel ratio sensor; and, the stoichiometric ratio of the fuel and the determined amount of the fuel component.
A covering for an architectural opening wherein the covering comprises a cellular panel having at least two cellular units stacked one on top of another and attached along a line of attachment extending longitudinally along the length of the cellular units; characterised in that the cellular panel further comprises a first light absorbing element, which absorbs substantially all visible light wavelengths, positioned adjacent the line of attachment at an interface of the at least two cellular units to absorb light passing between the at least two cellular units to reduce light leakage between adjacent cellular units; wherein the light absorbing element is formed in a line that extends along the length of a cellular unit in the interface region between the adjacent cellular units.
Method for the detection and correction of the vehicle reference speed, in particular in the event of its decrease by drag torque and/or regeneration torque, of a motor vehicle, in particular of an all-wheel drive vehicle, with an engine and an engine controller, the longitudinal acceleration of the motor vehicle being measured with the aid of a sensor and the wheel accelerations being determined with the aid of wheel speed sensors, having the steps: - filtering of the wheel accelerations, - filtering of the longitudinal acceleration and - forming a corrected longitudinal acceleration by applying an offset to the filtered longitudinal acceleration, - integration against time of the difference between the corrected longitudinal acceleration and the respective wheel acceleration, characterized in that - the offset is a safety offset and a correction offset, - steps for correction are initiated in the event of exceeding a threshold value of the absolute value of the difference during a predetermined time interval for a predetermined number of wheels and - the correction offset is calculated as the difference between the longitudinal acceleration and a wheel acceleration that is averaged across the four wheels. - filtering of the wheel accelerations, - filtering of the longitudinal acceleration and - forming a corrected longitudinal acceleration by applying an offset to the filtered longitudinal acceleration, - integration against time of the difference between the corrected longitudinal acceleration and the respective wheel acceleration, characterized in that - the offset is a safety offset and a correction offset, - steps for correction are initiated in the event of exceeding a threshold value of the absolute value of the difference during a predetermined time interval for a predetermined number of wheels and - the correction offset is calculated as the difference between the longitudinal acceleration and a wheel acceleration that is averaged across the four wheels.
A system comprising: a medical device (14,26) configured to deliver therapy to a patient based on a detected posture of the patient wherein the detected posture is a function that takes its values from a set of posture zones; and a programmer device communicatively coupled to the medical device, the programmer device comprising: a display device; a user interface configured to receive user input, wherein the user input comprises an indication to change one or more parameters associated with one or more of the posture zones, and characterized in that the user interface is configured to receive the user input while the display device simultaneously displays the graphical representation of the one or more posture zones associated with the patient; and a processor configured to control the display device to display a graphical representation of posture zones associated with the patient, and to change at least one of the posture zones in response to the user input. a medical device (14,26) configured to deliver therapy to a patient based on a detected posture of the patient wherein the detected posture is a function that takes its values from a set of posture zones; and a programmer device communicatively coupled to the medical device, the programmer device comprising: a display device; a user interface configured to receive user input, wherein the user input comprises an indication to change one or more parameters associated with one or more of the posture zones, and characterized in that the user interface is configured to receive the user input while the display device simultaneously displays the graphical representation of the one or more posture zones associated with the patient; and a processor configured to control the display device to display a graphical representation of posture zones associated with the patient, and to change at least one of the posture zones in response to the user input. a display device; a user interface configured to receive user input, wherein the user input comprises an indication to change one or more parameters associated with one or more of the posture zones, and characterized in that the user interface is configured to receive the user input while the display device simultaneously displays the graphical representation of the one or more posture zones associated with the patient; and
A catheter assembly, comprising: a catheter; a catheter hub fixed to a proximal end portion of the catheter; a hollow inner needle including a needlepoint and detachably inserted into the catheter; a guide wire slidably inserted into the inner needle, having a length longer than the inner needle and the catheter, and having a distal end that can project from the needlepoint; and a wire operating member which extends in the longitudinal direction, can be displaced in the longitudinal direction relative to the inner needle and the catheter, and is connected to the guide wire, characterized in that the catheter assembly further comprises a pressing member including a main body connected to the catheter hub and further extending in a longitudinal direction of the inner needle and the catheter, and capable of pressing a portion between a proximal end and a distal end of the catheter; and that the wire operating member is disposed in a manner superimposed on the pressing member. a catheter; a catheter hub fixed to a proximal end portion of the catheter; a hollow inner needle including a needlepoint and detachably inserted into the catheter; a guide wire slidably inserted into the inner needle, having a length longer than the inner needle and the catheter, and having a distal end that can project from the needlepoint; and a wire operating member which extends in the longitudinal direction, can be displaced in the longitudinal direction relative to the inner needle and the catheter, and is connected to the guide wire, characterized in that the catheter assembly further comprises a pressing member including a main body connected to the catheter hub and further extending in a longitudinal direction of the inner needle and the catheter, and capable of pressing a portion between a proximal end and a distal end of the catheter; and that the wire operating member is disposed in a manner superimposed on the pressing member.
Elevator comprising an electric linear motor comprising at least one linear stator designed to be located in a fixed correlation to an environment, particularly building, and at least one mover (24, 26; 126) designed for connection with an elevator car to be moved (16; 16a-16d) and co-acting with the stator to move the car, which motor comprises a stator beam (18; 114) supporting said at least one stator, which stator beam has at least one side face (42-48; 116-124) carrying ferromagnetic poles of said stator spaced apart by a pitch (d), and which mover (24, 26; 126) comprises at least one counter-face facing said side face(s) of the stator beam, in which counter-face electro-magnetic components (70, 71, 72, 74, 76) of the mover (24, 26; 126) are arranged to co-act with the ferromagnetic poles mounted on the stator beam, which elevator comprises an elevator brake, characterized in that said side face of the stator beam facing the mover and/or the counter face of the mover facing the side face of the stator beam comprise(s) a brake surface (51, 54) which form(s) the brake interface of the elevator brake.
A polymer composition comprising a polyolefin; one or more impact modifier(s); one or more fluoropolymer(s); one or more clarifying agent(s); and one or more dispersing agent(s) in an amount of equal to or more than 100 ppm, based on the total weight amount of the polymer composition, wherein the weight ratio of the one or more fluoropolymer(s) to the one or more dispersing agent(s) in the polymer composition is in the range of from 1.2: 1 to 4: 1. a polyolefin; one or more impact modifier(s); one or more fluoropolymer(s); one or more clarifying agent(s); and one or more dispersing agent(s) in an amount of equal to or more than 100 ppm, based on the total weight amount of the polymer composition,
Tempering machine for tempering confectionery masses - having a mass space which, in direction of a main axis, is subdivided into mass chambers (5, 6) by dividing discs (3, 4), - wherein the dividing discs (3, 4) extend crosswise to the main axis and around the main axis, and comprise mass passage openings (12, 21), at least some of the dividing discs (3, 4) being configured as tempering discs by which heat energy can actively be conveyed from an external source to the confectionery mass, or be conveyed away from the confectionery mass to an external sink, - having a drive shaft extending along the main axis through the dividing discs (3, 4) and the mass chambers (5, 6), - having drive hubs arranged, in the mass chambers (5, 6), on the drive shaft in a rotationally fixed way, and - stirring arms mounted to the drive hubs in a rotationally fixed way and extending radially to the main axis in the mass chambers (5, 6), characterised in that at least some of the stirring arms are individually hooked in their respective drive hub in such a way that they are movable in direction of the main axis. - having a mass space which, in direction of a main axis, is subdivided into mass chambers (5, 6) by dividing discs (3, 4), - wherein the dividing discs (3, 4) extend crosswise to the main axis and around the main axis, and comprise mass passage openings (12, 21), at least some of the dividing discs (3, 4) being configured as tempering discs by which heat energy can actively be conveyed from an external source to the confectionery mass, or be conveyed away from the confectionery mass to an external sink, - having a drive shaft extending along the main axis through the dividing discs (3, 4) and the mass chambers (5, 6), - having drive hubs arranged, in the mass chambers (5, 6), on the drive shaft in a rotationally fixed way, and - stirring arms mounted to the drive hubs in a rotationally fixed way and extending radially to the main axis in the mass chambers (5, 6),
A method of communicating in downlink in a wireless network, the method comprising: receiving user data from a sender; and suspending receiving user data from the sender due to an interruption; characterized by: upon resuming from the interruption and independent of receiving a polling request from the sender, transmitting a status information to the sender identifying at least last received user data prior to the interruption. receiving user data from a sender; and suspending receiving user data from the sender due to an interruption; upon resuming from the interruption and independent of receiving a polling request from the sender, transmitting a status information to the sender identifying at least last received user data prior to the interruption.
A medical article comprising: an occlusive layer; an absorbent substrate selected from foam, fabric, nonwoven, hydrocolloid, hydrogel, and combinations thereof overlaying the occlusive layer, wherein the substrate having two opposing major surfaces; a metal oxide layer overlaying the substrate, wherein the metal oxide layer comprises an antimicrobial metal oxide and wherein the metal oxide layer comprises less than 40 wt.% non-oxidized metal; and a metal layer overlaying the metal oxide layer. an occlusive layer; an absorbent substrate selected from foam, fabric, nonwoven, hydrocolloid, hydrogel, and combinations thereof overlaying the occlusive layer, wherein the substrate having two opposing major surfaces; a metal oxide layer overlaying the substrate, wherein the metal oxide layer comprises an antimicrobial metal oxide and wherein the metal oxide layer comprises less than 40 wt.% non-oxidized metal; and a metal layer overlaying the metal oxide layer.
An IGBT device integrated in a chip of semiconductor material including a substrate of a first type of conductivity, an active layer (115,120) of a second type of conductivity formed on an inner surface of the substrate, a body region of the first type of conductivity extending within the active layer from a front surface thereof opposite the inner surface, a source region of the second type of conductivity extending within the body region from the front surface, a channel region being defined within the body region between the source region and the active layer, a gate element insulated from the front surface extending over the channel region, a collector terminal contacting the substrate on a rear surface thereof opposite the inner surface, an emitter terminal contacting the source region and the body region on the front surface, and a gate terminal contacting the gate element, characterized by at least one buried emitter region of the first type of conductivity with a concentration of impurities higher than a concentration of impurities of the substrate extending into the substrate and laterally surrounded by the substrate, a portion of the substrate interposed between the at least one buried emitter region and the collector terminal defining an emitter resistor (Re).
A method, implemented by computer means, for determining a lens design of an optical lens adapted to a wearer and intended to be manufactured, the method comprising: - a wearer parameter providing step, during which wearer parameters are provided, - an optical distortion sensitivity data measurement step during which optical distortion patterns comprising dynamic optical distortion patterns are presented to the wearer and the optical distortion sensitivity data of the wearer are measured, - a lens design determining step, during which the lens design of the optical lens adapted to the wearer is determined based at least on the wearer parameters, wherein the wearer parameters comprise at least optical distortion sensitivity data representative of the sensitivity of the wearer to optical distortions and characterized in that the wearer parameters also comprise the type, level and distribution of distortions of an initial equipment of the wearer. - a wearer parameter providing step, during which wearer parameters are provided, - an optical distortion sensitivity data measurement step during which optical distortion patterns comprising dynamic optical distortion patterns are presented to the wearer and the optical distortion sensitivity data of the wearer are measured, - a lens design determining step, during which the lens design of the optical lens adapted to the wearer is determined based at least on the wearer parameters, wherein the wearer parameters comprise at least optical distortion sensitivity data representative of the sensitivity of the wearer to optical distortions and characterized in that the wearer parameters also comprise the type, level and distribution of distortions of an initial equipment of the wearer.