mhurhangee/ep-ind-claims huggingface dataset:
A pneumatic tire with a designated tire rotation direction, the pneumatic tire comprising a tread portion with a stud pin mounted in the tread portion; the stud pin comprising a tip comprising an end surface having a line symmetrical shape, the end surface being configured to come into contact with a road surface, and a body portion configured to secure the tip thereto; the end surface of the tip configured to come into contact with a road surface comprising an axis of symmetry which defines the line symmetrical shape, a centroid of a shape of the end surface offset to a first side in an axial direction of the axis of symmetry from a center position of a range the end surface covers in the axial direction, and a pair of recessed portions on both sides of the axis of symmetry, each recessed portion being recessed inward of the end surface and being provided on a periphery of the end surface running between a first most distal end portion and a second most distal end portion, the first most distal end portion being located on the axis of symmetry of the end surface farthest from the centroid on the first side and the second most distal end portion being located on the axis of symmetry of the end surface farthest from the centroid on a second side opposite the first side; and the stud pin being mounted such that the second side, as opposed to the first side, corresponds to a leading side in a tire rotation direction R. a tip comprising an end surface having a line symmetrical shape, the end surface being configured to come into contact with a road surface, and a body portion configured to secure the tip thereto; the end surface of the tip configured to come into contact with a road surface comprising an axis of symmetry which defines the line symmetrical shape, a centroid of a shape of the end surface offset to a first side in an axial direction of the axis of symmetry from a center position of a range the end surface covers in the axial direction, and a pair of recessed portions on both sides of the axis of symmetry, each recessed portion being recessed inward of the end surface and being provided on a periphery of the end surface running between a first most distal end portion and a second most distal end portion, the first most distal end portion being located on the axis of symmetry of the end surface farthest from the centroid on the first side and the second most distal end portion being located on the axis of symmetry of the end surface farthest from the centroid on a second side opposite the first side; and
Load securing device for a commercial vehicle, in particular trucks, trailers or semitrailers, with a support profile and at least one recess stamped in the support profile and comprising at least one opening, wherein a lashing means is provided partially arranged in the recess to attach a load securing device, and wherein a support element at least partially surrounding the recess in at least one position of the lashing means is provided, supported adjacent to the recess relative to the support profile, and the lashing means is supported via the support element relative to the support profile, characterised in that the lashing means are guided through at least one opening in the recess and through at least one opening in the support element.
A device for curing objects made of concrete, under defined temperature conditions and humidity conditions, having a shelving system constructed on a base plate, which shelving system has a plurality of shelf supports made of individually galvanized steel protruding from the base plate and has a plurality of bearing elements for supporting shelves, supported on the shelf supports and arranged one above the other in a plurality of levels, on which the objects are stored, having a climate system, the climate system having at least one air conditioning unit for providing supply air at an adjustable temperature, the at least one air conditioning device being formed to heat the supply air, having a flow pipe system for distributing the supply air provided in the climate system and having a return pipe system for returning exhaust air in the climate system, the exhaust air from the return pipe system being wholly or partially fed to the air conditioning device on the input side, the flow pipe system being at least partially integrated into the shelving system, a plurality of shelf supports being pipelines of the flow pipe system through which the provided supply air can flow downwards, at least in sections, at the same time, which lead the supply air in close distances into the foot region of the shelving system, so that the shelf supports through which the supply air flows are directly heated and the supply air led into the foot region of the shelving system heats the base plate over a large area.
A medical imaging system for displaying a sequence of images of a medical intervention that comprises moving and/or positioning a tool in a body organ, the system comprising an image detector for acquiring a sequence of images of said tool during said medical intervention, means for processing said sequence of images, adapted for automatically extracting (11, 12, 21, 22) from the images a marker attached to said tool support and yielding marker location information, deriving tool location information from said marker location information, and enhancing the images of said sequence to improve the visibility of said tool relative to the background, and means for displaying said enhanced images, characterized in: the system further comprising means for effecting movement of said image detector relative to said tool during acquisition of said sequence of images, wherein means for effecting movement of said detector relative to said tool is adapted to zoom the detector in on the tool during the acquisition of said sequence of images. the system further comprising means for effecting movement of said image detector relative to said tool during acquisition of said sequence of images, wherein means for effecting movement of said detector relative to said tool is adapted to zoom the detector in on the tool during the acquisition of said sequence of images.
A method, performed by a following space management unit of a host vehicle, for managing a following space relating to a time for the host vehicle to reach a preceding vehicle location at which a preceding vehicle, preceding the host vehicle, is currently located, wherein the host vehicle is travelling with a velocity and has a current location on a road, wherein the host vehicle is travelling in a current lane of the road, wherein the method comprises: obtaining a set of parameters comprising: a difference parameter, indicating a difference between the velocity and a speed limit for the host vehicle at the current location; and determining the following space based on the set of parameters, thereby controlling the following space. obtaining a set of parameters comprising: a difference parameter, indicating a difference between the velocity and a speed limit for the host vehicle at the current location; and determining the following space based on the set of parameters, thereby controlling the following space.
An agricultural tractor, comprising: a tractor frame; a tractor wheel provided on a wheel carrier, the wheel carrier mounted to the tractor frame; and a steering system arranged to steer the tractor wheel; wherein the tractor further comprises at least one fender assembly, the fender assembly comprising: a carrier bracket attached to the tractor frame, the carrier bracket separate from the wheel carrier; a wheel fender supported by the carrier bracket to be located above the tractor wheel; and a steering mechanism provided on the carrier bracket, the wheel fender mounted to the steering mechanism, wherein the steering mechanism arranged to receive a steering signal from the steering system of the tractor, and wherein the steering mechanism rotates the wheel fender relative to the carrier bracket based on the received steering signal. a tractor frame; a tractor wheel provided on a wheel carrier, the wheel carrier mounted to the tractor frame; and a steering system arranged to steer the tractor wheel; a carrier bracket attached to the tractor frame, the carrier bracket separate from the wheel carrier; a wheel fender supported by the carrier bracket to be located above the tractor wheel; and a steering mechanism provided on the carrier bracket, the wheel fender mounted to the steering mechanism,
Method for determining the aerodynamic moment of resistance M aero-EM of a wheel arranged on an axis, by measuring the value of the mechanical power P m to be applied to the wheel in order to maintain it in rotation at a constant speed ω, the said wheel being equipped with a rotational-drive means and with a device for picking off and/or recording the numerical values of the said mechanical power and those of the rotational speed, characterized in that the said wheel is protected by a removable cap, in that it is constantly subjected to a flow of air which makes it possible to reproduce the effects of a crossword and has a main direction having an angle of between -40° and +40° with respect to that of the wheel, and in that the picked-off measurements of rotational speed ω and of mechanical power P m of the said wheel are input into the following mathematical formula: P m = ω M aero − EM + M f where - P m represents the mechanical power needed to keep the wheel in rotation at a constant speed, - ω represents the rotational speed of the said wheel, - M f represents the value of the moment of friction of the hub of the wheel, and - M aero-EM represents the aerodynamic moment of resistance of the said wheel. - P m represents the mechanical power needed to keep the wheel in rotation at a constant speed, - ω represents the rotational speed of the said wheel, - M f represents the value of the moment of friction of the hub of the wheel, and - M aero-EM represents the aerodynamic moment of resistance of the said wheel.
A gimbal for carrying an imaging device, comprising: a first support frame, a second support frame hinged with the first support frame and a locking device arranged on the first support frame; wherein the first support frame is configured to support the imaging device through the locking device, and the first support frame comprises two first struts; wherein the gimbal further comprises at least one center of gravity adjusting unit, and characterized in that, a portion of the at least one CG adjusting unit is arranged at least within one of the first struts to adjust the center of gravity of the first support frame and in that the second support frame is including a driving device being capable of driving a rotation of the first support frame. a first support frame, a second support frame hinged with the first support frame and a locking device arranged on the first support frame; wherein the first support frame is configured to support the imaging device through the locking device, and the first support frame comprises two first struts; wherein the gimbal further comprises at least one center of gravity adjusting unit, and characterized in that, a portion of the at least one CG adjusting unit is arranged at least within one of the first struts to adjust the center of gravity of the first support frame and in that the second support frame is including a driving device being capable of driving a rotation of the first support frame.
A method for determining the temperature of a vibrating strand, wherein the strand in the form of a glass fiber or a metal wire is conveyed in the direction of its longitudinal axis along a background radiator of known temperature, having the following steps: - the strand is received with a spatially resolving thermal imaging sensor in front of the background radiator while it is being conveyed, wherein the measuring value area formed by the thermal imaging sensor completely detects, at all times, the width of the strand portion located in front of the background radiator at the time of measurement and, moreover, at least one part of the background radiator located behind it, - the integral is formed across the measuring value area of the thermal imaging sensor which, at all times, completely detects the strand portion located in front of the background radiator, - the temperature of the strand is deduced by comparing the formed integral with a reference value, wherein the reference value is the integral across the measuring value area without the strand located in front of the background radiator. - the strand is received with a spatially resolving thermal imaging sensor in front of the background radiator while it is being conveyed, wherein the measuring value area formed by the thermal imaging sensor completely detects, at all times, the width of the strand portion located in front of the background radiator at the time of measurement and, moreover, at least one part of the background radiator located behind it, - the integral is formed across the measuring value area of the thermal imaging sensor which, at all times, completely detects the strand portion located in front of the background radiator, - the temperature of the strand is deduced by comparing the formed integral with a reference value, wherein the reference value is the integral across the measuring value area without the strand located in front of the background radiator.
A system (10, 900) for tracking a functional part of an instrument during an interventional procedure and displaying dynamic imaging corresponding to a functional part of the instrument, comprising: at least one selected instrument being identified; an imaging system for acquiring anatomical image having imaging space coordinates; a tether connected to the imaging system at a fixed end and connected to the instrument at a distal end, the location of the connection of the tether to the imaging system being registered to the imaging system with known registration data; a shape determining unit comprising an optical shape sensor including optical fiber cores that are located in the tether about its longitudinal axis, an optical console that interrogates the optical fiber cores; and a processor; the shape determining unit providing shape data from the tether to the processor and the processor calculates local curvature at different positions along the tether, and determines the three-dimensional shape of the tether using the determined local curvatures, wherein the imaging system acquires the anatomical images for use in guiding the instrument during the interventional procedure, and the processor determines the location and orientation of the identified instrument relative to the anatomical images using the determined shape of the tether and said registration data of the fixed end of the tether and provides for display purpose a dynamic image corresponding to the instrument and showing the functional part of the selected instrument in the anatomical images. at least one selected instrument being identified; an imaging system for acquiring anatomical image having imaging space coordinates; a tether connected to the imaging system at a fixed end and connected to the instrument at a distal end, the location of the connection of the tether to the imaging system being registered to the imaging system with known registration data; a shape determining unit comprising an optical shape sensor including optical fiber cores that are located in the tether about its longitudinal axis, an optical console that interrogates the optical fiber cores; and a processor; the shape determining unit providing shape data from the tether to the processor and the processor calculates local curvature at different positions along the tether, and determines the three-dimensional shape of the tether using the determined local curvatures, wherein the imaging system acquires the anatomical images for use in guiding the instrument during the interventional procedure, and the processor determines the location and orientation of the identified instrument relative to the anatomical images using the determined shape of the tether and said registration data of the fixed end of the tether and provides for display purpose a dynamic image corresponding to the instrument and showing the functional part of the selected instrument in the anatomical images.
Compressed air maintenance unit which has the following constituent parts: - an electrically actuable switching valve comprising a feed inlet connectable to a compressed air source and an operating outlet and able to be switched into an open position connecting the operating outlet to the feed inlet and also into a shut-off position separating the operating outlet from the feed inlet, - a unit outlet which may be connected to an external consumer device and which is connected via an outlet passage to the operating outlet of the switching valve, - sensor means at least in the form of a flow sensor used to measure the outlet flow occurring in the outlet passage, - and an internal electronic control unit which is connected for signalling to the switching valve and the flow sensor and which is designed, on the basis of an outlet flow measured by the flow sensor, to generate an electrical changeover signal which switches the switching valve from the open position into the shut-off position, characterised in that - the switching valve is a 2/2-way valve of the "Normally Open" type and is biased towards the open position by spring means so that, in the absence of an electrical changeover signal, it always adopts the open position. - an electrically actuable switching valve comprising a feed inlet connectable to a compressed air source and an operating outlet and able to be switched into an open position connecting the operating outlet to the feed inlet and also into a shut-off position separating the operating outlet from the feed inlet, - a unit outlet which may be connected to an external consumer device and which is connected via an outlet passage to the operating outlet of the switching valve, - sensor means at least in the form of a flow sensor used to measure the outlet flow occurring in the outlet passage, - and an internal electronic control unit which is connected for signalling to the switching valve and the flow sensor and which is designed, on the basis of an outlet flow measured by the flow sensor, to generate an electrical changeover signal which switches the switching valve from the open position into the shut-off position, characterised in that - the switching valve is a 2/2-way valve of the "Normally Open" type and is biased towards the open position by spring means so that, in the absence of an electrical changeover signal, it always adopts the open position.
An air duct system configured to be used with an air containment system that spans an aisle defined by rows of racks, the air duct system comprising: a plurality of ceiling panels supported by the air containment system; characterized in that there is further provided; a plurality of support curbs mounted on the ceiling panels, the plurality of support curbs being configured to horizontally support ductwork positioned on the support curbs; ductwork positioned on the plurality of support curbs; and a plurality of panels (90, 92) secured to the support curbs to create a plenum underneath the ductwork; wherein the plenum enables the ductwork to selectively deliver cool air to the aisle or exhaust hot air from the aisle, and wherein each ceiling panel is rectangular in construction and configured to extend across a top of a frame structure of the air containment system, each ceiling panel including a series of openings to enable air to flow between the plenum and the aisle. a plurality of ceiling panels supported by the air containment system; characterized in that there is further provided; a plurality of support curbs mounted on the ceiling panels, the plurality of support curbs being configured to horizontally support ductwork positioned on the support curbs; ductwork positioned on the plurality of support curbs; and a plurality of panels (90, 92) secured to the support curbs to create a plenum underneath the ductwork; wherein the plenum enables the ductwork to selectively deliver cool air to the aisle or exhaust hot air from the aisle, and wherein each ceiling panel is rectangular in construction and configured to extend across a top of a frame structure of the air containment system, each ceiling panel including a series of openings to enable air to flow between the plenum and the aisle.
A surgical snare (300, 350) comprising: an elongate probe comprising a coaxial cable for conveying radiofrequency and/or microwave frequency electromagnetic energy, and a probe tip connected at the distal end of the coaxial cable for receiving the RF and/or microwave energy; a gas passage for conveying gas through the elongate probe to the probe tip; and a retractable loop mounted at the probe tip for encircling an area containing biological tissue beyond the probe tip, wherein the coaxial cable comprises an inner conductor, an outer conductor and a dielectric material separating the inner conductor from the outer conductor, characterised in that: the probe tip comprises a first electrode connected to the inner conductor of the coaxial cable and a second electrode connected to the outer conductor of the coaxial cable, wherein, in a first configuration, the first electrode and the second electrode are arranged to produce an electric field from the received RF and/or microwave frequency EM energy across a flow path of gas received from the gas passage to strike and sustain a thermal plasma or a non-thermal plasma in the area encircled by the retractable loop. an elongate probe comprising a coaxial cable for conveying radiofrequency and/or microwave frequency electromagnetic energy, and a probe tip connected at the distal end of the coaxial cable for receiving the RF and/or microwave energy; a gas passage for conveying gas through the elongate probe to the probe tip; and a retractable loop mounted at the probe tip for encircling an area containing biological tissue beyond the probe tip, wherein the coaxial cable comprises an inner conductor, an outer conductor and a dielectric material separating the inner conductor from the outer conductor, characterised in that: the probe tip comprises a first electrode connected to the inner conductor of the coaxial cable and a second electrode connected to the outer conductor of the coaxial cable, wherein, in a first configuration, the first electrode and the second electrode are arranged to produce an electric field from the received RF and/or microwave frequency EM energy across a flow path of gas received from the gas passage to strike and sustain a thermal plasma or a non-thermal plasma in the area encircled by the retractable loop. the probe tip comprises a first electrode connected to the inner conductor of the coaxial cable and a second electrode connected to the outer conductor of the coaxial cable, wherein, in a first configuration, the first electrode and the second electrode are arranged to produce an electric field from the received RF and/or microwave frequency EM energy across a flow path of gas received from the gas passage to strike and sustain a thermal plasma or a non-thermal plasma in the area encircled by the retractable loop.