mhurhangee/ep-ind-claims huggingface dataset:
Processing circuitry for a cardiac visualization system, the system including a memory to store a description of a propagation of activation wavefronts associated with a plurality of activation times over a surface of at least one chamber of a heart, the processing circuitry configured to: calculate a plurality of activation wavefront propagation path traces wherein each one activation wavefront propagation path trace of the plurality of activation wavefront propagation path traces describes a point on one activation wavefront of the activation wavefronts being propagated over the surface of the at least one chamber of the heart according to an advancement of the one activation wavefront such that the plurality of activation wavefront propagation path traces describe the propagation of a plurality of different points according to corresponding ones of the activation wavefronts; prepare an animated visualization showing the plurality of activation wavefront propagation path traces on a representation of the at least one chamber of the heart, the processing circuitry being operative to prepare the animated visualization showing a growth of the plurality of activation wavefront propagation path traces on the representation of the at least one chamber of the heart according to the advancement of the activation wavefronts over the surface; and render the animated visualization to a display screen. calculate a plurality of activation wavefront propagation path traces wherein each one activation wavefront propagation path trace of the plurality of activation wavefront propagation path traces describes a point on one activation wavefront of the activation wavefronts being propagated over the surface of the at least one chamber of the heart according to an advancement of the one activation wavefront such that the plurality of activation wavefront propagation path traces describe the propagation of a plurality of different points according to corresponding ones of the activation wavefronts; prepare an animated visualization showing the plurality of activation wavefront propagation path traces on a representation of the at least one chamber of the heart, the processing circuitry being operative to prepare the animated visualization showing a growth of the plurality of activation wavefront propagation path traces on the representation of the at least one chamber of the heart according to the advancement of the activation wavefronts over the surface; and render the animated visualization to a display screen.
A gravity control apparatus, comprising: a first rotating body configured to rotate along a first axis as a result of being driven by a first driving device; a second rotating body configured to rotate along a second axis orthogonal to the first axis, within the region of rotation of the first rotating body, as a result of being driven by a second driving device; an accelerometer positioned at any position on the second rotating body and configured to detect acceleration; and a control device configured to control driving of the first driving device and the second driving device, characterized in that the control device is configured to control driving of the first driving device and the second driving device on the basis of acceleration data detected by the accelerometer. a first rotating body configured to rotate along a first axis as a result of being driven by a first driving device; a second rotating body configured to rotate along a second axis orthogonal to the first axis, within the region of rotation of the first rotating body, as a result of being driven by a second driving device; an accelerometer positioned at any position on the second rotating body and configured to detect acceleration; and a control device configured to control driving of the first driving device and the second driving device, characterized in that the control device is configured to control driving of the first driving device and the second driving device on the basis of acceleration data detected by the accelerometer.
Press brake for bending or pressing workpieces, comprising a. a top tool and a bottom tool, for bending or pressing workpieces between said opposing tools; b. an displaceable upper beam, wherein the top tool is mounted upon; c. a bottom beam, wherein the bottom tool is mounted upon, said bottom beam being substantially parallel to the upper beam; d. a load bearing frame mounted extending transversally to said beams (4, 5), comprising a concave opening facing said beams (4, 5), wherein the bottom beam is mounted on the bottom part of the load bearing frame relative to the concave opening; e. force means mounted between the upper beam and the upper part of the load bearing frame relative to the concave opening, for opposing the upper and lower tools (2, 3); characterized in that it comprises: a. an alignment frame mounted extending transversally to said beams (4, 5), comprising a concave opening facing said beams (4, 5), wherein the bottom beam is mounted on the bottom part of the alignment frame relative to the concave opening; b. sliding means mounted between the upper beam and the upper part of the alignment frame relative to the concave opening, which are adapted to accommodate a predefined degree of rotation of the upper beam in the plane parallel to the upper beam displacement. a. a top tool and a bottom tool, for bending or pressing workpieces between said opposing tools; b. an displaceable upper beam, wherein the top tool is mounted upon; c. a bottom beam, wherein the bottom tool is mounted upon, said bottom beam being substantially parallel to the upper beam; d. a load bearing frame mounted extending transversally to said beams (4, 5), comprising a concave opening facing said beams (4, 5), wherein the bottom beam is mounted on the bottom part of the load bearing frame relative to the concave opening; e. force means mounted between the upper beam and the upper part of the load bearing frame relative to the concave opening, for opposing the upper and lower tools (2, 3); a. an alignment frame mounted extending transversally to said beams (4, 5), comprising a concave opening facing said beams (4, 5), wherein the bottom beam is mounted on the bottom part of the alignment frame relative to the concave opening; b. sliding means mounted between the upper beam and the upper part of the alignment frame relative to the concave opening, which are adapted to accommodate a predefined degree of rotation of the upper beam in the plane parallel to the upper beam displacement.
An apparatus for handling rod-shaped components at a rig, comprising: a depositing means for rod-shaped components in which rod-shaped components can be deposited, a lifting means including a lift carriage, a guide means for guiding the lift carriage and a drive for displacing the lift carriage, a pick-up means attached to the lift carriage for picking up a rod-shaped component from the depositing means, characterized in that the pick-up means is pivoting with respect to the lift carriage at a plane perpendicular to the displacing direction of the lift carriage such that a rod-shaped component can be arranged above a drill hole. a depositing means for rod-shaped components in which rod-shaped components can be deposited, a lifting means including a lift carriage, a guide means for guiding the lift carriage and a drive for displacing the lift carriage, a pick-up means attached to the lift carriage for picking up a rod-shaped component from the depositing means, characterized in that the pick-up means is pivoting with respect to the lift carriage at a plane perpendicular to the displacing direction of the lift carriage such that a rod-shaped component can be arranged above a drill hole.
Process for cutting an extruded plastic pipe to length using a separator and a cutting unit rotating around the extrusion axis of the extruded pipe, wherein the cutting unit is mounted so that it can rotate and separation is executed with cutting tools arranged on the cutting unit, wherein energy is transmitted to move the cutting tools, characterised by the energy being transmitted from a fixed outer area to a moving inner area, wherein transmission of the energy is permanent or cyclical and the transmitted energy is buffered in an energy store, wherein the energy is transmitted inductively or capacitively, wherein the discharge time of the energy store is between 2% and 25% of the entire cutting cycle. wherein the cutting unit is mounted so that it can rotate and separation is executed with cutting tools arranged on the cutting unit, wherein energy is transmitted to move the cutting tools, characterised by the energy being transmitted from a fixed outer area to a moving inner area, wherein transmission of the energy is permanent or cyclical and the transmitted energy is buffered in an energy store, wherein the energy is transmitted inductively or capacitively, wherein the discharge time of the energy store is between 2% and 25% of the entire cutting cycle.
Travel vehicle body, in particular motor home body, with at least one underbody unit and with at least one upper bottom unit, in particular configured for a self-supporting connection of a rear axle unit to a driver's cab unit and delimiting a stowage space that is arranged at least partially between the rear axle unit and the driver's cab unit and that extends in at least one region continuously from a first longitudinal body side to a second longitudinal body side, the underbody unit comprising an underbody which forms an at least substantially planar underbody surface extending continuously over at least a large portion of an extension from the rear axle unit to the driver's cab unit, wherein the underbody unit comprises a first lower beam extending along the first longitudinal body side and wherein the underbody unit comprises a second lower beam extending along the second longitudinal body side, the first lower beam and the second lower beam being realised, at least in a region of the underbody, free of transverse bars, characterised by at least one first exterior bar (40, 42, 44, 46, 48) extending on the first longitudinal body side from an outer edge of the underbody to an outer edge of the upper bottom unit, wherein the at least one first exterior bar (40, 42, 44, 46, 48) runs obliquely with respect to a vertical direction of the underbody surface.
An apparatus for cooking food with superheated steam comprising an outer casing, which comprises inside it a cooking chamber, adapted to contain one or more foods; a steam generating device associated with said casing, adapted to vaporize a liquid, said steam generating device comprising a body comprising at least one heating element and at least one thermally conductive element, said at least one heating element being adapted to heat said liquid inserted, in use, inside said steam generating device, said heating element also being adapted to heat said thermally conductive element so as to store in said thermally conductive element a predetermined amount of energy to be used to generate steam; a superheating device of said steam, associated with said steam generation device, said superheating device being configured to heat said steam to an operating temperature, which is higher than the boiling temperature of said liquid and to allow said superheated steam to come out towards said cooking chamber, said superheating device comprising a containment body, a support member made of a non-electrically conductive material, which is arranged inside said containment body, said support member having at least one channel passing through said support member, to allow the passage of said steam, at least one electrically conductive element arranged in said at least one channel of said support member, said at least one electrically conductive element being fed, in use, by an electric power source to be heated to a temperature such as to emit electromagnetic radiations, said steam being heated, in use, by said electromagnetic radiation by irradiation. a steam generating device associated with said casing, adapted to vaporize a liquid, said steam generating device comprising a body comprising at least one heating element and at least one thermally conductive element, said at least one heating element being adapted to heat said liquid inserted, in use, inside said steam generating device, said heating element also being adapted to heat said thermally conductive element so as to store in said thermally conductive element a predetermined amount of energy to be used to generate steam; a superheating device of said steam, associated with said steam generation device, said superheating device being configured to heat said steam to an operating temperature, which is higher than the boiling temperature of said liquid and to allow said superheated steam to come out towards said cooking chamber, said superheating device comprising a containment body, a support member made of a non-electrically conductive material, which is arranged inside said containment body, said support member having at least one channel passing through said support member, to allow the passage of said steam, at least one electrically conductive element arranged in said at least one channel of said support member, said at least one electrically conductive element being fed, in use, by an electric power source to be heated to a temperature such as to emit electromagnetic radiations, said steam being heated, in use, by said electromagnetic radiation by irradiation.
A transparent sight display device capable for displaying a crosshair (107, 108), the transparent sight display device comprising a first transparent thin film electroluminescent display having a substrate (24, 44) and a first active layer capable of emitting spectrum of light in a wavelength of visible light, wherein - the transparent sight display device further comprises a second transparent thin film electroluminescent display having a substrate (24, 44) and a second active layer capable of emitting spectrum of light in a wavelength of visible light; - the first active layer of the first transparent thin film electroluminescent display comprises first active hairlines extending in a first direction; - the second active layer of the second transparent thin film electroluminescent display comprises second active hairlines extending in a second direction, the second direction being transverse to the first direction; and - the first and second transparent thin film electroluminescent displays (20, 40) are arranged in superposed manner to a superposed structure such that the first and second active hairlines (102, 104) extend transversely in relation to each other such that the crosshair (107, 108) is formed when one first active hairline and one second active hairline are activated. - the transparent sight display device further comprises a second transparent thin film electroluminescent display having a substrate (24, 44) and a second active layer capable of emitting spectrum of light in a wavelength of visible light; - the first active layer of the first transparent thin film electroluminescent display comprises first active hairlines extending in a first direction; - the second active layer of the second transparent thin film electroluminescent display comprises second active hairlines extending in a second direction, the second direction being transverse to the first direction; and - the first and second transparent thin film electroluminescent displays (20, 40) are arranged in superposed manner to a superposed structure such that the first and second active hairlines (102, 104) extend transversely in relation to each other such that the crosshair (107, 108) is formed when one first active hairline and one second active hairline are activated.
A direct-current plasma system for processing of a substrate, comprising: a DC plasma reaction chamber configured to contain a DC plasma that is generated between an anode and a cathode of the DC plasma reaction chamber; a substrate support stage arranged in a region of the DC plasma reaction chamber that contains a positive column of the DC plasma, a reference plate made of a conductive material arranged in the region of the DC plasma reaction chamber that contains the positive column of the DC plasma so that a first surface potential (V R) that develops at a surface of the reference plate is equal to a second surface potential (V FP) that develops at the surface of the substrate support stage, the first and second surface potentials (V R, V FP) being based on a potential (V PP) of the DC plasma in the positive column; and control electronics configured to measure the first surface potential (V R) and correspondingly adjust a potential (V A) of the anode to adjust the second surface potential (V FP) to a reference potential; and a biasing signal generator that is capacitively coupled to the substrate support stage, the biasing signal generator configured to generate a periodic biasing signal (V(t)) having a voltage that is referenced to the reference potential, the periodic biasing signal V(t) comprising: an active phase (ΔT BP) having a positive voltage (V B); a neutralization phase (ΔT BN) having a negative voltage (V BN); and an initialization phase (ΔT BP) having a zero voltage. a DC plasma reaction chamber configured to contain a DC plasma that is generated between an anode and a cathode of the DC plasma reaction chamber; a substrate support stage arranged in a region of the DC plasma reaction chamber that contains a positive column of the DC plasma, a reference plate made of a conductive material arranged in the region of the DC plasma reaction chamber that contains the positive column of the DC plasma so that a first surface potential (V R) that develops at a surface of the reference plate is equal to a second surface potential (V FP) that develops at the surface of the substrate support stage, the first and second surface potentials (V R, V FP) being based on a potential (V PP) of the DC plasma in the positive column; and control electronics configured to measure the first surface potential (V R) and correspondingly adjust a potential (V A) of the anode to adjust the second surface potential (V FP) to a reference potential; and a biasing signal generator that is capacitively coupled to the substrate support stage, the biasing signal generator configured to generate a periodic biasing signal (V(t)) having a voltage that is referenced to the reference potential, the periodic biasing signal V(t) comprising: an active phase (ΔT BP) having a positive voltage (V B); a neutralization phase (ΔT BN) having a negative voltage (V BN); and an initialization phase (ΔT BP) having a zero voltage. an active phase (ΔT BP) having a positive voltage (V B); a neutralization phase (ΔT BN) having a negative voltage (V BN); and an initialization phase (ΔT BP) having a zero voltage.
An ultrasonic medical instrument comprising: a probe shaft having a connector at a proximal end and a head at a distal end, the connector being configured for operative attachment to a source of ultrasonic mechanical vibratory energy, the head having an operative surface (18, 19) configured for engagement with organic tissues of a patient, said probe shaft, said connector, and said head being made of a rigid first material; and a plurality of end-of-life indicators (20, 20', 22, 22', 24, 24') affixed to one of said probe shaft and said head, each of said end-of-life indicators (20, 20', 22, 22', 24, 24') including a primary indicator element made of a second material that visibly disintegrates or degrades with repeated use of the instrument, each of said end-of-life indicators (20, 20', 22, 22', 24, 24') further including a secondary indicator element underneath said primary indicator element, said secondary indicator element being initially hidden by said primary indicator element, said secondary indicator element becoming visible once said primary indicator element degrades or disintegrates sufficiently to reveal said secondary indicator element, wherein said end-of-life indicators (20, 20', 22, 22', 24, 24') are designed to provide visual indications after different degrees of accumulated use.
A terminal block, including an insulating body, having at least one duct and at least one hole formed through a wall of the insulating body; a conductive linking bar arranged in the insulating body, being adapted for connecting at least one wire respectively passing through the at least one hole; a temperature detector being configured to be at least partially received by the duct and having at least one first end, a second end, and a connecting portion mechanically linking the first end and the second end; and a discoloration layer arranged in contact with the second end of the temperature detector, including at least a thermochromic layer; wherein: the first end and at least a part of the connecting portion of the temperature detector is arranged to pass through the duct towards the conductive linking bar so that the discoloration layer on the second end of the temperature detector is farther to the conductive linking bar than the first end of the temperature detector, characterized in that the temperature detector is made of thermal conductive material exhibiting thermal resistivity lower than the insulating body.
Stator comprising at least one insulation disk, at least one interconnection web, and at least one temperature sensor, where - said insulation disk comprises a holding element and said interconnection web comprises an abutment surface for said temperature sensor, - said interconnection web and said temperature sensor are arranged and held at least in sections in said holding element and - said temperature sensor touches said abutment surface at least in part in a planar manner and is pressed against said abutment surface by a spring force and/or by a clamping force, wherein said holding element is U-shaped in cross section with a base, a first side wall, and a second side wall between which said interconnection web and said temperature sensor are arranged, wherein said interconnection web is supported directly or indirectly on said first side wall, and said temperature sensor is supported directly or indirectly on said second side wall. - said insulation disk comprises a holding element and said interconnection web comprises an abutment surface for said temperature sensor, - said interconnection web and said temperature sensor are arranged and held at least in sections in said holding element and - said temperature sensor touches said abutment surface at least in part in a planar manner and is pressed against said abutment surface by a spring force and/or by a clamping force,