mhurhangee/ep-ind-claims huggingface dataset:
An ablation system for effecting ablation in a body vessel including: an elongate ablation assembly having a proximal end and a distal end, and provided at or adjacent its distal end with a heating device (22, 62) and an electrical ablation element (20, 50, 210, 310, 410); and a control unit connected to the heating device (22, 62) and the electrical ablation element (20, 50, 210, 310, 410), the control unit being configured to actuate the heating device (22, 62) to provide heating to blood to a first temperature upstream of the electrical ablation element in a first mode and to actuate the electrical ablation element (20, 50, 210, 310, 410) to provide heating to a second temperature in a second mode, the first temperature being below an ablation temperature and the second temperature being at or above an ablation temperature, the first temperature being between 40°C and 60°C. an elongate ablation assembly having a proximal end and a distal end, and provided at or adjacent its distal end with a heating device (22, 62) and an electrical ablation element (20, 50, 210, 310, 410); and a control unit connected to the heating device (22, 62) and the electrical ablation element (20, 50, 210, 310, 410), the control unit being configured to actuate the heating device (22, 62) to provide heating to blood to a first temperature upstream of the electrical ablation element in a first mode and to actuate the electrical ablation element (20, 50, 210, 310, 410) to provide heating to a second temperature in a second mode, the first temperature being below an ablation temperature and the second temperature being at or above an ablation temperature, the first temperature being between 40°C and 60°C.
A spark plug comprising: an insulator having an axial hole formed in a direction of an axis (O-O) of the spark plug; a center electrode held in one end side of the axial hole; a metal terminal held in the other end side of the axial hole; an electrical connection part arranged to establish electrical connection between the center electrode and the metal terminal within the axial hole; and a metal shell disposed around an outer circumference of the insulator and having a thread portion formed on at least a part of an outer circumferential surface thereof, wherein the electrical connection part includes: a resistor; and a conductive seal layer provided between the resistor and the center electrode to seal and fix the insulator and the center electrode together; the spark plug being characterized in that, in a half or more of a region in which the seal layer is provided in the direction of the axis (O-O), the spark plug satisfies the following conditions: a /( a + b) × 100 ≥ 8.2 and a + b ≥ 2.80 in the case of M = 14 mm; a / (a + b) × 100 ≥ 8.3 and a + b ≥ 1.80 in the case of M = 12 mm; and a /( a + b) × 100 ≥ 8.6 and a + b ≥ 1.75 in the case of M = 10 mm, where M represents a nominal diameter of the thread portion; a represents a distance between the insulator and the metal shell; and b represents a thickness of the insulator. an insulator having an axial hole formed in a direction of an axis (O-O) of the spark plug; a center electrode held in one end side of the axial hole; a metal terminal held in the other end side of the axial hole; an electrical connection part arranged to establish electrical connection between the center electrode and the metal terminal within the axial hole; and a metal shell disposed around an outer circumference of the insulator and having a thread portion formed on at least a part of an outer circumferential surface thereof, wherein the electrical connection part includes: a resistor; and a conductive seal layer provided between the resistor and the center electrode to seal and fix the insulator and the center electrode together; the spark plug being characterized in that, in a half or more of a region in which the seal layer is provided in the direction of the axis (O-O), the spark plug satisfies the following conditions: a /( a + b) × 100 ≥ 8.2 and a + b ≥ 2.80 in the case of M = 14 mm; a / (a + b) × 100 ≥ 8.3 and a + b ≥ 1.80 in the case of M = 12 mm; and a /( a + b) × 100 ≥ 8.6 and a + b ≥ 1.75 in the case of M = 10 mm, where M represents a nominal diameter of the thread portion; a represents a distance between the insulator and the metal shell; and b represents a thickness of the insulator.
Method for ascertaining a deactivated operating state of a motor vehicle, comprising at least the following method steps: a) receiving at least one signal, which comprises an operating parameter of the motor vehicle, b) ascertaining a time at which the operating parameter from the at least one signal received in accordance with step a) last exceeded a predefinable threshold, c) recognizing the deactivated operating state on the basis of whether more than a predefined time interval has elapsed since the time ascertained in accordance with step b); wherein the method is further designed to output an output signal for at least one trigger signal for a pyrotechnic element of the motor vehicle, wherein the output signal comprises a first value if a deactivated operating state has been recognized, wherein the output signal additionally comprises a second value, and wherein the method further comprises the following method step: d) outputting the at least one trigger signal for the applicable pyrotechnic element of the motor vehicle if a deactivated operating state has been recognized in step c). a) receiving at least one signal, which comprises an operating parameter of the motor vehicle, b) ascertaining a time at which the operating parameter from the at least one signal received in accordance with step a) last exceeded a predefinable threshold, c) recognizing the deactivated operating state on the basis of whether more than a predefined time interval has elapsed since the time ascertained in accordance with step b);
A method for controlling a plurality of user interface elements of a portable electronic device, the method comprising: analyzing image data (52, 62) from one or more user-selected images to determine one or more image attributes (56, 66), wherein analyzing the image data comprises employing subject matter determination logic, wherein the subject matter determination logic comprises at least one of an image recognition logic, an object recognition logic and a face recognition logic configured to determine the image attributes; processing the image attributes to generate a theme (58, 68); and controlling (60, 70) the plurality of user interface elements based on the theme. analyzing image data (52, 62) from one or more user-selected images to determine one or more image attributes (56, 66), wherein analyzing the image data comprises employing subject matter determination logic, wherein the subject matter determination logic comprises at least one of an image recognition logic, an object recognition logic and a face recognition logic configured to determine the image attributes; processing the image attributes to generate a theme (58, 68); and controlling (60, 70) the plurality of user interface elements based on the theme.
A method for assembling a printable semiconductor element on a receiving surface of a substrate, said method comprising the steps of: providing said printable semiconductor element comprising a unitary inorganic semiconductor structure; contacting said printable semiconductor element with a conformable transfer device comprising an elastomeric PDMS stamp having a three dimensional relief pattern on its external surface having recessed regions and relief features having a contact surface provided by the relief pattern, wherein contact between said contact surface and said printable semiconductor element binds said printable semiconductor element to said contact surface, thereby forming said contact surface having said printable semiconductor element disposed thereon; contacting said printable semiconductor element disposed on said contact surface with said receiving surface of said substrate; and separating said contact surface of said conformable transfer device comprising the elastomeric PDMS stamp and said printable semiconductor element, wherein said printable semiconductor element is transferred onto said receiving surface, thereby assembling said printable semiconductor element on said receiving surface of said substrate. providing said printable semiconductor element comprising a unitary inorganic semiconductor structure; contacting said printable semiconductor element with a conformable transfer device comprising an elastomeric PDMS stamp having a three dimensional relief pattern on its external surface having recessed regions and relief features having a contact surface provided by the relief pattern, wherein contact between said contact surface and said printable semiconductor element binds said printable semiconductor element to said contact surface, thereby forming said contact surface having said printable semiconductor element disposed thereon; contacting said printable semiconductor element disposed on said contact surface with said receiving surface of said substrate; and separating said contact surface of said conformable transfer device comprising the elastomeric PDMS stamp and said printable semiconductor element, wherein said printable semiconductor element is transferred onto said receiving surface, thereby assembling said printable semiconductor element on said receiving surface of said substrate.
An acoustic horn comprising an acoustic enclosure extending from a horn throat along a longitudinal axis, the acoustic enclosure having an acoustically open end, an acoustically closed end, and acoustically closed narrowing sides having interior walls and; an elongated centrally-located centerbody having an exterior wall, the centerbody containing one or more acoustic transducers and one or more acoustic ports, the centerbody extending along the longitudinal axis from a first vertex to a second vertex and the narrowing sides of the enclosure to form an annular acoustic channel (22,23) defined by the interior walls of the acoustic enclosure and by the exterior walls of the centerbody, the centerbody having a rear surface, the rear surface coupled to the narrowing sides, and the centerbody further having a frontal surface, wherein the centerbody extends along the longitudinal axis in a first plane and in a second plane, and the second plane is inclined relative to the first plane, and in the first plane and in the second plane, the rear surface tapers outward along the longitudinal axis following a surface of the enclosure to a transition, and the first front surface tapers inward along the longitudinal axis from the transition toward the open end, so as to form an expanding annular passage defined by the acoustic enclosure and the centerbody exterior wall; and at least one high frequency range driver being acoustically coupled to the horn throat.
An autoinjector comprising: a case, a syringe carrier slidably disposed within the case, the syringe carrier adapted to hold a syringe including a stopper; a plunger slidably disposed within the syringe carrier, the plunger adapted to apply a force on the stopper; a drive spring disposed within the plunger and biasing the plunger relative to the syringe carrier; a needle shroud slidably disposed within the case, the needle shroud telescopically arranged over the syringe carrier, and a control spring biasing the needle shroud to an extended position. a case, a syringe carrier slidably disposed within the case, the syringe carrier adapted to hold a syringe including a stopper; a plunger slidably disposed within the syringe carrier, the plunger adapted to apply a force on the stopper; a drive spring disposed within the plunger and biasing the plunger relative to the syringe carrier; a needle shroud slidably disposed within the case, the needle shroud telescopically arranged over the syringe carrier, and a control spring biasing the needle shroud to an extended position.
Method for creating a formwork for a precast concrete component in a formwork environment having a ground formwork element, wherein a device for detecting the formwork environment is used, which has at least one sensor with which the formwork environment is optically detected, wherein the method comprises: determining or adjusting an angular position in at least one first direction (r1, R1) of the device for detecting the formwork environment with respect to a plane substantially transverse to the direction of the gravity acceleration (g); determining an angular position of the ground formwork element in at least the first direction (r1, R1), wherein a deviation of the angular position of the ground formwork element in at least the first direction (r1, R1) from the plane substantially transverse to the direction of the gravity acceleration (g) is established by means of the device for detecting the formwork environment and a calculating device; determining or adjusting an angular position in at least one second direction (r2, R2), different from the first direction, of the device for detecting the formwork environment with respect to a plane substantially transverse to the direction of the gravity acceleration (g) and determining an angular position of the ground formwork element in at least the second direction (r2, R2), wherein a deviation of the angular position of the ground formwork element in the second direction (r2, R2) from the plane substantially transverse to the direction of the gravity acceleration (g) is established by means of the device for detecting the formwork environment and the calculating device. determining or adjusting an angular position in at least one first direction (r1, R1) of the device for detecting the formwork environment with respect to a plane substantially transverse to the direction of the gravity acceleration (g); determining an angular position of the ground formwork element in at least the first direction (r1, R1), wherein a deviation of the angular position of the ground formwork element in at least the first direction (r1, R1) from the plane substantially transverse to the direction of the gravity acceleration (g) is established by means of the device for detecting the formwork environment and a calculating device; determining or adjusting an angular position in at least one second direction (r2, R2), different from the first direction, of the device for detecting the formwork environment with respect to a plane substantially transverse to the direction of the gravity acceleration (g) and determining an angular position of the ground formwork element in at least the second direction (r2, R2), wherein a deviation of the angular position of the ground formwork element in the second direction (r2, R2) from the plane substantially transverse to the direction of the gravity acceleration (g) is established by means of the device for detecting the formwork environment and the calculating device.
A use of at least one comb polymer which comprises side chains which have at least one cationic group, and which does not comprise side chains which have polyether groups, and which has a main chain which has carboxyl groups, as a dispersant for hydraulically settable compositions.
Filling element for filling containers with a liquid, comprising an elongated filling element body, which surrounds an axial product channel, in which a valve element is movably arranged, said valve element having a valve body which, together with a valve seat arranged on the filling element body, forms a filling valve, wherein the filling element has a dispensing opening at the lower end of the product channel, wherein at least one flushing outlet opening is arranged in the region of the dispensing opening, which is connected to a flushing-gas supply via a flushing control valve, and wherein at least one flushing return opening is arranged in the region of the dispensing opening, characterised in that the flushing outlet opening surrounds the dispensing opening in ring fashion, that the flushing outlet opening is inclined obliquely downwards and onto the central axis of the filling element body, and that the flushing return opening or the flushing return openings surround the flushing outlet opening in ring fashion.
MK-0677 for use in a method of treating growth hormone deficiency in children, comprising: wherein a therapeutically effective amount of MK-0677 is administered to a child known to have short stature and equivalent growth potential compared to rhGH, wherein a child has equivalent growth potential compared to rhGH when the child has: (i.) a peak serum GH≥5 μg/L in response to a single oral dose of MK-0677; and, (ii.) a baseline serum IGF-I of >30 ng/mL. (i.) a peak serum GH≥5 μg/L in response to a single oral dose of MK-0677; and, (ii.) a baseline serum IGF-I of >30 ng/mL.
An apparatus, comprising: a foot mat; a depth sensing camera; an elevated foot platform that is configured to reduce or prevent rotational movement of a foot; a processor in communication with the depth sensing camera, the processor further configured to calculate the circumference of a user's leg based on data from the depth sensing camera while the user has one foot on the foot mat and one foot on the elevated foot platform, the processor further configured to select a recommended product for the user's knee or ankle from among a set of pre-manufactured candidate products for knees or ankles based at least in part upon the leg circumference of the user; and an output device configured to display information received from the processor, the information identifying the recommended product to the user. a foot mat; a depth sensing camera; an elevated foot platform that is configured to reduce or prevent rotational movement of a foot; a processor in communication with the depth sensing camera, the processor further configured to calculate the circumference of a user's leg based on data from the depth sensing camera while the user has one foot on the foot mat and one foot on the elevated foot platform, the processor further configured to select a recommended product for the user's knee or ankle from among a set of pre-manufactured candidate products for knees or ankles based at least in part upon the leg circumference of the user; and an output device configured to display information received from the processor, the information identifying the recommended product to the user.
Lighting and/or signalling system for a motor vehicle, comprising: - at least one primary light source comprising a laser source and emitting light radiation, referred to as incident radiation, and - means for spatial distribution of the incident radiation in order to form diffused radiation, and comprising a holographic surface comprising at least one holographic zone dedicated to the spatial distribution of the light radiation in a volume beam of predetermined form, - a wavelength conversion device receiving the diffused radiation in order to convert the wavelength thereof so as to re-emit white light radiation, - an optical imaging system intended to receive the white light re-emitted by the wavelength conversion device and to project this white light in front of the vehicle in order to form a lighting and/or signalling beam, the wavelength conversion device being situated in the vicinity of the focal plane of the optical imaging system, characterised in that the system comprises means (26, 28) for relative movement of the incident radiation and of the holographic surface, the relative movement comprising at least one rotation of the holographic surface about an axis perpendicular to this surface. - at least one primary light source comprising a laser source and emitting light radiation, referred to as incident radiation, and - means for spatial distribution of the incident radiation in order to form diffused radiation, and comprising a holographic surface comprising at least one holographic zone dedicated to the spatial distribution of the light radiation in a volume beam of predetermined form, - a wavelength conversion device receiving the diffused radiation in order to convert the wavelength thereof so as to re-emit white light radiation, - an optical imaging system intended to receive the white light re-emitted by the wavelength conversion device and to project this white light in front of the vehicle in order to form a lighting and/or signalling beam, the wavelength conversion device being situated in the vicinity of the focal plane of the optical imaging system,
A machine implemented method for generating three-dimensional toolpath instructions for a three dimensional printer, the method comprising: receiving a three-dimensional geometry sliced into shells (1332,1334,1342) or layers; (1328,1330) generating, for each of a set of shells or layers defining a portion of a 3D printed part, first isotropic fill tool paths (1322, 1328, 1330, 1344, 1350, 1350-R,1350-IW) for controlling an isotropic solidifying head (18,1800,1616) to solidify, along the isotropic fill tool paths, a substantially isotropic fill material; generating, for each of an anisotropic fill subset of the set of shells or layers defining the portion of the 3D printed part, first anisotropic fill tool paths (1342-QI, 1352-O.CON, 1352 I.CON) for controlling an anisotropic solidifying head (10,199) to solidify, along the anisotropic tool paths, a substantially anisotropic fill material having an anisotropic characteristic oriented relative to a trajectory of the anisotropic fill tool path; characterized by receiving a selection, from among the set of shells or layers defining the portion of the 3D printed part, of an editing subset of shells or layers, the editing subset including at least part of the anisotropic fill subset; and regenerating, for each shell (1332, 1334, 1342) or layer (1328,1330) of the editing subset, one of second isotropic fill toolpaths different from the first isotropic fill toolpaths and second anisotropic fill toolpaths different from the first anisotropic fill toolpaths. receiving a three-dimensional geometry sliced into shells (1332,1334,1342) or layers; (1328,1330) generating, for each of a set of shells or layers defining a portion of a 3D printed part, first isotropic fill tool paths (1322, 1328, 1330, 1344, 1350, 1350-R,1350-IW) for controlling an isotropic solidifying head (18,1800,1616) to solidify, along the isotropic fill tool paths, a substantially isotropic fill material; generating, for each of an anisotropic fill subset of the set of shells or layers defining the portion of the 3D printed part, first anisotropic fill tool paths (1342-QI, 1352-O.CON, 1352 I.CON) for controlling an anisotropic solidifying head (10,199) to solidify, along the anisotropic tool paths, a substantially anisotropic fill material having an anisotropic characteristic oriented relative to a trajectory of the anisotropic fill tool path; characterized by receiving a selection, from among the set of shells or layers defining the portion of the 3D printed part, of an editing subset of shells or layers, the editing subset including at least part of the anisotropic fill subset; and regenerating, for each shell (1332, 1334, 1342) or layer (1328,1330) of the editing subset, one of second isotropic fill toolpaths different from the first isotropic fill toolpaths and second anisotropic fill toolpaths different from the first anisotropic fill toolpaths.