mhurhangee/ep-ind-claims huggingface dataset:
A method comprising: creating a first self-calibration curve that relates a first array image to a first acquired image, the first array image being recorded from application of a first radiation treatment plan to a first radiation detector and the first acquired image being recorded from application of the first radiation treatment plan to a second radiation detector, the first radiation detector being a detector array; creating at least one subsequent self-calibration curve that relates at least one subsequent array image to at least one subsequent acquired image, the at least one subsequent array image being recorded from application of at least one subsequent radiation treatment plan to the detector array, the at least one subsequent acquired image being recorded from application of the at least one subsequent radiation treatment plan to the second radiation detector; comparing the first self-calibration curve to the at least one subsequent self-calibration curve; determining at least one difference or fit between the first self-calibration curve and the at least one subsequent self-calibration curve; and modifying the at least one subsequent acquired image based on the at least one difference or fit. creating a first self-calibration curve that relates a first array image to a first acquired image, the first array image being recorded from application of a first radiation treatment plan to a first radiation detector and the first acquired image being recorded from application of the first radiation treatment plan to a second radiation detector, the first radiation detector being a detector array; creating at least one subsequent self-calibration curve that relates at least one subsequent array image to at least one subsequent acquired image, the at least one subsequent array image being recorded from application of at least one subsequent radiation treatment plan to the detector array, the at least one subsequent acquired image being recorded from application of the at least one subsequent radiation treatment plan to the second radiation detector; comparing the first self-calibration curve to the at least one subsequent self-calibration curve; determining at least one difference or fit between the first self-calibration curve and the at least one subsequent self-calibration curve; and modifying the at least one subsequent acquired image based on the at least one difference or fit.
Container for receiving different types of heat pack, the container comprising a base carrying a central support suitable for receiving equally well one or another of the heat packs, characterised in that the support includes at least a plurality of respective seats (30, 40, 50) that are staggered so that each receives one of the heat packs, each seat being adapted to co-operate with at least an annular surface portion of the corresponding heat pack, the seats being defined one in relation to the others either because two adjacent seats have different slopes or because they are separated by a connecting zone that has a slope different to that of at least one of the seats that it connects.
A rivet-shaped electrical contact (1, 21) for a relay, which is used as a movable contact for the relay, characterised in that the rivet-shaped electrical contact comprises: a heavy-load contact portion formed of a first silver-oxide type contact material; and a light-load contact portion formed of a second silver-oxide type contact material, wherein the hardness of the first silver-oxide type contact material is set to be higher than that of the second silver-oxide type contact material. a heavy-load contact portion formed of a first silver-oxide type contact material; and a light-load contact portion formed of a second silver-oxide type contact material, wherein the hardness of the first silver-oxide type contact material is set to be higher than that of the second silver-oxide type contact material.
Device for the thermal regulation of a battery comprising at least one energy storage cell, said device comprising a dielectric-fluid circuit, said circuit comprising irrigating means for wetting the surface of said cell with said dielectric fluid, characterized in that the irrigation means comprise sprinkler nozzles for sprinkling the dielectric fluid, in the liquid phase.
A wiring structure of a parking brake cable, comprising: a parking brake cable extending rearward in a vehicle from a foot-operated operation pedal provided in front of a driver seat, and linked to parking brake units provided to vehicle wheels (RL, RR) rearward of the driver seat; and a shift selection device operated by the driver to output a signal for switching a driving range position; characterized by device support means for supporting the shift selection device in a position to the side of the driver seat so as to allow a cable insertion space to be provided between the shift selection device and a top surface (11 a) of a floor tunnel, the top surface (11 a) of the floor tunnel being spaced apart from a floor panel of the vehicle; wherein the parking brake cable being directed toward the top surface (11 a) of the floor tunnel on the front side in the vehicle from the driver seat, and is wired so as to pass through the cable insertion space. a parking brake cable extending rearward in a vehicle from a foot-operated operation pedal provided in front of a driver seat, and linked to parking brake units provided to vehicle wheels (RL, RR) rearward of the driver seat; and a shift selection device operated by the driver to output a signal for switching a driving range position; characterized by device support means for supporting the shift selection device in a position to the side of the driver seat so as to allow a cable insertion space to be provided between the shift selection device and a top surface (11 a) of a floor tunnel, the top surface (11 a) of the floor tunnel being spaced apart from a floor panel of the vehicle; wherein the parking brake cable being directed toward the top surface (11 a) of the floor tunnel on the front side in the vehicle from the driver seat, and is wired so as to pass through the cable insertion space.
A chair, comprising: a base frame, a seat support, and a backrest support, wherein the seat support is connected to the backrest support, and wherein the backrest support is rotatably connected to a rear part of the base frame, whereby a pivot axis is defined about which the backrest support is pivotable, and further comprising linkage means in form of a four-joint coupling mechanism, for movably attaching the seat support to a front part of the base frame such that the seat support is moved on a defined movement path in a chair longitudinal direction during a pivoting movement of the backrest support, characterized in that the four-joint coupling mechanism comprises: a front motion link and a rear motion link rotatably mounted on the front part of the base frame to define positionally fixed front and rear bearing points (28, 29), whereas free ends (30, 31) of the motion links (24, 25) are rotatably connected to a movable coupling element about respective front and rear articulation points (32, 33), which coupling element has an arm which extends forward as viewed in the chair longitudinal direction and which is rotatably connected to the seat support, whereby an axis of rotation of the seat support, which axis of rotation is movable in the chair longitudinal direction along the movement path, is defined, wherein the motion links (24, 25) perform a forward pivoting movement about their respective bearing points (28, 29) during a rearward pivoting movement of the backrest support.
An electric motor, in particular a high-speed surgical motor, comprising a rotor which is concentrically surrounded by a substantially hollow-cylindrical coil former which carries at least one stator winding, wherein the coil former and the stator winding form a stator and the coil former is provided on its outer side with uniformly distributed lands which are provided with mushroom-shaped spoke members and which extend into ribs which terminate towards the front end in rib extensions, wherein the mushroom-shaped spoke members, ribs and rib extensions are provided and configured for fixing wires of the stator winding in a precisely structured form, wherein for providing the stator - the coil former with mushroom-shaped spoke members and rib extensions, which taper slightly radially towards the front end, is first configured as a composite body in that at least one dimension-stabilizing frame element (30, 32) is embedded by injection molding with plastic in a plastic body which is produced by injection molding, and - subsequently winding the wires onto and around the ribs and rib extensions. - the coil former with mushroom-shaped spoke members and rib extensions, which taper slightly radially towards the front end, is first configured as a composite body in that at least one dimension-stabilizing frame element (30, 32) is embedded by injection molding with plastic in a plastic body which is produced by injection molding, and - subsequently winding the wires onto and around the ribs and rib extensions.
A method in a first base station for enabling communication between said first base station and a second base station, the method characterized by: - detecting said second base station, - sending a setup request message to said secondbase station upon the detection of said second base station, - receiving a setup response message from said second base station, wherein at least one of said setup request and setup response messages comprise address information of a time server or information from which said address information of a time server can be derived, which time server is to be used to synchronize said first base station with said second base station. - detecting said second base station, - sending a setup request message to said secondbase station upon the detection of said second base station, - receiving a setup response message from said second base station,
An apparatus for determining pin placement in a femur head, the apparatus comprising: a mold comprising a first aperture, a second aperture and a contoured contact surface adapted to contact a surface of a femur head; characterised in that the contoured contact surface is based on data indicative of the surface of the femur head to fit the mold in a single predetermined position on the femur head, wherein the first aperture is adapted to receive a guide pin for a cutting instrument to resurface the femur head, and the second aperture is adapted to receive an anchor pin for securing the mold to the femur head. a mold comprising a first aperture, a second aperture and a contoured contact surface adapted to contact a surface of a femur head; characterised in that the contoured contact surface is based on data indicative of the surface of the femur head to fit the mold in a single predetermined position on the femur head, wherein the first aperture is adapted to receive a guide pin for a cutting instrument to resurface the femur head, and the second aperture is adapted to receive an anchor pin for securing the mold to the femur head.
A diffraction grating comprising a surface having grooves therein, each groove having a diffracting surface (17, 18), the grooves being separated from each other by lands of the first-mentioned surface of predetermined varying width, whereby the diffractive efficiency of the grating varies across the extent of the grating and characterised in that the width of a said land varies along its length and the depth of a said groove varies along its length, wherein the pitch of the grooves varies across the extent of the grating.
A shuttle valve for a safety valve arrangement, with a valve housing comprising a fluid inlet and two fluid outlets (6, 8), as well as with a movable shut-off body which is arranged in the valve housing and which can be moved between two closure positions, in which it closes one of the fluid outlets (6, 8), wherein the shut-off body comprises two sealing surfaces (14, 16) which are away from one another, wherein a corresponding valve seat (18, 22) is formed on each of the fluid outlets (6, 8) in the valve housing, said valve seats being designed in a manner such that in one of the closure positions, one of the sealing surfaces (14, 16) is in sealing contact with one of the valve seats (18, 22), wherein the shut-off body is arranged in pivotable manner about a pivot axis which is situated at the outer side of the shut-off body and outside the sealing surfaces (14, 16) and the shuttle valve comprises a linear drive which engages on the shut-off body in a manner radially distanced to its pivot axis and is coupled to the shut-off body in a manner such that the shut-off body is coupled in movement in a direct manner to a linearly movable part of the linear drive and is pivotable between its closure positions by way of moving the linear drive.
A continuous process for production of a mineral foam comprising the following steps: (i) separately prepare one or more slurries of cement, and an aqueous foam for which the D50 of the air bubbles of the foam is less than or equal to 400 μm; (ii) homogenize this or these slurries of cement with the aqueous foam to obtain a slurry of foamed cement; (iii) cast the slurry of foamed cement and leave it to set. (i) separately prepare one or more slurries of cement, and an aqueous foam for which the D50 of the air bubbles of the foam is less than or equal to 400 μm; (ii) homogenize this or these slurries of cement with the aqueous foam to obtain a slurry of foamed cement; (iii) cast the slurry of foamed cement and leave it to set.
Tripping device with phase reconstruction comprising: - at least two sensors (2, 3) disposed on main conductors to be protected, and - a processing unit comprising means for processing the current signals connected to the sensors, phase reconstruction means receiving signals (Is1, Is3) representative of the current signals provided by the sensors, and comprising triggering function processing means connected to the means for processing the current signals and to the reconstruction means, tripping device characterized in that the phase reconstruction means comprise: - first means (11, 12, 25) of determination for determining signals (Ia1, Ia3) representative of the amplitudes of the current signals (Is1, Is3) provided by the two sensors, - second means (15, 27-33) of determination for determining a signal (F(φ), S(φ), cos(φ), (φ), (φ0)) representative of a phase shift between signals representative of the signals (Is1, Is3) provided by the two sensors, and - third means (13, 14, 16, 17, 34) of determination connected to the first and second means of determination for determining a signal (Ia2 2, Ia2, 12) representative of a phase current reconstructed as a function of the signals representative of the amplitudes and of the signal representative of a phase shift of the signals provided by the two sensors. - at least two sensors (2, 3) disposed on main conductors to be protected, and - a processing unit comprising means for processing the current signals connected to the sensors, phase reconstruction means receiving signals (Is1, Is3) representative of the current signals provided by the sensors, and comprising triggering function processing means connected to the means for processing the current signals and to the reconstruction means, tripping device characterized in that the phase reconstruction means comprise: - first means (11, 12, 25) of determination for determining signals (Ia1, Ia3) representative of the amplitudes of the current signals (Is1, Is3) provided by the two sensors, - second means (15, 27-33) of determination for determining a signal (F(φ), S(φ), cos(φ), (φ), (φ0)) representative of a phase shift between signals representative of the signals (Is1, Is3) provided by the two sensors, and - third means (13, 14, 16, 17, 34) of determination connected to the first and second means of determination for determining a signal (Ia2 2, Ia2, 12) representative of a phase current reconstructed as a function of the signals representative of the amplitudes and of the signal representative of a phase shift of the signals provided by the two sensors.
Optical element (21, 15), comprising: a substrate, a reflective coating, and at least one active layer (34, 34a, 34b) comprising a magnetostrictive material, wherein the reflective coating, in particular for the reflection of EUV radiation, comprises a plurality of layer pairs having alternate layers (33a, 33b) composed of a high refractive index layer material and a low refractive index layer material, wherein the at least one active layer is formed within the reflective coating, and the optical element comprises at least one magnetizable layer which comprises a permanent-magnetic material for generating a magnetic field (36, 36b) in the at least one active layer (34, 34a, 34b). a substrate, a reflective coating, and at least one active layer (34, 34a, 34b) comprising a magnetostrictive material, wherein the reflective coating, in particular for the reflection of EUV radiation, comprises a plurality of layer pairs having alternate layers (33a, 33b) composed of a high refractive index layer material and a low refractive index layer material, wherein the at least one active layer is formed within the reflective coating, and the optical element comprises at least one magnetizable layer which comprises a permanent-magnetic material for generating a magnetic field (36, 36b) in the at least one active layer (34, 34a, 34b).
Cable routing device (1, 1', 1A, 1B) for the directional routing of cables (81, 82, 83), in particular for production areas in the beverage and / or food industry, with at least two webs which are aligned radially to a central part and one with the central part connected first end piece and a second end piece, on which a retaining wing is provided which extends in the direction of the adjacent retaining wing, characterized in that the retaining wings are at least approximately oriented along a circle, that is at least approximately concentric to the central part and that each retaining wing is formed in one piece onto the second end piece of the corresponding web and separated on both sides by a segment opening by the webs or the corresponding retaining wings and that two neighbouring webs and one or two retaining wings delimit a cable receiving opening, destined to receive a cable (81, 82, 83) and that the segment opening is formed in the form of a slit and preferably inclined with respect to the longitudinal axis (x) at an angle of around 30° - 60°, further preferred at around 45° and that the central part presents a passage opening for passing through connecting elements, by which several cable routing devices (1, 1', 1A, 1B) are connectable to each other, with sealing elements being provided neighbouring the receiving openings, which are formed as sealing ribs and a sealing formed onto it.
A power module, comprising: a bridge arm including multiple power devices (Q 1, Q 2; Q 3, Q 4) connected in series; a first capacitor (C 1) connected in parallel with the bridge arm; at least three non-jumping power terminals (IN+, IN-, OUT, OUT1) at a non-jumping potential, wherein a first non-jumping power terminal (IN+) and a second non-jumping power terminal (IN-) of the at least three non-jumping power terminals (IN+, IN-, OUT, OUT1) are connected to each end of the bridge arm, respectively; at least one jumping power terminal (AC, AC1, AC2) at a jumping potential, wherein a first jumping power terminal of the at least one jumping power terminal (AC, AC1, AC2) is configured to be electrically connected to one terminal of a power inductor; and a third non-jumping power terminal (OUT, OUT1) of the at least three non-jumping power terminals (IN+, IN-, OUT, OUT1) is configured to be electrically connected to the other terminal of the power inductor; a second capacitor (C 2) electrically connected between the third non-jumping power terminal (OUT, OUT1) and one of the other non-jumping power terminals (IN+, IN-) of the at least three non-jumping power terminals (IN+, IN-, OUT, OUT1); and an auxiliary terminal electrically connected to the third non-jumping power terminal and further configured to be electrically connected to an external capacitor (C X1). a bridge arm including multiple power devices (Q 1, Q 2; Q 3, Q 4) connected in series; a first capacitor (C 1) connected in parallel with the bridge arm; at least three non-jumping power terminals (IN+, IN-, OUT, OUT1) at a non-jumping potential, wherein a first non-jumping power terminal (IN+) and a second non-jumping power terminal (IN-) of the at least three non-jumping power terminals (IN+, IN-, OUT, OUT1) are connected to each end of the bridge arm, respectively; at least one jumping power terminal (AC, AC1, AC2) at a jumping potential, wherein a first jumping power terminal of the at least one jumping power terminal (AC, AC1, AC2) is configured to be electrically connected to one terminal of a power inductor; and a third non-jumping power terminal (OUT, OUT1) of the at least three non-jumping power terminals (IN+, IN-, OUT, OUT1) is configured to be electrically connected to the other terminal of the power inductor; a second capacitor (C 2) electrically connected between the third non-jumping power terminal (OUT, OUT1) and one of the other non-jumping power terminals (IN+, IN-) of the at least three non-jumping power terminals (IN+, IN-, OUT, OUT1); and an auxiliary terminal electrically connected to the third non-jumping power terminal and further configured to be electrically connected to an external capacitor (C X1).