mhurhangee/patent-ind-claim-en huggingface dataset:
A tracking device for tracking a medical device within a magnetic resonance imaging (MRI) system during imaging a patient using the magnetic resonance imaging system, the tracking system comprising: a marker containing a magnetic material ; an optical source ; an optical fiber coupling the optical source to the marker; wherein the tracking device is configured to alter a magnetic susceptibility of the magnetic material when the magnetic material is arranged within a magnetic field of the MRI system by communicating light generated by the optical source to the marker via the optical fiber. a marker containing a magnetic material ; an optical source ; an optical fiber coupling the optical source to the marker; wherein the tracking device is configured to alter a magnetic susceptibility of the magnetic material when the magnetic material is arranged within a magnetic field of the MRI system by communicating light generated by the optical source to the marker via the optical fiber.
A method of manufacturing a plated steel sheet having excellent image clarity after coating, comprising: providing a cold rolled steel sheet by cold rolling; plating the cold rolled steel sheet to manufacture a plated steel sheet; and temper rolling the plated steel sheet by inserting the plated steel sheet into a temper rolling mill, wherein a long-wavelength waviness (Wsa1-5) of a final stand rolling roll is 0.4 μm or less (not including 0) during the cold rolling, wherein the plating of the cold rolled steel sheet is performed to allow a plating amount on a single surface to be 45 g/m 2 or greater, wherein, in the temper rolling the plated steel sheet, a roll having a long-wavelength waviness (Wsa1-5) of 0.4 μm or less (not including 0) is used, wherein the cold rolled steel sheet has a long-wavelength waviness (Wsa1-5) of 0.2 μm or less (not including 0). providing a cold rolled steel sheet by cold rolling; plating the cold rolled steel sheet to manufacture a plated steel sheet; and temper rolling the plated steel sheet by inserting the plated steel sheet into a temper rolling mill, wherein a long-wavelength waviness (Wsa1-5) of a final stand rolling roll is 0.4 μm or less (not including 0) during the cold rolling, wherein the plating of the cold rolled steel sheet is performed to allow a plating amount on a single surface to be 45 g/m 2 or greater, wherein, in the temper rolling the plated steel sheet, a roll having a long-wavelength waviness (Wsa1-5) of 0.4 μm or less (not including 0) is used, wherein the cold rolled steel sheet has a long-wavelength waviness (Wsa1-5) of 0.2 μm or less (not including 0).
An imaging system comprising: an imaging modality configured to generate an image dataset for a target object; and at least one memory device including instructions that, when executed by at least one processor, cause the imaging system to reconstruct an image of the target object using an iterative reconstruction technique that includes a machine learning model as a regularizer to reconstruct the image of the target object, wherein, the machine learning model is trained, prior to generating the image dataset, to define object features and/or remove reconstruction artifacts using learning datasets comprising a reconstructed image volume that is related to the target object which is to be imaged using the imaging modality, and wherein the machine learning model is included in the iterative reconstruction technique to introduce the object features into and/or remove reconstruction artifacts from the image of the target object being reconstructed, characterized in that the machine learning model is updated via refinement training of the machine learning model using image data generated by the imaging system; wherein after an early iteration of the iterative reconstruction technique, the machine learning model is further trained using an early image reconstruction of the target object generated by the iterative reconstruction technique, and after a later iteration of the iterative reconstruction technique, the machine learning model is further trained using a late image reconstruction of the target object generated by the iterative reconstruction technique. an imaging modality configured to generate an image dataset for a target object; and at least one memory device including instructions that, when executed by at least one processor, cause the imaging system to reconstruct an image of the target object using an iterative reconstruction technique that includes a machine learning model as a regularizer to reconstruct the image of the target object, wherein, the machine learning model is trained, prior to generating the image dataset, to define object features and/or remove reconstruction artifacts using learning datasets comprising a reconstructed image volume that is related to the target object which is to be imaged using the imaging modality, and wherein the machine learning model is included in the iterative reconstruction technique to introduce the object features into and/or remove reconstruction artifacts from the image of the target object being reconstructed, characterized in that the machine learning model is updated via refinement training of the machine learning model using image data generated by the imaging system; wherein after an early iteration of the iterative reconstruction technique, the machine learning model is further trained using an early image reconstruction of the target object generated by the iterative reconstruction technique, and after a later iteration of the iterative reconstruction technique, the machine learning model is further trained using a late image reconstruction of the target object generated by the iterative reconstruction technique.
A system consisting of a measuring device for inspecting and recording constructions as well as a tachymeter , wherein the measuring device comprises a floatable support platform , wherein the support platform comprises at least one measuring sensor for examining a construction close to water, an inertial measuring unit, and a GNSS receiver for receiving GNSS signals from satellites of a global navigation satellite system, wherein the tachymeter is located on land and is directed at the support platform of the measuring device , wherein the system further comprises a control unit that is designed to determine a current position of the support platform based on measurement data of the inertial measuring unit, based on the GNSS signals received by the GNSS receiver , and based on measurement data recorded by the tachymeter , and to temporally synchronize the measurement data of the inertial measuring unit, the measurement data of the tachymeter , and the GNSS signals with one another with the aid of the GNSS receiver .
A device comprising an image having a first plurality of at least n magnetically alignable flakes resting upon a substrate in a first pattern and a second plurality of magnetically alignable flakes resting upon the substrate in a corresponding pattern to the first pattern, wherein the first plurality of magnetically alignable flakes are aligned along a first curve, and wherein the second plurality of magnetically alignable flakes are aligned along a second curve, wherein the first plurality of magnetically alignable flakes are tilted at the same first angle with respect to a plane parallel to the substrate, wherein the second plurality of magnetically alignable flakes are tilted at the same second angle with respect to the plane parallel to the substrate, wherein the first angle is different from the second angle, and wherein n> 1000.
Wheel hub with improved sealing system for being associated with an axle shaft (WA) having an outer end (WA1) intended to be associated with a wheel and an inner end (WA2), opposite the outer end, in particular for a commercial or industrial vehicle, comprising: - a flange (FL) of an axle bridge (A), - a bearing support (H) intended to be axially associated with the flange, - a bearing (B) press fitted inside the bearing support (H), having a fixed and externally complementary part (B1) with respect to the bearing support (H) and a rotating part (B2) adapted to rotatingly support said axle shaft (WA), -, - a sealing system formed by a gasket (G) and a related seat (S), the wheel hub being characterized in that said seat is arranged • for direct interaction between said fixed part (B1) and said flange (FL) and • to preload said gasket radially. - a flange (FL) of an axle bridge (A), - a bearing support (H) intended to be axially associated with the flange, - a bearing (B) press fitted inside the bearing support (H), having a fixed and externally complementary part (B1) with respect to the bearing support (H) and a rotating part (B2) adapted to rotatingly support said axle shaft (WA), -, - a sealing system formed by a gasket (G) and a related seat (S), the wheel hub being characterized in that said seat is arranged • for direct interaction between said fixed part (B1) and said flange (FL) and • to preload said gasket radially. • for direct interaction between said fixed part (B1) and said flange (FL) and • to preload said gasket radially.
A network control apparatus that is configured to control a radio network including a plurality of base stations , wherein each of the plurality of base stations is separated into a radio apparatus and a baseband processing apparatus , connected together by a network , wherein a first baseband processing apparatus is configured for connection to a first backhaul network and a second baseband processing apparatus is configured for connection to a second backhaul network , wherein a radio terminal can access a backbone network via the radio network, the network control apparatus comprising: a first means for acquiring a parameter for logical division of the radio network, wherein the parameter relates to a status of each backhaul network ; and a second means for changing the backhaul network, connected to a radio apparatus through the first baseband processing apparatus , from the first backhaul network to the second backhaul network by controlling a relation of connection between radio apparatus and baseband processing apparatus to change the first baseband processing apparatus connected to the radio apparatus to the second baseband processing apparatus according to the parameter. a first means for acquiring a parameter for logical division of the radio network, wherein the parameter relates to a status of each backhaul network ; and a second means for changing the backhaul network, connected to a radio apparatus through the first baseband processing apparatus , from the first backhaul network to the second backhaul network by controlling a relation of connection between radio apparatus and baseband processing apparatus to change the first baseband processing apparatus connected to the radio apparatus to the second baseband processing apparatus according to the parameter.
A method of detecting a foreign object in a wireless power transmitter, the method comprising: measuring a quality factor value corresponding to a reference operating frequency when an object is detected; searching for a current peak frequency having a maximum quality factor value within an operating frequency band; receiving a foreign object detection status packet including information on a reference peak frequency from a wireless power receiver; calibrating the measured quality factor value using a difference between the current peak frequency and the reference peak frequency; and comparing the calibrated quality factor value with a predetermined quality factor threshold value to determine whether the foreign object is present. measuring a quality factor value corresponding to a reference operating frequency when an object is detected; searching for a current peak frequency having a maximum quality factor value within an operating frequency band; receiving a foreign object detection status packet including information on a reference peak frequency from a wireless power receiver; calibrating the measured quality factor value using a difference between the current peak frequency and the reference peak frequency; and comparing the calibrated quality factor value with a predetermined quality factor threshold value to determine whether the foreign object is present.
A computer-implemented method for automated planning of a cutting boundary (CB) for removal of a diseased region (DR) of an anatomy (A), the method utilizing a model (M) of the diseased region (DR), wherein the computer-implemented method comprises: defining , relative to the model (M) of the diseased region (DR), a first plane (P1) and a second plane (P2) being spaced apart from the first plane (P1); identifying a geometrical feature (F) of the model (M) of the diseased region (DR); providing a first reference spline (S1) onto the first plane (P1), the first reference spline (S1) derived from the geometrical feature (F); providing a second reference spline (S2) onto the second plane (P2), the second reference spline (S2) derived from the geometrical feature (F); creating a first set of ruled surfaces (RS1) extending between the reference splines (S1, S2); optimizing a shape of one or both of the reference splines (S1, S2) to thereby define one or both of an optimized first spline (OS1) and an optimized second spline (OS2), wherein optimizing is based on minimizing a volume (V) bounded by the first set of ruled surfaces (RS1) and the first and second planes (P1, P2); creating a second set of ruled surfaces (RS2) extending between one of the reference splines (S1, S2) and one of the optimized splines (OS1, OS2) or extending between the optimized splines (OS1, OS2); and defining the cutting boundary (CB) based on the second set of ruled surfaces (RS2). defining , relative to the model (M) of the diseased region (DR), a first plane (P1) and a second plane (P2) being spaced apart from the first plane (P1); identifying a geometrical feature (F) of the model (M) of the diseased region (DR); providing a first reference spline (S1) onto the first plane (P1), the first reference spline (S1) derived from the geometrical feature (F); providing a second reference spline (S2) onto the second plane (P2), the second reference spline (S2) derived from the geometrical feature (F); creating a first set of ruled surfaces (RS1) extending between the reference splines (S1, S2); optimizing a shape of one or both of the reference splines (S1, S2) to thereby define one or both of an optimized first spline (OS1) and an optimized second spline (OS2), wherein optimizing is based on minimizing a volume (V) bounded by the first set of ruled surfaces (RS1) and the first and second planes (P1, P2); creating a second set of ruled surfaces (RS2) extending between one of the reference splines (S1, S2) and one of the optimized splines (OS1, OS2) or extending between the optimized splines (OS1, OS2); and defining the cutting boundary (CB) based on the second set of ruled surfaces (RS2).
A method of controlling a multi-engine bay in which the following steps are performed: a) controlling the bay so that it delivers desired thrust and that each engine is operated in compliance with a set of operating limits for the engine; b) periodically evaluating a level of damage (ENDO) for each of the engines, the level of damage of an engine being information representative of a probability of the engine failing; c) for each engine, periodically evaluating whether its level of damage (ENDO) exceeds a predetermined value (ENDO_S); and d) if the level of damage of an engine, referred to as a "damaged" engine, exceeds a predetermined value, modifying at least one operating limit of the damaged engine so that the rate of damage (dENDO/dt) of the damaged engine is less than a predetermined maximum rate of engine damage (dENDO/dt_max). a) controlling the bay so that it delivers desired thrust and that each engine is operated in compliance with a set of operating limits for the engine; b) periodically evaluating a level of damage (ENDO) for each of the engines, the level of damage of an engine being information representative of a probability of the engine failing; c) for each engine, periodically evaluating whether its level of damage (ENDO) exceeds a predetermined value (ENDO_S); and d) if the level of damage of an engine, referred to as a "damaged" engine, exceeds a predetermined value, modifying at least one operating limit of the damaged engine so that the rate of damage (dENDO/dt) of the damaged engine is less than a predetermined maximum rate of engine damage (dENDO/dt_max).
An Agaricus bisporus culture designated line B12998-s39, the culture of the line B12998-s39 having been deposited under the NRRL Accession No. 50899.
Method of conducting a drying cycle for drying wet laundry in a tumble drum of a laundry treating machine , wherein the method comprises a step of determining a laundry load quantity and adapting the drying cycle in dependence of the laundry load quantity, characterized in that the laundry load quantity is determined from at least one noise level of an operational parameter of an electric drive motor driving the drum , wherein the operational parameter is determined or selected from at least one of: the electric power consumption, the current consumption or current drain, the power supply voltage or motor torque of the drum drive motor ; and wherein the noise level of an operational parameter is determined in a single operational time interval or from a plurality of single time intervals of an actual, a pre-operating, an initial drying phase, stage or period of the laundry treating machine.
A method comprising the sequential process steps of manufacturing an array of STT-MRAM memory cells: introducing a plurality of patterned features on a substrate ; conformally introducing a spacer material on the plurality of patterned features, the spacer material having a thickness selected for a junction region of an access transistor ; anisotropically etching the spacer material to expose the plurality of patterned features; removing the plurality of patterned features; etching the substrate to form a plurality of fins each comprising a body having a length dimension comprising a plurality of first junction regions and a plurality of second junction regions that are generally parallel to one another and offset by angled channel regions displacing in the length dimension an end of a first junction regions from the beginning of a second junction region ; removing the spacer material; and introducing a gate electrode on the channel region of each of the plurality of fins, wherein the gate electrode is arranged in an orthogonal orientation relative to the plurality of first junction regions and the second junction regions . introducing a plurality of patterned features on a substrate ; conformally introducing a spacer material on the plurality of patterned features, the spacer material having a thickness selected for a junction region of an access transistor ; anisotropically etching the spacer material to expose the plurality of patterned features; removing the plurality of patterned features; etching the substrate to form a plurality of fins each comprising a body having a length dimension comprising a plurality of first junction regions and a plurality of second junction regions that are generally parallel to one another and offset by angled channel regions displacing in the length dimension an end of a first junction regions from the beginning of a second junction region ; removing the spacer material; and introducing a gate electrode on the channel region of each of the plurality of fins, wherein the gate electrode is arranged in an orthogonal orientation relative to the plurality of first junction regions and the second junction regions .
Transmission (G) for a motor vehicle, with a first planetary gear set (P1), which is configured as a multistep planetary gear set, and a second planetary gear set (P2), - planetary gears (PL1) of the first planetary gear set (P1) having at least two active diameters of different size, - the first planetary gear set (P1) having at least three central gears (E111, E112, E311, E312) which are formed by way of an internal gear (E311) and two sun gears (E111, E112) or by way of two internal gears (E311, E312) and a sun gear (E111), - the two sun gears (E111, E112) or the two internal gears (E311, E312) being assigned to different active diameters of the planetary gears (PL1), - the second planetary gear set (P2) having two central gears (E12, E32) in the form of a sun gear and an internal gear, one of the central gears (E12, E32) of the second planetary gear set (P2) being permanently connected fixedly to one of the central gears (E111, E112, E311, E312) of the first planetary gear set (P1) as to rotate with it, characterized in that - the central gear (E12, E32) of the second planetary gear set (P2) differs from the type of that central gear (E111, E112, E311, E312) of the first planetary gear set (P1), to which it is permanently connected fixedly so as to rotate with it, and is arranged in a common gear set plane (RSE) with the said central gear (E111, E112, E311, E312), - a spider (E21) of the first planetary gear set (P1) being permanently connected fixedly to a spider (E22) of the second planetary gear set (P2) so as to rotate with it. - planetary gears (PL1) of the first planetary gear set (P1) having at least two active diameters of different size, - the first planetary gear set (P1) having at least three central gears (E111, E112, E311, E312) which are formed by way of an internal gear (E311) and two sun gears (E111, E112) or by way of two internal gears (E311, E312) and a sun gear (E111), - the two sun gears (E111, E112) or the two internal gears (E311, E312) being assigned to different active diameters of the planetary gears (PL1), - the second planetary gear set (P2) having two central gears (E12, E32) in the form of a sun gear and an internal gear, one of the central gears (E12, E32) of the second planetary gear set (P2) being permanently connected fixedly to one of the central gears (E111, E112, E311, E312) of the first planetary gear set (P1) as to rotate with it, characterized in that - the central gear (E12, E32) of the second planetary gear set (P2) differs from the type of that central gear (E111, E112, E311, E312) of the first planetary gear set (P1), to which it is permanently connected fixedly so as to rotate with it, and is arranged in a common gear set plane (RSE) with the said central gear (E111, E112, E311, E312), - a spider (E21) of the first planetary gear set (P1) being permanently connected fixedly to a spider (E22) of the second planetary gear set (P2) so as to rotate with it.
An aluminum hydroxide powder, wherein a cumulative pore volume V measured by a mercury penetration method is 1.0 mL/g or more, the cumulative pore volume V being cumulated when a pore radius R is within a range of 0.01 μm or more and 1 μm or less, wherein in a pore distribution curve showing a relation between the pore radius R and a log differential pore volume (dV/dlogR) represented by using the pore radius R and the cumulative pore volume V, measured by the mercury penetration method, the dV/dlogR exceeds 0.6 mL/g when R is within an entire range of 0.01 μm or more and 1 μm or less, and wherein the untamped density is 0.14 g/mL or more and 0.18 g/mL or less, and the tamped density is 0.17 g/mL or more and 0.22 g/mL or less.