mhurhangee/patent-ind-claim-en huggingface dataset:
A stator active part for an electric motor having a number of P=3 motor phases (U, V, W), preferably a permanent-magnet-excited synchronous machine, consisting of a hollow-cylindrical yoke comprising an inner cladding and having a receptacle space into which a coil support is inserted, wherein the coil support consists of a peripherally-closed, hollow-cylindrical tubular body extending in the axial direction (A) of the yoke , on the outer jacket of said hollow-cylindrical tubular body a plurality of N coil holders being formed, wherein N = 3, 6, 9 oder 12, wherein respectively N/P finely-distributed coils wound in air gap winding technique are mounted on the coil holders per motor phase P and the coil holders bear against an inner cladding section of the inner cladding of the yoke while forming receptacle spaces , characterized in that said coil holders are formed as hollow-profile-shaped coil holders integrally formed with said tubular body of said coil support , said coil holders extending along the axial direction (A) of the tubular body , having a receptacle space for receiving an inlay , wherein the coil holders are formed respectively with a chamber wall arranged radially outwards, and the respective chamber walls bear against the inner cladding or against an inner cladding section of the yoke .
Pressurized fluid cylinder valve protection cap comprising a rigid structure delimiting a protection volume for a valve, this structure comprising a lower end intended to be fixed to the upper end of a pressurized fluid cylinder, said lower end comprising a mounting collar provided on its internal surface with attachment imprints , notably an internal screwthread, intended to cooperate in attachment fashion with a system of conjugate imprints, notably an external screwthread, of the upper end of a pressurized fluid cylinder, the collar being composed of at least two portions adapted to be moved or deformed one relative to the other to increase or to reduce the diameter of said collar in order to facilitate mounting it and/or demounting it, the cap further comprising a device for tightening the collar to reduce its diameter comprising a system of the type with a bolt and a nut , the two portions of the collar each comprising a respective housing for a system comprising a bolt and a nut , the two housings being disposed adjacently, a first housing being adapted to receive: a first end of a head of the bolt of the nut and bolt system, the second housing being adapted to receive the second end of the bolt and a nut cooperating with the bolt , each housing comprising respective walls forming a system of abutments respectively for the head of the bolt and the nut to transmit a tightening force, characterized in that each housing comprises respective walls forming a system of abutments respectively for the head of the bolt and the nut also to transmit a force for moving the two portions of the collar away from each other when unscrewing the nut relative to the bolt .
A method for modifying grain boundary of an Nd-Fe-B base magnet, which comprises heat-treating an Nd-Fe-B base magnet with an alloy powder represented by the following formula disposed on the surface thereof in vacuum or in an inert gas at a temperature in the range of 200°C to 1050°C for a period in the range of one minute to 30 hours; [Chemical Formula 1] RxAy wherein in the above formula , R is Tb, A is Ca and 2 ≤ x ≤ 20, 1 ≤ y < x, and a content of an unavoidable impurity in the alloy powder of formula is 0.1 % by weight or less with respect to the whole alloy, wherein the amount of alloy powder is 0.05 to 10 % by weight with respect to the weight of Nd-Fe-B base magnet.
A liquid jet head comprising: a side wall installed between channels , and in which two piezoelectric materials having mutually different polarization directions are laminated in a height direction (z), interposing a polarization boundary (B), and wherein the channels include an ejection channel configured to eject liquid droplets; an upper member fixed to an upper end of the side wall, and installed on an upper portion of the channel; a lower member fixed to a lower end of the side wall and installed on a lower portion of the channel; and an electrode installed on a wall surface of the side wall, wherein the electrode is installed from an upper end of the wall surface, to a vicinity of the polarization boundary, or below the polarization boundary and above a lower end of the wall surface, characterized in that : the polarization boundary is positioned above 1/2 a height of the ejection channel. a side wall installed between channels , and in which two piezoelectric materials having mutually different polarization directions are laminated in a height direction (z), interposing a polarization boundary (B), and wherein the channels include an ejection channel configured to eject liquid droplets; an upper member fixed to an upper end of the side wall, and installed on an upper portion of the channel; a lower member fixed to a lower end of the side wall and installed on a lower portion of the channel; and an electrode installed on a wall surface of the side wall, wherein the electrode is installed from an upper end of the wall surface, to a vicinity of the polarization boundary, or below the polarization boundary and above a lower end of the wall surface, characterized in that : the polarization boundary is positioned above 1/2 a height of the ejection channel.
A wind turbine system comprising a first pair of wind turbines mounted to a support structure by a first support arm arrangement , and a second pair of wind turbines mounted to the support structure by a second support arm arrangement ; wherein the first and second support arm arrangements are mounted to the support structure at a respective yaw unit so as to yaw about the major axis of the support strupcture; further including a control system that is configured to control the yaw angle of each of the first and second support arm arrangements, wherein the control system is configured to identify the presence of a predetermined shutdown condition and, in response, the control system is operable to control the yaw angles of the first support arm arrangement and the second support arm arrangement to a predetermined safe state characterized in that the control system is operable to configure the yaw angles of the first support arm arrangement and the second support arm arrangement to a predetermined safe position in which the yaw angle of the first support arm arrangement is different to the yaw angle of the second support arm arrangement.
A bispecific antibody or functional fragment thereof comprising at least one variable binding domain consisting of a heavy chain variable (VH) domain and a light chain variable (VL) domain, wherein said binding domain comprises two paratopes for two unrelated epitopes, wherein (i) binding of each paratope to its epitope does not prevent the simultaneous binding of the other paratope to its respective epitope, and wherein (ii) the first paratope comprises residues from CDR1 and CDR3 of the VL domain and CDR2 of the VH domain, and the second paratope comprises residues from CDR1 and CDR3 of the VH domain and CDR2 of the VL domain.
An autonomous vehicle comprising an overtake assessment arrangement arranged to assess potential overtake scenarios during drive of the autonomous host vehicle , where the host vehicle comprises; - at least one sensor arranged to monitor a sensor monitoring area of a vehicle surrounding, - a vehicle drive arrangement arranged to control steering and velocity of the host vehicle at least partly based on information received from the at least one sensor , and - a communication unit , characterized in that the vehicle drive arrangement is configured to receive input from the overtake assessment arrangement and in that the overtake assessment arrangement comprises a processing unit which is arranged to: - via the communication unit receive, from at least one external source , real time traffic information on one or more surrounding vehicles outside the sensor monitoring area , the real time traffic information being related to at least one of a velocity, lane selection and a heading of the at least one surrounding vehicle , - assess whether to overtake at least one preceding vehicle within the sensor monitoring area or not, based on the real time traffic information received via the communication unit , and - provide the vehicle drive arrangement with input indicative of the assessment, such that the vehicle drive arrangement is able to control the host vehicle to overtake the at least one preceding vehicle or not in accordance with the input, wherein the overtake arrangement via the communication unit is arranged to receive, from at least one remote server , and/or directly from the at least one surrounding vehicle outside the sensor monitoring area or communication equipment associated with the at least one surrounding vehicle and/or from at least one roadside unit real time traffic information on the at least one surrounding vehicle outside the sensor monitoring area . - at least one sensor arranged to monitor a sensor monitoring area of a vehicle surrounding, - a vehicle drive arrangement arranged to control steering and velocity of the host vehicle at least partly based on information received from the at least one sensor , and - a communication unit , - via the communication unit receive, from at least one external source , real time traffic information on one or more surrounding vehicles outside the sensor monitoring area , the real time traffic information being related to at least one of a velocity, lane selection and a heading of the at least one surrounding vehicle , - assess whether to overtake at least one preceding vehicle within the sensor monitoring area or not, based on the real time traffic information received via the communication unit , and - provide the vehicle drive arrangement with input indicative of the assessment,
Actuator for a motor vehicle flap element, in particular for a fuel filler flap of a motor vehicle, comprising a motor , and comprising a control member which acts on the motor vehicle flap element, the motor vehicle flap element being designed to be adjustable between an open and closed position, and a rotary lock which is acted on by the motor being additionally provided, said rotary lock being used to lock/unlock the control member , the motor directly driving the rotary lock , characterized in that an emergency unlocking unit for the rotary lock is provided, the emergency unlocking unit being equipped with a handle which is accessible from the outside and a lever which affects the rotary lock , with a control pin which is rotatably mounted in a base of a housing of the actuator being connected to the lever so that the control pin and consequently the lever connected thereto can be rotated using the handle .
Electrically actuatable motor vehicle latch comprising a locking mechanism having a catch and at least one pawl , a release lever , the release lever interacting with the locking mechanism in such a way that a locked locking mechanism can be unlocked, an electric drive unit , the release lever being actuated at least by means of the drive unit , and the drive unit having at least one control member for actuating the release lever , the motor vehicle latch having a means for resetting the actuated release lever in order to allow an emergency closure, characterized in that the resetting means is designed as an extension , in particular as a lever-like extension , on the control member or on the release lever .
A method for determining a channel state performed at a user device, UE , of a radio access network, comprising: • determining (S11, S21) one or a plurality of subframes to be used for channel state measurements, • performing (S12, S22) a plurality of signal power measurements associated each to one of the subframes to be used for channel state measurement, and • generating a channel state information as a function of the plurality of the signal power measurements, characterized in that • the one or the plurality of subframes to be used for channel state measurement are determined by detecting that a power difference between an estimated received signal power and a measured received power associated of the respective subframes does not exceed a certain power threshold. • determining (S11, S21) one or a plurality of subframes to be used for channel state measurements, • performing (S12, S22) a plurality of signal power measurements associated each to one of the subframes to be used for channel state measurement, and • generating a channel state information as a function of the plurality of the signal power measurements, characterized in that • the one or the plurality of subframes to be used for channel state measurement are determined by detecting that a power difference between an estimated received signal power and a measured received power associated of the respective subframes does not exceed a certain power threshold.
A web material roll lockout assembly comprising: a hub constructed to be supported by a dispenser ; a channel formed in a radially outward oriented surface of the hub and positioned such that the channel is formed proximate an end of the hub; an insert constructed to removeably cooperate with the hub and having an overlapping portion formed between opposing ends of the insert such that a body of the insert has a generally S or Z shaped cross-sectional shape as the cross-section of the insert progresses between the opposite ends of the insert, said overlapping section overlapping itself twice in said cross section due to said generally S or Z shaped cross-sectional shape; a plurality of projections defined by the insert and constructed to limit axial translation between the insert and the hub when at least one of the plurality of projections is engaged with the channel; and a first rotational bearing surface and a second rotational bearing surface provided between the insert and the hub when the at least one of the plurality of projections is engaged with the channel, the first rotational bearing surface and the second rotational bearing surface positioned so that the overlapping portion of the insert is disposed therebetween. a hub constructed to be supported by a dispenser ; a channel formed in a radially outward oriented surface of the hub and positioned such that the channel is formed proximate an end of the hub; an insert constructed to removeably cooperate with the hub and having an overlapping portion formed between opposing ends of the insert such that a body of the insert has a generally S or Z shaped cross-sectional shape as the cross-section of the insert progresses between the opposite ends of the insert, said overlapping section overlapping itself twice in said cross section due to said generally S or Z shaped cross-sectional shape; a plurality of projections defined by the insert and constructed to limit axial translation between the insert and the hub when at least one of the plurality of projections is engaged with the channel; and a first rotational bearing surface and a second rotational bearing surface provided between the insert and the hub when the at least one of the plurality of projections is engaged with the channel, the first rotational bearing surface and the second rotational bearing surface positioned so that the overlapping portion of the insert is disposed therebetween.
A computer-implemented method of determining a fixed point number format for representing values of one or more layers of a Deep Neural Network, DNN, for use in configuring a hardware implementation of the DNN, the values comprising at least one of weights and input data values, the method comprising: receiving an instantiation of the DNN configured to represent values of one or more layers according to one or more initial fixed point number formats for that layer ; determining an output of the instantiation of the DNN in response to test input data ; determining a differentiable error in the output of the instantiation of the DNN relative to a baseline output ; determining a portion of the differentiable error related to quantisation of the values of each of the one or more layers using a Taylor approximation by: determining gradients of the differentiable error with respect to the values using backpropagation; and calculating the portion of the differentiable error attributable to the quantisation of a particular value by multiplying a quantisation error for that value with the corresponding gradient; and adjusting a fixed point number format for at least one of the one or more layers based on the portion of the differentiable error related to quantisation of the values of each of the one or more layers . receiving an instantiation of the DNN configured to represent values of one or more layers according to one or more initial fixed point number formats for that layer ; determining an output of the instantiation of the DNN in response to test input data ; determining a differentiable error in the output of the instantiation of the DNN relative to a baseline output ; determining a portion of the differentiable error related to quantisation of the values of each of the one or more layers using a Taylor approximation by: determining gradients of the differentiable error with respect to the values using backpropagation; and calculating the portion of the differentiable error attributable to the quantisation of a particular value by multiplying a quantisation error for that value with the corresponding gradient; and determining gradients of the differentiable error with respect to the values using backpropagation; and calculating the portion of the differentiable error attributable to the quantisation of a particular value by multiplying a quantisation error for that value with the corresponding gradient; and adjusting a fixed point number format for at least one of the one or more layers based on the portion of the differentiable error related to quantisation of the values of each of the one or more layers .
An embolic protection device, said device comprising: an inner sheath having a lumen with a distal opening, wherein the inner lumen is configured to allow a catheter to be advanced therethrough; and an embolic filter comprising a porous mesh material and having a cylindrical outer wall which defines an interior including a collection chamber for capturing emboli, the filter having an open upstream end , a closed downstream end , a radially collapsed delivery configuration, and a radially expanded configuration, wherein the outer wall is configured to contact a blood vessel wall to direct blood flow through the upstream end and emboli into the collection chamber ; wherein the embolic filter has at least a first port in the closed downstream end thereof comprising an expandable opening configured to conform to an outer wall of a first catheter passing there through, wherein the expandable opening is disposed at an apical end of a first conical inner portion of the enclosed downstream end of the embolic filter ; and wherein the inner sheath is attached to a second port in the enclosed downstream end of the embolic filter and to allow a second catheter to be advanced through the lumen of the inner sheath to enter the interior of the embolic filter . an inner sheath having a lumen with a distal opening, wherein the inner lumen is configured to allow a catheter to be advanced therethrough; and an embolic filter comprising a porous mesh material and having a cylindrical outer wall which defines an interior including a collection chamber for capturing emboli, the filter having an open upstream end , a closed downstream end , a radially collapsed delivery configuration, and a radially expanded configuration, wherein the outer wall is configured to contact a blood vessel wall to direct blood flow through the upstream end and emboli into the collection chamber ; wherein the embolic filter has at least a first port in the closed downstream end thereof comprising an expandable opening configured to conform to an outer wall of a first catheter passing there through, wherein the expandable opening is disposed at an apical end of a first conical inner portion of the enclosed downstream end of the embolic filter ; and wherein the inner sheath is attached to a second port in the enclosed downstream end of the embolic filter and to allow a second catheter to be advanced through the lumen of the inner sheath to enter the interior of the embolic filter .
An ultrasonic probe for sensing a liquid level within a container , the ultrasonic probe comprising: a barrel extending downwardly from a fitting assembly and comprising an internal volume defined by an inner tube and a conduit disposed longitudinally within the barrel, the inner tube having a longitudinal axis and a lower end that is distal to the fitting assembly, the barrel having a length (D15); and a plurality of ultrasonic sensors located within the internal volume of the barrel, each of the plurality of ultrasonic sensors configured to emit sound waves in response to received electronic signals, each of the plurality of ultrasonic sensors having a vertical spacing; wherein at least one of the plurality of ultrasonic sensors is affixed to the inner tube at a location and in an orientation adapted to emit sound waves across the conduit of the barrel in response to a received electronic signal; and wherein the plurality of ultrasonic sensors includes an upper group (256a-256c, 456a-456f) comprising at least three ultrasonic sensors and a lower group (256i-256l, 456g-456l) comprising at least three ultrasonic sensors, the ultrasonic sensors of the upper group being located further from the lower end of the inner tube than any of the ultrasonic sensors of the lower group, the vertical spacing (D10) of each of the ultrasonic sensors in the lower group being less than the vertical spacing (D8) of any of the ultrasonic sensors in the upper group. a barrel extending downwardly from a fitting assembly and comprising an internal volume defined by an inner tube and a conduit disposed longitudinally within the barrel, the inner tube having a longitudinal axis and a lower end that is distal to the fitting assembly, the barrel having a length (D15); and a plurality of ultrasonic sensors located within the internal volume of the barrel, each of the plurality of ultrasonic sensors configured to emit sound waves in response to received electronic signals, each of the plurality of ultrasonic sensors having a vertical spacing; wherein at least one of the plurality of ultrasonic sensors is affixed to the inner tube at a location and in an orientation adapted to emit sound waves across the conduit of the barrel in response to a received electronic signal; and wherein the plurality of ultrasonic sensors includes an upper group (256a-256c, 456a-456f) comprising at least three ultrasonic sensors and a lower group (256i-256l, 456g-456l) comprising at least three ultrasonic sensors, the ultrasonic sensors of the upper group being located further from the lower end of the inner tube than any of the ultrasonic sensors of the lower group, the vertical spacing (D10) of each of the ultrasonic sensors in the lower group being less than the vertical spacing (D8) of any of the ultrasonic sensors in the upper group.