mhurhangee/ep-ind-claims huggingface dataset:
Method of magnetic resonance tomography imaging an object, comprising the steps of: - arranging the object in a static magnetic field of a magnetic resonance scanner, - subjecting the object to at least one radiofrequency pulse and magnetic field gradients for creating spatially encoded magnetic resonance signals, - collecting magnetic resonance signals, wherein the collecting step includes a phase-encoding step and a readout period, and - reconstructing an object image, wherein the spatial encoding of the magnetic resonance signals is utilized, characterized in that - only during the readout period, the magnetic resonance signals are subjected to a locally specific frequency modulation by means of at least one spatially restricted, time-varying magnetic modulation field, which has a component parallel to the static magnetic field and which has a modulation frequency being selected such that a temporal frequency modulation of the local Larmor frequencies of the magnetization is obtained, and - the step of reconstructing the object image further utilizes the locally specific frequency modulation for obtaining spatial information from the spatially encoded magnetic resonance signals. - arranging the object in a static magnetic field of a magnetic resonance scanner, - subjecting the object to at least one radiofrequency pulse and magnetic field gradients for creating spatially encoded magnetic resonance signals, - collecting magnetic resonance signals, wherein the collecting step includes a phase-encoding step and a readout period, and - reconstructing an object image, wherein the spatial encoding of the magnetic resonance signals is utilized, - only during the readout period, the magnetic resonance signals are subjected to a locally specific frequency modulation by means of at least one spatially restricted, time-varying magnetic modulation field, which has a component parallel to the static magnetic field and which has a modulation frequency being selected such that a temporal frequency modulation of the local Larmor frequencies of the magnetization is obtained, and - the step of reconstructing the object image further utilizes the locally specific frequency modulation for obtaining spatial information from the spatially encoded magnetic resonance signals.
An assembly, comprising: an outer component; an inner component located in the outer component and movable relative thereto; a tolerance ring mounted between the inner and outer components, the tolerance ring comprising: an annular band formed from a metallic material and having radial inner and outer surfaces, wherein the metallic material consists of a sheet comprising apertures and shaped to include a sheet profile, the sheet profile including waves, cones, or ball shapes, wherein the annular band is located completely within a low friction material such that no portion of the annular band is exposed from and external to the low friction material, wherein the low friction material comprises a polymer selected from the group consisting of a polyketone, polyaramid, a thermoplastic polyimide, a polyetherimide, a polyphenylene sulfide, a polyethersulfone, a polysulfone, a polyphenylene sulfone, a polyamideimide, ultra high molecular weight polyethylene, a polyamide, a polybenzimidazole, or any combination thereof. an outer component; an inner component located in the outer component and movable relative thereto; a tolerance ring mounted between the inner and outer components, the tolerance ring comprising: an annular band formed from a metallic material and having radial inner and outer surfaces, wherein the metallic material consists of a sheet comprising apertures and shaped to include a sheet profile, the sheet profile including waves, cones, or ball shapes, wherein the annular band is located completely within a low friction material such that no portion of the annular band is exposed from and external to the low friction material, wherein the low friction material comprises a polymer selected from the group consisting of a polyketone, polyaramid, a thermoplastic polyimide, a polyetherimide, a polyphenylene sulfide, a polyethersulfone, a polysulfone, a polyphenylene sulfone, a polyamideimide, ultra high molecular weight polyethylene, a polyamide, a polybenzimidazole, or any combination thereof. an annular band formed from a metallic material and having radial inner and outer surfaces, wherein the metallic material consists of a sheet comprising apertures and shaped to include a sheet profile, the sheet profile including waves, cones, or ball shapes, wherein the annular band is located completely within a low friction material such that no portion of the annular band is exposed from and external to the low friction material, wherein the metallic material consists of a sheet comprising apertures and shaped to include a sheet profile, the sheet profile including waves, cones, or ball shapes, wherein the annular band is located completely within a low friction material such that no portion of the annular band is exposed from and external to the low friction material, wherein the low friction material comprises a polymer selected from the group consisting of a polyketone, polyaramid, a thermoplastic polyimide, a polyetherimide, a polyphenylene sulfide, a polyethersulfone, a polysulfone, a polyphenylene sulfone, a polyamideimide, ultra high molecular weight polyethylene, a polyamide, a polybenzimidazole, or any combination thereof.
A method of manufacturing an absorbent web, the method comprising: moving a foraminous member in a machine direction, the foraminous member having at least one masking plate with a partitioned area including at least one partition defining a plurality of segments; drawing air through the foraminous member; and depositing fibrous material onto the foraminous member to form an absorbent web having a bridged area corresponding to the partitioned area of the masking plate and a continuous area having a higher basis weight than the bridged area, the bridged area having vertical interfaces separating web segments and fibrous material at least partly bridging the vertical interfaces; characterised in that the method further comprises depositing superabsorbent material onto the foraminous member, wherein a majority of the superabsorbent material is deposited closer to the foraminous member than a majority of the fibrous material. moving a foraminous member in a machine direction, the foraminous member having at least one masking plate with a partitioned area including at least one partition defining a plurality of segments; drawing air through the foraminous member; and depositing fibrous material onto the foraminous member to form an absorbent web having a bridged area corresponding to the partitioned area of the masking plate and a continuous area having a higher basis weight than the bridged area, the bridged area having vertical interfaces separating web segments and fibrous material at least partly bridging the vertical interfaces; characterised in that the method further comprises depositing superabsorbent material onto the foraminous member, wherein a majority of the superabsorbent material is deposited closer to the foraminous member than a majority of the fibrous material.
Axial turbine having two supply levels for the expansion phase of a working fluid in a steam thermodynamic cycle or in an organic Rankine cycle comprising a shaft, a plurality of rotor blade arrays (R1-Rn) and corresponding supporting disks (21, 22), a plurality of stator blades arrays (S1-Sn), further comprising a first inlet opening and a first inlet volute, defined by a first casing for a first working fluid supply level and a second inlet opening and a second inlet volute, defined by a second casing, this second casing (4 ') being a second inner casing, for a second working fluid supply level, wherein the second volute is positioned inside the first volute, the axial turbine being characterized in that - the working fluid of the second supply level reaches directly upstream of any stator blade (S2, S3... Sn) after the first stage, and - the flow of the first supply level and the flow of the second supply level are parallel to each other in an axial direction and are conveyed in two radially contiguous stators (S2A, S3A,..., SnA; S2B, S3B,..., SnB) upstream of a subsequent and common rotor blade (R2, R3... Rn). - the working fluid of the second supply level reaches directly upstream of any stator blade (S2, S3... Sn) after the first stage, and - the flow of the first supply level and the flow of the second supply level are parallel to each other in an axial direction and are conveyed in two radially contiguous stators (S2A, S3A,..., SnA; S2B, S3B,..., SnB) upstream of a subsequent and common rotor blade (R2, R3... Rn).
An additive manufacturing device comprising: a recoater configured to push powder onto a build platform, the recoater defining an advancing direction for pushing powder; and a first baffle mounted to a first end of a leading edge of the recoater and a second baffle mounted to a second end of the leading edge of the recoater opposite the first end, wherein each of the first and second baffles includes: a base mounted to the recoater; a first wall that extends obliquely ahead of and laterally outward from the base relative to the advancing direction; and a second wall opposite and laterally inward from the first wall, the second wall extending obliquely ahead of and laterally inward from the base relative to the advancing direction, wherein a volume is defined between the first and second wall with capacity to collect powder as the recoater advances; and a build platform mounted stationary relative to advancing and returning movement of the recoater over the build platform, movement of the recoater being from one lateral side of the build platform to another, opposite lateral side; and a gas inlet for inert gas on a lateral side of the build platform; and a gas outlet for inert gas on the lateral side of the build platform opposite the inlet. a recoater configured to push powder onto a build platform, the recoater defining an advancing direction for pushing powder; and a first baffle mounted to a first end of a leading edge of the recoater and a second baffle mounted to a second end of the leading edge of the recoater opposite the first end, wherein each of the first and second baffles includes: a base mounted to the recoater; a first wall that extends obliquely ahead of and laterally outward from the base relative to the advancing direction; and a second wall opposite and laterally inward from the first wall, the second wall extending obliquely ahead of and laterally inward from the base relative to the advancing direction, wherein a volume is defined between the first and second wall with capacity to collect powder as the recoater advances; and a base mounted to the recoater; a first wall that extends obliquely ahead of and laterally outward from the base relative to the advancing direction; and a second wall opposite and laterally inward from the first wall, the second wall extending obliquely ahead of and laterally inward from the base relative to the advancing direction, wherein a volume is defined between the first and second wall with capacity to collect powder as the recoater advances; and a build platform mounted stationary relative to advancing and returning movement of the recoater over the build platform, movement of the recoater being from one lateral side of the build platform to another, opposite lateral side; and a gas inlet for inert gas on a lateral side of the build platform; and
A concentrated laundry composition premix which is dilutable in water to form a laundry liquid composition, said premix comprising at least 20% wt. water, from 0.1 to 8% wt. ethoxylated sorbitan di- or tri-ester, and comprising from 10 to 40% wt. surfactant active excluding the ethoxylated sorbitan di- or tri-ester.
A method comprising: receiving, at data processing hardware of a robot, a target box location for a box held by the robot, the box having a top surface (26, 26 T), a bottom surface (26, 26 B), and side surfaces; positioning, by the robot, the box at an initial position adjacent to the target box location; tilting, by the robot, the box at an angle relative to a ground plane, the angle formed between the ground plane and the bottom surface of the box; shifting, by the robot, the box from the initial position in a first direction (D 1) to a first alignment position (222, 222a) that satisfies a threshold first alignment distance (224, 224a); shifting, by the robot, the box from the first alignment position (222, 222a) in a second direction (D 2) to the target box location that satisfies a threshold second alignment distance (224, 224b); and releasing, by the robot, the box from the robot, the release of the box causing the box to pivot toward a boundary edge of the target box location. receiving, at data processing hardware of a robot, a target box location for a box held by the robot, the box having a top surface (26, 26 T), a bottom surface (26, 26 B), and side surfaces; positioning, by the robot, the box at an initial position adjacent to the target box location; tilting, by the robot, the box at an angle relative to a ground plane, the angle formed between the ground plane and the bottom surface of the box; shifting, by the robot, the box from the initial position in a first direction (D 1) to a first alignment position (222, 222a) that satisfies a threshold first alignment distance (224, 224a); shifting, by the robot, the box from the first alignment position (222, 222a) in a second direction (D 2) to the target box location that satisfies a threshold second alignment distance (224, 224b); and releasing, by the robot, the box from the robot, the release of the box causing the box to pivot toward a boundary edge of the target box location.
An electric motor, comprising: a stator comprising, a first cooling channel formed in the stator and comprising a first cross-sectional area; a second cooling channel formed in the stator and comprising a second cross-sectional area, wherein the first cross-sectional area is less than the second cross-sectional area; and a plurality of first stator laminations affixed together defining the first cooling channel and the second cooling channel; and characterised by an inlet closer to the first cooling channel than the second cooling channel, wherein the first cross-sectional area and the second cross-sectional area balance cooling airflow around the circumference of the stator. a stator comprising, a first cooling channel formed in the stator and comprising a first cross-sectional area; a second cooling channel formed in the stator and comprising a second cross-sectional area, wherein the first cross-sectional area is less than the second cross-sectional area; and a plurality of first stator laminations affixed together defining the first cooling channel and the second cooling channel; and characterised by a first cooling channel formed in the stator and comprising a first cross-sectional area; a second cooling channel formed in the stator and comprising a second cross-sectional area, wherein the first cross-sectional area is less than the second cross-sectional area; and a plurality of first stator laminations affixed together defining the first cooling channel and the second cooling channel; and characterised by an inlet closer to the first cooling channel than the second cooling channel, wherein the first cross-sectional area and the second cross-sectional area balance cooling airflow around the circumference of the stator.
Orthosis comprising a foot plate for supporting a foot, a foot strut projecting therefrom in the proximal direction, and a lower-leg rail secured to said foot strut and mounted thereupon by a joint so as to pivot about a joint axis relative to the foot strut, characterized in that a shoulder is arranged or formed at the proximal end region of the foot strut, in the direction facing away from the foot plate, and that the proximal end portion and the joint axis are twistingly oriented to the longitudinal extension of the foot strut.
A nozzle for extruding a material rich in protein and water, comprising: - an outer casing which is tubular, centered on an axis (X-X), and which is thermoregulated, and - an internal component which is arranged coaxially inside the outer casing and which is mounted so as to rotate about the axis (X-X) with respect to the outer casing, so that: - a downstream part of the internal component extends outside the outer casing and is engaged with a motorization suitable for rotating the internal component about the axis (X-X), the nozzle being characterized in that a channel is delimited between the outer casing and the internal component, the channel having a cross-section that is annular, centered on the axis (X-X), and the channel having an upstream end and a downstream end, which are axially opposed to each other and between which the material flows into the channel, so that when the material is pushed through the nozzle, the material advances through the channel from the upstream end to the downstream end through which the material axially comes out of the channel. - an outer casing which is tubular, centered on an axis (X-X), and which is thermoregulated, and - an internal component which is arranged coaxially inside the outer casing and which is mounted so as to rotate about the axis (X-X) with respect to the outer casing, so that: - a downstream part of the internal component extends outside the outer casing and is engaged with a motorization suitable for rotating the internal component about the axis (X-X), - a downstream part of the internal component extends outside the outer casing and is engaged with a motorization suitable for rotating the internal component about the axis (X-X),
Isolated nucleic acid molecule comprising a first and a second nucleic acid sequence for the efficient production of a recombinant peptide or protein of interest, wherein the first nucleic acid sequence comprises a fragment of hemolysin C (HlyC) and (i) has the nucleotide sequence as set forth in SEQ ID NO:1 or a 3' fragment thereof, wherein the fragment comprises at least the nucleotide sequence as set forth in SEQ ID NO:5, or the complement thereof, or ii) has a nucleotide sequence that has at least 70% sequence identity to the nucleotide sequence as defined in i); and the second nucleic acid sequence encodes for at least one peptide or protein of interest and is located 3' of the first nucleic acid sequence, wherein the first nucleic acid sequence is not a sequence encoding full length HlyC and improves the expression of the at least one peptide or protein of interest and the isolated nucleic acid molecule does not include a nucleotide sequence encoding full length HlyC, wherein the fragments of the sequence encoding HlyC are not expressed in that they are not transcribed and/or translated into a protein sequence. (i) has the nucleotide sequence as set forth in SEQ ID NO:1 or a 3' fragment thereof, wherein the fragment comprises at least the nucleotide sequence as set forth in SEQ ID NO:5, or the complement thereof, or ii) has a nucleotide sequence that has at least 70% sequence identity to the nucleotide sequence as defined in i); and
An electric vehicle comprising: a vehicle body for carrying a driver; a front wheel and rear wheel that are supported by front and rear portions of the vehicle body; a pedal (251R, 251L) that receives a tread force of the driver, wherein the front and rear wheels (23f, 23b) do not receive any mechanical transmission from the pedal (251R, 251L); a rotation shaft; a crank (25R, 25L) whose tip portion is provided with the pedal (251R, 251L) and which conveys the tread force to the rotation shaft as torque; a motor that drives at least the front or rear wheel (23f, 23b); a resistance applying unit that generates, when torque is applied to the rotation shaft because of the tread force on the pedal (251R, 251L), resistance on the rotation shaft against the torque; and a running condition detection unit that detects a running condition of the vehicle; characterized by a resistance adjustment unit (CU, S401, S413, S415, S417, S421, S423) that decreases the resistance being applied by the resistance applying unit at the increasing of a percentage of the rotation-speed change of the rotation that is input by the pedal (251R, 251L) to the resistance applying unit detected by the running condition detection unit. a vehicle body for carrying a driver; a front wheel and rear wheel that are supported by front and rear portions of the vehicle body; a pedal (251R, 251L) that receives a tread force of the driver, wherein the front and rear wheels (23f, 23b) do not receive any mechanical transmission from the pedal (251R, 251L); a rotation shaft; a crank (25R, 25L) whose tip portion is provided with the pedal (251R, 251L) and which conveys the tread force to the rotation shaft as torque; a motor that drives at least the front or rear wheel (23f, 23b); a resistance applying unit that generates, when torque is applied to the rotation shaft because of the tread force on the pedal (251R, 251L), resistance on the rotation shaft against the torque; and a running condition detection unit that detects a running condition of the vehicle; characterized by a resistance adjustment unit (CU, S401, S413, S415, S417, S421, S423) that decreases the resistance being applied by the resistance applying unit at the increasing of a percentage of the rotation-speed change of the rotation that is input by the pedal (251R, 251L) to the resistance applying unit detected by the running condition detection unit.
A product transfer apparatus comprising: a product suction pad part having a suction cup part (5c1) capable of sucking a plate-like product; and a transfer base (51a, 51aA) whose lower part has the product suction pad part, and a label suction part (11, 21) having a label pad (14a, 14b, 23a, 23b), which is able to suck a label (62a, 62a3, 62a4, 621a-621c) to be pasted on the product, characterized in that the label suction part (11, 21) comprises an up-down function of moving the label pad (14a, 14b, 23a, 23b) up and down between a position upper than and a position lower than the position of a front end of the suction cup part (5c1); and a rotation part (111, 211b) to rotate the label suction part (11, 21) around a label suction rotation axis (CL11, CL21) extending in an up-down direction, wherein the label suction part (11, 21) has an arm (13, 212) extending in a diametral direction from the label suction rotation axis and having, at a front end, the label pad (14a, 14b, 23a, 23b) and that the arm (13, 212) is turned by operation of the rotation part (111, 211b) between a first rotation position outside an external shape of the transfer base (51a, 51aA) and a second rotation position inside the external shape of the transfer base. a product suction pad part having a suction cup part (5c1) capable of sucking a plate-like product; and a transfer base (51a, 51aA) whose lower part has the product suction pad part, and a label suction part (11, 21) having a label pad (14a, 14b, 23a, 23b), which is able to suck a label (62a, 62a3, 62a4, 621a-621c) to be pasted on the product, characterized in that the label suction part (11, 21) comprises an up-down function of moving the label pad (14a, 14b, 23a, 23b) up and down between a position upper than and a position lower than the position of a front end of the suction cup part (5c1); and a rotation part (111, 211b) to rotate the label suction part (11, 21) around a label suction rotation axis (CL11, CL21) extending in an up-down direction, wherein the label suction part (11, 21) has an arm (13, 212) extending in a diametral direction from the label suction rotation axis and having, at a front end, the label pad (14a, 14b, 23a, 23b) and that the arm (13, 212) is turned by operation of the rotation part (111, 211b) between a first rotation position outside an external shape of the transfer base (51a, 51aA) and a second rotation position inside the external shape of the transfer base.