mhurhangee/patent-ind-claim-en huggingface dataset:
A biodegradable wipe having a three-dimensional perforated structure pattern comprising: a spunlaced unitary structure of a randomised web of spunlaced cellulosic fibres and a sheet of wood pulp fibres; a three dimensional perforated structure pattern in said unitary structure; and optionally a colorant; wherein said cellulosic fibres are selected from the group of lyocell, rayon, raw and bleached cotton, or a combination thereof; wherein said wipe provides a scrubbing effect when dry and a smoothing effect when wet; and wherein said three dimensional perforated structure is effective for trapping and removing oily and sticky liquids without irritating the skin; characterized in that the spunlaced unitary structure has opposing surfaces, with the wood pulp fibre sheet on one side and the randomized web of cellulosic fibres on the opposite side. a spunlaced unitary structure of a randomised web of spunlaced cellulosic fibres and a sheet of wood pulp fibres; a three dimensional perforated structure pattern in said unitary structure; and optionally a colorant; wherein said cellulosic fibres are selected from the group of lyocell, rayon, raw and bleached cotton, or a combination thereof; wherein said wipe provides a scrubbing effect when dry and a smoothing effect when wet; and wherein said three dimensional perforated structure is effective for trapping and removing oily and sticky liquids without irritating the skin; characterized in that the spunlaced unitary structure has opposing surfaces, with the wood pulp fibre sheet on one side and the randomized web of cellulosic fibres on the opposite side.
Ofatumumab for use in the treatment of multiple sclerosis, wherein a) ofatumumab is administered to a patient in need thereof during a loading dose regimen comprising administering 20 mg ofatumumab at day 1, day 7 and day 14 of the dosage regimen; and b) ofatumumab is administered to a patient in need thereof during a maintenance dose regimen comprising administering 20 mg ofatumumab starting at week four of the dosage regimen and continuing thereafter every four weeks for the duration of the treatment protocol. a) ofatumumab is administered to a patient in need thereof during a loading dose regimen comprising administering 20 mg ofatumumab at day 1, day 7 and day 14 of the dosage regimen; and b) ofatumumab is administered to a patient in need thereof during a maintenance dose regimen comprising administering 20 mg ofatumumab starting at week four of the dosage regimen and continuing thereafter every four weeks for the duration of the treatment protocol.
An isolated antigen binding molecule that specifically binds to the amino acid sequence according to SEQ ID NO: 1 of a molecule comprising said amino acid sequence, wherein the antigen binding molecule comprises a heavy chain variable region (VH) and a light chain variable region (VL), said VH comprising a VH CDR1 comprising the amino acid sequence of SEQ ID NO: 23, a VH CDR2 comprising the amino acid sequence of SEQ ID NO: 24 and a VH CDR3 comprising the amino acid sequence of SEQ ID NO: 25; and said VL comprising a VL CDR1 comprising the amino acid sequence of SEQ ID NO: 29, a VL CDR2 comprising the amino acid sequence of SEQ ID NO: 30 and a VL CDR3 comprising the amino acid sequence of SEQ ID NO: 31. said VH comprising a VH CDR1 comprising the amino acid sequence of SEQ ID NO: 23, a VH CDR2 comprising the amino acid sequence of SEQ ID NO: 24 and a VH CDR3 comprising the amino acid sequence of SEQ ID NO: 25; and said VL comprising a VL CDR1 comprising the amino acid sequence of SEQ ID NO: 29, a VL CDR2 comprising the amino acid sequence of SEQ ID NO: 30 and a VL CDR3 comprising the amino acid sequence of SEQ ID NO: 31.
An image processing apparatus , comprising: a grouping unit that extracts coating areas representing a coating material from an input image acquired by imaging an inspection object linearly coated with the coating material and groups the coating areas for each sequence of linear parts; a calculation unit that calculates a line width in an orthogonal direction of the linear part for each of the linear parts in a plurality of portions of the coating area including end portions of the linear parts; a break detecting unit that detects a break in the coating material based on the line widths calculated in the plurality of portions; and an output unit that outputs an indication representing occurrence of a break when the break is detected, the image processing apparatus being characterized in that the calculation unit sets straight lines in a plurality of portions of a predetermined reference path such that the straight lines are orthogonal to the reference path representing positions at which the coating material is to be shown in an image and detects two edge points presented on each of the set straight lines for each of the linear parts and calculates a distance between the two edge points as the line width and that when a plurality of line widths are calculated for one of the straight lines set in the plurality of portions, the break detecting unit detects the break. a grouping unit that extracts coating areas representing a coating material from an input image acquired by imaging an inspection object linearly coated with the coating material and groups the coating areas for each sequence of linear parts; a calculation unit that calculates a line width in an orthogonal direction of the linear part for each of the linear parts in a plurality of portions of the coating area including end portions of the linear parts; a break detecting unit that detects a break in the coating material based on the line widths calculated in the plurality of portions; and an output unit that outputs an indication representing occurrence of a break when the break is detected, the image processing apparatus being characterized in that the calculation unit sets straight lines in a plurality of portions of a predetermined reference path such that the straight lines are orthogonal to the reference path representing positions at which the coating material is to be shown in an image and detects two edge points presented on each of the set straight lines for each of the linear parts and calculates a distance between the two edge points as the line width and that when a plurality of line widths are calculated for one of the straight lines set in the plurality of portions, the break detecting unit detects the break.
A lighting system comprising: - a substrate element , - one or more light sources mounted on a surface of the substrate element, - a transparent optical element , and - an optical device for modifying a distribution of light emitted by the one or more light sources, wherein the lighting system further comprises one or more fastening elements each being attached on the surface of the substrate element and comprising at least one spring arm for elastically engaging the optical device to hold the optical device in place, and wherein the optical device comprises one or more apertures and each of the one or more fastening elements is arranged to protrude through a corresponding one of the one or more apertures of the optical device, and the at least one spring arm of the fastening element is arranged to elastically engage edges of the corresponding aperture of the optical device, and wherein the optical device comprises a bowl-shaped reflector element comprising a reflective surface and the aperture for engaging the fastening element , characterized in that the fastening element comprises a support structure arranged to hold the transparent optical element so that the transparent optical element covers the light source when seen along a direction perpendicular to the surface of the substrate element . - a substrate element , - one or more light sources mounted on a surface of the substrate element, - a transparent optical element , and - an optical device for modifying a distribution of light emitted by the one or more light sources,
A nanostructure comprising a core comprising indium phosphide and at least two shells, wherein at least one shell comprises ZnSe and at least one shell comprises ZnS, wherein the nanostructure displays a photoluminescence quantum yield between about 94% and about 100%, and wherein the nanostructure has a full width at half-maximum of less than 45 nm.
A pit gate comprising: a gate body which is configured to be inserted between a pool portion configured to store water and a canal portion connected to the pool portion in pit equipment having the pool portion and the canal portion , and is configured to change a flow state of the water; and a seal portion which is accommodated in a groove-shaped accommodation recess formed in the gate body and configured to seal a gap between the gate body on the pool portion side and a wall surface of the pit equipment on the canal portion side, characterized in that the seal portion includes a base portion which extends along a surface of the accommodation recess closer to the pool portion , a skirt portion which extends in a direction away from a center portion in a width direction of the gate body as the skirt portion extends from the base portion toward the canal portion , a lip portion which is provided on a surface of the skirt portion close to the center portion in the width direction of the gate body and protrudes in a direction different from a direction in which the skirt portion extends to form a water pressure chamber between the base portion and the lip portion , and a base portion-side stopper portion which is provided on a side of the base portion away from the center portion in the width direction of the gate body from the skirt portion and protrudes toward the skirt portion . a gate body which is configured to be inserted between a pool portion configured to store water and a canal portion connected to the pool portion in pit equipment having the pool portion and the canal portion , and is configured to change a flow state of the water; and a seal portion which is accommodated in a groove-shaped accommodation recess formed in the gate body and configured to seal a gap between the gate body on the pool portion side and a wall surface of the pit equipment on the canal portion side, characterized in that the seal portion includes a base portion which extends along a surface of the accommodation recess closer to the pool portion , a skirt portion which extends in a direction away from a center portion in a width direction of the gate body as the skirt portion extends from the base portion toward the canal portion , a lip portion which is provided on a surface of the skirt portion close to the center portion in the width direction of the gate body and protrudes in a direction different from a direction in which the skirt portion extends to form a water pressure chamber between the base portion and the lip portion , and a base portion-side stopper portion which is provided on a side of the base portion away from the center portion in the width direction of the gate body from the skirt portion and protrudes toward the skirt portion .
A method for controlling a power semiconductor device with a Si chip providing a Si switch and with a wide bandgap material chip providing a wide bandgap material switch , wherein the Si switch and the wide bandgap material switch are electrically connected in parallel, the method comprising: during a normal operation mode, controlling at least the wide bandgap material switch for switching a current through the power semiconductor device by applying corresponding gate signals to at least the wide bandgap material switch with a gate controller ; sensing a failure in the power semiconductor device with a measurement unit ; in the case of a sensed failure, controlling the Si switch by applying a gate signal to the Si chip with the gate controller , such that a current is generated in the Si chip heating the Si chip to a temperature forming a permanent conducting path through the Si chip , wherein the gate signal applied to the Si switch has a lower voltage than in the normal operation mode, such that an internal resistance of the Si chip is higher than in the normal operation mode. during a normal operation mode, controlling at least the wide bandgap material switch for switching a current through the power semiconductor device by applying corresponding gate signals to at least the wide bandgap material switch with a gate controller ; sensing a failure in the power semiconductor device with a measurement unit ; in the case of a sensed failure, controlling the Si switch by applying a gate signal to the Si chip with the gate controller , such that a current is generated in the Si chip heating the Si chip to a temperature forming a permanent conducting path through the Si chip , wherein the gate signal applied to the Si switch has a lower voltage than in the normal operation mode, such that an internal resistance of the Si chip is higher than in the normal operation mode.
Exhaust gas flap, especially for the exhaust gas stream of an internal combustion engine, comprising: - a flap tube , - a flap diaphragm , which is carried in the interior of the flap tube on a pivot shaft rotatable about a pivot axis (A), a pivot drive for the pivot shaft , - a coupling device coupling the pivot shaft to a drive shaft of the pivot drive for joint rotation about the pivot axis (A), the coupling device comprising a first coupling area that is in a state of rotary coupling positive-locking meshing with the drive shaft and a second coupling area that is in a state of rotary coupling positive-locking meshing with the pivot shaft , - a prestressing element , which is supported in relation to the coupling device , on the one hand, and in relation to one shaft of the drive shaft and the pivot shaft , on the other hand, wherein the prestressing element comprises a coil spring and the coupling device is axially prestressed by the prestressing element in the direction of the pivot shaft towards the other shaft of the drive shaft and the pivot shaft , characterized in that the coupling device is prestressed by the prestressing element about the pivot axis (A) in relation to the one shaft of the drive shaft and the pivot shaft , and in that the prestressing element is permanently coupled in a first connection area in relation to the one shaft, being axially supported on the one shaft about the pivot axis (A) in the circumferential direction and is permanently coupled in a second connection area in relation to the coupling device , being axially supported on the coupling device about the pivot axis (A) in the circumferential direction. - a flap tube , - a flap diaphragm , which is carried in the interior of the flap tube on a pivot shaft rotatable about a pivot axis (A), a pivot drive for the pivot shaft , - a coupling device coupling the pivot shaft to a drive shaft of the pivot drive for joint rotation about the pivot axis (A), the coupling device comprising a first coupling area that is in a state of rotary coupling positive-locking meshing with the drive shaft and a second coupling area that is in a state of rotary coupling positive-locking meshing with the pivot shaft , - a prestressing element , which is supported in relation to the coupling device , on the one hand, and in relation to one shaft of the drive shaft and the pivot shaft , on the other hand, wherein the prestressing element comprises a coil spring and the coupling device is axially prestressed by the prestressing element in the direction of the pivot shaft towards the other shaft of the drive shaft and the pivot shaft ,
A volleyball or a beach volleyball, comprising a sheet-like material comprising: a fibrous base material ; and an elastic polymer cover layer that is laminated on a surface of the fibrous base material , wherein: a continuous flat portion and discontinuous valleys are formed on a surface of the elastic polymer cover layer ; the valley has a depth of 50 to 500 μm; a vertical projected area of each valley is 1 to 5 mm 2 ; and a total area of the vertical projected area of each valley accounts for 3 to 30% relative to a surface area of the elastic polymer cover layer ; characterized in that the valleys discontinuously formed are formed at average intervals of 0.5 to 3 mm. a fibrous base material ; and an elastic polymer cover layer that is laminated on a surface of the fibrous base material , wherein: a continuous flat portion and discontinuous valleys are formed on a surface of the elastic polymer cover layer ; the valley has a depth of 50 to 500 μm; a vertical projected area of each valley is 1 to 5 mm 2 ; and a total area of the vertical projected area of each valley accounts for 3 to 30% relative to a surface area of the elastic polymer cover layer ; characterized in that the valleys discontinuously formed are formed at average intervals of 0.5 to 3 mm. a continuous flat portion and discontinuous valleys are formed on a surface of the elastic polymer cover layer ; the valley has a depth of 50 to 500 μm; a vertical projected area of each valley is 1 to 5 mm 2 ; and a total area of the vertical projected area of each valley accounts for 3 to 30% relative to a surface area of the elastic polymer cover layer ; characterized in that the valleys discontinuously formed are formed at average intervals of 0.5 to 3 mm.
An electromagnetic gear coupling , in particular for ship drives, comprising: - a first part connectable to a drive/output shaft and which comprises an electromagnet holder and an electromagnet which can be electrically excited, - a first crown gear that is detachably connected to the first part , - a second part acting as an anchor, connectable to the output/drive shaft , and - a second crown gear that is detachably connected to the second part in such a way to engage in a positive locking manner the first crown gear to transmit torque, - the first and/or second part being formed of at least two pieces (3a', 3a") which are movably arranged relative to each other in axial direction of the coupling by an intermediate arrangement of a spring means , the electromagnetic gear coupling transmitting torque from the first to the second part when the electromagnet is electrically excited, characterized in that the first and/or second crown gears are divided into n segments and have a number of teeth that is an integer multiple of n, wherein n ≥ 2, preferably n ≥ 3, and wherein the first and/or second crown gears are connected with the first and the second part, respectively, with fastening means arranged in the radial direction of each crown gear. - a first part connectable to a drive/output shaft and which comprises an electromagnet holder and an electromagnet which can be electrically excited, - a first crown gear that is detachably connected to the first part , - a second part acting as an anchor, connectable to the output/drive shaft , and - a second crown gear that is detachably connected to the second part in such a way to engage in a positive locking manner the first crown gear to transmit torque, - the first and/or second part being formed of at least two pieces (3a', 3a") which are movably arranged relative to each other in axial direction of the coupling by an intermediate arrangement of a spring means , the electromagnetic gear coupling transmitting torque from the first to the second part when the electromagnet is electrically excited, characterized in that the first and/or second crown gears are divided into n segments and have a number of teeth that is an integer multiple of n, wherein n ≥ 2, preferably n ≥ 3, and wherein the first and/or second crown gears are connected with the first and the second part, respectively, with fastening means arranged in the radial direction of each crown gear.
A method for coating a rotor shaft of a gas turbine engine with a ceramic coating (60; 72), comprising the steps of: applying a bond coat material to a surface of a rotor shaft to form a bond coat on the surface; and applying a ceramic coat (60; 72) comprising an abrasive coat (60; 72) over the bond coat , wherein the step of applying the bond coat material: produces a bond coat having increased porosity and a lower elastic modulus as compared to a fully dense layer of the same bond coat material, applied in a spray without any steps being taken to increase porosity or reduce modulus; and comprises either: applying the bond coat material mixed with a fugitive material, and removing the fugitive material to produce porosity; or applying the bond coat material mixed with a modulus reducing additive to produce porosity at least partially filled with the additive, wherein the modulus reducing additive is hexagonal boron nitride (hBN), polyester or lucite, wherein the abrasive coat (60; 72) is configured to be the layer which first encounters a vane tip of a vane when the rotor shaft is in use. applying a bond coat material to a surface of a rotor shaft to form a bond coat on the surface; and applying a ceramic coat (60; 72) comprising an abrasive coat (60; 72) over the bond coat , wherein the step of applying the bond coat material: produces a bond coat having increased porosity and a lower elastic modulus as compared to a fully dense layer of the same bond coat material, applied in a spray without any steps being taken to increase porosity or reduce modulus; and comprises either: applying the bond coat material mixed with a fugitive material, and removing the fugitive material to produce porosity; or applying the bond coat material mixed with a modulus reducing additive to produce porosity at least partially filled with the additive, wherein the modulus reducing additive is hexagonal boron nitride (hBN), polyester or lucite, produces a bond coat having increased porosity and a lower elastic modulus as compared to a fully dense layer of the same bond coat material, applied in a spray without any steps being taken to increase porosity or reduce modulus; and comprises either: applying the bond coat material mixed with a fugitive material, and removing the fugitive material to produce porosity; or applying the bond coat material mixed with a modulus reducing additive to produce porosity at least partially filled with the additive, wherein the modulus reducing additive is hexagonal boron nitride (hBN), polyester or lucite, applying the bond coat material mixed with a fugitive material, and removing the fugitive material to produce porosity; or applying the bond coat material mixed with a modulus reducing additive to produce porosity at least partially filled with the additive, wherein the modulus reducing additive is hexagonal boron nitride (hBN), polyester or lucite, wherein the abrasive coat (60; 72) is configured to be the layer which first encounters a vane tip of a vane when the rotor shaft is in use.
A method for preparing User Equipment, UE, mobility to a 2G/3G network for a UE moving from a 5G network, optionally via a 4G network, to the 2G/3G network, the method being performed by a network node of the 5G network and being further characterized by : triggering (S304) providing one or more 2G/3G Quality of Service, QoS, parameters to the UE required to hand over at least one QoS flow established between the UE and the 5G network to the 2G/3G network when the UE moves to the 2G/3G network, wherein the one or more 2G/3G QoS parameters are required to establish at least one Packet Data Protocol, PDP, context in the 2G/3G network which corresponds to the at least one QoS flow established between the UE and the 5G network, wherein the one or more 2G/3G QoS parameters are mapped from one or more corresponding 5G QoS parameters.