mhurhangee/patent-ind-claim-en huggingface dataset:
Sheet comprising: multiple transparent and non-transparent strips extending in a longitudinal direction of said sheet, each of the transparent and non-transparent strips having a width (A) in a transverse direction of the sheet, wherein the multiple transparent and non-transparent strips alternate in transverse direction of the sheet, wherein each non-transparent strip has a width which is less than the width of each transparent strip. multiple transparent and non-transparent strips extending in a longitudinal direction of said sheet, each of the transparent and non-transparent strips having a width (A) in a transverse direction of the sheet, wherein the multiple transparent and non-transparent strips alternate in transverse direction of the sheet, wherein each non-transparent strip has a width which is less than the width of each transparent strip.
A stator core comprising: a central opening bounded at its periphery by an innermost layer having at least one innermost winding slot cutout defining an innermost cutout width (W 5 ); an outermost layer radially spaced from said innermost layer and having at least one outermost winding slot cutout defining an outermost cutout width (W 5 ); and a main stator body comprising a plurality of intermediate layers between said innermost layer and said outermost layer, each of said plurality of intermediate layers having at least one intermediate winding slot cutout defining an intermediate cutout width (W 1 ), said innermost layer, said outermost layer and said intermediate layers formed from a continuous strip of wound material such that said innermost winding slot cutout, said outermost winding slot cutout and said intermediate winding slot cutouts are respectively aligned with one another to form a winding slot , and characterized in that : at least one of said innermost cutout width and said outermost cutout width is larger than said intermediate cutout width, whereby said winding slot defines a stair-step profile approximating a rounded edge at at least one radial end of said winding slot. a central opening bounded at its periphery by an innermost layer having at least one innermost winding slot cutout defining an innermost cutout width (W 5 ); an outermost layer radially spaced from said innermost layer and having at least one outermost winding slot cutout defining an outermost cutout width (W 5 ); and a main stator body comprising a plurality of intermediate layers between said innermost layer and said outermost layer, each of said plurality of intermediate layers having at least one intermediate winding slot cutout defining an intermediate cutout width (W 1 ), said innermost layer, said outermost layer and said intermediate layers formed from a continuous strip of wound material such that said innermost winding slot cutout, said outermost winding slot cutout and said intermediate winding slot cutouts are respectively aligned with one another to form a winding slot , and characterized in that : at least one of said innermost cutout width and said outermost cutout width is larger than said intermediate cutout width, whereby said winding slot defines a stair-step profile approximating a rounded edge at at least one radial end of said winding slot.
An apparatus (100; 200; 304) for evaluating an audio stream which comprises audio channels (106; 206; 305) to be reproduced at at least two different spatial layers (420 410), which are arranged in a manner distanced along a spatial axis, wherein the apparatus is configured to evaluate the audio channels of the audio stream as to provide a measure of spatiality (115; 235) associated with the audio stream by determining a similarity measure between a first set of audio channels of the audio stream to be reproduced at one or more first spatial layers and a second set of audio channels of the audio stream to be reproduced at one or more second spatial layers, and determining the measure of spatiality based on the similarity measure, wherein the apparatus is configured to determine a masking threshold based on a level information of the first set of audio channels and to compare the masking threshold to a level information of the second set of audio channels, and wherein the apparatus is configured to increase the measure of spatiality when the comparison indicates that the masking threshold is exceeded by the level information of the second set of audio channels and the similarity measure indicates a low similarity between the first set and the second set. evaluate the audio channels of the audio stream as to provide a measure of spatiality (115; 235) associated with the audio stream by determining a similarity measure between a first set of audio channels of the audio stream to be reproduced at one or more first spatial layers and a second set of audio channels of the audio stream to be reproduced at one or more second spatial layers, and determining the measure of spatiality based on the similarity measure, determining a similarity measure between a first set of audio channels of the audio stream to be reproduced at one or more first spatial layers and a second set of audio channels of the audio stream to be reproduced at one or more second spatial layers, and determining the measure of spatiality based on the similarity measure, wherein the apparatus is configured to determine a masking threshold based on a level information of the first set of audio channels and to compare the masking threshold to a level information of the second set of audio channels, and wherein the apparatus is configured to increase the measure of spatiality when the comparison indicates that the masking threshold is exceeded by the level information of the second set of audio channels and the similarity measure indicates a low similarity between the first set and the second set.
A stented prosthetic heart valve comprising: a stent frame including a plurality of cells formed by segments adjoined at a plurality of nodes ; the stent frame further including a first frame end and a second frame end ; a plurality of valve leaflets positioned within the stent frame ; and a wrap connected to the stent frame with a plurality of elongated member ; each elongated member having two ends; wherein at least one end of the elongated member is secured to the stent frame ; wherein the wrap has a delivery arrangement and a deployed arrangement that is actuated by expansion of the stent frame ; wherein the plurality of elongated members are spaced around the stent frame and configured so that upon expansion of the stent frame from a compressed, delivery arrangement the elongated members automatically pull the wrap proximally over and around the stent frame. a plurality of valve leaflets positioned within the stent frame ; and a wrap connected to the stent frame with a plurality of elongated member ; each elongated member having two ends; wherein at least one end of the elongated member is secured to the stent frame ; wherein the wrap has a delivery arrangement and a deployed arrangement that is actuated by expansion of the stent frame ; wherein the plurality of elongated members are spaced around the stent frame and configured so that upon expansion of the stent frame from a compressed, delivery arrangement the elongated members automatically pull the wrap proximally over and around the stent frame.
A method of producing an irreversible color change in overlapping layers of an absorbent article comprising the steps of: a. providing a first layer comprising a first activatable colorant; b. providing a second layer comprising a second activatable colorant wherein the second layer overlaps the first layer; c. applying a first external stimulus to the overlapping layers to activate the first activatable colorant in the first layer producing a first activated color region in the first layer; and d. applying a second external stimulus to the overlapping layers to activate the second activatable colorant in the second layer producing a second activated color region in the second layer; characterized in that the first and second activatable colorants are photoreactive material, and the first external stimulus comprises electromagnetic radiation, the electromagnetic radiation comprising UV light, and the second external stimulus comprises electromagnetic radiation, the electromagnetic radiation comprising UV light. a. providing a first layer comprising a first activatable colorant; b. providing a second layer comprising a second activatable colorant wherein the second layer overlaps the first layer; c. applying a first external stimulus to the overlapping layers to activate the first activatable colorant in the first layer producing a first activated color region in the first layer; and d. applying a second external stimulus to the overlapping layers to activate the second activatable colorant in the second layer producing a second activated color region in the second layer; characterized in that the first and second activatable colorants are photoreactive material, and the first external stimulus comprises electromagnetic radiation, the electromagnetic radiation comprising UV light, and the second external stimulus comprises electromagnetic radiation, the electromagnetic radiation comprising UV light.
Compressing jaw assembly unit for a compressing device for compressing tubular metal parts, comprising: - a compressing jaw carrier , - at least one compressing jaw , provided at the compressing jaw carrier with a compressing surface curved transversely to a compressing jaw longitudinal direction (L B ) in a compressing jaw transverse direction (Q B ), wherein the compressing jaw comprises a fixed compressing jaw segment , which is fixed to the compressing jaw carrier and provides a compressing surface segment , and at least one movable compressing jaw segment providing a compressing surface segment , wherein the at least one movable compressing surface segment can be moved in a direction of movement (B) in relation to the fixed compressing jaw segment , wherein the curved compressing surface is oriented facing away from the compressing jaw carrier , characterized in that the at least one movable compressing jaw segment is in relation to the fixed compressing surface segment movable against the prestressing action of a prestressing device . - a compressing jaw carrier , - at least one compressing jaw , provided at the compressing jaw carrier with a compressing surface curved transversely to a compressing jaw longitudinal direction (L B ) in a compressing jaw transverse direction (Q B ),
A method for the preparation of a functionalized conjugated diene selected from the group of compounds of formula (Ia), (Ib), (Ic) wherein - R is a branched, unsaturated hydrocarbylene group, and the starting conjugated diene selected from the group of compounds of formula (Ila), (IIb), (IIc) from which the functionalized conjugated diene of formula (Ia), (Ib), (Ic) is derived, has at least 10 carbon atoms, - R 1 is selected from i) a single bond, ii) one or more of an oxygen atom, a sulfur atom, and a group NR 4 ; and iii) an organylene group optionally containing one or more selected from an oxygen atom, a sulfur atom, and a group NR 4 ; - R 2 and R 3 can be the same or different and represent Si(R 5 ) 3 , wherein each R 5 can be the same or different and represents an organyl group optionally containing one or more heteroatoms selected from an oxygen atom, a sulfur atom, a nitrogen atom, and a silicon atom; - R 4 represents an organyl group optionally containing one or more heteroatoms selected from an oxygen atom, a sulfur atom, a nitrogen atom, and a silicon atom; the method comprising reacting a conjugated diene halide selected from the group of compounds of formula (IIIa), (IIIb), (IIIc) wherein Hal is selected from fluorine, chlorine, bromine, and iodine atoms, and Hal is preferably a chlorine atom, with an amide of formula (IV) wherein M is an alkali metal selected from lithium, sodium, and potassium, and M is preferably sodium. - R is a branched, unsaturated hydrocarbylene group, and the starting conjugated diene selected from the group of compounds of formula (Ila), (IIb), (IIc) from which the functionalized conjugated diene of formula (Ia), (Ib), (Ic) is derived, has at least 10 carbon atoms, - R 1 is selected from i) a single bond, ii) one or more of an oxygen atom, a sulfur atom, and a group NR 4 ; and iii) an organylene group optionally containing one or more selected from an oxygen atom, a sulfur atom, and a group NR 4 ; i) a single bond, ii) one or more of an oxygen atom, a sulfur atom, and a group NR 4 ; and iii) an organylene group optionally containing one or more selected from an oxygen atom, a sulfur atom, and a group NR 4 ; - R 2 and R 3 can be the same or different and represent Si(R 5 ) 3 , wherein each R 5 can be the same or different and represents an organyl group optionally containing one or more heteroatoms selected from an oxygen atom, a sulfur atom, a nitrogen atom, and a silicon atom; - R 4 represents an organyl group optionally containing one or more heteroatoms selected from an oxygen atom, a sulfur atom, a nitrogen atom, and a silicon atom; reacting a conjugated diene halide selected from the group of compounds of formula (IIIa), (IIIb), (IIIc) wherein Hal is selected from fluorine, chlorine, bromine, and iodine atoms, and Hal is preferably a chlorine atom, with an amide of formula (IV) wherein M is an alkali metal selected from lithium, sodium, and potassium, and M is preferably sodium.
A computer-implemented method comprising: receiving, by a border gateway protocol, BGP, peer node, a segment routing, SR, prefix segment identifier, SID, associated with a prefix, wherein the BGP peer node does not run an interior gateway protocol, IGP; receiving, by the BGP peer node, a flexible algorithm definition, FAD; and determining, by the BGP peer node and using the FAD received, a next hop in a route towards a destination identified by the prefix. receiving, by a border gateway protocol, BGP, peer node, a segment routing, SR, prefix segment identifier, SID, associated with a prefix, wherein the BGP peer node does not run an interior gateway protocol, IGP; receiving, by the BGP peer node, a flexible algorithm definition, FAD; and determining, by the BGP peer node and using the FAD received, a next hop in a route towards a destination identified by the prefix.
An in vitro method of using (i) a value of an amount of CD4 + CD62L low T-cells of a subject (X) or (ii) a relative value of an amount of X to an amount of CD4 + Foxp3 + CD25 + T-cells (Y) as an indicator for predicting a response to cancer immunotherapy of the subject, the method comprising: measuring the X; and optionally measuring the Y; wherein a comparison of (i) X with an ineffective group threshold value or (ii) a relative value of X to Y with an ineffective group threshold value is used as an indicator for predicting that the subject is not a part of an ineffective group to the cancer immunotherapy, wherein the cancer immunotherapy comprises administration of an immune checkpoint inhibitor. measuring the X; and optionally measuring the Y; wherein a comparison of (i) X with an ineffective group threshold value or (ii) a relative value of X to Y with an ineffective group threshold value is used as an indicator for predicting that the subject is not a part of an ineffective group to the cancer immunotherapy, wherein the cancer immunotherapy comprises administration of an immune checkpoint inhibitor.
A method comprising: performing by a wireless communication device in an Idle mode, mobility management measurements only in macro cells, wherein in the Idle mode, the wireless communication device is neither provided with a control plane nor with a user plane; sending, by a macro cell , a configuration message to the wireless communication device in the Idle mode, the configuration message comprising a configuration of measurement reporting ; the configuration of measurement reporting being configured so that the wireless communication device can perform a measurement of one or more indirect network connection nodes , such as virtual cells or local cells, for providing a user plane as well as macro Cells . according to configured setup of measurement reporting; and providing, by the macro cell , a control plane to the wireless communication device ; and performing, by the wireless communication device a measurement of one or more indirect network connection nodes for providing a user plane as well as macro cells , according to configured setup of measurement reporting, an indirect network connection node being a network connection node that is indirectly connected to the network. performing by a wireless communication device in an Idle mode, mobility management measurements only in macro cells, wherein in the Idle mode, the wireless communication device is neither provided with a control plane nor with a user plane; sending, by a macro cell , a configuration message to the wireless communication device in the Idle mode, the configuration message comprising a configuration of measurement reporting ; the configuration of measurement reporting being configured so that the wireless communication device can perform a measurement of one or more indirect network connection nodes , such as virtual cells or local cells, for providing a user plane as well as macro Cells . according to configured setup of measurement reporting; and providing, by the macro cell , a control plane to the wireless communication device ; and performing, by the wireless communication device a measurement of one or more indirect network connection nodes for providing a user plane as well as macro cells , according to configured setup of measurement reporting, an indirect network connection node being a network connection node that is indirectly connected to the network.
An ophthalmologic information processing apparatus comprising: an acquisition unit configured to acquire a tomographic image of a subject's eye by performing OCT scan; a tissue specifying unit configured to acquire first shape data representing shape of a tissue of the subject's eye by performing segmentation processing on each of a plurality of tomographic images acquired by the acquisition unit, wherein the first shape data is shape profile representing a change in shape in a predetermined one-dimensional direction, a predetermined two-dimensional direction, or a predetermined three-dimensional direction; a registration processor configured to perform registration of a plurality of first shape data acquired by the tissue specifying unit; a specifying unit configured to obtain second shape data representing shape of the tissue based on the plurality of first shape data on which registration has been performed by the registration processor; wherein the specifying unit is configured to obtain the second shape data by performing statistical processing on the plurality of first shape data on which registration has been performed, wherein the second shape data is obtained by calculating a statistical value for the plurality of shape profiles on which registration has been performed at each scan position, and wherein the specifying unit is configured to obtain the second shape data based on a maximum likelihood value obtained by performing statistical processing on the plurality of first shape data. an acquisition unit configured to acquire a tomographic image of a subject's eye by performing OCT scan; a tissue specifying unit configured to acquire first shape data representing shape of a tissue of the subject's eye by performing segmentation processing on each of a plurality of tomographic images acquired by the acquisition unit, wherein the first shape data is shape profile representing a change in shape in a predetermined one-dimensional direction, a predetermined two-dimensional direction, or a predetermined three-dimensional direction; a registration processor configured to perform registration of a plurality of first shape data acquired by the tissue specifying unit; a specifying unit configured to obtain second shape data representing shape of the tissue based on the plurality of first shape data on which registration has been performed by the registration processor;
A liquid crystal display , comprising a light source and a liquid crystal panel , wherein the liquid crystal panel includes a first substrate on the light source, a second substrate facing the first substrate, a liquid crystal layer between the first substrate and the second substrate, a color conversion layer between the second substrate and the liquid crystal layer and including a light emitting element that is supplied with first visible light from the light source and emits second visible light, a first polarizing layer between the liquid crystal layer and the color conversion layer, and a first phase difference layer between the liquid crystal layer and the first polarizing layer; characterized in that the first phase difference layer satisfies a refractive index of Relationship Equation 1: nx 1 ≥ ny 1 > nz 1 wherein, in Relationship Equation 1, nx1 is a refractive index of the first phase difference layer at a slow axis, ny1 is a refractive index of the first phase difference layer at a fast axis, and nz1 is a refractive index in a direction perpendicular to the slow axis and the fast axis of the first phase difference layer.. nx1 is a refractive index of the first phase difference layer at a slow axis, ny1 is a refractive index of the first phase difference layer at a fast axis, and nz1 is a refractive index in a direction perpendicular to the slow axis and the fast axis of the first phase difference layer..
Transmission device for energy transmission between multiple electrical energy networks , each providing a multi-phase supply voltage at a network frequency for electrical energy supply, wherein the transmission device comprises: a) multi-phase multilevel power converters , which are each connected to one of the energy networks and to one another via a first multi-phase transformer and therefore electrically isolated from each other, wherein the first multi-phase transformer is configured so that, via said first multi-phase transformer, at a specified transmission frequency electrical energy flows from at least one energy-supplying energy network into at least one energy-consuming energy network , wherein the transmission frequency is greater than any of the network frequencies, and b) a control device , which adjusts the transmission of energy into the at least one energy-receiving energy network according to a setpoint value (SW) by controlling the multilevel power converters , characterized in that the first transformer has one three-phase connection side and three two-phase connection sides, wherein on each of the two-phase connection sides one multilevel power converter is connected to two phase connections on the transformer side.