mhurhangee/patent-ind-claim-en huggingface dataset:
An absorbent article including a liquid-permeable top sheet situated on a side facing a skin of a wearer, a liquid-impermeable back sheet situated on a side not facing the skin of the wearer, and an absorbent body situated between both sheets, wherein the top sheet is a nonwoven fabric comprising at least two fiber layers including a first fiber layer composed of cotton and thermoplastic resin fibers and a second fiber layer composed of hydrophobic thermoplastic resin fibers , the nonwoven fabric having a first surface which is a skin-facing side surface, formed by the second fiber layer , and a second surface which is a non-skin-facing side surface, facing the absorbent body , the nonwoven fabric being provided with a plurality of protruded sections protruding toward the first surface and a plurality of recesses depressed toward the second surface , and formed between adjacent protruded sections, the protruded sections having spaces where the second surface of the nonwoven fabric faces, and the nonwoven fabric exhibiting weak acidity at least at the protruded sections. wherein the top sheet is a nonwoven fabric comprising at least two fiber layers including a first fiber layer composed of cotton and thermoplastic resin fibers and a second fiber layer composed of hydrophobic thermoplastic resin fibers , the nonwoven fabric having a first surface which is a skin-facing side surface, formed by the second fiber layer , and a second surface which is a non-skin-facing side surface, facing the absorbent body , the nonwoven fabric being provided with a plurality of protruded sections protruding toward the first surface and a plurality of recesses depressed toward the second surface , and formed between adjacent protruded sections, the protruded sections having spaces where the second surface of the nonwoven fabric faces, and the nonwoven fabric exhibiting weak acidity at least at the protruded sections.
A sensor-equipped brake pad for the braking system of a motor vehicle, comprising a printed circuit board , a rear support plate having a recess in which said printed circuit board is fixed, at least one force sensor mounted on said printed circuit board , a block of friction material mounted on said rear plate , wherein said printed circuit board is interposed between said rear plate and said block of friction material , characterised in that it comprises a structural stiffening means for said printed circuit board .
A method performed by a User Equipment device, UE, the method comprising: receiving a configuration for control signaling; associating a control signaling configuration with a waveform type, wherein at least two different waveform types are associated with different control signaling configurations; and receiving from a radio access network a control signal transmission using the associated waveform type; wherein receiving the configuration for control signaling comprises receiving a plurality of configurations for multiple Control Resource Sets, CORESETs, each configuration associating a configured CORESET with a waveform type, wherein at least two different waveform types are associated with the multiple configured CORESETs; and the method further comprising: receiving a Quasi-Co-Location, QCL, type-D assumption for the multiple CORESETs, wherein CORESET identifiers having different QCL Type-D assumptions are associated with different waveform types, wherein Physical Downlink Control Channel, PDCCH, transmissions with the same QCL Type-D assumption are associated with the same waveform type. receiving a configuration for control signaling; associating a control signaling configuration with a waveform type, wherein at least two different waveform types are associated with different control signaling configurations; and receiving from a radio access network a control signal transmission using the associated waveform type; wherein receiving the configuration for control signaling comprises receiving a plurality of configurations for multiple Control Resource Sets, CORESETs, each configuration associating a configured CORESET with a waveform type, wherein at least two different waveform types are associated with the multiple configured CORESETs; and
An extruded optical cable protective component comprising a polymeric composition, comprising: a polybutylene terephthalate; an ethylene-based polymer having a density of at least 0.93 g/cm 3 as determined according to ASTM D792 at 23°C; and a maleated ethylene-based polymer having a density of at least 0.93 g/cm 3 as determined according to ASTM D792 at 23°C, wherein said polybutylene terephthalate is present in an amount ranging from 40 to 70 weight percent, based on the combined weight of said polybutylene terephthalate, said ethylene-based polymer, and said maleated ethylene-based polymer; wherein said ethylene-based polymer is present in an amount ranging from 25 to 55 weight percent, based on the combined weight of said polybutylene terephthalate, said ethylene-based polymer, and said maleated ethylene-based polymer; wherein said maleated ethylene-based polymer is present in an amount ranging from greater than 0 to 5 weight percent, based on the combined weight of said polybutylene terephthalate, said ethylene-based polymer, and said maleated ethylene-based polymer. a polybutylene terephthalate; an ethylene-based polymer having a density of at least 0.93 g/cm 3 as determined according to ASTM D792 at 23°C; and a maleated ethylene-based polymer having a density of at least 0.93 g/cm 3 as determined according to ASTM D792 at 23°C, wherein said polybutylene terephthalate is present in an amount ranging from 40 to 70 weight percent, based on the combined weight of said polybutylene terephthalate, said ethylene-based polymer, and said maleated ethylene-based polymer; wherein said ethylene-based polymer is present in an amount ranging from 25 to 55 weight percent, based on the combined weight of said polybutylene terephthalate, said ethylene-based polymer, and said maleated ethylene-based polymer; wherein said maleated ethylene-based polymer is present in an amount ranging from greater than 0 to 5 weight percent, based on the combined weight of said polybutylene terephthalate, said ethylene-based polymer, and said maleated ethylene-based polymer.
A frame for a prosthetic heart valve , said frame comprising: - a plurality of cell struts forming a row of cells at an outflow end of the frame , and - a plurality of pairs of vertical posts arranged only at an outflow portion of the frame , a first vertical post and a second vertical post of each pair of vertical posts being parallel to each other and spaced apart from each other so as to define an opening therebetween, each first vertical post and second vertical post of the pairs of vertical posts being positioned axially along the frame at least partially within the row of cells at the outflow end of the frame , wherein - the pairs of vertical posts are circumferentially spaced apart from each other by a plurality of cells at the outflow end of the frame , - a frame section extends between adjacent pairs of vertical posts , such that adjacent frame sections are connected to each other by means of the first vertical post and the second vertical post of a respective pair of vertical posts , - each first vertical post and second vertical post of the pairs of vertical posts extends axially away from the row of cells at the outflow end of the frame and is completely cantilevered. - a plurality of cell struts forming a row of cells at an outflow end of the frame , and - a plurality of pairs of vertical posts arranged only at an outflow portion of the frame , a first vertical post and a second vertical post of each pair of vertical posts being parallel to each other and spaced apart from each other so as to define an opening therebetween, each first vertical post and second vertical post of the pairs of vertical posts being positioned axially along the frame at least partially within the row of cells at the outflow end of the frame , wherein - the pairs of vertical posts are circumferentially spaced apart from each other by a plurality of cells at the outflow end of the frame , - a frame section extends between adjacent pairs of vertical posts , such that adjacent frame sections are connected to each other by means of the first vertical post and the second vertical post of a respective pair of vertical posts , - each first vertical post and second vertical post of the pairs of vertical posts extends axially away from the row of cells at the outflow end of the frame and is completely cantilevered.
An airfoil assembly comprising: at least one airfoil that has a hollow interior ; first and second platforms between which the airfoil is disposed; at least one tie-spar that extends along an axis (A1) through the first platform , the hollow interior of the airfoil , and the second platform , wherein there is a thermal expansion difference D between a thermal expansion T1 of the tie-spar in the axial direction and a combined thermal expansion T2 of the airfoil and the first and second platforms in the axial direction; and at least one spacer portion arranged on the tie-spar , wherein the spacer portion has a thermal expansion T3 in the axial direction that is greater than the thermal expansion difference D such that the spacer portion maintains the tie-spar under tension and clamps the first and second platforms on the airfoil ; characterised in that : the spacer portion and at least one of the first and second platforms extend partially into the hollow interior of the airfoil . at least one airfoil that has a hollow interior ; first and second platforms between which the airfoil is disposed; at least one tie-spar that extends along an axis (A1) through the first platform , the hollow interior of the airfoil , and the second platform , wherein there is a thermal expansion difference D between a thermal expansion T1 of the tie-spar in the axial direction and a combined thermal expansion T2 of the airfoil and the first and second platforms in the axial direction; and at least one spacer portion arranged on the tie-spar , wherein the spacer portion has a thermal expansion T3 in the axial direction that is greater than the thermal expansion difference D such that the spacer portion maintains the tie-spar under tension and clamps the first and second platforms on the airfoil ; characterised in that : the spacer portion and at least one of the first and second platforms extend partially into the hollow interior of the airfoil .
Coating removal device for removing a coating on a pipe having a housing , several abrading elements , which are arranged on a rotatably mounted rotary disc driven by a motor to be rotatable both about their own longitudinal axes and about a central axis of the pipe arranged within the housing and offset parallel to the axis of rotation of the rotary disc , and an adjusting mechanism for adjusting the distance between the abrading elements , wherein the motor for driving the rotary disc via a gear also drives the abrading elements for rotation about their longitudinal axes , characterised in that the rotary disc and the adjusting mechanism are arranged in the housing and the adjusting mechanism comprises a sleeve guided to be axially adjustable on a guide pipe and having a cone which cooperates with conical support rollers for radial adjustment of the abrading elements .
Device for sealing a fluid product vessel comprising a collar provided with an upper axial edge , said sealing device comprising: - a stopper comprising a radial plate and an axial drum , said axial drum penetrating inside said collar during assembly, said stopper comprising sealing means (13; 14) for sealing with said vessel , - an attachment ring for attaching said stopper on said collar , said attachment ring comprising a cylindrical axial sleeve provided on the upper side with a radial flange extending radially inwards and comprising a central opening , said cylindrical axial sleeve comprising, on the lower side, first attachment means to be attached to said collar of said vessel , - a cover comprising a radial disc and a cylindrical axial envelope extending axially downwards from said radial disc , said cover comprising second attachment means , - a blocking element comprising a cylindrical axial wall and complementary attachment means engaging in the assembled state with said second attachment means of said cover , characterised in that said axial wall comprises, on one portion of its periphery, a tearable tab defined between two grooves forming bridges of thin material, said tab comprising, on one side, a gripping portion and ending on the opposite side by a flared portion , such that once torn, said axial wall opens out along the entire height thereof, thus making it possible to remove said blocking element from said sealing device. - a stopper comprising a radial plate and an axial drum , said axial drum penetrating inside said collar during assembly, said stopper comprising sealing means (13; 14) for sealing with said vessel , - an attachment ring for attaching said stopper on said collar , said attachment ring comprising a cylindrical axial sleeve provided on the upper side with a radial flange extending radially inwards and comprising a central opening , said cylindrical axial sleeve comprising, on the lower side, first attachment means to be attached to said collar of said vessel , - a cover comprising a radial disc and a cylindrical axial envelope extending axially downwards from said radial disc , said cover comprising second attachment means , - a blocking element comprising a cylindrical axial wall and complementary attachment means engaging in the assembled state with said second attachment means of said cover ,
A three-dimensional, 3D, printing method for a 3D printing apparatus , comprising: feeding (S210) a material with a printing parameter, wherein the printing parameter comprises a target temperature and a target feeding rate; adjusting (S220) the printing parameter to change a heat energy provided to a printing filament per unit length; determining (S230) whether the target feeding rate matches an actual feeding rate according to the adjusted printing parameter to obtain a determination result of the highest target feeding rate corresponding to a specific target temperature or the lowest target temperature corresponding to a specific target feeding rate, wherein the step of determining whether the target feeding rate matches the actual feeding rate comprises: determining whether the set target feeding rate matches the actual feeding rate of transporting the printing filament to a printing head for feeding material by a feeder element; obtaining (S240) a correspondence relationship between a plurality of the target temperatures and a plurality of the target feeding rates according to the adjusted printing parameters and the determination results; and setting (S250) the printing parameter for printing according to the correspondence relationship. feeding (S210) a material with a printing parameter, wherein the printing parameter comprises a target temperature and a target feeding rate; adjusting (S220) the printing parameter to change a heat energy provided to a printing filament per unit length; determining (S230) whether the target feeding rate matches an actual feeding rate according to the adjusted printing parameter to obtain a determination result of the highest target feeding rate corresponding to a specific target temperature or the lowest target temperature corresponding to a specific target feeding rate, wherein the step of determining whether the target feeding rate matches the actual feeding rate comprises: determining whether the set target feeding rate matches the actual feeding rate of transporting the printing filament to a printing head for feeding material by a feeder element; obtaining (S240) a correspondence relationship between a plurality of the target temperatures and a plurality of the target feeding rates according to the adjusted printing parameters and the determination results; and setting (S250) the printing parameter for printing according to the correspondence relationship.
Submarine cable link comprising a submarine cable coupling sleeve for connecting two ends of two submarine cable sections of a submarine cable, wherein a or each partial discharge in the submarine cable coupling sleeve is measurable by two capacitive sensors upstream and downstream of the two sides of the submarine cable coupling sleeve , wherein a measuring device of the submarine cable link is configured to determine a position of the respective partial discharge in the submarine cable coupling sleeve on the basis of electrical signals of the sensors , wherein the sensors upstream and downstream of the submarine cable coupling sleeve are secured to the two submarine cable sections and wherein the two capacitive sensors are separated from the submarine cable sections by a dielectric and are enclosed by a protective sheath, and the submarine cable link is assigned at least one signal transducer which enables the electrical signals of the capacitive sensors to be converted into optical signals.
A method of improving the functions of a donor lung extracorporeally, comprising treating a lung ex vivo with a cyclized compound of the amino acid sequence of formula X 1 -GQRETPEGAEAKPWY-X 2 I wherein X 1 comprises an amino acid (sequence) with 1 to 4, in particular 1 to 3 members, comprising natural or unnatural amino acids, and X 2 comprises one amino acid, selected from natural amino acids. X 1 comprises an amino acid (sequence) with 1 to 4, in particular 1 to 3 members, comprising natural or unnatural amino acids, and X 2 comprises one amino acid, selected from natural amino acids.
An electroconductive hole plug paste comprising: 60-80 wt % of platinum particles; 10-20 wt % of Al 2 O 3 ; and 10-20 wt % of organic vehicle, based upon 100% total weight of the paste. 60-80 wt % of platinum particles; 10-20 wt % of Al 2 O 3 ; and 10-20 wt % of organic vehicle, based upon 100% total weight of the paste.
Guard element for use in a hair cutting unit as a guard for a movable hair cutting element of the hair cutting unit, which guard element is generally cup-shaped and comprises a disc-shaped base and an annular wall , wherein - the disc-shaped base comprises a central axis and a peripheral section which is curved when seen in a central cross-section of the guard element comprising the central axis ; and - the annular wall comprises a main part and a flange-shaped part ; and wherein - the main part of the annular wall has a substantially upright orientation with respect to the disc-shaped base and comprises a straight section , which is uncurved when seen in the central cross-section and which is connected to the peripheral section of the disc-shaped base ; and - the flange-shaped part of the annular wall comprises an outwardly bent section , which is bent outwardly relative to the central axis when seen in the central cross-section, and a free end section ; wherein the outwardly bent section of the flange-shaped part of the annular wall interconnects the main part of the annular wall and the free end section of the flange-shaped part of the annular wall ; characterized in that the annular wall is reinforced on the basis of a design where a smallest inner periphery of the flange-shaped part of the annular wall has a diameter which is smaller than a diameter of a largest inner periphery of the straight section of the main part of the annular wall . - the disc-shaped base comprises a central axis and a peripheral section which is curved when seen in a central cross-section of the guard element comprising the central axis ; and - the annular wall comprises a main part and a flange-shaped part ; and wherein - the main part of the annular wall has a substantially upright orientation with respect to the disc-shaped base and comprises a straight section , which is uncurved when seen in the central cross-section and which is connected to the peripheral section of the disc-shaped base ; and - the flange-shaped part of the annular wall comprises an outwardly bent section , which is bent outwardly relative to the central axis when seen in the central cross-section, and a free end section ;
A topical gel formulation comprising a selectively purified tanshinone compounds containing extract from the root of a Salvia spp characterized in that it has an identified tanshinone compounds content of 42.89% (plus or minus 20%) including: a cryptotanshinone content of 18.95% (plus or minus 20%), a dihydrotanshinone content of 3.65% (plus or minus 20%), a tanshinone I content of 3.82% (plus or minus 20%), and a tanshinone IIA content of 16.47% (plus or minus 20%). a cryptotanshinone content of 18.95% (plus or minus 20%), a dihydrotanshinone content of 3.65% (plus or minus 20%), a tanshinone I content of 3.82% (plus or minus 20%), and a tanshinone IIA content of 16.47% (plus or minus 20%).
A method for producing an iron-based sintered alloy, the method comprising: mixing a titanium carbide powder, a Cr powder, a Mo powder, a Ni powder, a Co powder, a Fe powder and a powder of any one of Al, Ti, and Nb; and subjecting a resulting mixed powder containing, in terms of % by mass, titanium carbide: 20% to 35%, Cr: 3.0% to 12.0%, Mo: 3.0% to 8.0%, Ni: 8.0% to 23%, Co: 0.6% to 4.5%, and any one of Al, Ti or Nb: 0.6% to 1.0%, with the balance Fe, to cold isostatic pressing molding, vacuum sintering, and a solution treatment, to produce an iron -based sintered alloy in which hard particles derived from the titanium carbide powder are dispersed in an island form in a matrix having a two-phase structure of austenite and martensite. mixing a titanium carbide powder, a Cr powder, a Mo powder, a Ni powder, a Co powder, a Fe powder and a powder of any one of Al, Ti, and Nb; and subjecting a resulting mixed powder containing, in terms of % by mass, titanium carbide: 20% to 35%, Cr: 3.0% to 12.0%, Mo: 3.0% to 8.0%, Ni: 8.0% to 23%, Co: 0.6% to 4.5%, and any one of Al, Ti or Nb: 0.6% to 1.0%, with the balance Fe, to cold isostatic pressing molding, vacuum sintering, and a solution treatment, to produce an iron -based sintered alloy in which hard particles derived from the titanium carbide powder are dispersed in an island form in a matrix having a two-phase structure of austenite and martensite.
A multi-layer electrostatic chuck assembly comprising a dielectric layer ; a conductive field coating above the dielectric layer; an electrode layer below the dielectric layer; an insulator layer below the electrode layer; a polymeric bonding layer below the dielectric layer and above the insulator layer; a grounding layer above the polymeric bonding layer, below the dielectric layer, and electrically connected to the conductive field coating; a grounding pin opening extending from a location of the insulator layer, through the polymeric bonding layer to the grounding layer; and a grounding pin located in the grounding pin opening, the grounding pin being electrically connected to the grounding layer. a dielectric layer ; a conductive field coating above the dielectric layer; an electrode layer below the dielectric layer; an insulator layer below the electrode layer; a polymeric bonding layer below the dielectric layer and above the insulator layer; a grounding layer above the polymeric bonding layer, below the dielectric layer, and electrically connected to the conductive field coating; a grounding pin opening extending from a location of the insulator layer, through the polymeric bonding layer to the grounding layer; and a grounding pin located in the grounding pin opening, the grounding pin being electrically connected to the grounding layer.