mhurhangee/patent-ind-claim-en huggingface dataset:
A spunbonded nonwoven fabric comprising thermoplastic fibers, wherein the thermoplastic fiber is a conjugate fiber in which a low-melting polymer having a melting point lower by 10 to 140°C than that of a high-melting polymer is provided around the high-melting polymer, the spunbonded nonwoven fabric has a non-pressure bonding portion such that fibers on at least one surface are not thermally fused, the non-pressure bonding portion having an apparent density of 0.20 to 0.60 g/cm 3 , wherein the apparent density of the non-pressure bonding portion is calculated from the following equation: Apparent density (g/cm 3 ) of non-pressure bonding portion = [basis weight of the nonwoven fabric (g/m 2 )]/[thickness of the nonwoven fabric (mm)] × 10 -3 wherein the basis weight and thickness of the nonwoven fabric are measured as described in the specification; and wherein when a long axis length of a fiber cross section of the non-pressure bonding portion is a and a short axis length thereof is b, a fiber flatness a/b is 1.5 to 5, and an air permeability satisfies [formula 1]: [air permeability (cc/cm 2 ●sec)] ≤ 520 × exp(-0.0236 × [basis weight (g/m 2 )] - 2.85 × [apparent density (g/cm 3 )]) and wherein the air permeability is measured as described in the specification; and wherein the spunbonded nonwoven fabric is produced by a production method comprising the following steps (a) to (c) sequentially in this order: (a) spinning, from a spinneret having a rectangular discharge orifice having an aspect ratio (long side length/short side length) of 1.6 to 8, a conjugate fiber in which a low-melting polymer having a melting point lower by 10 to 140°C than that of a high-melting polymer is provided around the high-melting polymer; (b) stretching the spun conjugate fibers by suction flow using a high-speed suction gas and collecting the fibers on a moving net conveyor to form the collected fibers into a nonwoven web; and (c) partially thermally bonding the obtained nonwoven web at a temperature lower by 5 to 80°C than the melting point of the low-melting polymer. (a) spinning, from a spinneret having a rectangular discharge orifice having an aspect ratio (long side length/short side length) of 1.6 to 8, a conjugate fiber in which a low-melting polymer having a melting point lower by 10 to 140°C than that of a high-melting polymer is provided around the high-melting polymer; (b) stretching the spun conjugate fibers by suction flow using a high-speed suction gas and collecting the fibers on a moving net conveyor to form the collected fibers into a nonwoven web; and (c) partially thermally bonding the obtained nonwoven web at a temperature lower by 5 to 80°C than the melting point of the low-melting polymer.
A laboratory grinder with at least one counter-vibration device which has at least one control unit for providing a counter-vibration signal and at least one controllable vibration-producing unit for converting the counter-vibration signal into counter-vibrations , wherein the vibration-producing unit acts against a device and/or housing component of the laboratory grinder and wherein by means of the counter-vibrations an active vibration reduction of the device and/or housing component and/or an at least partial elimination of background noise-producing vibrations of the device and/or housing component is effected by destructive interference.
An axial pump for pumping liquid metal, the axial pump comprising - an inlet for receiving liquid, - at least one rotor , the rotor comprising a rotor hub and a plurality of rotor blades positioned thereon, - a stator, comprising a stator hub and a plurality of stator vanes, and - an outlet for discharging the liquid metal, - characterised in that the inlet is defined by two axially concentric walls, the concentric walls having curved edges such that the inlet walls define an inlet entrance area which normal vector is substantially perpendicular to the axis of the axial pump, and in that the rotor blades have a tip being positioned closest to the wall opposing the rotor and whereby the ratio of the distance between the rotor axis and the rotor hub, being the rotor hub radius, to the distance between the rotor axis and the rotor blade tip, being the rotor tip radius, is larger than 0.87. - an inlet for receiving liquid, - at least one rotor , the rotor comprising a rotor hub and a plurality of rotor blades positioned thereon, - a stator, comprising a stator hub and a plurality of stator vanes, and - an outlet for discharging the liquid metal, - characterised in that the inlet is defined by two axially concentric walls, the concentric walls having curved edges such that the inlet walls define an inlet entrance area which normal vector is substantially perpendicular to the axis of the axial pump, and in that the rotor blades have a tip being positioned closest to the wall opposing the rotor and whereby the ratio of the distance between the rotor axis and the rotor hub, being the rotor hub radius, to the distance between the rotor axis and the rotor blade tip, being the rotor tip radius, is larger than 0.87. the inlet is defined by two axially concentric walls, the concentric walls having curved edges such that the inlet walls define an inlet entrance area which normal vector is substantially perpendicular to the axis of the axial pump, and in that the rotor blades have a tip being positioned closest to the wall opposing the rotor and whereby the ratio of the distance between the rotor axis and the rotor hub, being the rotor hub radius, to the distance between the rotor axis and the rotor blade tip, being the rotor tip radius, is larger than 0.87.
A duet stent deployment system for transjugular intrahepatic portosystemic shunting procedures, the system comprising: an inner catheter ; exactly two stents mounted on a distal segment of the inner catheter, and the two stents include a primary stent and a secondary stent ; an outer sheath slidably mounted on the inner catheter, and being movable along an axis of the inner catheter from a predeployment configuration to a first deployment configuration, and then from the first deployment configuration to a second deployment configuration; the primary and secondary stents being covered by the outer sheath in the predeployment configuration; the primary stent being uncovered but the secondary stent being covered by the outer sheath in the first deployment configuration; the primary and secondary stents being uncovered by the outer sheath at the second deployment configuration; wherein the secondary stent is longer than the primary stent, and both the primary stent and the secondary stent are self-expanding stents;. characterized in that the primary stent includes a sleeve covering which prevents fluid communication between the lumen defined by the primary stent and the surrounding tissue. an inner catheter ; exactly two stents mounted on a distal segment of the inner catheter, and the two stents include a primary stent and a secondary stent ; an outer sheath slidably mounted on the inner catheter, and being movable along an axis of the inner catheter from a predeployment configuration to a first deployment configuration, and then from the first deployment configuration to a second deployment configuration; the primary and secondary stents being covered by the outer sheath in the predeployment configuration; the primary stent being uncovered but the secondary stent being covered by the outer sheath in the first deployment configuration; the primary and secondary stents being uncovered by the outer sheath at the second deployment configuration; wherein the secondary stent is longer than the primary stent, and both the primary stent and the secondary stent are self-expanding stents;. characterized in that the primary stent includes a sleeve covering which prevents fluid communication between the lumen defined by the primary stent and the surrounding tissue.
An article of apparel, comprising: a garment structure including one or more fabric elements, wherein the garment structure is structured and arranged so as to provide a close fit to a lower back portion of a human body; and characterized by a lower back position feedback system engaged with the garment structure by an adhesive at least at the lower back portion of the human body, wherein the lower back position feedback system comprises one or more layers including a layer of material having a higher resistance to stretch than a resistance to stretch of the fabric element making up a largest proportion of the garment structure; and wherein a layer of the lower back position feedback system comprises texturing in the form of raised areas to enhance a wearer's feel of the lower back position feedback system. a garment structure including one or more fabric elements, wherein the garment structure is structured and arranged so as to provide a close fit to a lower back portion of a human body; and characterized by a lower back position feedback system engaged with the garment structure by an adhesive at least at the lower back portion of the human body, wherein the lower back position feedback system comprises one or more layers including a layer of material having a higher resistance to stretch than a resistance to stretch of the fabric element making up a largest proportion of the garment structure; and wherein a layer of the lower back position feedback system comprises texturing in the form of raised areas to enhance a wearer's feel of the lower back position feedback system.
A method for lubricating the passage of a container along a conveyor, comprising applying a lubricant composition to at least a portion of the container-contacting surface of the conveyor, the lubricant composition comprising greater than 99 wt.% of water, from 0.0005 wt. % to 0.5 wt. % of a water-miscible silicone material, from 0.01 wt. % to 0.5 wt. % of an alcohol ethoxylate and one equivalent of available, unneutralized organic acid for every one equivalent of alkalinity in the water, wherein the contact angle between the lubricant composition and container is less than 60 degrees, wherein the silicone material is selected from the group consisting of silicone emulsion, finely divided silicone powder, and silicone surfactant.
Device for fixing a support structure for at least one solar panel, in particular a support rail of a support structure for at least one solar panel, to a corrugated roof comprising at least one corrugated roof plate, said device comprising: - at least one base element comprising at least one aperture for receiving at least part of at least one fastening element, in particular a fastening screw, for fixing the device onto a corrugated roof; - at least one, at least partially resilient, first leg which is connected to the base element ; - at least one, at least partially resilient, second leg which is connected to the base element , wherein the at least one second leg substantially opposes the at least one first leg , and - at least one top structure connected to the base element , wherein the top structure extends from the base element in upward direction, the top structure being configured for coupling with a support structure for at least one solar panel, in particular a support rail of a support structure for at least one solar panel, wherein the base element , the at least one first leg and the at least one second leg together define a receiving space for receiving at least part of a crest of at least one corrugated roof plate, and wherein the first leg and the second leg are each configured to engage opposing valley regions of the corrugated roof plate extending from said crest of the corrugated roof plate, such that fastening of the device onto said corrugated roof by means of said fastening element, in particular said fastening screw, will cause deformation of both the at least one first leg and the at least one second leg leading to a biased coaction between each leg and a supporting valley region of the corrugated roof plate, wherein the first leg has a first outer end portion (A) and the second leg has a second outer end portion (B), wherein the first outer end portion (A) and the second outer end portion (B) are configured to engage said opposing valley regions of the corrugated roof plate and wherein the first outer end portion and the second outer end portion are at least partially curved, wherein the at least one first leg and the at least one second leg diverge away from each other, such that both legs extend in a substantially outward direction. - at least one base element comprising at least one aperture for receiving at least part of at least one fastening element, in particular a fastening screw, for fixing the device onto a corrugated roof; - at least one, at least partially resilient, first leg which is connected to the base element ; - at least one, at least partially resilient, second leg which is connected to the base element , wherein the at least one second leg substantially opposes the at least one first leg , and - at least one top structure connected to the base element , wherein the top structure extends from the base element in upward direction, the top structure being configured for coupling with a support structure for at least one solar panel, in particular a support rail of a support structure for at least one solar panel,
A method for managing supplementary functions of a tool , comprising the following method steps: - selecting at least one deactivated supplementary function of the tool and determining at least one function identifier that is assigned to the at least one deactivated supplementary function , - determining a tool identifier that individually and uniquely defines the tool , - transmitting the tool identifier and the at least one function identifier to a function management device , - transmitting an activation dataset from the function management device to the tool , - activating the at least one deactivated supplementary function on the tool by means of the activation dataset , wherein the activation dataset is individualized with regard to the tool , such that the at least one supplementary function can be activated by means of the activation dataset exclusively on the tool that is uniquely assigned to the tool identifier . - selecting at least one deactivated supplementary function of the tool and determining at least one function identifier that is assigned to the at least one deactivated supplementary function , - determining a tool identifier that individually and uniquely defines the tool , - transmitting the tool identifier and the at least one function identifier to a function management device , - transmitting an activation dataset from the function management device to the tool , - activating the at least one deactivated supplementary function on the tool by means of the activation dataset ,
An LED lighting assembly for a vehicle headlight comprising: a reflector unit comprising a plurality of reflector regions (1 1_lo, 11_hi) and an aperture ; an LED carrier disposed in the aperture of the reflector unit ; at least one LED arrangement (2_lo, 2_hi) on the LED carrier , the at least one LED arrangement (2_lo, 2_hi) having an optical center (C); and a first positioning part on the LED carrier and a second positioning part on the reflector unit , wherein the aperture is dimensioned to allow the LED carrier to be arranged in the aperture of the reflector unit with a forward movement (d fore ) to insert the LED carrier through the aperture and a further sideways displacement (d side ) perpendicular to the forward movement (d fore ) direction of the LED carrier to initially align the first and second positioning parts , wherein the first positioning part and the second positioning part being complimentary to position the LED carrier relative to the reflector unit , the first positioning part and the second positioning part being in the same plane as the optical centre (C) of the LED arrangement (2_lo, 2_hi). a reflector unit comprising a plurality of reflector regions (1 1_lo, 11_hi) and an aperture ; an LED carrier disposed in the aperture of the reflector unit ; at least one LED arrangement (2_lo, 2_hi) on the LED carrier , the at least one LED arrangement (2_lo, 2_hi) having an optical center (C); and a first positioning part on the LED carrier and a second positioning part on the reflector unit , wherein the aperture is dimensioned to allow the LED carrier to be arranged in the aperture of the reflector unit with a forward movement (d fore ) to insert the LED carrier through the aperture and a further sideways displacement (d side ) perpendicular to the forward movement (d fore ) direction of the LED carrier to initially align the first and second positioning parts , wherein the first positioning part and the second positioning part being complimentary to position the LED carrier relative to the reflector unit , the first positioning part and the second positioning part being in the same plane as the optical centre (C) of the LED arrangement (2_lo, 2_hi).
A gas burner membrane for use with pure hydrogen gas or a hydrogen blend gas which includes at least 30 vol. % hydrogen gas, the gas burner membrane comprising a sheet of material with a plurality of holes , and wherein a ceramic coating is provided on the sheet of material.
A method comprising: periodically receiving, by an access point device , a time signal from a control panel device and using the time signal to synchronize with the control panel device; and periodically transmitting, by the access point device , a wireless beacon that includes a starting point of a temporal pattern alarm cadence and a timestamp of the access point device to a sensor device for use by the sensor device to synchronize with the access point device by calculating a current phase of the temporal pattern alarm cadence by calculating a gap between the starting point of the temporal pattern alarm cadence and a time of a local clock of the sensor device . periodically receiving, by an access point device , a time signal from a control panel device and using the time signal to synchronize with the control panel device; and periodically transmitting, by the access point device , a wireless beacon that includes a starting point of a temporal pattern alarm cadence and a timestamp of the access point device to a sensor device for use by the sensor device to synchronize with the access point device by calculating a current phase of the temporal pattern alarm cadence by calculating a gap between the starting point of the temporal pattern alarm cadence and a time of a local clock of the sensor device .
A turbine for a gas turbine engine, the turbine having a plurality of rotor assemblies and characterised by comprising: gamma TiAl intermetallic alloy blades included in at least two of the plurality of rotor assemblies; and hybrid vanes comprising TiAl intermetallic airfoils bonded to metallic attachment and mounting features, wherein the at least two rotor assemblies have a maximum operating temperature over 1180°F (638°C); and the metallic attachment features include nickel base alloys. gamma TiAl intermetallic alloy blades included in at least two of the plurality of rotor assemblies; and hybrid vanes comprising TiAl intermetallic airfoils bonded to metallic attachment and mounting features, wherein the at least two rotor assemblies have a maximum operating temperature over 1180°F (638°C); and the metallic attachment features include nickel base alloys.
A method for partially treating the surface or the entire cross-section of a wood composite board or a pre-compacted wood composite fleece or wood fibre cake by means of a combined application and pressure impregnation device, featuring the following steps: a) fixing the wood composite board or the pre-compacted wood composite fleece or the wood fibre cake to a workbench , b) placing at least one application unit on the upper side and/or the underside of the wood composite board , the wood composite fleece or the wood fibre cake , c) selectively moving the at least one application unit on the upper side and/or underside and pressing in an improving medium in a quantity of up to 1 to 2 kg/m 2 to completely impregnate the wood composite board , the wood composite fleece or the wood fibre cake under a predetermined pressure, d) where applicable, subsequently pressing the pre-compacted wood composite fleece or the wood fibre cake to produce a wood composite board of the desired strength. a) fixing the wood composite board or the pre-compacted wood composite fleece or the wood fibre cake to a workbench , b) placing at least one application unit on the upper side and/or the underside of the wood composite board , the wood composite fleece or the wood fibre cake , c) selectively moving the at least one application unit on the upper side and/or underside and pressing in an improving medium in a quantity of up to 1 to 2 kg/m 2 to completely impregnate the wood composite board , the wood composite fleece or the wood fibre cake under a predetermined pressure, d) where applicable, subsequently pressing the pre-compacted wood composite fleece or the wood fibre cake to produce a wood composite board of the desired strength.
A highly conductive and printable ink, comprising: (i) 5 to 40 vol% of conductive hydrophobic silver particles, with respect to the total volume of ink, as conductive solid phase, (ii) a liquid primary phase comprising, as a polymer base, a cross-linkable hydrophobic polydimethylsiloxane (PDMS) which is capable to become an elastomer by cross-linking, and further including a cross-linker in an amount of 1 to 10 vol% and a catalyst solution in an amount of 0.01 to 5 vol%, with respect to the PDMS base, and (iii) a liquid secondary phase based on an ionic liquid, with a volume ratio ρ of 0.01 to 0.2 between liquid secondary phase and conductive solid phase, wherein the liquid secondary phase is immiscible with the liquid primary phase and does not wet the conductive solid phase, so that the three-phase system creates a capillary suspension. (i) 5 to 40 vol% of conductive hydrophobic silver particles, with respect to the total volume of ink, as conductive solid phase, (ii) a liquid primary phase comprising, as a polymer base, a cross-linkable hydrophobic polydimethylsiloxane (PDMS) which is capable to become an elastomer by cross-linking, and further including a cross-linker in an amount of 1 to 10 vol% and a catalyst solution in an amount of 0.01 to 5 vol%, with respect to the PDMS base, and (iii) a liquid secondary phase based on an ionic liquid, with a volume ratio ρ of 0.01 to 0.2 between liquid secondary phase and conductive solid phase,
A polymer composition comprising (A) a polypropylene, (B1) a first copolymer of ethylene and α-olefin having a density of 0.891 to 0.912 g/cm 3 as measured according to ASTM D792-13, (B2) a second copolymer of ethylene and α-olefin having a density in the range of 0.859 to 0.881 g/cm 3 as measured according to ASTM D792-13, wherein the amount of (A) the polypropylene is in the range from 71 to 87 wt% based on the total amount of the polymer composition, wherein the ratio between the amount of the (B2) second copolymer of ethylene and α-olefin and the amount of the (B1) first copolymer of ethylene and α-olefin is in the range from 3.8 to 1.0.