mhurhangee/ep-ind-claims huggingface dataset:
An absorbent article comprising: a mineral oil; a hydrophobic nonwoven substrate disposed adjacent to the mineral oil; and a coating composition comprising a polyether-modified trialkoxysilane disposed on the nonwoven substrate, a wetting agent and citric acid wherein the coated nonwoven substrate has a Residue on Cuff value less than 0.002 g/m 2 and wherein the polyether moiety of the amino-polyether-modified trialkoxysilane has an average structure CH 2 CHCH 2 (OCH 2 CH 2) 6.9 OCH 2 CH CH 2 and wherein the mineral oil is a component of a hot melt adhesive. a mineral oil; a hydrophobic nonwoven substrate disposed adjacent to the mineral oil; and a coating composition comprising a polyether-modified trialkoxysilane disposed on the nonwoven substrate, a wetting agent and citric acid
A chewing gum base comprising: 1 to 30 wt. % TKS rubber, a resin that is present in an amount up to about 40% by weight, the resin comprising terpene resin, about 5 to about 35 wt. % softener selected from the group consisting of tallow, hydrogenated tallow, hydrogenated and partially hydrogenated vegetable oils, cocoa butter paraffin wax, microcrystalline wax, natural waxes and combinations thereof 0 to 20 wt. % synthetic elastomer, 0 to 20 wt. % natural elastomer other than TKS rubber, about 0 to about 35 wt. % filler, 0 to 5 wt. % emulsifier, and 0 to 40 wt. % hydrophilic modifier. 1 to 30 wt. % TKS rubber, a resin that is present in an amount up to about 40% by weight, the resin comprising terpene resin, about 5 to about 35 wt. % softener selected from the group consisting of tallow, hydrogenated tallow, hydrogenated and partially hydrogenated vegetable oils, cocoa butter paraffin wax, microcrystalline wax, natural waxes and combinations thereof 0 to 20 wt. % synthetic elastomer, 0 to 20 wt. % natural elastomer other than TKS rubber, about 0 to about 35 wt. % filler, 0 to 5 wt. % emulsifier, and 0 to 40 wt. % hydrophilic modifier.
A wrappable textile sleeve, comprising: an elongate wall extending along a longitudinal axis between opposite ends (18, 20) with lengthwise extending edges (22, 24) extending along said longitudinal axis between said opposite ends (18, 20); characterised in that said wall including an inner textile layer, a polymeric film layer fixed to said inner textile layer and a metal foil layer fixed to said polymeric film layer; and said polymeric film layer having a first thickness and said metal foil layer having a second thickness, said second thickness being greater than said first thickness. an elongate wall extending along a longitudinal axis between opposite ends (18, 20) with lengthwise extending edges (22, 24) extending along said longitudinal axis between said opposite ends (18, 20); characterised in that said wall including an inner textile layer, a polymeric film layer fixed to said inner textile layer and a metal foil layer fixed to said polymeric film layer; and said polymeric film layer having a first thickness and said metal foil layer having a second thickness, said second thickness being greater than said first thickness.
A friction element comprising a conical bearing surface, to which a friction material in the form of a strip comprising a resin or an adhesive is preferably adhered under pressure and at an elevated temperature, wherein the friction material has a base body in the form of a strip, which has a length and a width, and wherein the strip has a plurality of slits, which extend only across a partial area of the width of the strip, characterized in that the adhesion of the strip with the conical bearing surface was carried out at a temperature of below the melting temperature of the resin, so that the slits, which widen as a result of the conicity of the baring surface when arranging the friction material on this bearing surface in the area of an outer edge of the strip, close again, so that the cutting edges of the slits are in each case embodied so as to abut.
A defoaming ingredient for incorporation into a detergent composition, the ingredient comprising: (i) a monoester of glycerol and an unsaturated fatty acid sorbed by, (ii) a porous carrier material having a median pore diameter from 3x10 -4 micrometers to 5x10 -3 micrometers and wherein a 1wt% solution of the porous carrier material in distilled water at a temperature of 25°C has a pH in the range from 6.5 to 8.5. (i) a monoester of glycerol and an unsaturated fatty acid sorbed by, (ii) a porous carrier material having a median pore diameter from 3x10 -4 micrometers to 5x10 -3 micrometers and wherein a 1wt% solution of the porous carrier material in distilled water at a temperature of 25°C has a pH in the range from 6.5 to 8.5.
System for controlling the torque developed by an electric motor of a first vehicle, the first vehicle being linked to a second vehicle via a traction member, the first vehicle comprising an electric battery linked to the electric motor, the second vehicle pulling the first vehicle, the method comprising a step of measurement of a longitudinal force F1 exerted by the traction member on the first vehicle, a step of measurement of the longitudinal speed V1 of the first vehicle and a step of transmission to the electric motor of a calculated torque setpoint Tq1c, characterized in that the method further comprises the following steps: • measurement of the instantaneous electrical power Pe1 supplied by the electric battery of the first vehicle; • calculation of the torque setpoint Tq1c to be developed by the electric motor, as a function at least of the measured longitudinal force F1m, of the measured longitudinal speed V1m and of the measured electrical power Pe1m, said calculation comprising the calculation of a longitudinal force setpoint value F1c from the measured longitudinal speed value V1m, from the measured electrical power value Pe1m and from an instantaneous electrical power setpoint value Pe1c, then the calculation of the torque setpoint value Tq1c from the measured longitudinal force value F1m and from the calculated longitudinal force setpoint value F1c; and • transmission to the electric motor of the calculated torque setpoint Tq1c. • measurement of the instantaneous electrical power Pe1 supplied by the electric battery of the first vehicle; • calculation of the torque setpoint Tq1c to be developed by the electric motor, as a function at least of the measured longitudinal force F1m, of the measured longitudinal speed V1m and of the measured electrical power Pe1m, said calculation comprising the calculation of a longitudinal force setpoint value F1c from the measured longitudinal speed value V1m, from the measured electrical power value Pe1m and from an instantaneous electrical power setpoint value Pe1c, then the calculation of the torque setpoint value Tq1c from the measured longitudinal force value F1m and from the calculated longitudinal force setpoint value F1c; and • transmission to the electric motor of the calculated torque setpoint Tq1c.
Installation comprising an engine module comprising a gas exhaust nozzle and an assembly comprising a structure and an exhaust pipe of which the inlet is positioned to collect the exhaust gases leaving the nozzle, the exhaust pipe being mounted isostatically in the structure, said exhaust pipe comprising a first end connected to said structure by at least four connecting rods (10a - 10b - 10c - 10d), thus setting four first degrees of freedom, and a second end connected to said structure by an attachment means that sets two second degrees of freedom, said connecting rods comprising a means (19, 18) for adjusting the length thereof, characterized in that the outlet of the nozzle fits into the first end of the pipe, while leaving play relative to said pipe over the entirety of its periphery.
A method for measuring an electric cross-talk effect in a laser diode array, wherein the laser diode array comprises a plurality of laser diodes including a first laser diode and a second laser diode; characterised by comprising: capturing, by an image sensor, a first image of a first laser spot of the first laser diode with the second laser diode being turned off; capturing, by the image sensor, a second image of a second laser spot of the first laser diode while switching on the second laser diode; determining, by image processing of the first image and the second image, a ratio of laser spot energy of the first laser spot and the second laser spot; and calculating, based on the determined ratio of laser spot energy, an ECT coupling coefficient associated with the ECT effect on the first laser diode by switching the second laser diode. capturing, by an image sensor, a first image of a first laser spot of the first laser diode with the second laser diode being turned off; capturing, by the image sensor, a second image of a second laser spot of the first laser diode while switching on the second laser diode; determining, by image processing of the first image and the second image, a ratio of laser spot energy of the first laser spot and the second laser spot; and calculating, based on the determined ratio of laser spot energy, an ECT coupling coefficient associated with the ECT effect on the first laser diode by switching the second laser diode.
Jack-up offshore platform, comprising a work deck supported by spud poles and adjustable in height above the water surface by jacks provided on the work deck and adapted to raise or lower the spud poles relative to the work deck, wherein at least one spud pole is provided with through-channels (23, 24) for the seawater from an upstream side of the spud pole to a downstream side of the spud pole, wherein the through-channels (23, 24) admit seawater when flowing seawater strikes against the spud poles via entrance openings (23a, 24a) located on an upstream side of the through-channels, after which this seawater flows in the through-channels (23, 24) to a downstream side of the spud pole and leaves the spud pole along this side via exit openings (23b, 24b) of the through-channels (23, 24).
An electrode comprising an electrode active material layer, wherein the electrode active material layer comprises: an electrode active material; polyvinylidene fluoride; and a conductive agent, wherein the conductive agent comprises a carbon nanotube structure in which 2 to 5,000 single-walled carbon nanotube units are bonded to each other, and the carbon nanotube structure is included in an amount of 0.01 wt% to 0.5 wt% in the electrode active material layer. an electrode active material; polyvinylidene fluoride; and a conductive agent, wherein the conductive agent comprises a carbon nanotube structure in which 2 to 5,000 single-walled carbon nanotube units are bonded to each other, and the carbon nanotube structure is included in an amount of 0.01 wt% to 0.5 wt% in the electrode active material layer.
Device for removing a layer of ice from a surface, comprising a holding element and an ice removal element attached to said holding element, the ice removal element comprising an ice-breaking element having at least one ice-breaking tooth (22a, 22b, 22c), and the at least one ice-breaking tooth (22a, 22b, 22c) having a front ice-breaking edge on the front face of the ice-breaking tooth (22a, 22b, 22c), the ice-breaking tooth (22a, 22b, 22c) having at least one step (26b, 26c, 26d) on the upper face thereof, on the front face (32b, 32c, 32d) of which step a further ice-breaking edge (28b, 28c, 28d) is formed, characterised in that at least one step (26b, 26c, 26d) has an ice-breaking edge (28b, 28c, 28d) which is obliquely oriented relative to an ice removal direction.
A crimp barrel comprising a base part and at least two deformable crimping wings in order to make a crimped connection with a wire, whereby the crimping wings each have a first zone connected to the base part, a second zone, and a middle zone situated between the first zone and the second zone, whereby the base part is thicker than the middle zone of the crimping wings, the first zone tapers (V1, V11, V12) from the base part towards the middle zone, at least on a first side, and the second zone tapers further starting from the middle zone, at least on a second side that is opposite from the first side, characterized in that the base part has a constant thickness in the uncurved state, and the first zone has at least a first sub-zone adjoining the base part and at least a second sub-zone adjoining the middle zone, whereby the tapering (V11, V12) in the first and second sub-zones (L1, L2) is of a different magnitude in the uncurved state, and whereby the first sub-zone adjoins the second sub-zone, and the tapering (V11, V12) in the first and second sub-zones (L1, L2) is configured linearly with a different gradient.
Gasket for sealing a rolling space of an anti-friction bearing, in particular a wheel bearing, having a securing ring which secures an elastic part, the elastic part having a branching sealing lip, which is provided for sealing contact with an element which can be rotated relative to the gasket, and a further sealing lip, the branching sealing lip branching into a first and a second sealing lip at a branching point which can be moved depending on lip abrasion, and the first sealing lip and the second sealing lip bearing with prestress against the rotatable element, characterized in that the further sealing lip is configured as a radial sealing lip, and in that the first sealing lip and the second sealing lip are axial sealing lips, and in that the branching sealing lip has a cylindrical, elastic segment between the branching point and the securing ring.
A hemostasis valve assembly for use in a medical device, the hemostasis valve assembly comprising: a main body portion defining an internal cavity; a seal cartridge disposed within the internal cavity; and a low pressure valve assembly positioned within the internal cavity adjacent to the seal cartridge, the low pressure valve assembly comprising: a first valve member including a first valve body having a proximal side, a distal side, and a thickness therebetween, the proximal side of the first valve member has an angled central region sloped towards a diametrical center; and a second valve member including a second valve body having a proximal side, a distal side, and a thickness therebetween, the distal side of the second valve member has an angled central region; wherein at least a portion of the distal side of the first valve member abuts at least a portion of the proximal side of the second valve member. a main body portion defining an internal cavity; a seal cartridge disposed within the internal cavity; and a low pressure valve assembly positioned within the internal cavity adjacent to the seal cartridge, the low pressure valve assembly comprising: a first valve member including a first valve body having a proximal side, a distal side, and a thickness therebetween, the proximal side of the first valve member has an angled central region sloped towards a diametrical center; and a second valve member including a second valve body having a proximal side, a distal side, and a thickness therebetween, the distal side of the second valve member has an angled central region; wherein at least a portion of the distal side of the first valve member abuts at least a portion of the proximal side of the second valve member. a first valve member including a first valve body having a proximal side, a distal side, and a thickness therebetween, the proximal side of the first valve member has an angled central region sloped towards a diametrical center; and a second valve member including a second valve body having a proximal side, a distal side, and a thickness therebetween, the distal side of the second valve member has an angled central region; wherein at least a portion of the distal side of the first valve member abuts at least a portion of the proximal side of the second valve member.
An inoculant for the manufacture of cast iron with spheroidal graphite, said inoculant comprises a particulate ferrosilicon alloy consisting of between 40 and 80 % by weight of Si; 0.02-8 % by weight of Ca; 0-5 % by weight of Sr; 0-12 % by weight of Ba; 0-15 % by weight of rare earth metal; 0-5 % by weight of Mg; 0.05-5 % by weight of Al; 0-10 % by weight of Mn; 0-10 % by weight of Ti; 0-10 % by weight of Zr; the balance being Fe and incidental impurities in the ordinary amount, wherein said inoculant additionally contains, by weight, based on the total weight of inoculant: 0.1 to 15 % of particulate Bi 2 S 3, and optionally between 0.1 and 15 % of particulate Bi 2 O 3, and/or between 0.1 and 15 % of particulate Sb 2 O 3, and/or between 0.1 and 15 % of particulate Sb 2 S 3, and/or between 0.1 and 5 % of one or more of particulate Fe 3 O 4, Fe 2 O 3, FeO, or a mixture thereof and/or between 0.1 and 5 % of one or more of particulate FeS, FeS 2, Fe 3 S 4, or a mixture thereof. 0.02-8 % by weight of Ca; 0-5 % by weight of Sr; 0-12 % by weight of Ba; 0-15 % by weight of rare earth metal; 0-5 % by weight of Mg; 0.05-5 % by weight of Al; 0-10 % by weight of Mn; 0-10 % by weight of Ti; 0-10 % by weight of Zr; the balance being Fe and incidental impurities in the ordinary amount, wherein said inoculant additionally contains, by weight, based on the total weight of inoculant: 0.1 to 15 % of particulate Bi 2 S 3, and optionally between 0.1 and 15 % of particulate Bi 2 O 3, and/or between 0.1 and 15 % of particulate Sb 2 O 3, and/or between 0.1 and 15 % of particulate Sb 2 S 3, and/or between 0.1 and 5 % of one or more of particulate Fe 3 O 4, Fe 2 O 3, FeO, or a mixture thereof and/or between 0.1 and 5 % of one or more of particulate FeS, FeS 2, Fe 3 S 4, or a mixture thereof. 0.1 to 15 % of particulate Bi 2 S 3, and optionally between 0.1 and 15 % of particulate Bi 2 O 3, and/or between 0.1 and 15 % of particulate Sb 2 O 3, and/or between 0.1 and 15 % of particulate Sb 2 S 3, and/or between 0.1 and 5 % of one or more of particulate Fe 3 O 4, Fe 2 O 3, FeO, or a mixture thereof and/or between 0.1 and 5 % of one or more of particulate FeS, FeS 2, Fe 3 S 4, or a mixture thereof.
A method comprising: towing (204,304) a plurality of seismic sources in connection with a survey of a geologic structure (62, 65, 68), wherein the plurality of seismic sources comprises three or more seismic sources; operating (208, 308) each of the plurality of seismic sources to fire a series of successive shots, the plurality of seismic sources being arranged to fire respective shots at substantially the same time, wherein each shot is associated with a frequency sweep; and varying (212, 312) phases of the associated frequency sweeps from shot to shot for each of the plurality of seismic sources according to a predetermined phase sequence to attenuate residual shot noise from one or more previous shots of the same seismic source, wherein shots fired by respective seismic sources at substantially the same time are associated with frequency sweeps, each having a different phase; receiving data acquired by sensors, the data representing energy sensed by the sensors resulting from source energy of the plurality of seismic sources firing shots interacting with a structure; and deconvolving the received data using a phase operator that represents the predetermined phase sequence and applying frequency-wave number filtering to the deconvolved data to separate noise in the energy sensed by the seismic sensors to be source separated, wherein varying the phases according to a predetermined phase sequence comprises varying the phases based at least in part on a predetermined residual shot noise shift. towing (204,304) a plurality of seismic sources in connection with a survey of a geologic structure (62, 65, 68), wherein the plurality of seismic sources comprises three or more seismic sources; operating (208, 308) each of the plurality of seismic sources to fire a series of successive shots, the plurality of seismic sources being arranged to fire respective shots at substantially the same time, wherein each shot is associated with a frequency sweep; and varying (212, 312) phases of the associated frequency sweeps from shot to shot for each of the plurality of seismic sources according to a predetermined phase sequence to attenuate residual shot noise from one or more previous shots of the same seismic source, wherein shots fired by respective seismic sources at substantially the same time are associated with frequency sweeps, each having a different phase; receiving data acquired by sensors, the data representing energy sensed by the sensors resulting from source energy of the plurality of seismic sources firing shots interacting with a structure; and deconvolving the received data using a phase operator that represents the predetermined phase sequence and applying frequency-wave number filtering to the deconvolved data to separate noise in the energy sensed by the seismic sensors to be source separated, wherein varying the phases according to a predetermined phase sequence comprises varying the phases based at least in part on a predetermined residual shot noise shift.
A water soluble unit dose article comprising at least one compartment, wherein the compartment comprises a composition, wherein the article comprises at least two films, wherein a first film and a second film are sealed together at a seal region to form the compartment wherein the compartment has a geometric centre point, and a first axis that runs from the geometric centre point to a point on the seal region and a second axis that runs from the geometric centre point to a point on the seal region and wherein the first and second axis are at an angle of 90° to one another and around which the shape of the seal region is symmetrical, characterised in that the seal region has a super-elliptical shape defining a substantially superelliptical shape of the compartment, wherein the shape of the seal region is defined by the following equation; | x a | n + | y b | n = 1 wherein n is greater than 2.0, and wherein a is the total length of the first axis and b is the total length of the second axis, and wherein x and y define a point on the seal region, where x is the distance from the geometric centre along a and y is the distance from the geometric centre along b.