mhurhangee/ep-ind-claims huggingface dataset:
A multi-layer polyolefin porous membrane comprising at least two or more layers, the multi-layer polyolefin porous membrane having a rate of increase in air permeation resistance from 30°C to 105°C scaled to 20 μm thickness not more than 1.5 sec/100 cm 3 (cc) Air /°C, and a thickness not more than 20 μm; wherein protrusions of polyolefin, which are counted when having a size W within a range of 5 μm ≤ W ≤ 50 μm and a height H within a range of 0.5 μm ≤ H ≤ 3.0 μm, are randomly disposed on one side of the multi-layer polyolefin porous membrane in a density not less than 3/cm 2 and not more than 200/cm 2.
A lubricant composition comprising a lubricant base oil and a sulfur-based extreme pressure agent, wherein the amount of active sulfur in the extreme pressure agent is from 5% to 30% by weight, and the content of the extreme pressure agent in the composition is from 5% to 15% by weight based on the total weight of the lubricant composition, and the lubricant base oil has a kinematic viscosity at 100 °C of 3 to 40 mm 2 /s, wherein the amount of active sulfur is measured according to ASTM D1662 and the kinematic viscosity at 100 °C is measured according to ASTM D445. the amount of active sulfur in the extreme pressure agent is from 5% to 30% by weight, and the content of the extreme pressure agent in the composition is from 5% to 15% by weight based on the total weight of the lubricant composition, and the lubricant base oil has a kinematic viscosity at 100 °C of 3 to 40 mm 2 /s, wherein the amount of active sulfur is measured according to ASTM D1662 and the kinematic viscosity at 100 °C is measured according to ASTM D445. the amount of active sulfur is measured according to ASTM D1662 and the kinematic viscosity at 100 °C is measured according to ASTM D445.
Opto-electronic dual-comb interferometric distance measuring method for measuring a distance to a target with • generating first frequency comb radiation - denoted local comb - and • generating second frequency comb radiation - denoted signal comb - • generating of first beat frequencies -denoted reference beat frequencies - by superposing of a local comb and signal comb having travelled along defined optical paths, • generating of second beat frequencies -denoted measurement beat frequencies - by superposing of local comb having travelled along a defined optical path and signal comb having travelled to and back from the target as a free beam from an emission position, • determining of first phase differences, in particular in form of a first gradient of phase difference, between the reference beat frequencies and the measurement beat frequencies, characterized by • chromatically dividing signal comb into a target signal comb and a non-target signal comb at the emission position, only the target signal comb serving as said free beam emitted to the target, • generating of third beat frequencies -denoted compensation beat frequencies - by superposing of local comb having travelled along a defined optical path and the non-target signal comb, • determining of second phase differences, in particular in form of a second gradient of phase difference, between the reference beat frequencies and the compensation beat frequencies, and • determining the distance to the target based on the first and the second phase difference (PA, PB). • generating first frequency comb radiation - denoted local comb - and • generating second frequency comb radiation - denoted signal comb - • generating of first beat frequencies -denoted reference beat frequencies - by superposing of a local comb and signal comb having travelled along defined optical paths, • generating of second beat frequencies -denoted measurement beat frequencies - by superposing of local comb having travelled along a defined optical path and signal comb having travelled to and back from the target as a free beam from an emission position, • determining of first phase differences, in particular in form of a first gradient of phase difference, between the reference beat frequencies and the measurement beat frequencies, characterized by • chromatically dividing signal comb into a target signal comb and a non-target signal comb at the emission position, only the target signal comb serving as said free beam emitted to the target, • generating of third beat frequencies -denoted compensation beat frequencies - by superposing of local comb having travelled along a defined optical path and the non-target signal comb, • determining of second phase differences, in particular in form of a second gradient of phase difference, between the reference beat frequencies and the compensation beat frequencies, and • determining the distance to the target based on the first and the second phase difference (PA, PB).
A method for forming a part, the method comprising: forming a first portion (2, 102) of the part (1, 100) at a first level; forming a second portion (4, 104) of the part at a second level; wherein forming the first and second portions (2, 102, 4, 104) includes exposing the first and second levels to a sintering process and portions of the first and second levels to an electron beam; forming a wire in a passage (6, 106) formed inside the first and second portions (2, 102, 4, 104) by exposing a portion of the passage (6, 106) to the electron beam; causing a magnetorheological fluid to move into the passage inside the first and second portions (2, 102, 4, 104); applying a current to the wire which creates a magnetic field causing motion of particles in the magnetorheological fluid to move and break up sintered material in the passage; and removing some or all of the sintered material in the passage. forming a first portion (2, 102) of the part (1, 100) at a first level; forming a second portion (4, 104) of the part at a second level; wherein forming the first and second portions (2, 102, 4, 104) includes exposing the first and second levels to a sintering process and portions of the first and second levels to an electron beam; forming a wire in a passage (6, 106) formed inside the first and second portions (2, 102, 4, 104) by exposing a portion of the passage (6, 106) to the electron beam; causing a magnetorheological fluid to move into the passage inside the first and second portions (2, 102, 4, 104); applying a current to the wire which creates a magnetic field causing motion of particles in the magnetorheological fluid to move and break up sintered material in the passage; and removing some or all of the sintered material in the passage.
A method for a user equipment, UE, to transmit control information via a physical uplink control channel, PUCCH, in a wireless communication system, the method comprising: modulating the control information to generate N 1 modulation symbols, wherein N 1 is twice of a number of subcarriers in one resource block, RB; circularly shifting and then fourier transforming the first N 1 /2 modulation symbols of the N 1 modulation symbols to generate first complex-valued symbols; circularly shifting and then fourier transforming the second N 1 /2 modulation symbols of the N 1 modulation symbols to generate second complex-valued symbols; and transmitting the first complex-valued symbols via first single carrier frequency division multiple access, SC-FDMA, symbols for the PUCCH in a 1 st slot of a subframe, and the second complex-valued symbols via second SC-FDMA symbols for the PUCCH in a 2 nd slot of the subframe, wherein circular shift values for the first N 1 /2 and second N 1 /2 modulation symbols are determined per respective SC-FDMA symbols where the first N 1 /2 and second N 1 /2 modulation symbols are transmitted, wherein each of the first SC-FDMA symbols includes a product of the first N 1 /2 modulation symbols and a respective element of a first orthogonal code, and each of the second SC-FDMA symbols includes a product of the second N 1 /2 modulation symbols and a respective element of a second orthogonal code. modulating the control information to generate N 1 modulation symbols, wherein N 1 is twice of a number of subcarriers in one resource block, RB; circularly shifting and then fourier transforming the first N 1 /2 modulation symbols of the N 1 modulation symbols to generate first complex-valued symbols; circularly shifting and then fourier transforming the second N 1 /2 modulation symbols of the N 1 modulation symbols to generate second complex-valued symbols; and transmitting the first complex-valued symbols via first single carrier frequency division multiple access, SC-FDMA, symbols for the PUCCH in a 1 st slot of a subframe, and the second complex-valued symbols via second SC-FDMA symbols for the PUCCH in a 2 nd slot of the subframe, wherein circular shift values for the first N 1 /2 and second N 1 /2 modulation symbols are determined per respective SC-FDMA symbols where the first N 1 /2 and second N 1 /2 modulation symbols are transmitted, wherein each of the first SC-FDMA symbols includes a product of the first N 1 /2 modulation symbols and a respective element of a first orthogonal code, and each of the second SC-FDMA symbols includes a product of the second N 1 /2 modulation symbols and a respective element of a second orthogonal code.
A process for improving weavability of a yarn made from natural animal fibers, vegetable fibers, man made synthetic polymer fibers and/or man made artificial polymer fibers, used at pure state or blended together, comprising the steps of: - providing a yarn made of natural animal fibers, vegetable fibers, man made synthetic polymer fibers and/or man made artificial polymer fibers, used at pure state or blended together; - preparing a sizing solution comprising a composition of chitosan and/or derivatives thereof as a reinforcement product; - sizing said yarn with said sizing solution to apply said reinforcement product to the fibers of said yarn by at least partial impregnation and/or coating, to increase weavability of said yarn for later weaving as a weft and/or warp yarn or for knitting, wherein said sizing step is followed by crosslinking of the chitosan of said reinforcement product applied to the fibers of said yarn after sizing, such that a crosslinked reinforcement polymer is obtained from said chitosan, which is adapted to be permanently anchored to the fibers of said yarn, characterized in that it comprises a desizing step, providing partial and calibrated removal of said crosslinked chitosan-derived reinforcement product anchored to the fibers of said yarn, from such fibers of said yarn. - providing a yarn made of natural animal fibers, vegetable fibers, man made synthetic polymer fibers and/or man made artificial polymer fibers, used at pure state or blended together; - preparing a sizing solution comprising a composition of chitosan and/or derivatives thereof as a reinforcement product; - sizing said yarn with said sizing solution to apply said reinforcement product to the fibers of said yarn by at least partial impregnation and/or coating, to increase weavability of said yarn for later weaving as a weft and/or warp yarn or for knitting,
A coating composition, comprising: an aqueous medium; a first polymer comprising first core-shell particles dispersed in the aqueous medium, wherein the first core-shell particles comprise (i) keto and/or aldo functional groups, (ii) a polymeric shell comprising carboxylic acid functional groups and urethane and/or urea linkages, and (iii) a polymeric core at least partially encapsulated by the polymeric shell, wherein the polymeric shell and/or the polymeric core comprise the keto and/or aldo functional groups; a second polymer dispersed in the aqueous medium, the second polymer comprising carboxylic acid functional groups and hydroxyl functional groups; a first crosslinker comprising a polyhydrazide reactive with the first core-shell particles; and a second crosslinker reactive with the first core-shell particles and/or the second polymer, wherein the polymeric core of the first core-shell particles are covalently bonded to at least a portion of the corresponding polymeric shell. an aqueous medium; a first polymer comprising first core-shell particles dispersed in the aqueous medium, wherein the first core-shell particles comprise (i) keto and/or aldo functional groups, (ii) a polymeric shell comprising carboxylic acid functional groups and urethane and/or urea linkages, and (iii) a polymeric core at least partially encapsulated by the polymeric shell, wherein the polymeric shell and/or the polymeric core comprise the keto and/or aldo functional groups; a second polymer dispersed in the aqueous medium, the second polymer comprising carboxylic acid functional groups and hydroxyl functional groups; a first crosslinker comprising a polyhydrazide reactive with the first core-shell particles; and a second crosslinker reactive with the first core-shell particles and/or the second polymer, wherein the polymeric core of the first core-shell particles are covalently bonded to at least a portion of the corresponding polymeric shell.
An in-mold foaming molded product containing a thin wall part, each of the in-mold foaming molded product and the thin wall part comprising expanded polypropylene resin particles, the expanded polypropylene resin particles including a polypropylene resin composition that contains an aliphatic diethanolamine fatty acid ester and an aliphatic diethanolamine in a total amount of not less than 0.1 part by weight but not greater than 5 parts by weight with respect to 100 parts by weight of polypropylene resin.
A method for manufacturing parts made from a metal sheet comprising a substrate whereof at least one face is coated with a zinc-based metal coating, the method comprising at least the following steps: - providing the substrate, - cold rolling the substrate, during which step at least the last cold rolling pass is done with work cylinders whose work surface have a roughness Ra 2.5 of less than or equal to 3.6 μm, - recrystallization annealing of the cold rolled substrate, - skin-pass of the annealed substrate, - deposition of the metal coating, on at least one face of the annealed substrate, by electrodeposition to form the metal sheet, - cutting the metal sheet, and - deforming the cut metal sheet to form the parts, the outer surface of the metal coating having a waviness Wa 0.8 of less than or equal to 0.5 μm after the deformation step. - providing the substrate, - cold rolling the substrate, during which step at least the last cold rolling pass is done with work cylinders whose work surface have a roughness Ra 2.5 of less than or equal to 3.6 μm, - recrystallization annealing of the cold rolled substrate, - skin-pass of the annealed substrate, - deposition of the metal coating, on at least one face of the annealed substrate, by electrodeposition to form the metal sheet, - cutting the metal sheet, and - deforming the cut metal sheet to form the parts, the outer surface of the metal coating having a waviness Wa 0.8 of less than or equal to 0.5 μm after the deformation step.
A method of wireless communication at a user equipment, UE, comprising: receiving downlink data or transmitting uplink data associated with a service type, wherein the service type includes signaling type, latency requirement, signal channel quality, bandwidth, operator policies regarding which applications and services are allowed to be moved from long DRX and short DRX and from short DRX to long DRX; determining whether to transition between short and long discontinuous reception, DRX, cycles based at least in part on the service type; and transitioning between short and long DRX cycles based at least in part on the determination. receiving downlink data or transmitting uplink data associated with a service type, wherein the service type includes signaling type, latency requirement, signal channel quality, bandwidth, operator policies regarding which applications and services are allowed to be moved from long DRX and short DRX and from short DRX to long DRX; determining whether to transition between short and long discontinuous reception, DRX, cycles based at least in part on the service type; and transitioning between short and long DRX cycles based at least in part on the determination.
A saddle-ride-type vehicle with a leg shield structure, the saddle-ride-type vehicle comprising: a seat on which a rider sits; and a leg shield (11, 12B, 13C) which is arranged in front of the seat and covers a leg portion of the rider from a front side, the leg shield (11, 12B, 13C) including a coated surface portion to which coating is applied and a colored surface portion (18, 19) where a ground of a raw material is exposed, wherein the leg shield (11, 12B, 13C) is constituted of an outer leg shield which includes the coated surface portion, and an inner leg shield (12B, 13C) which includes the colored surface portion (18, 19), is arranged behind the outer leg shield and has a front portion thereof arranged more inside in the vehicle widthwise direction than the outer leg shield, a rear portion of the inner leg shield (12B, 13C) is arranged more outside in the vehicle widthwise direction than the outer leg shield thus forming a bumper portion, wherein the bumper portion of the inner leg shield (12B, 13C) includes a middle bumper portion which extends in a substantially straight line in the vertical direction of the vehicle, characterized in that the bumper portion of the inner leg shield (12B, 13C) further includes an upper bumper portion which is connected to an upper rear end of the middle bumper portion and extends outward in the vehicle widthwise direction as the upper bumper portion extends toward an upper side of the vehicle.
A process for the production of adducts of formula comprising the reaction in water or aqueous solvent of a proteic hydrolysate or gelatin of formula and/or of mixtures thereof of formula IpNH 2 with a compound of formula R-(OCH 2 CH 2) x -OR wherein represent Ip the aminoacidic, peptidic or polypeptidic residue of the proteic hydrolysate or gelatin, wherein said hydrolysate and/or gelatin are obtained from by-products and/or waste and/or residues coming from the tanning industry obtained before and after the tanning phase or from by-products and/or products of vegetal origin, agro-industrial scraps, by-products and/or products of animal origin; Z -H or -R'- (OCH 2 CH 2) x -O-R; x an integer selected by the class formed by the integers 3, 9 or 13; R R' Ip the aminoacidic, peptidic or polypeptidic residue of the proteic hydrolysate or gelatin, wherein said hydrolysate and/or gelatin are obtained from by-products and/or waste and/or residues coming from the tanning industry obtained before and after the tanning phase or from by-products and/or products of vegetal origin, agro-industrial scraps, by-products and/or products of animal origin; Z -H or -R'- (OCH 2 CH 2) x -O-R; x an integer selected by the class formed by the integers 3, 9 or 13; R R'
A construction machine comprising an undercarriage, an upper structure disposed on the undercarriage, a work device attached to the upper structure, and an operator's cab provided on the upper structure and having a single piece door capable of opening and closing an opening forming a boarding port, the operator's cab including a front pillar and a door mounting pillar which are provided to put the boarding port therebetween, the front pillar being disposed on the work device side, the door being rotatably attached to the door mounting pillar, the construction machine being characterized in that: the operator's cab includes a step which is arranged in a lower position than a floor of the operator's cab and is provided with a protruding portion protruding outward from the opening; the door includes a curved portion, an end portion (5b3), and a convex portion; the curved portion is positioned closer to the front pillar than a center portion of the door when the door is in a closed state; the curved portion includes a first area (5b1) which is formed so that, when the door is in a closed state, the first area (5b1) approaches the opening as the first area (5b1) approaches the front pillar, and a second area (5b2) which is arranged continuously with the first area (5b1) and nearer the front pillar than the first area (5b1) and which is formed so that the second area (5b2) draws away from the opening as the second area (5b2) approaches the front pillar; the end portion (5b3) is extended from the second area (5b2) toward an opposite side of the first area (5b1); the convex portion is positioned, when the door is closed, on an outside of the protruding portion so that the step is positioned within the operator's cab; the front pillar includes a recess portion which receives the end portion (5b3) when the door is closed. the operator's cab includes a step which is arranged in a lower position than a floor of the operator's cab and is provided with a protruding portion protruding outward from the opening; the door includes a curved portion, an end portion (5b3), and a convex portion; the curved portion is positioned closer to the front pillar than a center portion of the door when the door is in a closed state; the curved portion includes a first area (5b1) which is formed so that, when the door is in a closed state, the first area (5b1) approaches the opening as the first area (5b1) approaches the front pillar, and a second area (5b2) which is arranged continuously with the first area (5b1) and nearer the front pillar than the first area (5b1) and which is formed so that the second area (5b2) draws away from the opening as the second area (5b2) approaches the front pillar; the end portion (5b3) is extended from the second area (5b2) toward an opposite side of the first area (5b1); the convex portion is positioned, when the door is closed, on an outside of the protruding portion so that the step is positioned within the operator's cab; the front pillar includes a recess portion which receives the end portion (5b3) when the door is closed.
A system for producing a custom intraocular lens for a patient, the system comprising: a memory configured to store a first database of lifestyle parameters, a second database of eye factors, and a third database of multifocal intraocular lenses; a processor coupled to the memory and configured to: determine an add power based on the first database and the second database; characterised in that the processor is configured to select the custom intraocular lens from the third database based on the add power and a treatment to an eye, the treatment subsequent to an insertion of the custom intraocular lens into the eye, wherein the eye with the custom intraocular lens has a refraction, and wherein the treatment comprises an adjustment to the refraction comprising a laser assisted refractive ophthalmic surgery. a memory configured to store a first database of lifestyle parameters, a second database of eye factors, and a third database of multifocal intraocular lenses; a processor coupled to the memory and configured to: determine an add power based on the first database and the second database; characterised in that the processor is configured to select the custom intraocular lens from the third database based on the add power and determine an add power based on the first database and the second database; characterised in that the processor is configured to select the custom intraocular lens from the third database based on the add power and a treatment to an eye, the treatment subsequent to an insertion of the custom intraocular lens into the eye, wherein the eye with the custom intraocular lens has a refraction, and wherein the treatment comprises an adjustment to the refraction comprising a laser assisted refractive ophthalmic surgery.