mhurhangee/ep-ind-claims huggingface dataset:
A fastening tab for an absorbent article selected from diapers and incontinence briefs, the fastening tab comprising a proximal end and a distal end, said proximal end comprising a backing (30, 33) including a first major surface (31, 35) and a second major surface (32, 36), wherein said first major surface (31, 35) is provided with a release surface, wherein the fastening tab further comprises a mechanical fastening patch, said patch comprising on one side male fastening elements and on the opposite side an adhesive, wherein the patch is releasably attached to the release surface via the adhesive, said distal end comprising a backing (30, 38) including a first major surface (31, 37) and a second major surface (32, 38), wherein said first major surface (31, 37) has a structure or is provided with a structure that is adapted to be releasably engaged by said male fastening elements of the patch and wherein the fastening tab is configured and arranged, such that the force to disengage the male fastening elements from the engaging structure is higher than the force to detach the adhesive of the male fastening elements patch from the release surface and wherein the adhesive has a 90° peel adhesion to a polyethylene test surface having average surface roughness value Ra of about 1.4 μm and an average peak to valley height value Rz of about 12.5 μm greater than 5 N/25 mm, in particular equal to or greater than 6 N/25 mm, more particularly equal to or greater than 7 N/25mm as measured according to FINAT Test Method No. 2 "Peel Adhesion at 300 mm per minute, and wherein at least a portion of the proximal and distal ends (12, 14) of the tab can be folded onto the other end (12, 14) so that said male fastening elements can releasably engage said engaging-structure. said proximal end comprising a backing (30, 33) including a first major surface (31, 35) and a second major surface (32, 36), wherein said first major surface (31, 35) is provided with a release surface, wherein the fastening tab further comprises a mechanical fastening patch, said patch comprising on one side male fastening elements and on the opposite side an adhesive, wherein the patch is releasably attached to the release surface via the adhesive, said distal end comprising a backing (30, 38) including a first major surface (31, 37) and a second major surface (32, 38), wherein said first major surface (31, 37) has a structure or is provided with a structure that is adapted to be releasably engaged by said male fastening elements of the patch and
A process of selecting a patient for treatment with taselisib comprising: (a) treating a biological sample obtained from the patient with taselisib; and (b) detecting the depletion of p110 alpha protein; wherein (i) the depletion of p110 alpha protein in the biological sample identifies a patient who will respond to treatment with taselisib; (ii) depletion of p110 alpha protein indicates therapeutic responsiveness by a patient to the compound; and (iii) depletion of p110 alpha protein is measured by binding to an anti-pl 10 alpha antibody or depletion of p110 alpha protein is detected by mass spectroscopy. (a) treating a biological sample obtained from the patient with taselisib; and (b) detecting the depletion of p110 alpha protein; (i) the depletion of p110 alpha protein in the biological sample identifies a patient who will respond to treatment with taselisib; (ii) depletion of p110 alpha protein indicates therapeutic responsiveness by a patient to the compound; and (iii) depletion of p110 alpha protein is measured by binding to an anti-pl 10 alpha antibody or depletion of p110 alpha protein is detected by mass spectroscopy.
An aqueous coating composition having a PVC of from 78 to 85% comprising, based on the total volume solids of the dry coating unless otherwise stated, a) opacifying pigment particles comprising i) from 3 to 10% titanium dioxide ii) from 0 to 20% of hollow polymeric particles b) non-opacifying extender particles comprising i) calcium magnesium carbonate and/or ii) calcium carbonate and/or iii) nepheline syenite and/or iv) kaolin wherein i)+ii)+iii)+iv) = 40 to 80% and iv) is 0 to 20% c) polymer binder particles of calculated Fox Tg of from 5 to 25°C having an acid value of from 15 to 65mg KOH/g of polymer and wherein the polymer particles are derived from acrylic monomers and optionally further comprising styrene and/or its derivatives d) dispersant having a weight average molecular weight of at least 3500 Daltons and selected on the basis that the dispersant demand of a mixture of the opacifying pigment particles, other than the hollow polymeric particles, of a), and the extender particles of b) is greater than 0.35wt%, calculated on the weight of the titanium dioxide and extender particles e) fugitive coalescing solvent wherein the composition is free of non-fugitive coalescing solvent. a) opacifying pigment particles comprising i) from 3 to 10% titanium dioxide ii) from 0 to 20% of hollow polymeric particles i) from 3 to 10% titanium dioxide ii) from 0 to 20% of hollow polymeric particles b) non-opacifying extender particles comprising i) calcium magnesium carbonate and/or ii) calcium carbonate and/or iii) nepheline syenite and/or iv) kaolin wherein i)+ii)+iii)+iv) = 40 to 80% and iv) is 0 to 20% i) calcium magnesium carbonate and/or ii) calcium carbonate and/or iii) nepheline syenite and/or iv) kaolin c) polymer binder particles of calculated Fox Tg of from 5 to 25°C having an acid value of from 15 to 65mg KOH/g of polymer and wherein the polymer particles are derived from acrylic monomers and optionally further comprising styrene and/or its derivatives d) dispersant having a weight average molecular weight of at least 3500 Daltons and selected on the basis that the dispersant demand of a mixture of the opacifying pigment particles, other than the hollow polymeric particles, of a), and the extender particles of b) is greater than 0.35wt%, calculated on the weight of the titanium dioxide and extender particles e) fugitive coalescing solvent
Method for recovering heat and converting it into mechanical power in a drive system for motor vehicles, in which a working medium carried in a working medium circuit is evaporated with the aid of at least one evaporator (2, 3) integrated into the working medium circuit by means of waste heat from an internal combustion engine of the motor vehicle, the vapour generated being fed to an expansion machine (4; 4'), and the exhaust vapour from the expansion machine (4; 4') then being converted back into the liquid phase in at least one condenser, wherein at least one valve (17, 23), which can be subjected to open-loop and/or closed-loop control by means of an open-loop and/or closed-loop control device, and a vapour accumulator (21; 30) are integrated into the working medium circuit downstream of the at least one evaporator (2, 3) characterized in that when the motive power of the expansion machine (4; 4') coupled to the internal combustion engine is not required and/or the internal combustion engine is not being operated under power, the vapour generated is fed at least in part into the vapour accumulator (21; 30), wherein the vapour stored in the vapour accumulator (21; 30) is fed back at least in part into the working medium circuit, in order to drive the expansion machine (4; 4') if the motive power of the expansion machine (4; 4') is required and/or the internal combustion engine is being operated under power.
A breathing protector to be fitted in a tracheostoma, comprising; a housing with a distal part and a proximal part, a first opening at a distal end of the distal part, and a second opening at the proximal end of the breathing protector; a valve flap arranged at the first opening to closingly engage with a valve seat circumferentially of the first opening, said valve flap and valve seat creating a main valve being in an open position during inhalation and in a closed position during normal vegetative exhalation through the breathing protector; a spring member spring biasing the distal part (101, 201) in relation to the proximal part, to create a relief valve, being in a closed position during normal vegetative exhalation and transiting into an open position when the pressure in the trachea and thus the breathing protector exceeds a threshold value corresponding to a discomforting high pressure in the trachea; wherein the distal part comprises a lid, said lid comprising the first opening and being rotatable in the transversal plane of the breathing protector in relation to the valve flap, such that a free exhalation passage is obtained through the first opening in a free exhalation position.
A refrigerated storage container, comprising: a container housing defining an interior in which cargo is storable; a condenser configured to receive air to remove heat from a refrigerant passing through the condenser; first, second and third condenser air inlets (240 1-3) that are receptive of the air; a condenser air outlet configured to direct air exhausted from the condenser away from the condenser air inlets; and first, second and third reefer air outlets (242 1-3) configured to direct conditioned air exhausted from the interior toward the condenser air inlets, wherein the first, second and third condenser air inlets (240 1-3), the condenser air outlet and the first, second and third reefer air outlets (242 1-3) are disposed on an end wall of the container housing, and wherein the condenser air outlet is in a central region of the wall, the first and second condenser air inlets (240 1-2) are aside the central region, the third condenser air inlet (240 3) is below the central region, the first and second reefer air outlets (242 1-2) are outside the first and second condenser air inlets (240 1,2), and the third reefer air outlet (242 3) is below the third condenser air inlet (240 3). a container housing defining an interior in which cargo is storable; a condenser configured to receive air to remove heat from a refrigerant passing through the condenser; first, second and third condenser air inlets (240 1-3) that are receptive of the air; a condenser air outlet configured to direct air exhausted from the condenser away from the condenser air inlets; and first, second and third reefer air outlets (242 1-3) configured to direct conditioned air exhausted from the interior toward the condenser air inlets, wherein the first, second and third condenser air inlets (240 1-3), the condenser air outlet and the first, second and third reefer air outlets (242 1-3) are disposed on an end wall of the container housing, and wherein the condenser air outlet is in a central region of the wall, the first and second condenser air inlets (240 1-2) are aside the central region, the third condenser air inlet (240 3) is below the central region, the first and second reefer air outlets (242 1-2) are outside the first and second condenser air inlets (240 1,2), and the third reefer air outlet (242 3) is below the third condenser air inlet (240 3).
A cylinder lock having a cylinder core rotatable about a longitudinal axis in a cylinder housing, comprising a key channel for inserting a coded key, wherein the cylinder lock is designed - to assume a release state in which the rotation of the cylinder core relative to the cylinder housing is enabled, as well as - to assume a locking state in which the rotation of the cylinder core relative to the cylinder housing is blocked, characterized in that - a locking slide is provided, which ∘ is movable substantially parallel to the longitudinal axis in the cylinder core, and ∘ is guided on the inner circumference of the cylinder housing, - a locking element is provided, which is designed ∘ to positively connect the locking slide to the cylinder core in the locking state, and ∘ to release the locking slide from the cylinder core in the release state, and wherein - an electromechanical actuator arranged at least partially in the locking slide, for example an electric motor, is provided, which is designed to actuate the locking element such that it ∘ releases the locking slide from the cylinder core during the transition from the locking state to the release state, and preferably ∘ positively connects the locking slide to the cylinder core during the transition from the release state to the locking state. - to assume a release state in which the rotation of the cylinder core relative to the cylinder housing is enabled, as well as - to assume a locking state in which the rotation of the cylinder core relative to the cylinder housing is blocked, characterized in that - a locking slide is provided, which ∘ is movable substantially parallel to the longitudinal axis in the cylinder core, and ∘ is guided on the inner circumference of the cylinder housing, ∘ is movable substantially parallel to the longitudinal axis in the cylinder core, and ∘ is guided on the inner circumference of the cylinder housing, - a locking element is provided, which is designed ∘ to positively connect the locking slide to the cylinder core in the locking state, and ∘ to release the locking slide from the cylinder core in the release state, and wherein ∘ to positively connect the locking slide to the cylinder core in the locking state, and ∘ to release the locking slide from the cylinder core in the release state, and wherein - an electromechanical actuator arranged at least partially in the locking slide, for example an electric motor, is provided, which is designed to actuate the locking element such that it ∘ releases the locking slide from the cylinder core during the transition from the locking state to the release state, and preferably ∘ positively connects the locking slide to the cylinder core during the transition from the release state to the locking state. ∘ releases the locking slide from the cylinder core during the transition from the locking state to the release state, and preferably ∘ positively connects the locking slide to the cylinder core during the transition from the release state to the locking state.
A driver assistance system for a vehicle, comprising: at least one trailer radar device (21, 22) configured to be disposed at a trailer towed by the vehicle and to generate radar sensor data, wherein the at least one trailer radar device (21, 22) is a rear-view radar device; and an electronic control unit configured to be disposed in the vehicle and to be coupled with the at least one trailer radar device (21, 22), and configured to receive the radar sensor data from the at least one trailer radar device (21, 22); wherein the electronic control unit is configured to generate an output signal and/or to control at least one function of the vehicle at least in part based on the radar sensor data received from the at least one trailer radar device (21, 22); characterized in that the electronic control unit is configured to determine oscillations of the trailer at least in part based on the radar sensor data received from the at least one trailer radar device (21, 22). at least one trailer radar device (21, 22) configured to be disposed at a trailer towed by the vehicle and to generate radar sensor data, wherein the at least one trailer radar device (21, 22) is a rear-view radar device; and an electronic control unit configured to be disposed in the vehicle and to be coupled with the at least one trailer radar device (21, 22), and configured to receive the radar sensor data from the at least one trailer radar device (21, 22); wherein the electronic control unit is configured to generate an output signal and/or to control at least one function of the vehicle at least in part based on the radar sensor data received from the at least one trailer radar device (21, 22); characterized in that the electronic control unit is configured to determine oscillations of the trailer at least in part based on the radar sensor data received from the at least one trailer radar device (21, 22).
A hard composite chromium plating film produced with a chromium plating bath using trivalent chromium as a chromium source, comprising a second phase dispersed in said film; an area ratio of said second phase being 3 - 60 % in a cross section perpendicular to a surface of said film; characterized in that said second phase is planar Al 2 O 3 having an average diameter of 5 - 50 μm and an aspect ratio of 5 - 100 and/or fibrous Al 2 O 3 having an average diameter of 0.1 - 10 μm and an aspect ratio of 5 - 300.
A soil remediation and soil pore stabilising composition comprising at least one electrolyte selected from one or more of the group consisting of: calcium lignosulfonate, potassium lignosulfonate, magnesium lignosulfonate, calcium sucrose carboxylate, calcium saccharate, potassium saccharate, magnesium saccharate, and calcium citrate, at least one cofactor selected from one or more of the group consisting of: thiamine pyrophosphate, thiamine monophosphate, thiamine mononitrate, riboflavin phosphate, nicotinic acid, folinic acid, pantothenic acid, cyanocobalomin, inositol monophosphate, inositol macinate, and inositol hexophosphate, and at least one wetting agent selected from one or more of the group consisting of: alkylphenol ethoxylates, nonylphenol ethoxylates, polyoxyethylene, anionic linear surfactants, yucca or seaweed mixed with APE, EO/PO block copolymers, organosilicones, block copolymer and alkyl polyglucoside blends, and methyl capped block copolymers, wherein the electrolyte is present in the composition in an amount of from 25% to 85% of the total volume of the composition, wherein the cofactor is present in the composition in an amount of from 0.1% to 5% of the total volume of the composition and wherein the wetting agent is present in the composition in an amount of from 0.5% to 5% of the total volume of the composition.
A method for transmitting channel information by a user equipment, UE, in a wireless communication system, the method comprising: receiving a radio frequency, RF, signal from a plurality of downlink component carriers; and reporting a channel measurement result of at least one downlink component carrier from among the plurality of downlink component carriers via an uplink, wherein, for a first downlink component carrier being in a deactivated state among the plurality of downlink component carriers, the channel measurement is carried out for a first available subframe set in a first periodic subframe pattern including the first available subframe set and an unavailable subframe set, and wherein, for a second downlink component carrier being in the deactivated state among the plurality of downlink component carriers, the channel measurement is carried out for a second available subframe set in a second periodic subframe pattern including the second available subframe set and an unavailable subframe set, wherein a period of the first periodic subframe pattern is configured as being a multiple of a period of the second periodic subframe pattern and the first and second periodic time patterns are configured to have different time offsets through a radio resource control, RRC, signaling so that the first and second available subframe sets are exclusive from each other in a time domain. receiving a radio frequency, RF, signal from a plurality of downlink component carriers; and reporting a channel measurement result of at least one downlink component carrier from among the plurality of downlink component carriers via an uplink, wherein, for a first downlink component carrier being in a deactivated state among the plurality of downlink component carriers, the channel measurement is carried out for a first available subframe set in a first periodic subframe pattern including the first available subframe set and an unavailable subframe set, and wherein, for a second downlink component carrier being in the deactivated state among the plurality of downlink component carriers, the channel measurement is carried out for a second available subframe set in a second periodic subframe pattern including the second available subframe set and an unavailable subframe set, wherein a period of the first periodic subframe pattern is configured as being a multiple of a period of the second periodic subframe pattern and the first and second periodic time patterns are configured to have different time offsets through a radio resource control, RRC, signaling so that the first and second available subframe sets are exclusive from each other in a time domain.
A method for supporting communication between UEs (202, 204, 218, 220) camping on a local area network, LAN, the method being performed by a user plane function, UPF, the method comprising: receiving a transmission comprising a protocol data unit, PDU (301, 351), transmitted by a first user equipment, UE (202, 218), wherein the PDU (301, 351) includes at least a destination address of a second UE (204, 220); using information included in the transmission to find a first packet detection rule, PDR, matching information included in the transmission, wherein the first PDR identifies a first forwarding action rule, FAR, wherein the first FAR includes an indication indicating that the PDU requires further ingress processing; enforcing the first FAR; finding a second PDR (310, 360) for the PDU, wherein the second PDR (310, 360) identifies a second FAR (312, 362); and enforcing the second FAR (312, 362), wherein enforcing the second FAR (312, 362) comprises using information included in the second FAR (312, 362) to forward the PDU (301, 351) to the second UE (204, 220). receiving a transmission comprising a protocol data unit, PDU (301, 351), transmitted by a first user equipment, UE (202, 218), wherein the PDU (301, 351) includes at least a destination address of a second UE (204, 220); using information included in the transmission to find a first packet detection rule, PDR, matching information included in the transmission, wherein the first PDR identifies a first forwarding action rule, FAR, wherein the first FAR includes an indication indicating that the PDU requires further ingress processing; enforcing the first FAR; finding a second PDR (310, 360) for the PDU, wherein the second PDR (310, 360) identifies a second FAR (312, 362); and enforcing the second FAR (312, 362), wherein enforcing the second FAR (312, 362) comprises using information included in the second FAR (312, 362) to forward the PDU (301, 351) to the second UE (204, 220).