mhurhangee/patent-ind-claim-en huggingface dataset:
A method implemented by a network node neighboring a primary egress node in a Bit Index Explicit Replication, BIER, domain, comprising: receiving a type length value, TLV, structure that identifies a backup egress node for the primary egress node and includes an entry that indicates whether the primary egress node and the backup egress node transmit a packet to a same customer edge, CE, receiver or to different CE receivers; generating an egress protection bit index forwarding table, EP-BIFT, including the backup egress node and the entry that indicates whether the primary egress node and the backup egress node transmit the packet to the same CE receiver or to different CE receivers; and forwarding the packet in accordance with the EP-BIFT when the primary egress node has failed. receiving a type length value, TLV, structure that identifies a backup egress node for the primary egress node and includes an entry that indicates whether the primary egress node and the backup egress node transmit a packet to a same customer edge, CE, receiver or to different CE receivers; generating an egress protection bit index forwarding table, EP-BIFT, including the backup egress node and the entry that indicates whether the primary egress node and the backup egress node transmit the packet to the same CE receiver or to different CE receivers; and forwarding the packet in accordance with the EP-BIFT when the primary egress node has failed.
Lock cylinder key with a key bow and a key shaft running in an axial direction from the key bow , whereby the key shaft has a stabiliser in its half axially facing away from the key bow , which has a higher firmness than the material of the key shaft , distinguished by the fact that the lock cylinder key is made from metal with low nickel content or a metal alloy with low nickel content, in particular a non-rusting chromium steel.
A method of determining a flame state of a combustor of a turbine engine, comprising: determining at least one of a first derivative and a second derivative of a compressor discharge pressure of a compressor of the turbine engine; determining at least one of a first derivative and a second derivative of a gas turbine exhaust gas temperature of the exhaust gases output by the turbine engine; determining at least one of a first derivative and a second derivative of a gas turbine shaft/rotor speed of the turbine engine; determining at least one of a first derivative and a second derivative of combustor dynamic pressure ; and determining a flame state of a combustor of the turbine engine based on combustor dynamic pressure , compressor discharge pressure , gas turbine shaft/rotor speed, and gas turbine exhaust gas temperature of the exhaust gases . determining at least one of a first derivative and a second derivative of a compressor discharge pressure of a compressor of the turbine engine; determining at least one of a first derivative and a second derivative of a gas turbine exhaust gas temperature of the exhaust gases output by the turbine engine; determining at least one of a first derivative and a second derivative of a gas turbine shaft/rotor speed of the turbine engine; determining at least one of a first derivative and a second derivative of combustor dynamic pressure ; and determining a flame state of a combustor of the turbine engine based on combustor dynamic pressure , compressor discharge pressure , gas turbine shaft/rotor speed, and gas turbine exhaust gas temperature of the exhaust gases .
A process for producing a pipe insulated with polyurethane foam, wherein (a) isocyanate is mixed with (b) polyol, (c) blowing agent comprising at least one aliphatic, halogenated hydrocarbon compound (c1), made up of from 2 to 5 carbon atoms, at least one hydrogen atom and at least one fluorine and/or chlorine atom, where the compound (c1) comprises at least one carbon-carbon double bond, (d) catalyst comprising N,N-dialkylbenzylamine, (e) optionally chain extenders and/or crosslinkers and (f) optionally auxiliaries and additives, to give a reaction mixture, where the isocyanate index is in the range from 90 to 180, the reaction mixture is applied to a pipe for media and is allowed to cure to give the polyurethane foam. (a) isocyanate is mixed with (b) polyol, (c) blowing agent comprising at least one aliphatic, halogenated hydrocarbon compound (c1), made up of from 2 to 5 carbon atoms, at least one hydrogen atom and at least one fluorine and/or chlorine atom, where the compound (c1) comprises at least one carbon-carbon double bond, (d) catalyst comprising N,N-dialkylbenzylamine, (e) optionally chain extenders and/or crosslinkers and (f) optionally auxiliaries and additives,
A paper , in particular for use in the manufacture of corrugated cardboard, wherein the paper is formed from at least two layers of different composition which are rubberised together, wherein a first layer of the paper forms a base layer and wherein a second layer of the paper forms a top layer and wherein the paper in any case contains waste paper fibres and additional fibres in the form of fibres other than waste paper fibres, characterised in that the additional fibres contain in any case a proportion of fibres of the cup plant ( Silphium perfoliatum ) , of fibres obtained from fruits and/or the bark of trees of the baobab genus ( Adansonia ), of fibres obtained from plants of the Cannabis genus and/or of fibres originating from residues of biogas plants, wherein the base layer contains a proportion of additional fibres of 0 to 75 % by weight, and wherein the top layer contains a minimum proportion of additional fibres of 8 % by weight and a maximum proportion of additional fibres of 80 % by weight, wherein furthermore the proportion of additional fibres in the top layer is higher than the proportion of additional fibres in the base layer .
Tire unloading unit for unloading a green tire , wherein the green tire has an externally facing circumferential tread surface extending around a tire axis (X), wherein the tire unloading unit comprises a base and a support member for supporting the green tire relative to the base at the externally facing circumferential tread surface from below and an upper arm projecting from the base for stabilizing the green tire at the externally facing circumferential tread surface from above, wherein the upper arm comprises an arm body projecting in the lateral direction (L) from the base and movable relative to the base in a clamping direction (C) between a standby position and a hold position closer to the support member in the clamping direction (C) than the standby position, characterized in that the upper arm comprises a first lateral boundary member and a second lateral boundary members , supported by said arm body; , which are positionable on opposite sides of the green tire in a lateral direction (L) at least partially alongside said green tire , wherein the upper arm comprises a plurality of intermediate boundary members located side-by-side in the lateral direction (L) on the arm body between the first lateral boundary member and the second lateral boundary member , wherein the first lateral boundary member , the second lateral boundary member and the plurality of intermediate boundary members are individually movable in the clamping direction (C) relative to the arm body and relative to each other.
A rapid deployment cleanroom system comprising: multiple modular building structures positioned side-by-side with respect to each other, each modular building structure having a longitudinal dimension and a lateral dimension, each modular building structure comprising: a floor , a ceiling , and at least two walls defining an interior; hollow tubes extending laterally across the modular building structure and below the floor of or above the ceiling of the modular building structure ; and in two or more of the modular building structures , a utility panel having a set of connections for power outlets, data, pressurized gas, and water, a longitudinal location of the utility panel within the interior of each of the two or more modular building structures being substantially identical among the modular building structures ; and fasteners within the hollow tubes of the modular building structures configured to join the modular building structures together, wherein the joined modular building structures form a large sealable, sterilizable cleanroom, wherein the utility panels of the modular building structures are aligned with one another in the cleanroom interior . multiple modular building structures positioned side-by-side with respect to each other, each modular building structure having a longitudinal dimension and a lateral dimension, each modular building structure comprising: a floor , a ceiling , and at least two walls defining an interior; hollow tubes extending laterally across the modular building structure and below the floor of or above the ceiling of the modular building structure ; and in two or more of the modular building structures , a utility panel having a set of connections for power outlets, data, pressurized gas, and water, a longitudinal location of the utility panel within the interior of each of the two or more modular building structures being substantially identical among the modular building structures ; and fasteners within the hollow tubes of the modular building structures configured to join the modular building structures together, wherein the joined modular building structures form a large sealable, sterilizable cleanroom, a floor , a ceiling , and at least two walls defining an interior; hollow tubes extending laterally across the modular building structure and below the floor of or above the ceiling of the modular building structure ; and in two or more of the modular building structures , a utility panel having a set of connections for power outlets, data, pressurized gas, and water, a longitudinal location of the utility panel within the interior of each of the two or more modular building structures being substantially identical among the modular building structures ; and fasteners within the hollow tubes of the modular building structures configured to join the modular building structures together, wherein the joined modular building structures form a large sealable, sterilizable cleanroom, wherein the utility panels of the modular building structures are aligned with one another in the cleanroom interior .
A liquid pharmaceutical composition comprising: (a) adalimumab; (b) EDTA; and (c) a polyol selected from glycerol and propylene glycol. (a) adalimumab; (b) EDTA; and (c) a polyol selected from glycerol and propylene glycol.
A method of operating a data communications network comprising a plurality of access routers and at least one mobile node, comprising: receiving a message at a current access router of the at least one mobile node, the message comprising information descriptive of at least one of a service and network access-related preference of the at least one mobile node; in response to receiving the message at the current access router, the current access router determines if there is another access router in the vicinity of the current access router that satisfies the at least one of the service and network-access related preference; and if it is determined that there is another access router in the vicinity of the current access router that satisfies the at least one of the service and network-access related preference, the current access router informs the at least one mobile node of the existence of the access router. receiving a message at a current access router of the at least one mobile node, the message comprising information descriptive of at least one of a service and network access-related preference of the at least one mobile node; in response to receiving the message at the current access router, the current access router determines if there is another access router in the vicinity of the current access router that satisfies the at least one of the service and network-access related preference; and if it is determined that there is another access router in the vicinity of the current access router that satisfies the at least one of the service and network-access related preference, the current access router informs the at least one mobile node of the existence of the access router.
An automated guided vehicle (AGV) configured to operate with a navigation and guidance system , said AGV comprising: a base frame configured to support a material handling apparatus; a plurality of support wheel assemblies (18a-d) attached at peripheral portions of the base frame and configured to movably support the base frame away from a ground surface; a pair of drive wheel assemblies disposed between at least two of the plurality of support wheel assemblies (18a-d) and configured to propel the AGV over the ground surface; and a suspension system , which is configured to bias the pair of drive wheel assemblies against the ground surface to maintain friction of the drive wheel assemblies against the ground surface, characterized in that the suspension system having intersecting swing arms that pivotally mount at the base frame and independently attach at each of the drive wheel assemblies , wherein the intersecting swing arms are intersecting when viewed from a front or rear end of the AGV . a base frame configured to support a material handling apparatus; a plurality of support wheel assemblies (18a-d) attached at peripheral portions of the base frame and configured to movably support the base frame away from a ground surface; a pair of drive wheel assemblies disposed between at least two of the plurality of support wheel assemblies (18a-d) and configured to propel the AGV over the ground surface; and a suspension system , which is configured to bias the pair of drive wheel assemblies against the ground surface to maintain friction of the drive wheel assemblies against the ground surface, characterized in that the suspension system having intersecting swing arms that pivotally mount at the base frame and independently attach at each of the drive wheel assemblies , wherein the intersecting swing arms are intersecting when viewed from a front or rear end of the AGV .
A manufacturing method for manufacturing an absorbent article comprising a backsheet layer on the garment facing side of said absorbent article and a pocket being accessible from the garment facing side of the absorbent article through an opening of the backsheet layer , the manufacturing method comprising the steps of: providing a backsheet layer , a cover strip layer , and an absorbent core layer , cutting an opening into the backsheet layer , and placing the cover strip layer between the backsheet layer and the absorbent core layer , in such a manner that the opening of the backsheet layer is at least partly covered by the cover strip layer , wherein the cutting is speed-synchronized with respect to the provision of the backsheet layer in such a manner that the opening is placed at the same position for every absorbent article , or wherein in the case that the absorbent article further comprises a pattern on the body facing side of the backsheet layer , the backsheet layer is speed-controlled with respect to the positioning of the pattern in such a manner that the opening is placed at the same position relatively to the pattern for every absorbent article . providing a backsheet layer , a cover strip layer , and an absorbent core layer , cutting an opening into the backsheet layer , and placing the cover strip layer between the backsheet layer and the absorbent core layer , in such a manner that the opening of the backsheet layer is at least partly covered by the cover strip layer , wherein the cutting is speed-synchronized with respect to the provision of the backsheet layer in such a manner that the opening is placed at the same position for every absorbent article , or
An NO releasing hyaluronic acid-derived polymer compound, comprising a unit structure of Formula II: wherein R 2 , R 3 , R 4 , R 5 , and R 6 are independently selected from the group consisting of of -OH, -NH 2 , -CH 2 OH, -C(O)OH, -NHC(O)-CH 3 , -O-((CH 2 ) a O) b -H, -O-((CH 2 ) a O) b -(CH 2 ) c H, - O-(C 1-5 alkyl), -NH-((CH 2 ) d NH) e -H, -NH-((CH 2 ) d NH) e -(CH 2 ) f H, -X 1 -((CH 2 ) g X 2 ) h -H, -X 1 -((CH 2 ) g X 2 ) h -(CH 2 ) i H, -CH 2 C(O)-X 1 -((CH 2 ) g X 2 ) h ((CH 2 ) j X 3 ) k -(CH 2 ) l H, and -X 1 -((CH 2 ) g X 2 ) h ((CH 2 ) j X 3 ) k -(CH 2 ) l H; R 1 is -C(O)NH-((CH 2 ) g X 2 ) h -H, -C(O)NH-((CH 2 ) g X 2 ) h -(CH 2 ) i H, or -C(O)NH-((CH 2 ) g X 2 ) h ((CH 2 ) j X 3 ) k -(CH 2 ) l H; each instance of a, b, c, d, e, f, g, h, i, j, k, and 1 is independently selected from an integer of 0, 1, 2, 3, 4, 5, 6, 7, 8, 9, or 10; each instance of X 1 , X 2 , and X 3 is independently selected from -O-, -S-, -NH-, C(O)NH-, or a nitric oxide donating moiety; wherein at least one of X 1 , X 2 , and X 3 is said nitric oxide donating moiety represented by one of the following: and wherein the compound has a viscosity of equal to or at least about 10 mPa·s at 20 °C at a concentration of 5% w/w in water. R 2 , R 3 , R 4 , R 5 , and R 6 are independently selected from the group consisting of of -OH, -NH 2 , -CH 2 OH, -C(O)OH, -NHC(O)-CH 3 , -O-((CH 2 ) a O) b -H, -O-((CH 2 ) a O) b -(CH 2 ) c H, - O-(C 1-5 alkyl), -NH-((CH 2 ) d NH) e -H, -NH-((CH 2 ) d NH) e -(CH 2 ) f H, -X 1 -((CH 2 ) g X 2 ) h -H, -X 1 -((CH 2 ) g X 2 ) h -(CH 2 ) i H, -CH 2 C(O)-X 1 -((CH 2 ) g X 2 ) h ((CH 2 ) j X 3 ) k -(CH 2 ) l H, and -X 1 -((CH 2 ) g X 2 ) h ((CH 2 ) j X 3 ) k -(CH 2 ) l H; R 1 is -C(O)NH-((CH 2 ) g X 2 ) h -H, -C(O)NH-((CH 2 ) g X 2 ) h -(CH 2 ) i H, or -C(O)NH-((CH 2 ) g X 2 ) h ((CH 2 ) j X 3 ) k -(CH 2 ) l H; each instance of a, b, c, d, e, f, g, h, i, j, k, and 1 is independently selected from an integer of 0, 1, 2, 3, 4, 5, 6, 7, 8, 9, or 10; each instance of X 1 , X 2 , and X 3 is independently selected from -O-, -S-, -NH-, C(O)NH-, or a nitric oxide donating moiety; wherein at least one of X 1 , X 2 , and X 3 is said nitric oxide donating moiety represented by one of the following: and wherein the compound has a viscosity of equal to or at least about 10 mPa·s at 20 °C at a concentration of 5% w/w in water.
A piston-cylinder unit a) with a cylinder which has a cylinder head , b) with a piston which can be axially moved in the cylinder and which is pressurised with a pressurised fluid via a pressure chamber, c) with a piston motion sensor , d) wherein the piston motion sensor is arranged in a transverse bore of the cylinder head , this transverse bore having a longitudinal axis , and e) the piston motion sensor emits a sensor signal which travels through the pressure chamber to the piston or a piston rod , is reflected by the piston or the piston rod and travels through the pressure chamber to the piston motion sensor again, characterised in that f) the transverse bore is fluidically separated from the pressure chamber so that the transverse bore is not pressurised with the fluid in the pressure chamber and the pressures of the fluid do not act on the sensor housing of the piston motion sensor and, when the sensor housing of the piston motion sensor is removed, a sealing of the pressure chamber is still nevertheless ensured so that the fluid cannot escape from the pressure chamber , via the transverse bore , into the surrounding environment. a) with a cylinder which has a cylinder head , b) with a piston which can be axially moved in the cylinder and which is pressurised with a pressurised fluid via a pressure chamber, c) with a piston motion sensor , d) wherein the piston motion sensor is arranged in a transverse bore of the cylinder head , this transverse bore having a longitudinal axis , and e) the piston motion sensor emits a sensor signal which travels through the pressure chamber to the piston or a piston rod , is reflected by the piston or the piston rod and travels through the pressure chamber to the piston motion sensor again, characterised in that f) the transverse bore is fluidically separated from the pressure chamber so that the transverse bore is not pressurised with the fluid in the pressure chamber and the pressures of the fluid do not act on the sensor housing of the piston motion sensor and, when the sensor housing of the piston motion sensor is removed, a sealing of the pressure chamber is still nevertheless ensured so that the fluid cannot escape from the pressure chamber , via the transverse bore , into the surrounding environment.
A method of applying a buttress to a surgical stapler end effector , the method comprising the steps of: (a) positioning a buttress assembly between an anvil and a staple cartridge of the end effector, wherein the buttress assembly comprises a buttress body and an adhesive material, wherein the adhesive material faces either an underside of the anvil or a deck of the staple cartridge, wherein the anvil is in an open position relative to the staple cartridge during the act of positioning the buttress assembly between the anvil and the staple cartridge; (b) moving the anvil toward the staple cartridge; and (c) moving the anvil back to the open position, wherein the buttress assembly is adhered to the underside of the anvil or the deck of the staple cartridge via the adhesive material with the anvil moved back to the open position, wherein the adhesive material comprises a bioabsorbable polymer and wherein the adhesive material comprises: a copolymer of caprolactone and glycolide (PCL/PGA); a copolymer of lactide and caprolactone (PLA/PCL); a copolymer of trimethylene carbonate and lactide (TMC/PLA); or a copolymer of trimethylene carbonate and caprolactone (TMC/PCL), characterised in that the bioabsorbable polymer has an inherent viscosity of 1.0 to 3.0 dL/g. (a) positioning a buttress assembly between an anvil and a staple cartridge of the end effector, wherein the buttress assembly comprises a buttress body and an adhesive material, wherein the adhesive material faces either an underside of the anvil or a deck of the staple cartridge, wherein the anvil is in an open position relative to the staple cartridge during the act of positioning the buttress assembly between the anvil and the staple cartridge; (b) moving the anvil toward the staple cartridge; and (c) moving the anvil back to the open position, wherein the buttress assembly is adhered to the underside of the anvil or the deck of the staple cartridge via the adhesive material with the anvil moved back to the open position, wherein the adhesive material comprises a bioabsorbable polymer and wherein the adhesive material comprises: a copolymer of caprolactone and glycolide (PCL/PGA); a copolymer of lactide and caprolactone (PLA/PCL); a copolymer of trimethylene carbonate and lactide (TMC/PLA); or a copolymer of trimethylene carbonate and caprolactone (TMC/PCL), characterised in that the bioabsorbable polymer has an inherent viscosity of 1.0 to 3.0 dL/g. a copolymer of caprolactone and glycolide (PCL/PGA); a copolymer of lactide and caprolactone (PLA/PCL); a copolymer of trimethylene carbonate and lactide (TMC/PLA); or a copolymer of trimethylene carbonate and caprolactone (TMC/PCL), characterised in that the bioabsorbable polymer has an inherent viscosity of 1.0 to 3.0 dL/g.