mhurhangee/patent-ind-claim-en huggingface dataset:
A head for a horizontal flow wrapper packaging machine for forming a bandolier of product packages from a packaging material, comprising: a rotatable first shaft having a plurality of knife elements (84A-84D) each including a blade and first and second upper crimping elements ; a rotatable second shaft having a corresponding plurality of anvil elements (86A-86D), wherein a rotation speed of the second shaft is independent of the rotation speed of the first shaft and wherein each anvil element includes perforation and cutting surfaces and first and second lower crimping elements , wherein a rotation speed of either the first shaft or second shaft is changed to move either a knife element or an anvil element, respectively, between a perforation position wherein the perforation surface is opposite the blade to perforate the packaging material and a cutting position wherein the cutting surface is opposite the blade to cut the packaging material and wherein the first upper and first lower crimping elements mate and the second upper and second lower crimping elements mate to crimp the packaging material in either the perforating or cutting positions. a rotatable first shaft having a plurality of knife elements (84A-84D) each including a blade and first and second upper crimping elements ; a rotatable second shaft having a corresponding plurality of anvil elements (86A-86D), wherein a rotation speed of the second shaft is independent of the rotation speed of the first shaft and wherein each anvil element includes perforation and cutting surfaces and first and second lower crimping elements , wherein a rotation speed of either the first shaft or second shaft is changed to move either a knife element or an anvil element, respectively, between a perforation position wherein the perforation surface is opposite the blade to perforate the packaging material and a cutting position wherein the cutting surface is opposite the blade to cut the packaging material and wherein the first upper and first lower crimping elements mate and the second upper and second lower crimping elements mate to crimp the packaging material in either the perforating or cutting positions.
A method performed by a user equipment, UE, operating in a wireless communication system, the method being characterized by : receiving (S903) a downlink, DL, Service Data Adaptation Protocol, SDAP, Protocol Data Unit, PDU, via a DL Data Radio Bearer, DRB, with a DRB identifier, wherein the DL SDAP PDU comprises a DL SDAP header that is prepended to DL Data, and the DL SDAP header comprises (i) a Quality of service Flow Identification, QFI, (ii) a first indication related to a Quality of Service, QoS, flow for an Access Stratum, AS, level, and (iii) a second indication related to a QoS flow for a Non Access Stratum, NAS, level; if the first indication is set to ' 1': updating (S905), by a SDAP entity of the UE, a UL mapping rule between the QoS flow of the QFI and a DRB with the DRB identifier for uplink, UL, transmission; and if the second indication is set to ' 1': delivering (S909), by the SDAP entity to an upper layer of the UE, the QFI of the DL SDAP PDU and a DL SDAP SDU retrieved from the DL SDAP PDU, wherein the SDAP entity is a user plane AS protocol layer related to a QoS flow above Packet Data Convergence Protocol entity of the UE. receiving (S903) a downlink, DL, Service Data Adaptation Protocol, SDAP, Protocol Data Unit, PDU, via a DL Data Radio Bearer, DRB, with a DRB identifier, wherein the DL SDAP PDU comprises a DL SDAP header that is prepended to DL Data, and the DL SDAP header comprises (i) a Quality of service Flow Identification, QFI, (ii) a first indication related to a Quality of Service, QoS, flow for an Access Stratum, AS, level, and (iii) a second indication related to a QoS flow for a Non Access Stratum, NAS, level; if the first indication is set to ' 1': updating (S905), by a SDAP entity of the UE, a UL mapping rule between the QoS flow of the QFI and a DRB with the DRB identifier for uplink, UL, transmission; and if the second indication is set to ' 1': delivering (S909), by the SDAP entity to an upper layer of the UE, the QFI of the DL SDAP PDU and a DL SDAP SDU retrieved from the DL SDAP PDU, wherein the SDAP entity is a user plane AS protocol layer related to a QoS flow above Packet Data Convergence Protocol entity of the UE.
Use of vinyl acetate copolymers as a shrinkage-reducing admixture in cold-curing systems which are cured at a temperature of < 60°C for producing composite materials, characterized in that vinyl acetate copolymers of 40 to 95 wt% vinyl acetate and 5 to 60 wt% one or more comonomers from the group containing vinyl esters of unbranched or branched carboxylic acids having 3 to 20 carbon atoms and methacrylic esters and acrylic esters of unbranched or branched alcohols having 2 to 15 carbon atoms are used, the figures in wt% being based on the total weight of the comonomers and adding up to 100 wt%.
A method of controlling a vehicle having a transmission comprising at least one forward and at least one reverse selectable gear ratio, at least two clutches, each able to connect at least one of said gear ratios to torque from an engine or prime mover of the vehicle and at least one wheel driven via the transmission, the method comprising: selecting and engaging a forward or reverse gear ratio via a first clutch; pre-selecting and subsequently engaging an opposing reverse or forward gear ratio via a second clutch; the subsequent engaging of the opposing reverse or forward gear ratio following a determining that a hill ascent has failed. selecting and engaging a forward or reverse gear ratio via a first clutch; pre-selecting and subsequently engaging an opposing reverse or forward gear ratio via a second clutch; the subsequent engaging of the opposing reverse or forward gear ratio following a determining that a hill ascent has failed.
A preparation method of an acrylate-based pressure-sensitive adhesive composition comprising the steps of: preparing a monomer mixture containing an alkyl (meth)acrylate-based monomer; and a monomer having a hydroxyl group or a carboxyl group; preparing a polymerization composition by adding an emulsifier to the monomer mixture; performing emulsion polymerization of the polymerization composition in the presence of a polymerization initiator; and adding an antifoaming agent to the emulsion-polymerized acrylate-based pressure-sensitive adhesive composition, wherein the monomer having a hydroxyl group or a carboxyl group is contained in an amount of 1 to 5 parts by weight based on 100 parts by weight of the monomer mixture, the polymerization initiator is contained in an amount of 0.1 to 2 parts by weight based on 100 parts by weight of the monomer mixture, the antifoaming agent is contained in an amount of 0.1 to 1.0 parts by weight based on 100 parts by weight of the monomer mixture, and the antifoaming agent is added at a temperature of 30 to 50 °C. preparing a monomer mixture containing an alkyl (meth)acrylate-based monomer; and a monomer having a hydroxyl group or a carboxyl group; preparing a polymerization composition by adding an emulsifier to the monomer mixture; performing emulsion polymerization of the polymerization composition in the presence of a polymerization initiator; and adding an antifoaming agent to the emulsion-polymerized acrylate-based pressure-sensitive adhesive composition, wherein the monomer having a hydroxyl group or a carboxyl group is contained in an amount of 1 to 5 parts by weight based on 100 parts by weight of the monomer mixture, the polymerization initiator is contained in an amount of 0.1 to 2 parts by weight based on 100 parts by weight of the monomer mixture, the antifoaming agent is contained in an amount of 0.1 to 1.0 parts by weight based on 100 parts by weight of the monomer mixture, and the antifoaming agent is added at a temperature of 30 to 50 °C.
A gas turbine engine , comprising: a compressor section , a combustor section , and a turbine section , the turbine section including a stationary stage and a rotating stage; and a turbine blade provided in the rotating stage, the turbine blade including a first portion , including an airfoil section and a root , a second portion formed separately from the first portion , wherein the second portion is a platform , and an intermediate layer provided between the root and the second portion , characterized in that : the intermediate layer is selected of a material such that the intermediate layer is de-bonded from the root during a molding process of the airfoil section , the root , the intermediate layer and the platform ; and an outer face of the platform directly abuts an inner face of a slot of a rotor disc . a compressor section , a combustor section , and a turbine section , the turbine section including a stationary stage and a rotating stage; and a turbine blade provided in the rotating stage, the turbine blade including a first portion , including an airfoil section and a root , a second portion formed separately from the first portion , wherein the second portion is a platform , and an intermediate layer provided between the root and the second portion , the intermediate layer is selected of a material such that the intermediate layer is de-bonded from the root during a molding process of the airfoil section , the root , the intermediate layer and the platform ; and an outer face of the platform directly abuts an inner face of a slot of a rotor disc .
Arrangement composed of a heating unit and a store with a housing, wherein the heating unit is arranged on the store , having a connector for a condensate of the heating unit , wherein the connector has a housing which is connected or is able to be connected to an exhaust-gas path and which has a condensate outlet to which a tube is connected, said tube being guided into a first region below the housing and, there, being guided in a bend upwards, wherein the tube is guided in the first region within the housing of the store .
Method for the manufacture of molded components, comprising a. loading pellets of an expanded polymer material into a mold; and b. connecting the pellets by providing heat energy, wherein c. the expanded polymer material of the pellets comprises a chain extender, wherein the chain extender comprises at least one selected from a polymeric material containing epoxy groups, pyromellitic dianhydride, and styrene maleic anhydride, or combinations of one or more thereof, or wherein the chain extender is selected from one or more of a tri-epoxide or tetra-epoxide; and wherein the chain extender is added in an amount of 1 to 10 % by weight, based on 100 % by weight of the base polymer material; and wherein the polymer is selected from at least one of polyamides, thermoplastic polyester ether elastomer (TPEE), polyetherketones, polyoxymethylene (POM), polyvinylalcohol (PVAL), and thermoplastic polyurethanes (TPU). a. loading pellets of an expanded polymer material into a mold; and b. connecting the pellets by providing heat energy, wherein c. the expanded polymer material of the pellets comprises a chain extender, wherein the chain extender comprises at least one selected from a polymeric material containing epoxy groups, pyromellitic dianhydride, and styrene maleic anhydride, or combinations of one or more thereof, or wherein the chain extender is selected from one or more of a tri-epoxide or tetra-epoxide; and wherein the chain extender is added in an amount of 1 to 10 % by weight, based on 100 % by weight of the base polymer material; and wherein the polymer is selected from at least one of polyamides, thermoplastic polyester ether elastomer (TPEE), polyetherketones, polyoxymethylene (POM), polyvinylalcohol (PVAL), and thermoplastic polyurethanes (TPU).
Plasma device comprising at least two plasma cells (Cx), each plasma cell having a gas inlet comprising a through hole and a core , an internal chamber defined by a lateral wall , and a front wall having a front opening , said gas inlet being connected to a plasma precursor unit , and said front wall comprising a first electrode (E1) and a second electrode (E2) separated by an insulating layer , the plasma device further comprising a command unit , wherein the first and the second electrodes of a given plasma cell are independent from the corresponding first and second electrodes of the contiguous plasma cells, wherein the electrodes of each plasma cell are independently connected to the command unit , and wherein the command unit comprises a high voltage pulse generator and a radiofrequency generator , wherein said high voltage pulse generator and radiofrequency generator are both mutually protected by one or several filtering elements .
A method for placing a web-form packaging material in a packaging machine , comprising the steps of: providing the web-form packaging material ; gripping the web-form packaging material by means of a handling apparatus , wherein a free end portion of the packaging material is arched in a transverse direction (Q V ) of the packaging material and projects out from the handling apparatus ; and introducing the free end portion of the packaging material into a first processing station of the packaging machine by means of the handling apparatus . providing the web-form packaging material ; gripping the web-form packaging material by means of a handling apparatus , wherein a free end portion of the packaging material is arched in a transverse direction (Q V ) of the packaging material and projects out from the handling apparatus ; and introducing the free end portion of the packaging material into a first processing station of the packaging machine by means of the handling apparatus .
A method for control of a telematic control unit , wherein the method comprises the steps of said telematic control unit : - obtaining (S11) of information of discontinuity-beneficial conditions, associated with a vehicle to which said telematic control unit is connected; said discontinuity-beneficial conditions indicating that an extended discontinuous reception mode would be beneficial for said telematic control unit ; - obtaining (S13) a determination of an extended discontinuous reception time for said telematic control unit to propose; and - initiating (S15) a request for an extended discontinuous reception mode for said telematic control unit as a response to the discontinuity-beneficial conditions, proposing said determined extended discontinuous reception time. - obtaining (S11) of information of discontinuity-beneficial conditions, associated with a vehicle to which said telematic control unit is connected; said discontinuity-beneficial conditions indicating that an extended discontinuous reception mode would be beneficial for said telematic control unit ; - obtaining (S13) a determination of an extended discontinuous reception time for said telematic control unit to propose; and - initiating (S15) a request for an extended discontinuous reception mode for said telematic control unit as a response to the discontinuity-beneficial conditions, proposing said determined extended discontinuous reception time.
A method for uplink transmissions, comprising: receiving , by a user equipment, UE , a power parameter specific to a physical uplink shared channel, PUSCH; determining, by the UE , a pathloss value for the PUSCH in accordance with a downlink reference signal, DL RS, configuration; deriving, by the UE , a transmission power for the PUSCH in accordance with the power parameter and the pathloss value; characterized in that : the DL RS configuration being associated with a resource index identifying an antenna port which is used to transmit the PUSCH, and transmitting , by the UE , the PUSCH on the antenna port identified by the resource index associated with the DL RS configuration at the transmission power. receiving , by a user equipment, UE , a power parameter specific to a physical uplink shared channel, PUSCH; determining, by the UE , a pathloss value for the PUSCH in accordance with a downlink reference signal, DL RS, configuration; deriving, by the UE , a transmission power for the PUSCH in accordance with the power parameter and the pathloss value; characterized in that : the DL RS configuration being associated with a resource index identifying an antenna port which is used to transmit the PUSCH, and transmitting , by the UE , the PUSCH on the antenna port identified by the resource index associated with the DL RS configuration at the transmission power. the DL RS configuration being associated with a resource index identifying an antenna port which is used to transmit the PUSCH, and transmitting , by the UE , the PUSCH on the antenna port identified by the resource index associated with the DL RS configuration at the transmission power.
A turbine of a turbomachine, the turbine comprising a rotor formed with disks mounted on a turbine shaft and carrying moving blades , stages of fixed blades disposed between the disks of the rotor, and a device for limiting over-speed comprising means for destructing said moving blades of the disks of the rotor, in the case of fracture of the turbine shaft , the means for destructing being carried by a stage of fixed blades situated between the upstream disk of the rotor and the following disk of said rotor, characterized in that the means for destructing are fixed, carried by a radially inner end of the stage of fixed blades and are intended to shear the moving blades of the upstream disk of the rotor at the start of a downstream displacement of the rotor resulting from the fracture of the turbine shaft .
An industrial personal computer (IPC) comprising: a first housing module having a first electronic component , an internal electric power supply device and a first electric connection portion ; and a second housing module having a second electronic component and a second electric connection portion , the first and the second housing modules being stacked along a stacking direction (SD), wherein the first and second connection portions form a connection bus along the stacking direction (SD) at least for transmitting electric power between the first and second housing modules ; wherein the second electronic component is an uninterruptible power supply (UPS) device, characterized in that : the IPC further comprises a power management controller implemented to: monitor the internal electric power supply device and/or an internal voltage at the connection bus ; detect a presence of the second electronic component in the second housing module ; control a power distribution of the IPC such that during a removal or insertion of the second electronic component the internal electric power distribution remains unaffected; and control a charging of the UPS device by the internal electric power supply . a first housing module having a first electronic component , an internal electric power supply device and a first electric connection portion ; and a second housing module having a second electronic component and a second electric connection portion , the first and the second housing modules being stacked along a stacking direction (SD), wherein the first and second connection portions form a connection bus along the stacking direction (SD) at least for transmitting electric power between the first and second housing modules ; wherein the second electronic component is an uninterruptible power supply (UPS) device, characterized in that : the IPC further comprises a power management controller implemented to: monitor the internal electric power supply device and/or an internal voltage at the connection bus ; detect a presence of the second electronic component in the second housing module ; control a power distribution of the IPC such that during a removal or insertion of the second electronic component the internal electric power distribution remains unaffected; and control a charging of the UPS device by the internal electric power supply . monitor the internal electric power supply device and/or an internal voltage at the connection bus ; detect a presence of the second electronic component in the second housing module ; control a power distribution of the IPC such that during a removal or insertion of the second electronic component the internal electric power distribution remains unaffected; and control a charging of the UPS device by the internal electric power supply .
A self-righting device comprising: a support body for supporting a medicament delivery device ; the support body having a mass, a center of gravity (G) and a shape such that the self-righting device , when positioned on a substantially horizontal surface, moves from an unbalanced position (46a-46c) to an upright position ; wherein the gravity force of the self-righting device generates a gravitational force moment on the self-righting device and on the medicament delivery device such that the self-righting device , and the medicament delivery device held by the self-righting device , are rotated from any of the unbalanced position , towards the upright position ; and wherein the support body comprises a proximally-facing first surface which faces generally upwards in an upright position of the self-righting device , and a distally-facing convex second surface which faces generally downwards in an upright position of the self-righting device ; wherein the self-righting device further comprises a mechanical adaptor configured to be attached to the support body and for holding an elongated medicament delivery device at an angle less than 30 degrees from a vertical axis when the self-righting device is in the upright position ; characterised in that the second surface has a smooth shape without any flat portions or irregular portions. a support body for supporting a medicament delivery device ; the support body having a mass, a center of gravity (G) and a shape such that the self-righting device , when positioned on a substantially horizontal surface, moves from an unbalanced position (46a-46c) to an upright position ; wherein the gravity force of the self-righting device generates a gravitational force moment on the self-righting device and on the medicament delivery device such that the self-righting device , and the medicament delivery device held by the self-righting device , are rotated from any of the unbalanced position , towards the upright position ; and wherein the support body comprises a proximally-facing first surface which faces generally upwards in an upright position of the self-righting device , and a distally-facing convex second surface which faces generally downwards in an upright position of the self-righting device ; wherein the self-righting device further comprises a mechanical adaptor configured to be attached to the support body and for holding an elongated medicament delivery device at an angle less than 30 degrees from a vertical axis when the self-righting device is in the upright position ; characterised in that the second surface has a smooth shape without any flat portions or irregular portions.