mhurhangee/patent-ind-claim-en huggingface dataset:
A method performed by a wireless transmit/receive unit, WTRU , the WTRU in communication with a base station , the WTRU including a Radio Resource Control, RRC, layer, the method comprising: generating, at a non-access stratum, NAS, layer of the WTRU, a first message comprising a first request for a first service; passing the first message from the NAS layer of the WTRU to the RRC layer of the WTRU; receiving, at the RRC layer of the WTRU, the first message comprising the first request for the first service; receiving , at the RRC layer of the WTRU, a second message, the second message being received from the base station and indicating a plurality of services that are allowable by the base station; determining, at the RRC layer of the WTRU, that the first service is one of the plurality of services that are indicated as allowable by the base station; and sending , by the RRC layer, a first connection request to the base station, wherein the first connection request comprises an establishment cause, and the establishment cause explicitly indicates that the first connection request is for the first service. generating, at a non-access stratum, NAS, layer of the WTRU, a first message comprising a first request for a first service; passing the first message from the NAS layer of the WTRU to the RRC layer of the WTRU; receiving, at the RRC layer of the WTRU, the first message comprising the first request for the first service; receiving , at the RRC layer of the WTRU, a second message, the second message being received from the base station and indicating a plurality of services that are allowable by the base station; determining, at the RRC layer of the WTRU, that the first service is one of the plurality of services that are indicated as allowable by the base station; and sending , by the RRC layer, a first connection request to the base station, wherein the first connection request comprises an establishment cause, and the establishment cause explicitly indicates that the first connection request is for the first service.
An active energy ray radically curable inkjet printing ink comprising: i) at least 55 wt.% of water ii) from about 2 wt.% to about 20 wt.% of a radically curable di(meth)acrylate monomer being a polyethylene glycol di(meth)acrylate having 5 or more ethylene oxide groups per molecule; iii) from about 1 wt.% to about 15 wt.% of a radically curable (meth)acrylate compound being a hydroxyalkyl (meth)acrylate wherein the alkyl group is methyl, ethyl, propyl, butyl or isobutyl, preferably hydroxyalkyl (meth)acrylate wherein the alkyl group is methyl, ethyl, propyl, butyl or isobutyl; iv) from about 1 wt.% to about 5 wt.% of a photoinitiator of formula (I): wherein X + is Na + or Li + , preferably Na + v) from about 0.1 wt.% to about 2 wt.% of one or more co-initiator selected from the group consisting of N-[3-(dimethylamine)propyl]metacrylamide and/or poly(methylhydrosiloxane) ; the weight percentage being based on the total weight of the active energy ray radically curable inkjet printing ink. i) at least 55 wt.% of water ii) from about 2 wt.% to about 20 wt.% of a radically curable di(meth)acrylate monomer being a polyethylene glycol di(meth)acrylate having 5 or more ethylene oxide groups per molecule; iii) from about 1 wt.% to about 15 wt.% of a radically curable (meth)acrylate compound being a hydroxyalkyl (meth)acrylate wherein the alkyl group is methyl, ethyl, propyl, butyl or isobutyl, preferably hydroxyalkyl (meth)acrylate wherein the alkyl group is methyl, ethyl, propyl, butyl or isobutyl; iv) from about 1 wt.% to about 5 wt.% of a photoinitiator of formula (I): wherein X + is Na + or Li + , preferably Na + v) from about 0.1 wt.% to about 2 wt.% of one or more co-initiator selected from the group consisting of N-[3-(dimethylamine)propyl]metacrylamide and/or poly(methylhydrosiloxane) ;
Gas valve unit for setting a gas volume flow fed to a gas burner of a gas device, in particular a gas cooking appliance, wherein the gas valve unit has a plurality N of on-off valves (2.1-2.9), wherein each on-off valve (2.1-2.9) has a movable valve body with a shut-off body and an activation area , a closing spring (6.1-6.9) which, when the on-off valve (2.1-2.9) is closed, pushes the shut-off body onto a sealing seat and through this closes an opening, and has a driver which is embodied to lift the shut-off body away from the sealing seat for opening the on-off valve (2.1-2.9) by means of a force caused by the driver engaging into the activation area against the force of the closing spring (6.1-6.9), wherein the shut-off bodies of the individual on-off valves (2.1-2.9) are disposed on a circular track around an axis of the gas valve unit and the shut-off bodies are able to be moved parallel to this axis, characterised in that the valve body has a shoulder area which is embodied to accept a torque arising on engagement of the driver into the activation area .
A system comprising a head-mountable eye tracking sensor , a processor coupled to said eye tracking sensor and a plurality of spatially separated light sources under control of said processor, wherein: at least one light source of the plurality of spatially separated light sources is arranged to generate a configurable luminous distribution into a field of view of the wearer of the eye tracking sensor; and the processor is adapted to configure said luminous distribution in response to eye tracking data obtained from said eye tracking sensor, wherein each light source from the plurality of spatially separated light sources is adapted to produce a non-configurable luminous output; wherein the processor is adapted to select at least a subset of said plurality of spatially separated light sources in response to said eye tracking data in order to achieve a desired luminous distribution into said field of view by actuating said selection of light sources; and wherein the plurality of spatially separated light sources are spatially distributed in defined locations within a space , characterized in that the system further comprises an image sensor for capturing an image of the field of view, wherein the processor is adapted to: analyze data from said image sensor to recognize a location within said space from said field of view, and select the at least a subset of said plurality of light sources based on the recognized location. at least one light source of the plurality of spatially separated light sources is arranged to generate a configurable luminous distribution into a field of view of the wearer of the eye tracking sensor; and the processor is adapted to configure said luminous distribution in response to eye tracking data obtained from said eye tracking sensor, wherein each light source from the plurality of spatially separated light sources is adapted to produce a non-configurable luminous output; wherein the processor is adapted to select at least a subset of said plurality of spatially separated light sources in response to said eye tracking data in order to achieve a desired luminous distribution into said field of view by actuating said selection of light sources; and wherein the plurality of spatially separated light sources are spatially distributed in defined locations within a space , characterized in that the system further comprises an image sensor for capturing an image of the field of view, wherein the processor is adapted to: analyze data from said image sensor to recognize a location within said space from said field of view, and select the at least a subset of said plurality of light sources based on the recognized location.
Shoe upper with a material (1; 100) that comprises: a. a first foil layer ; and b. a textile reinforcement layer completely laminated with the first foil layer ; c. wherein the textile reinforcement layer comprises a first textile material with at least three axes (210; 220, 230), each axis (210; 220, 230) defining an orientation of a set (215; 225; 235) of essentially parallel yarns (211, 212, 213; 221, 222, 223; 231, 232, 233) in the first textile material; d. wherein the first textile material of the textile reinforcement layer is a woven material; e. wherein the yarns in at least one set of essentially parallel yarns in the first textile material have a different tear strength than the yarns (221, 222, 223; 231, 232, 233) in one or more of the remaining sets (225; 235) of essentially parallel yarns in the first textile material; and f. wherein the first foil layer is arranged on the outside of the shoe upper . a. a first foil layer ; and b. a textile reinforcement layer completely laminated with the first foil layer ; c. wherein the textile reinforcement layer comprises a first textile material with at least three axes (210; 220, 230), each axis (210; 220, 230) defining an orientation of a set (215; 225; 235) of essentially parallel yarns (211, 212, 213; 221, 222, 223; 231, 232, 233) in the first textile material; d. wherein the first textile material of the textile reinforcement layer is a woven material; e. wherein the yarns in at least one set of essentially parallel yarns in the first textile material have a different tear strength than the yarns (221, 222, 223; 231, 232, 233) in one or more of the remaining sets (225; 235) of essentially parallel yarns in the first textile material; and f. wherein the first foil layer is arranged on the outside of the shoe upper .
Production process of recombinant Sm14 protein in Pichia pastoris consisting of: (a) synthesis of a nucleotide sequence defined by SEQ ID NO: 3; (b) cloning of synthesized nucleotide sequence obtained in step (a) above in vector pPIC9K by BamHI site and reconstituting the Kozak sequence of gene AOX1 before the start codon of protein Sm14, for the expression of Sm14 in its intracellular form; and (c) transformation of P. pastoris with plasmid pPIC9K-Sm14-MV and selection of recombinant clones with multiple copies. (a) synthesis of a nucleotide sequence defined by SEQ ID NO: 3; (b) cloning of synthesized nucleotide sequence obtained in step (a) above in vector pPIC9K by BamHI site and reconstituting the Kozak sequence of gene AOX1 before the start codon of protein Sm14, for the expression of Sm14 in its intracellular form; and (c) transformation of P. pastoris with plasmid pPIC9K-Sm14-MV and selection of recombinant clones with multiple copies.
Method for adapting an algorithm for processing measurement data from at least one sensor (42, 73-76) in a means of transport , wherein the algorithm implements an estimation method for processing the measurement data, which estimation method uses at least one dynamic model and at least one measurement model, wherein the at least one dynamic model represents a particular movement of the means of transport and the at least one measurement model represents assumptions about the nature of sensor errors, and wherein the at least one dynamic model and the at least one measurement model determine a weighting of the measurement data, having the steps of: - receiving (S1) information (UB), provided with location information (OI) and relating to environmental conditions, from an external source ; - evaluating (S2) the information (UB) relating to environmental conditions with respect to whether the at least one sensor (42, 73-76) could provide erroneous measurement data in a particular region; and - proactively adapting (S3) the at least one dynamic model or the at least one measurement model for the region in which the at least one sensor (42, 73-76) could provide erroneous measurement data. - receiving (S1) information (UB), provided with location information (OI) and relating to environmental conditions, from an external source ; - evaluating (S2) the information (UB) relating to environmental conditions with respect to whether the at least one sensor (42, 73-76) could provide erroneous measurement data in a particular region; and - proactively adapting (S3) the at least one dynamic model or the at least one measurement model for the region in which the at least one sensor (42, 73-76) could provide erroneous measurement data.
A method for automatically cooking food products comprising: circulating cooking medium through a fryer apparatus in a flow direction using a pump; delivering food product to an inlet end of the fryer apparatus; actuating a first gate from a first lowered position to a first raised position after a first predetermined amount of time, wherein food product moves downstream of the first gate along the flow direction in response to the circulation of cooking medium while the first gate is in the first raised position; returning the first gate from the first raised position to the first lowered position after a second predetermined amount of time; actuating a second gate from a second lowered position to a second raised position after a third predetermined amount of time, wherein food product moves downstream of the second gate along the flow direction in response to the circulation of cooking medium while the second gate is in the second raised position; returning the second gate from the second raised position to the second lowered position after a fourth predetermined amount of time; and transferring food product from the fryer apparatus at an outlet end downstream from the second gate in the flow direction. circulating cooking medium through a fryer apparatus in a flow direction using a pump; delivering food product to an inlet end of the fryer apparatus; actuating a first gate from a first lowered position to a first raised position after a first predetermined amount of time, wherein food product moves downstream of the first gate along the flow direction in response to the circulation of cooking medium while the first gate is in the first raised position; returning the first gate from the first raised position to the first lowered position after a second predetermined amount of time; actuating a second gate from a second lowered position to a second raised position after a third predetermined amount of time, wherein food product moves downstream of the second gate along the flow direction in response to the circulation of cooking medium while the second gate is in the second raised position; returning the second gate from the second raised position to the second lowered position after a fourth predetermined amount of time; and transferring food product from the fryer apparatus at an outlet end downstream from the second gate in the flow direction.
A force limiting assembly for a surgical instrument, comprising: a handle ; a lever pivotally mounted to the handle at a pivot point at a first end and extending out of the handle to define a trigger at an opposing end ; and a drive shaft for axial movement in response to pivoting of the lever about the pivot point, characterized by a cantilever spring positioned within the lever and having a free end spaced apart from the pivot point, wherein the drive shaft is coupled to the free end of the cantilever spring . a handle ; a lever pivotally mounted to the handle at a pivot point at a first end and extending out of the handle to define a trigger at an opposing end ; and a drive shaft for axial movement in response to pivoting of the lever about the pivot point, characterized by a cantilever spring positioned within the lever and having a free end spaced apart from the pivot point, wherein the drive shaft is coupled to the free end of the cantilever spring .
System comprising: a tank ; an entrained air measurement device (12; 34; 150) configured to measure the amount of entrained air in a mixture forming part of a fermentation process in the tank and to provide a signal containing information about the amount of entrained air in the mixture; a signal processor having one or more modules configured to: receive from the entrained air measurement device (12; 34; 150) the signal containing information about an amount of entrained air in a mixture forming part of a fermentation process in the tank ; and determine a level of foam in the tank based at least partly on the measured amount of entrained air in the mixture; characterized in that the entrained air measurement device (12; 34; 150) is configured to measure a sample of the mixture either as an effluent or discharge provided from the tank via a discharge port (30; 146) of the tank , in particular a discharge port (30; 146) at the bottom of the tank , or as a representative sample provided from the tank via a by-pass loop , and in that the entrained air measurement device (12; 34; 150) is a SONAR-based entrained air measurement device (12; 34; 150) configured to measure the amount of entrained air at least partly based on the speed of sound propagating through a mixture. a tank ; an entrained air measurement device (12; 34; 150) configured to measure the amount of entrained air in a mixture forming part of a fermentation process in the tank and to provide a signal containing information about the amount of entrained air in the mixture; a signal processor having one or more modules configured to: receive from the entrained air measurement device (12; 34; 150) the signal containing information about an amount of entrained air in a mixture forming part of a fermentation process in the tank ; and determine a level of foam in the tank based at least partly on the measured amount of entrained air in the mixture; receive from the entrained air measurement device (12; 34; 150) the signal containing information about an amount of entrained air in a mixture forming part of a fermentation process in the tank ; and determine a level of foam in the tank based at least partly on the measured amount of entrained air in the mixture; characterized in that the entrained air measurement device (12; 34; 150) is configured to measure a sample of the mixture either as an effluent or discharge provided from the tank via a discharge port (30; 146) of the tank , in particular a discharge port (30; 146) at the bottom of the tank , or as a representative sample provided from the tank via a by-pass loop , and in that the entrained air measurement device (12; 34; 150) is a SONAR-based entrained air measurement device (12; 34; 150) configured to measure the amount of entrained air at least partly based on the speed of sound propagating through a mixture.
A motorcycle comprising: a vehicle body frame ; an engine supported by the vehicle body frame and including intake-side and exhaust-side variable valve timing devices ; and an oil control valve unit configured to control a hydraulic pressure to the intake-side and exhaust-side variable valve timing devices of the engine , the oil control valve unit comprising: an intake control valve configured to control an intake-side valve timing; an exhaust control valve configured to control an exhaust-side valve timing; and a valve housing configured to support the intake control valve and the exhaust control valve , wherein the engine is formed therein with a main gallery to which oil is to be delivered from an oil pump, and wherein the valve housing is connected with an external piping which bypasses the inside of the engine , extends from the main gallery and through which the oil is supplied, in operation, from the main gallery to an oil passage in the valve housing . a vehicle body frame ; an engine supported by the vehicle body frame and including intake-side and exhaust-side variable valve timing devices ; and an oil control valve unit configured to control a hydraulic pressure to the intake-side and exhaust-side variable valve timing devices of the engine , the oil control valve unit comprising: an intake control valve configured to control an intake-side valve timing; an exhaust control valve configured to control an exhaust-side valve timing; and a valve housing configured to support the intake control valve and the exhaust control valve , wherein the engine is formed therein with a main gallery to which oil is to be delivered from an oil pump, and wherein the valve housing is connected with an external piping which bypasses the inside of the engine , extends from the main gallery and through which the oil is supplied, in operation, from the main gallery to an oil passage in the valve housing . an intake control valve configured to control an intake-side valve timing; an exhaust control valve configured to control an exhaust-side valve timing; and a valve housing configured to support the intake control valve and the exhaust control valve , wherein the engine is formed therein with a main gallery to which oil is to be delivered from an oil pump, and wherein the valve housing is connected with an external piping which bypasses the inside of the engine , extends from the main gallery and through which the oil is supplied, in operation, from the main gallery to an oil passage in the valve housing .
Model test rig for tribological tests on disc-shaped test specimens comprising a first shaft which is carried in a first rack and powered by a drive motor and wherein the first shaft carries a first disc-shaped test specimen in a first cross-section , and comprising a second shaft which is carried in a second rack parallel to the first shaft and which is driven by the first shaft via a gearbox ,wherein the second shaft carries a second disc-shaped test specimen in the first cross-section , wherein the first rack is firmly mounted in a frame and the second frame is movably mounted in the frame , wherein the model test rig further comprises a load device between the first frame and the second frame , characterized in that the first disc-shaped test specimen and the second disc-shaped test specimen each have an non-circular outer contour with steadily variable curvature in the first cross-section with a first partial profile and a second partial profile which are located on opposite sides of a symmetry line and merge into each other by mirroring at said symmetry line , wherein both disc-shaped test specimens have a center of the test specimen which is located on the symmetry line with a smallest contour distance to an intersection point of the symmetry line with the non-circular outer contour in a first contour point and with a largest contour distance to the other intersection point of the symmetry line with the non-circular outer contour in a second contour point .