mhurhangee/patent-ind-claim-en huggingface dataset:
A method during a handover of a user equipment, UE, from a first network to a second network, comprising: receiving , by an access network entity of the second network, from a core network, CN, entity of the second network, various security capability sets supported by the UE, wherein various security capability sets supported by the UE include at least one radio resource control, RRC/user plane, UP, algorithm supported by the UE; selecting , by the access network entity of the second network, an RRC/UP algorithm supported by both the UE and the access network entity of the second network, wherein the selected RRC/UP algorithm is selected according to the at least one RRC/UP algorithm supported by the UE, and at least one RRC/UP algorithm supported by the access network entity of the second network; and sending , by the access network entity of the second network, the selected RRC/UP algorithm via the CN entity of the second network to the first network. receiving , by an access network entity of the second network, from a core network, CN, entity of the second network, various security capability sets supported by the UE, wherein various security capability sets supported by the UE include at least one radio resource control, RRC/user plane, UP, algorithm supported by the UE; selecting , by the access network entity of the second network, an RRC/UP algorithm supported by both the UE and the access network entity of the second network, wherein the selected RRC/UP algorithm is selected according to the at least one RRC/UP algorithm supported by the UE, and at least one RRC/UP algorithm supported by the access network entity of the second network; and sending , by the access network entity of the second network, the selected RRC/UP algorithm via the CN entity of the second network to the first network.
A method for ultrasonic-sealing in which a plurality of seal portions are formed in a continuous web at an interval in a direction of transporting the continuous web , the forming being performed by repeatedly executing ultrasonic-sealing processing on a continuous web that is being transported, the continuous web being for an absorbent article, the ultrasonic-sealing processing comprising: a clamping step of clamping the continuous web with an ultrasonic horn and an anvil ; a seal-portion forming step of forming the seal portions in the continuous web by vibration of the ultrasonic horn due to receiving an ultrasonic wave generated by an ultrasonic wave generator ; and an unclamping step of unclamping the continuous web after the ultrasonic wave generator has stopped generating the ultrasonic wave and furthermore residual vibration remaining in the ultrasonic horn has stopped
An X-ray inspection apparatus for inspecting a measuring object (W) comprising: an X-ray emission means for emitting an X-ray to a measuring object (W); a conveyance means that conveys the measuring object (W) placed thereon, wherein the conveyance means is a belt conveyor; an X-ray detection means for detecting an X-ray photon transmitted through the measuring object (W) by discriminating energy possessed by the X-ray photon into one or more energy region (s) in accordance with a predetermined threshold level while the measuring object (W) is moved by the conveyance means ; a storage means for storing the measuring object (W) and the threshold level which are directly or indirectly associated; a threshold level setting means for referring to the storage means to keep a threshold level for the measuring object specified by inputted information so that the X-ray detection means can refer to the threshold level as the predetermined threshold level; and an inspection means for inspecting the measuring object (W) based on a number of photons or an amount corresponding to the number of the photons detected by the X-ray detection means for each of the one or more energy region(s). an X-ray emission means for emitting an X-ray to a measuring object (W); a conveyance means that conveys the measuring object (W) placed thereon, wherein the conveyance means is a belt conveyor; an X-ray detection means for detecting an X-ray photon transmitted through the measuring object (W) by discriminating energy possessed by the X-ray photon into one or more energy region (s) in accordance with a predetermined threshold level while the measuring object (W) is moved by the conveyance means ; a storage means for storing the measuring object (W) and the threshold level which are directly or indirectly associated; a threshold level setting means for referring to the storage means to keep a threshold level for the measuring object specified by inputted information so that the X-ray detection means can refer to the threshold level as the predetermined threshold level; and an inspection means for inspecting the measuring object (W) based on a number of photons or an amount corresponding to the number of the photons detected by the X-ray detection means for each of the one or more energy region(s).
A composition for use in a method of treating cancer in a patient in need thereof, the composition comprising therapeutic IgG monoclonal antibody mAb-AR20.5 specific to MUC1; polyIC, polyICLC; and an immune homeostatic checkpoint inhibitor being an anti-PDL-1 antibody.
A current collector for a rechargeable battery , which comprises a conductive fiber layer including a plurality of conductive fibers , wherein each of the conductive fibers comprises: a conductive core consisting of a plurality of metal filaments; and a conductive binder matrix surrounding the outer circumferential surfaces of the conductive core, wherein the conductive binder matrix is a mixed composition of a polymer binder material and a conductive material, wherein the conductive material is dispersed in the polymer binder material, and wherein the conductive material is carbon black, acetylene black, ketjen black, fine carbon, superfine graphite particles, a metal particle, indium tin oxide, ITO, carbon nanotubes, graphene, or wherein the conductive material comprises carbon black, superfine graphite particles, acetylene black, fine carbon, a metal particle, metal indium tin oxide, ITO, carbon nanotubes, or a combination thereof, characterized in that the conductive binder matrix is gelated. a conductive core consisting of a plurality of metal filaments; and a conductive binder matrix surrounding the outer circumferential surfaces of the conductive core, wherein the conductive binder matrix is a mixed composition of a polymer binder material and a conductive material, wherein the conductive material is dispersed in the polymer binder material, and wherein the conductive material is carbon black, acetylene black, ketjen black, fine carbon, superfine graphite particles, a metal particle, indium tin oxide, ITO, carbon nanotubes, graphene, or wherein the conductive material comprises carbon black, superfine graphite particles, acetylene black, fine carbon, a metal particle, metal indium tin oxide, ITO, carbon nanotubes, or a combination thereof,
A delayed coking drum consisting of a top ellipsoidal or hemispherical head, a bottom conical head with an outlet for coke product, and a vertical cylindrical section, with a vapor outlet at the top and a feed inlet at/near the bottom, with a shock-resistant and erosion-resistant internal lining applied to the inner surface of the drum, wherein the internal lining is a refractory lining and wherein the refractory lining is a monolithic lining comprising a rammed refractory secured by means of anchors attached to the inner surface of the drum.
A pusher drum for the tobacco processing industry having receiving grooves arranged sequentially in a row in the peripheral direction of the pusher drum for rod-shaped articles (FS) of the tobacco processing industry, in particular filter rods, and/or filter pieces, and/or segmented products, wherein the pusher drum can be rotated about an axis of rotation (R), wherein the receiving grooves each have a groove bottom , wherein the groove bottom of the receiving grooves are each bordered by a groove bar projecting in the delivery direction of the pusher drum , and by a groove bar trailing in the delivery direction of the pusher drum , wherein the groove bars extend parallel to the axis of rotation (R) of the pusher drum , wherein the rod-shaped articles (FS) can be pushed or are pushed in the receiving grooves along the groove bars in the longitudinally axial direction during the rotation of the pusher drum , wherein the groove bars have at least one groove bar region that is stepped in height, characterized in that the groove bars of the receiving grooves have a maximum height (H) between the groove bottom and a top side of the groove bars outside of the stepped groove bar region , wherein the stepped groove bar region or the stepped groove bar regions have a height between 15% and 85% of the maximum height, in particular between 20% and 60% of the maximum height (H).
A detergent product which is a unit dose water-soluble pouch comprising from 1 to 6 compartments, wherein at least one compartment comprises a solid composition, wherein the solid composition comprises: a) from 25 to 88 wt. % free acid equivalent of non-crystalline chiral aminopolycarboxylate; and b) from 10 to 60 wt. % free acid equivalent of non-crystalline organic acid different from aminopolycarboxylate; and c) from 0.7 to 25 wt. % of water; wherein the organic acid has an average molecular mass of at most 500 Dalton, the molecular mass being based on the free acid equivalent. a) from 25 to 88 wt. % free acid equivalent of non-crystalline chiral aminopolycarboxylate; and b) from 10 to 60 wt. % free acid equivalent of non-crystalline organic acid different from aminopolycarboxylate; and c) from 0.7 to 25 wt. % of water;
Addition-curable silicone rubber composition, comprising: (A) at least one polyorganosiloxane having at least two unsaturated hydrocarbyl residues, (B) at least one polyorganohydrogensiloxane, (C) at least one hydrosilylation catalyst, comprising a transition metal, (D) at least one organosilicon compound containing at least one polyvalent aromatic group, which is not directly attached to a silicon atom, and at least one Si-H group, different from compound B), (E) at least one aromatic compound with at least two unsaturated hydrocarbyl groups, which aromatic compound does not contain a siloxane group, (F) at least one silicone oil having at least one alkyl group having at least two carbon atoms, (G) optionally one or more reinforcing fillers, and (H) optionally one or more auxiliary additives. (A) at least one polyorganosiloxane having at least two unsaturated hydrocarbyl residues, (B) at least one polyorganohydrogensiloxane, (C) at least one hydrosilylation catalyst, comprising a transition metal, (D) at least one organosilicon compound containing at least one polyvalent aromatic group, which is not directly attached to a silicon atom, and at least one Si-H group, different from compound B), (E) at least one aromatic compound with at least two unsaturated hydrocarbyl groups, which aromatic compound does not contain a siloxane group, (F) at least one silicone oil having at least one alkyl group having at least two carbon atoms, (G) optionally one or more reinforcing fillers, and (H) optionally one or more auxiliary additives.
Composition for coating a substrate consisting at least partially of mineral materials, comprising a formulation comprising at least two components, characterized by - a first component based on at least one OH-functionalized binder comprising at least one polyacrylate containing styrene ≤ 30%, - a second component comprising a hardener component present as a mixture of hardeners of at least one aliphatic isocyanate or a polymer thereof, one hardener being hydrophilic and another hardener being hydrophobic, and - at least two fillers based on polyurethanes and/or polymethyl methacrylate are present with different average particle sizes of 10-20μm and 15-25μm. - a first component based on at least one OH-functionalized binder comprising at least one polyacrylate containing styrene ≤ 30%, - a second component comprising a hardener component present as a mixture of hardeners of at least one aliphatic isocyanate or a polymer thereof, one hardener being hydrophilic and another hardener being hydrophobic, and - at least two fillers based on polyurethanes and/or polymethyl methacrylate are present with different average particle sizes of 10-20μm and 15-25μm.
A method for monitoring a protective ground connection of an electrical feeder using a monitoring conductor , the feeder extending between a feeding point having a grounding connection and a load-side connection , comprising the method steps of: - generating a test current , - injecting the test current at the feeding point between the monitoring conductor and the grounding connection , characterized in that - the injected test current has a characteristic temporal progression that can be clearly distinguished from currents running on the protective ground during operation, - the protective ground current is measured at the feeding side, and - the measured protective ground current is evaluated so as to detect an interruption of the protective ground. - generating a test current , - injecting the test current at the feeding point between the monitoring conductor and the grounding connection , - the injected test current has a characteristic temporal progression that can be clearly distinguished from currents running on the protective ground during operation, - the protective ground current is measured at the feeding side, and - the measured protective ground current is evaluated so as to detect an interruption of the protective ground.
A method for estimating conductivity of a fluid, the method comprising the steps of: providing a fluid sample treatment apparatus containing an electrode system and a fluid sample; measuring an inorganic carbon concentration value of the fluid sample; measuring a temperature value of the fluid sample; measuring a total electrical conductivity value of the fluid sample using the electrode system; determining an inorganic carbon conductivity value of the fluid sample using the inorganic carbon concentration value and the temperature value of the fluid sample; and calculating a net conductivity value of the fluid sample by subtracting the inorganic carbon conductivity value from the total electrical conductivity value of the fluid sample. providing a fluid sample treatment apparatus containing an electrode system and a fluid sample; measuring an inorganic carbon concentration value of the fluid sample; measuring a temperature value of the fluid sample; measuring a total electrical conductivity value of the fluid sample using the electrode system; determining an inorganic carbon conductivity value of the fluid sample using the inorganic carbon concentration value and the temperature value of the fluid sample; and calculating a net conductivity value of the fluid sample by subtracting the inorganic carbon conductivity value from the total electrical conductivity value of the fluid sample.
A control device comprising: a calculation unit that calculates an operation parameter related to an operation of a robot by using machine learning; and a control unit that controls the robot on the basis of the calculated operation parameter, wherein the calculation unit includes a state observation portion that observes at least one of torque information of a motor (M1, ..., M6) provided in the robot and position information of the robot as a state variable; and a learning portion that learns the operation parameter on the basis of the state variable, wherein the learning portion determines a behavior of changing the operation parameter on the basis of the state variable, and optimizes the operation parameter, and wherein the learning portion evaluates a reward for the behavior on the basis of whether work performed by the robot is good or bad, wherein the learning portion evaluates the reward to be positive in at least one of a case where a required time for the work is shorter than a reference, a case where a deviation amount between a position of the robot and a target position is smaller than a reference, a case where a level of residual vibration is lower than a reference, a case where an overshoot amount at a position of the robot is smaller than a reference, and a case where the extent of generated sounds is lower than a reference characterized in that the operation parameter includes a servo gain for controlling a motor (M1, ..., M6) provided in the robot . a calculation unit that calculates an operation parameter related to an operation of a robot by using machine learning; and a control unit that controls the robot on the basis of the calculated operation parameter, wherein the calculation unit includes a state observation portion that observes at least one of torque information of a motor (M1, ..., M6) provided in the robot and position information of the robot as a state variable; and a learning portion that learns the operation parameter on the basis of the state variable, wherein the learning portion determines a behavior of changing the operation parameter on the basis of the state variable, and optimizes the operation parameter, and wherein the learning portion evaluates a reward for the behavior on the basis of whether work performed by the robot is good or bad, wherein the learning portion evaluates the reward to be positive in at least one of a case where a required time for the work is shorter than a reference, a case where a deviation amount between a position of the robot and a target position is smaller than a reference, a case where a level of residual vibration is lower than a reference, a case where an overshoot amount at a position of the robot is smaller than a reference, and a case where the extent of generated sounds is lower than a reference
A method for calibrating a first valve in a vacuum system, comprising: measuring conductance of a second reference valve as a function of second reference valve angular position to determine a desired reference profile of conductance versus angular valve position; measuring conductance of the first valve as a function of angular valve position; determining a conductance map or function for the first valve by comparing the measured conductance of the first valve as a function of angular valve position to the desired reference profile of conductance versus angular valve position; and storing the conductance map or function and the desired reference profile for use during operation of the first valve . measuring conductance of a second reference valve as a function of second reference valve angular position to determine a desired reference profile of conductance versus angular valve position; measuring conductance of the first valve as a function of angular valve position; determining a conductance map or function for the first valve by comparing the measured conductance of the first valve as a function of angular valve position to the desired reference profile of conductance versus angular valve position; and storing the conductance map or function and the desired reference profile for use during operation of the first valve .
A stable liquid pharmaceutical formulation, comprising: (A) infliximab; (B) a surfactant; (C) one or more selected from the group consisting of sorbitol, mannitol, sucrose or trehalose; and (D) a buffer comprising acetate or histidine. (A) infliximab; (B) a surfactant; (C) one or more selected from the group consisting of sorbitol, mannitol, sucrose or trehalose; and (D) a buffer comprising acetate or histidine.
Building section having - a cast floor or ceiling slab , - a substantially vertical building wall designed as a concrete wall, and - an arrangement of a plurality of moulded building blocks that is arranged between the cast floor or ceiling slab and the building wall , the arrangement comprising a plurality of moulded building blocks arranged between the building wall and the floor or ceiling slab , for supporting the building wall on the floor or ceiling slab or for supporting the floor or ceiling slab on the building wall , which are designed to transmit vertical compressive forces from the building wall to the floor or ceiling slab , wherein at least one of the moulded building blocks is designed as a fixed bearing building block with a support surface and a standing surface, wherein the support surface, which supports the building wall, and the standing surface, which faces the floor or ceiling slab, each have a connecting portion, characterized in that these connecting portions are designed to absorb shear forces acting in the longitudinal direction of the building wall and to transmit them into the underlying or overlying floor or ceiling slab , in order to fix the building wall relative to the floor or ceiling slab and wherein the respective connecting portion has at least one projecting profile element on the support surface and the standing surface . - a cast floor or ceiling slab , - a substantially vertical building wall designed as a concrete wall, and - an arrangement of a plurality of moulded building blocks that is arranged between the cast floor or ceiling slab and the building wall , a plurality of moulded building blocks arranged between the building wall and the floor or ceiling slab , for supporting the building wall on the floor or ceiling slab or for supporting the floor or ceiling slab on the building wall , which are designed to transmit vertical compressive forces from the building wall to the floor or ceiling slab , wherein at least one of the moulded building blocks is designed as a fixed bearing building block with a support surface and a standing surface, wherein the support surface, which supports the building wall, and the standing surface, which faces the floor or ceiling slab, each have a connecting portion,
A method of compressing the dynamic range of an audio signal, comprising: (a) obtaining an input audio signal ; (b) providing a time-varying gain signal based on the input audio signal and a desired output range; and (c) applying the time-varying gain signal to the input audio signal to provide an output audio signal , wherein said step (b) includes: i) determining and providing an indication of whether a transient is occurring in the input audio signal , ii) providing an attack gain-response time and a release gain-response time based on the indication of whether a transient is occurring in the input audio signal , and iii) lowpass filtering a signal that is based on the input audio signal , using the attack gain-response time and the release gain-response time as filtering parameters, characterized in that the attack gain-response time is decreased and the release gain-response time is increased in response to a determination that a transient is occurring in the input audio signal . (a) obtaining an input audio signal ; (b) providing a time-varying gain signal based on the input audio signal and a desired output range; and (c) applying the time-varying gain signal to the input audio signal to provide an output audio signal , iii) lowpass filtering a signal that is based on the input audio signal , using the attack gain-response time and the release gain-response time as filtering parameters, characterized in that the attack gain-response time is decreased and the release gain-response time is increased in response to a determination that a transient is occurring in the input audio signal .