mhurhangee/patent-ind-claim-en huggingface dataset:
A method of a User Equipment, in the following also referred to as UE, comprising: being configured with a Group Configured Scheduling Radio Network Temporary Identifier, in the following also referred to as G-CS-RNTI, by a base station, wherein the G-CS-RNTI is used for Semi-Persistent Scheduling, in the following also referred to as SPS, activation associated with a configured downlink multicast resource; at least one of receiving or detecting a first multicast transmission of downlink data on the configured downlink multicast resource, wherein the first multicast transmission is associated with a Hybrid Automatic Repeat Request, in the following also referred to as HARQ, process ; in response to receiving or detecting the first multicast transmission, starting a multicast HARQ Round Trip Time, in the following also referred to as RTT, timer associated with the HARQ process ; and characterized by in response to receiving or detecting the first multicast transmission, determining whether to start a unicast HARQ RTT timer associated with the HARQ process based on whether the UE is configured with a Configured Scheduling Radio Network Temporary Identifier, in the following also referred to as CS-RNTI, . being configured with a Group Configured Scheduling Radio Network Temporary Identifier, in the following also referred to as G-CS-RNTI, by a base station, wherein the G-CS-RNTI is used for Semi-Persistent Scheduling, in the following also referred to as SPS, activation associated with a configured downlink multicast resource; at least one of receiving or detecting a first multicast transmission of downlink data on the configured downlink multicast resource, wherein the first multicast transmission is associated with a Hybrid Automatic Repeat Request, in the following also referred to as HARQ, process ; in response to receiving or detecting the first multicast transmission, starting a multicast HARQ Round Trip Time, in the following also referred to as RTT, timer associated with the HARQ process ; and characterized by in response to receiving or detecting the first multicast transmission, determining whether to start a unicast HARQ RTT timer associated with the HARQ process based on whether the UE is configured with a Configured Scheduling Radio Network Temporary Identifier, in the following also referred to as CS-RNTI, .
A multilayer prepreg, comprising: a) A first fiber prepreg comprising a first surface , a second surface and first reinforcement fibers impregnated with a first B staged thermosetting resin ; b) adjacent to the first surface of the first fiber prepreg a second fiber prepreg comprising second reinforcement fibers impregnated with a second B staged thermosetting resin ; and c) adjacent to the second surface of the first fiber prepreg a first micaceous prepreg comprising a first micaceous layer in an amount of at least 50 g per square meter (g/m 2 ) and being impregnated with a third B staged curable thermosetting resin in an amount of at least 40% by weight based on the first micaceous prepreg . a) A first fiber prepreg comprising a first surface , a second surface and first reinforcement fibers impregnated with a first B staged thermosetting resin ; b) adjacent to the first surface of the first fiber prepreg a second fiber prepreg comprising second reinforcement fibers impregnated with a second B staged thermosetting resin ; and c) adjacent to the second surface of the first fiber prepreg a first micaceous prepreg comprising a first micaceous layer in an amount of at least 50 g per square meter (g/m 2 ) and being impregnated with a third B staged curable thermosetting resin in an amount of at least 40% by weight based on the first micaceous prepreg .
A reconfiguration method, performed by a first network node on a network side, characterized by comprising: sending , by the first network node on a network side, a reconfiguration request of cell change configuration information to a second network node on the network side; and obtaining , by the first network node, a reconfiguration response sent by the second network node based on the reconfiguration request; wherein the cell change configuration information comprises at least one of the following items: a trigger condition; an association relationship between a trigger condition, a cell identifier, measurement, and a cell change command; and measurement configuration. sending , by the first network node on a network side, a reconfiguration request of cell change configuration information to a second network node on the network side; and obtaining , by the first network node, a reconfiguration response sent by the second network node based on the reconfiguration request; wherein the cell change configuration information comprises at least one of the following items: a trigger condition; an association relationship between a trigger condition, a cell identifier, measurement, and a cell change command; and measurement configuration. a trigger condition; an association relationship between a trigger condition, a cell identifier, measurement, and a cell change command; and measurement configuration.
An agent comprising a lactic acid bacterium as an active ingredient for use in reducing the risk of developing an eye disease selected from the group consisting of age-related macular degeneration, fundus hemorrhage, and vitreous floater, or dizziness syndrome as an equilibrium dysfunction; wherein the agent inhibits a decrease in a disease-free rate, and wherein the lactic acid bacterium is Lactobacillus casei YIT 9029 (FERM BP-1366). wherein the agent inhibits a decrease in a disease-free rate, and wherein the lactic acid bacterium is Lactobacillus casei YIT 9029 (FERM BP-1366).
A method of decomposing phenol-based by-product, the method comprising: introducing a phenol-based by-product stream, a first stream of a side discharge stream from a decomposition device, and a process water stream to a mixing device and mixing the streams; introducing a discharge stream from the mixing device to a layer separation device to phase-separate the discharge stream into an oil phase and an aqueous phase; passing an oil stream discharged from the layer separation device through any one or more of a first heat exchanger and a second heat exchanger and introducing the oil stream to the decomposition device to carry out decomposition; and supplying the first stream of the side discharge stream from the decomposition device to the mixing device, forming a mixed stream of a second stream of the side discharge stream from the decomposition device with a lower discharge stream from the decomposition device and discharging the mixed stream, and recovering effective components from an upper discharge stream from the decomposition device, wherein the phenol-based by-product stream is supplied to the mixing device after heat exchange with the oil stream discharged from the layer separation device in the first heat exchanger, and wherein the mixed stream is heat-exchanged with the oil stream, which has been passed through the first heat exchanger, in the second heat exchanger and then is discharged. introducing a phenol-based by-product stream, a first stream of a side discharge stream from a decomposition device, and a process water stream to a mixing device and mixing the streams; introducing a discharge stream from the mixing device to a layer separation device to phase-separate the discharge stream into an oil phase and an aqueous phase; passing an oil stream discharged from the layer separation device through any one or more of a first heat exchanger and a second heat exchanger and introducing the oil stream to the decomposition device to carry out decomposition; and supplying the first stream of the side discharge stream from the decomposition device to the mixing device, forming a mixed stream of a second stream of the side discharge stream from the decomposition device with a lower discharge stream from the decomposition device and discharging the mixed stream, and recovering effective components from an upper discharge stream from the decomposition device, wherein the phenol-based by-product stream is supplied to the mixing device after heat exchange with the oil stream discharged from the layer separation device in the first heat exchanger, and wherein the mixed stream is heat-exchanged with the oil stream, which has been passed through the first heat exchanger, in the second heat exchanger and then is discharged.
A method, comprising: receiving, by a network , from a first user equipment, UE, , a physical downlink control channel, PDCCH, monitoring capability, the PDCCH monitoring capability including: a span pattern requirement specifying one or more restrictions on lengths and separations, and a minimum time separation requirement, the minimum time separation requirement specifying a minimum time separation between downlink control informations, DCls; and generating, by the network , in response to the PDCCH monitoring capability, a first monitoring occasion, MO, pattern, characterized by sending, by the network , to the first UE , the first MO pattern, the first MO pattern not complying with the span pattern requirement, and sending, by the network , to the first UE , a first DCI, and a second DCI separated from the first DCI by at least the minimum time separation, wherein the minimum time separation requirement specifies an absence of a DCI in a symbol immediately following a symbol with a DCI, the method further comprising disabling, by the first UE , DCI reception during a symbol immediately following the first DCI. receiving, by a network , from a first user equipment, UE, , a physical downlink control channel, PDCCH, monitoring capability, the PDCCH monitoring capability including: a span pattern requirement specifying one or more restrictions on lengths and separations, and a minimum time separation requirement, the minimum time separation requirement specifying a minimum time separation between downlink control informations, DCls; and a span pattern requirement specifying one or more restrictions on lengths and separations, and a minimum time separation requirement, the minimum time separation requirement specifying a minimum time separation between downlink control informations, DCls; and generating, by the network , in response to the PDCCH monitoring capability, a first monitoring occasion, MO, pattern, characterized by sending, by the network , to the first UE , the first MO pattern, the first MO pattern not complying with the span pattern requirement, and sending, by the network , to the first UE , a first DCI, and a second DCI separated from the first DCI by at least the minimum time separation, wherein the minimum time separation requirement specifies an absence of a DCI in a symbol immediately following a symbol with a DCI, the method further comprising disabling, by the first UE , DCI reception during a symbol immediately following the first DCI.
A method of generating points of a 3D scene from a depth image, the method being characterized by : - for a current pixel of said depth image, comparing depth information associated with said current pixel with depth information associated with pixels spatially adjacent to said current pixel in said depth image; - when the difference of depth between said current pixel and an adjacent pixel is greater than or equal to a first value and less than or equal to a second value, said second value ensuring that said current pixel and adjacent pixel belong to a same object of the 3D scene or a same part of an object of the 3D scene, generating at least an additional point of said 3D scene in addition to a current point associated with said current pixel of the depth image, the number of additional points depending on said difference. - for a current pixel of said depth image, comparing depth information associated with said current pixel with depth information associated with pixels spatially adjacent to said current pixel in said depth image; - when the difference of depth between said current pixel and an adjacent pixel is greater than or equal to a first value and less than or equal to a second value, said second value ensuring that said current pixel and adjacent pixel belong to a same object of the 3D scene or a same part of an object of the 3D scene, generating at least an additional point of said 3D scene in addition to a current point associated with said current pixel of the depth image, the number of additional points depending on said difference.
A wearable apparatus comprising: a shield configured to protect at least a portion of a user's face from an external environment; an infrared imaging module comprising a focal plane array (FPA) configured to capture a thermal image of the external environment; an aperture in the shield ; a window assembly configured to seal the aperture and pass infrared radiation from the external environment to the infrared imaging module ; a processor configured to convert the thermal image into a user-viewable image of the external environment; and a projector configured to project the user-viewable image onto an inner surface of the shield for viewing by the user while wearing the apparatus , wherein the infrared imaging module and the projector are positioned interior to and behind said shield to protect the infrared imaging module and the projector from the external environment a shield configured to protect at least a portion of a user's face from an external environment; an infrared imaging module comprising a focal plane array (FPA) configured to capture a thermal image of the external environment; an aperture in the shield ; a window assembly configured to seal the aperture and pass infrared radiation from the external environment to the infrared imaging module ; a processor configured to convert the thermal image into a user-viewable image of the external environment; and a projector configured to project the user-viewable image onto an inner surface of the shield for viewing by the user while wearing the apparatus , wherein the infrared imaging module and the projector are positioned interior to and behind said shield to protect the infrared imaging module and the projector from the external environment
Method of operation of a device for determining a feature of a battery from among the state of charge (SOC) of the battery, the state of health (SOH) of the battery and the capacity (Cref) of the battery, the device comprising a man-machine interface, the method comprising the following steps: - Receiving a request to determine an actual value of the said feature of a battery , - Determining, by interrogating a user via the man-machine interface, the next date at which a consuming device will need energy from the battery, wherein the method comprises the following steps: - Verifying that it is possible to determine the actual value of the feature of the battery by the next date, - If such is the case, determining the actual value of the feature of the battery by carrying out a phase of charging of the battery or by carrying out a phase of discharging of the battery, the step of verifying that it is possible to determine the actual value of the feature of the battery by the next date at which a consuming device will need energy from the battery comprising a validation confirming that the device is not forecast to use energy from the battery for a duration at least equal to the duration of the step of determining the actual value of the feature of the battery. - Receiving a request to determine an actual value of the said feature of a battery , - Determining, by interrogating a user via the man-machine interface, the next date at which a consuming device will need energy from the battery, - Verifying that it is possible to determine the actual value of the feature of the battery by the next date, - If such is the case, determining the actual value of the feature of the battery by carrying out a phase of charging of the battery or by carrying out a phase of discharging of the battery,
A ready-to-use product for daily administration comprising a composition comprising at least 18 grams (g) (dry weight) of fermented cereal; and at least 1 × 10 11 colony forming units (cfu) of Lactobacillus plantarum cells selected from Lactobacillus plantarum 299 and Lactobacillus plantarum 299v; wherein the fermented cereal is obtained by fermenting a cereal gruel with one or more of said Lactobacillus plantarum cells; for use in a method for the treatment of a patient suffering from ulcerative colitis, Crohn's disease or Irritable Bowel Syndrome (IBS). at least 18 grams (g) (dry weight) of fermented cereal; and at least 1 × 10 11 colony forming units (cfu) of Lactobacillus plantarum cells selected from Lactobacillus plantarum 299 and Lactobacillus plantarum 299v; wherein the fermented cereal is obtained by fermenting a cereal gruel with one or more of said Lactobacillus plantarum cells;
A wheel having a chemical composition consisting of, by mass percent, C: 0.65 to 0.84%, Si: 0.02 to 0.40%, Mn: 0.50 to 1.90%, Cr: 0.02 to 0.50%, V: 0.02 to 0.20%, and S: 0.04% or less, optionally at least one selected from 0.20% or less of Mo, 0.20% or less of Al, Cu: 0.20% or less, and Ni: 0.20% or less, in which Fn1 expressed by Formula is 35 to 43, and Fn2 expressed by Formula is 25 or less, the balance being Fe and impurities, and the impurities containing P: 0.05% or less; Fn 1 = 2.7 + 29.5 × C + 2.9 × Si + 6.9 × Mn + 10.8 × Cr + 30.3 × Mo + 44.3 × V Fn 2 = exp 0.76 × exp 0.05 × C × exp 1.35 × Si × exp 0.38 × Mn × exp 0.77 × Cr × exp 30 . × Mo × exp 4.6 × V in Formulas and , C, Si, Mn, Cr, Mo and V each mean the content in percent by mass of the element, wherein the area fraction of pearlitic structure of a rim part of the wheel is 95% or more.
A vacuum cleaner comprising: a housing ; a motor fan assembly mounted in the housing, the motor fan assembly arranged to generate an air flow; a removable dirt container mountable on the housing and in fluid communication with a dirty air inlet and the motor fan assembly; and a moveable dirt compactor mounted in the dirt container and moveable between a stowed position and a dirt compacting position wherein the moveable dirt compactor is closer to one end of the dirt container in the dirt compacting position than in the stowed position; wherein the dirt container comprises a primary handle for actuating the moveable dirt compactor with a first hand and a first auxiliary handle for allowing the user to grip with a second hand, characterised in that the primary handle is moveably mounted on a front surface of the dirt container. a housing ; a motor fan assembly mounted in the housing, the motor fan assembly arranged to generate an air flow; a removable dirt container mountable on the housing and in fluid communication with a dirty air inlet and the motor fan assembly; and a moveable dirt compactor mounted in the dirt container and moveable between a stowed position and a dirt compacting position wherein the moveable dirt compactor is closer to one end of the dirt container in the dirt compacting position than in the stowed position; wherein the dirt container comprises a primary handle for actuating the moveable dirt compactor with a first hand and a first auxiliary handle for allowing the user to grip with a second hand, characterised in that the primary handle is moveably mounted on a front surface of the dirt container.
An elastic non-metal clip , comprising: a main body having an inner wall (3-11) and an outer wall (3-12), wherein an M-shaped vertical bar inserting hole (3-2) is formed in a middle of the main body ; an outward extending flange (3-1) is formed at an upper end of the outer wall (3-12); a section with an inwardly inclined face (3-5) is formed on the outer wall (3-12) below the flange (3-1); a section with two straight walls (3-4) is formed at a lower part of the inclined face (3-5), a distance between the outer faces of the two straight walls (3-4) is less than an outer diameter of the flange (3-1) at the upper end; a clamping groove (3-6) is formed between an upper end face (3-3) of the inclined face (3-5) and a lower end face of the flange (3-1); and an inwardly protruding bump (3-7) is formed on the inner wall (3-11) corresponding to the inclined face (3-5) on the outer wall (3-12), the bump (3-7) extending from top to bottom in a form of a convex arc. a main body having an inner wall (3-11) and an outer wall (3-12), wherein an M-shaped vertical bar inserting hole (3-2) is formed in a middle of the main body ; an outward extending flange (3-1) is formed at an upper end of the outer wall (3-12); a section with an inwardly inclined face (3-5) is formed on the outer wall (3-12) below the flange (3-1); a section with two straight walls (3-4) is formed at a lower part of the inclined face (3-5), a distance between the outer faces of the two straight walls (3-4) is less than an outer diameter of the flange (3-1) at the upper end; a clamping groove (3-6) is formed between an upper end face (3-3) of the inclined face (3-5) and a lower end face of the flange (3-1); and an inwardly protruding bump (3-7) is formed on the inner wall (3-11) corresponding to the inclined face (3-5) on the outer wall (3-12), the bump (3-7) extending from top to bottom in a form of a convex arc.
A viscous clutch comprising: a rotor ; a housing member ; a working chamber located between the housing member and the rotor, wherein a viscous fluid present in the working chamber rotationally couples the rotor and the housing member; a reservoir to hold the viscous fluid, the reservoir configured to rotate with the rotor; a return bore in fluid communication between the working chamber and the reservoir, to allow the viscous fluid to return from the working chamber to the reservoir; a first passage from the reservoir to the working chamber; a second passage from the reservoir to the working chamber, wherein the second passage is spaced from the first passage; and a valve , wherein the valve is configured to selectively regulate flow of the viscous fluid through the first passage, characterized in that the second passage extends substantially radially through the rotor and the second passage is unobstructed such that the viscous fluid can pass from the reservoir to the working chamber regardless of an operational state of the valve . a rotor ; a housing member ; a working chamber located between the housing member and the rotor, wherein a viscous fluid present in the working chamber rotationally couples the rotor and the housing member; a reservoir to hold the viscous fluid, the reservoir configured to rotate with the rotor; a return bore in fluid communication between the working chamber and the reservoir, to allow the viscous fluid to return from the working chamber to the reservoir; a first passage from the reservoir to the working chamber; a second passage from the reservoir to the working chamber, wherein the second passage is spaced from the first passage; and a valve , wherein the valve is configured to selectively regulate flow of the viscous fluid through the first passage, characterized in that the second passage extends substantially radially through the rotor and the second passage is unobstructed such that the viscous fluid can pass from the reservoir to the working chamber regardless of an operational state of the valve .