mhurhangee/patent-ind-claim-en huggingface dataset:
A method carried out by a User Equipment, in the following also referred to as UE, the method comprising: receiving, via a Radio Resource Control, in the following also referred to as RRC, message, a resource configuration of a first configured grant to be used in RRC inactive state ; performing a first new transmission using the first configured grant in RRC inactive state ; receiving, after the performing the first new transmission, an uplink grant associated with a Hybrid Automatic Repeat Request, in the following also referred to as HARQ, process in RRC inactive state via Physical Downlink Control Channel, in the following also referred to as PDCCH, ; determining, based on at least whether a Radio Network Temporary Identifier, in the following also referred to as RNTI, to which the uplink grant is addressed, is a first RNTI or a second RNTI, whether the uplink grant is for performance of a second new transmission or for performance of a first retransmission ; and performing the second new transmission using the uplink grant in RRC inactive state if the UE determines or based on a determination that the uplink grant is for performance of the second new transmission, or performing the first retransmission using the uplink grant in RRC inactive state if the UE determines or based on a determination that the uplink grant is for performance of the first retransmission . receiving, via a Radio Resource Control, in the following also referred to as RRC, message, a resource configuration of a first configured grant to be used in RRC inactive state ; performing a first new transmission using the first configured grant in RRC inactive state ; receiving, after the performing the first new transmission, an uplink grant associated with a Hybrid Automatic Repeat Request, in the following also referred to as HARQ, process in RRC inactive state via Physical Downlink Control Channel, in the following also referred to as PDCCH, ; determining, based on at least whether a Radio Network Temporary Identifier, in the following also referred to as RNTI, to which the uplink grant is addressed, is a first RNTI or a second RNTI, whether the uplink grant is for performance of a second new transmission or for performance of a first retransmission ; and performing the second new transmission using the uplink grant in RRC inactive state if the UE determines or based on a determination that the uplink grant is for performance of the second new transmission, or performing the first retransmission using the uplink grant in RRC inactive state if the UE determines or based on a determination that the uplink grant is for performance of the first retransmission .
A vessel for removing hydrocarbons from catalyst, the vessel comprising: a catalyst inlet configured to receive a stream of spent catalyst particles, at least some of the spent catalyst particles comprising entrained hydrocarbons; a first section , the first section including a first grid and a second grid , wherein the first grid and the second grid include a plurality of openings to allow catalyst to pass there through, a first pipe secured to the first grid and supporting the second grid , and a second pipe secured to the first grid and supporting the second grid ; an outlet configured to pass catalyst particles from the vessel ; and a second stripping section , the second stripping section comprising a structured packing ; wherein each pipe comprises three segments : a first segment secured to the first grid , an intermediate segment secured to the first segment and a second segment secured to the second grid ; wherein the first segment has an upper leg that passes above the first grid and is secured to the intermediate segment and a lower leg that passes below the first grid , wherein a first end of the intermediate segment is secured to the upper leg of the first segment ; and wherein the second segment has an upper leg that passes above the second grid and a lower leg that passes below the second grid and is secured to a second end of the intermediate segment below the second grid .. a catalyst inlet configured to receive a stream of spent catalyst particles, at least some of the spent catalyst particles comprising entrained hydrocarbons; a first section , the first section including a first grid and a second grid , wherein the first grid and the second grid include a plurality of openings to allow catalyst to pass there through, a first pipe secured to the first grid and supporting the second grid , and a second pipe secured to the first grid and supporting the second grid ; an outlet configured to pass catalyst particles from the vessel ; and a second stripping section , the second stripping section comprising a structured packing ; wherein each pipe comprises three segments : a first segment secured to the first grid , an intermediate segment secured to the first segment and a second segment secured to the second grid ; wherein the first segment has an upper leg that passes above the first grid and is secured to the intermediate segment and a lower leg that passes below the first grid , wherein a first end of the intermediate segment is secured to the upper leg of the first segment ; and wherein the second segment has an upper leg that passes above the second grid and a lower leg that passes below the second grid and is secured to a second end of the intermediate segment below the second grid ..
A flow regulator for regulating a flow rate of water within at least a section of an irrigation system, the flow regulator comprising a base member and piston member that is movable relative to the base member , the piston member comprises at least one notch through which water can flow when passing through the flow regulator , wherein movement of the piston member towards and away from the base member in response to water pressure existing upstream and downstream to an entry into the piston member is adapted to, respectively, decrease and increase an area of the notch through which water can flow, and wherein the piston member is upstream to the base member , and the flow regulator comprises an orifice member coupled to the piston member through which all water flowing through the flow regulator must pass. a base member and piston member that is movable relative to the base member , the piston member comprises at least one notch through which water can flow when passing through the flow regulator , wherein movement of the piston member towards and away from the base member in response to water pressure existing upstream and downstream to an entry into the piston member is adapted to, respectively, decrease and increase an area of the notch through which water can flow, and wherein the piston member is upstream to the base member , and the flow regulator comprises an orifice member coupled to the piston member through which all water flowing through the flow regulator must pass.
A heat shield for a wheel comprising: a first member ; a second member positioned radially of the first member defining an annular cavity between the first member and the second member; an opening configured to provide fluidic communication between the annular cavity and an outside of the annular cavity; and a mounting feature in operable communication with the first member and the second member configured to attach the heat shield to the wheel , and characterized in that said opening is in at least one of the first member and the second member ; and wherein the heat shield comprises a key slot tab and a key slot disposed in the key slot tab , and wherein a first key slot ventilation aperture and a second key slot ventilation aperture are located between the first member of the heat shield and the key slot tab . a first member ; a second member positioned radially of the first member defining an annular cavity between the first member and the second member; an opening configured to provide fluidic communication between the annular cavity and an outside of the annular cavity; and a mounting feature in operable communication with the first member and the second member configured to attach the heat shield to the wheel , and characterized in that said opening is in at least one of the first member and the second member ; and wherein the heat shield comprises a key slot tab and a key slot disposed in the key slot tab , and wherein a first key slot ventilation aperture and a second key slot ventilation aperture are located between the first member of the heat shield and the key slot tab .
A common automation system controller , comprising: a memory ; an input/output interface ; a library of application types stored in the memory , where the application types are hierarchically configured with objects associated with the building automation system , where one or more application types are selected for implementation on the common automation system controller from the library of application types ; and a processor coupled to the memory configured to execute an application of the selected application type associated with functions for a building automation system , where the application is parameterized, compiled, and loaded into the common system controller , where the compiled application is associated with an application interface specific to functions of the selected application type and an input/output interface is coupled to devices of the building automation system . a memory ; an input/output interface ; a library of application types stored in the memory , where the application types are hierarchically configured with objects associated with the building automation system , where one or more application types are selected for implementation on the common automation system controller from the library of application types ; and a processor coupled to the memory configured to execute an application of the selected application type associated with functions for a building automation system , where the application is parameterized, compiled, and loaded into the common system controller , where the compiled application is associated with an application interface specific to functions of the selected application type and an input/output interface is coupled to devices of the building automation system .
Part of a railway system comprising a surface rubbing against a second surface, said part comprising at least one structure made of steel, the external surface of said steel structure being covered by at least one layer of lubricating thermoplastic polymers , characterised in that the steel structure is not made from amorphous steel, the part comprises a layer of amorphous steel arranged between on the one hand the steel structure and on the other hand the layer of lubricating thermoplastic polymers .
A processor-implemented method comprising: partitioning a display area of a digitized digit symbol substitution test (DSST) device into multiple bins based on distance and degree from a center position of the display area; displaying a series of number symbol pairs as a lookup table on top of the display, termed as a lookup area; displaying a question and answer (QA) pair corresponding to the series of number symbol pairs to an examinee in multiple trials, wherein the location of the QA pair is changed in each of the multiple trials so that equal number of pairs are present in the multiple bins; computing feature values for the QA pair in each of the multiple bins in the multiple trials, wherein the feature values comprise a response time and an accuracy of response by the examinee; determining probabilities of the feature values in each of the multiple bins; and computing an entropy value based on the probabilities of the feature values in each of the multiple bins, wherein the entropy value provides information on distribution of the feature values in the display area. partitioning a display area of a digitized digit symbol substitution test (DSST) device into multiple bins based on distance and degree from a center position of the display area; displaying a series of number symbol pairs as a lookup table on top of the display, termed as a lookup area; displaying a question and answer (QA) pair corresponding to the series of number symbol pairs to an examinee in multiple trials, wherein the location of the QA pair is changed in each of the multiple trials so that equal number of pairs are present in the multiple bins; computing feature values for the QA pair in each of the multiple bins in the multiple trials, wherein the feature values comprise a response time and an accuracy of response by the examinee; determining probabilities of the feature values in each of the multiple bins; and computing an entropy value based on the probabilities of the feature values in each of the multiple bins, wherein the entropy value provides information on distribution of the feature values in the display area.
A computer device , comprising a power control system a computer system , a power system , and a cooling system , wherein the power system is configured for providing supply voltages to each component of the computer device in an operating state, and the power control system is coupled to the computer system , the power system , and the cooling system , the computer device being characterized in that when the computer system receives an OFF signal in the operating state, the computer system is configured to transmit the received OFF signal to the power system and when the power control system is in an overclocking frequency mode, the power control system is configured to intercept and cut off the OFF signal transmitted from the computer system to the power system and to send a SYSTEM-SHUTDOWN signal to the computer system so as to control the computer system to enter a non-operating state, to control the power system to keep outputting supply voltages, wherein, as the power control system stays in the overclocking frequency mode, providing the supply voltage to the cooling system is maintained such that the cooling system maintains normal operation, wherein when the computer system receives the OFF signal in the operating state and when the power control system is not in the overclocking frequency mode, the power control system is configured to control the computer system and the power system such that both enter the non-operating state, and wherein the non-operating state refers to a state complying with the S3 mode, S4 mode or, S5 mode according to the advanced configuration and power interface standard, ACPI, and the operating state refers to a S0 mode standard of the ACPI.
A carbon material for lithium ion secondary battery, wherein the raw material of the carbon material is a graphitized carbon particle comprising spheroidized natural graphite, and wherein the surface functional group amount O/C value represented by the following formula 1 is from 1 to 4% and the sum (Cl/C+S 165 /C) of the surface functional group amount Cl/C value represented by the following formula 2 and the surface functional group amount S 165 /C value represented by the following formula 3 is from 0.05 to 0.5%: O / C value % = O atom concentration determined based on the peak area of the spectrum of O 1 ⁢ s in X-ray photoelectron spectroscopy analysis / C atom concentration determined based on the peak area of the spectrum of C 1 ⁢ s in XPS analysis × 100 C 1 / C value % = C 1 atom concentration determined based on the peak area of the spectrum of C 12 ⁢ p in XPS analysis / C atom concentration determined based on the peak area of the spectrum of C 1 ⁢ s in XPS analysis × 100 S 165 / C value % = S 165 atom concentration determined based on the peak area of the peak near 165 eV in the spectrum corresponding to S 2 ⁢ p in XPS analysis / C atom concentration determined based on the peak area of the spectrum of C 1 ⁢ s in XPS analysis × 100 .
Reduction kit comprising: - on the one hand, a reducing compound, and - on the other hand an open cell polymer foam and comprising on the surface a catechol pattern polymer, wherein the reducing compound is a hydride selected from LiBH 4 , NaBH 4 , KBH 4 , NaBH 3 CN, LiH, NaH, KH, CaH 2 , BH 3 , AlH 3 , GaH 3 , InH 3 , TlH 3 , a dialkylaluminum hydride, their derivative and their mixture. - on the one hand, a reducing compound, and - on the other hand an open cell polymer foam and comprising on the surface a catechol pattern polymer, wherein the reducing compound is a hydride selected from LiBH 4 , NaBH 4 , KBH 4 , NaBH 3 CN, LiH, NaH, KH, CaH 2 , BH 3 , AlH 3 , GaH 3 , InH 3 , TlH 3 , a dialkylaluminum hydride, their derivative and their mixture.
A method for a wireless power receiver to control power transfer based on a result of foreign object detection, the method being characterized in that the method comprises, by the wireless power receiver : receiving, from a wireless power transmitter , a confidence level as to whether a foreign object is present, the confidence level being within a predetermined range; mapping the confidence level to a maximum operating condition; sending the maximum operating condition to the wireless power transmitter ; and receiving power from the wireless power transmitter at or below the maximum operating condition. receiving, from a wireless power transmitter , a confidence level as to whether a foreign object is present, the confidence level being within a predetermined range; mapping the confidence level to a maximum operating condition; sending the maximum operating condition to the wireless power transmitter ; and receiving power from the wireless power transmitter at or below the maximum operating condition.
A method for controlling generation of biologically desirable voids in an implant having an outer surface and having a pre-formed substantially interconnected porous structure suitable for placement in proximity to bone tissue in a patient, comprising: selecting at least one osteoinductive water-soluble inorganic material having a desired particle size and dissolution rate; and mixing the water-soluble inorganic material within the pre-formed substantially interconnected porous structure formed of a poorly water-soluble matrix material disposed on at least a portion of the outer surface and defining interstices, wherein the matrix material forms the substantially interconnected porous structure before the water-soluble inorganic material is mixed within the matrix material and prior to placement in a patient, the mixing including blending the water-soluble inorganic material within at least some of the interstices and attaching or fixing the water-soluble inorganic material to the matrix material; so that after placement of the porous matrix structure formed of the matrix material mixed with the water-soluble inorganic material into the patient in proximity to bone tissue, bodily fluids are capable of dissolving the water-soluble inorganic material at a predetermined rate to generate biologically desirable voids in the matrix structure, having an average cross-sectional dimension greater than 100 microns, by gradually exposing more of the interstices into which bone tissue can then grow to facilitate fixation of the implant within the patient. selecting at least one osteoinductive water-soluble inorganic material having a desired particle size and dissolution rate; and mixing the water-soluble inorganic material within the pre-formed substantially interconnected porous structure formed of a poorly water-soluble matrix material disposed on at least a portion of the outer surface and defining interstices, wherein the matrix material forms the substantially interconnected porous structure before the water-soluble inorganic material is mixed within the matrix material and prior to placement in a patient, the mixing including blending the water-soluble inorganic material within at least some of the interstices and attaching or fixing the water-soluble inorganic material to the matrix material; so that after placement of the porous matrix structure formed of the matrix material mixed with the water-soluble inorganic material into the patient in proximity to bone tissue, bodily fluids are capable of dissolving the water-soluble inorganic material at a predetermined rate to generate biologically desirable voids in the matrix structure, having an average cross-sectional dimension greater than 100 microns, by gradually exposing more of the interstices into which bone tissue can then grow to facilitate fixation of the implant within the patient.
A sole element for a cleated article of footwear, in particular for a football shoe, comprising: (a) a composite element with an anisotropic bending property; (b) a polymer element that at least partially covers the composite element , wherein the composite element has a first bending stiffness for bending upwards in a toe region of the sole element and a second bending stiffness for bending downwards in the toe region of the sole element , wherein the second bending stiffness is lower than the first bending stiffness. (a) a composite element with an anisotropic bending property; (b) a polymer element that at least partially covers the composite element , wherein the composite element has a first bending stiffness for bending upwards in a toe region of the sole element and a second bending stiffness for bending downwards in the toe region of the sole element , wherein the second bending stiffness is lower than the first bending stiffness.
A turbine shroud comprising a round carrier having a first coefficient of thermal expansion, a one-piece blade track nested in the round carrier and having a second coefficient of thermal expansion, the second coefficient of thermal expansion being less than the first coefficient of thermal expansion, and a cross-key connection formed between the round carrier and the one-piece blade track to locate the one-piece blade track relative to the round carrier, the cross-key connection including a plurality of keys and a plurality of corresponding keyways , wherein (i) the carrier is an annular metallic carrier, (ii) the one-piece blade track is ceramic and concentric with the annular metallic carrier, (iii) the one-piece ceramic blade track includes a first portion having a first thickness and a second portion having a second thickness greater than the first thickness, (iv) the plurality of keys extend inwardly in a radial direction from the annular metallic carrier, (v) the plurality of corresponding keyways extend inwardly in the radial direction into the second portion of the one-piece ceramic blade track, (vi) the one-piece ceramic blade track includes a third portion having an increasing thickness that interconnects the first portion and the second portion, (vii) the plurality of corresponding keyways extend inwardly in the radial direction into the third portion of the one-piece ceramic blade track; (viii) the one-piece blade track comprises a forward side and an aft side ; and (ix) the keyways of the cross-key connection are spaced apart from the aft side of the one-piece blade track. (i) the carrier is an annular metallic carrier, (ii) the one-piece blade track is ceramic and concentric with the annular metallic carrier, (iii) the one-piece ceramic blade track includes a first portion having a first thickness and a second portion having a second thickness greater than the first thickness, (iv) the plurality of keys extend inwardly in a radial direction from the annular metallic carrier, (v) the plurality of corresponding keyways extend inwardly in the radial direction into the second portion of the one-piece ceramic blade track, (vi) the one-piece ceramic blade track includes a third portion having an increasing thickness that interconnects the first portion and the second portion, (vii) the plurality of corresponding keyways extend inwardly in the radial direction into the third portion of the one-piece ceramic blade track; (viii) the one-piece blade track comprises a forward side and an aft side ; and (ix) the keyways of the cross-key connection are spaced apart from the aft side of the one-piece blade track.