mhurhangee/patent-ind-claim-en huggingface dataset:
A method for granting network resources for maintaining a communication session for a subscriber in a network , the method being performed by a Charging Trigger Function, CTF, node , the method comprising: obtaining (S102), from a gateway in the network , a request for network resources for maintaining the communication session for the subscriber ; requesting (S104), from an Online Charging Function, OCF, node and in response thereto, credit units corresponding to the network resources; obtaining (S106) a grant of the credit units for immediate use and an advance credit indication of additional credit units for future use in case where the OCF node becomes unavailable, wherein the grant of the credit units is valid for one single request for credit units for the communication session, and wherein the advance credit indication pertains to grant of credit units for N≥1 additional such requests for the same communication session, and wherein the advance credit indication is used for granting further network resources for maintaining the communication session for the subscriber when the OCF node is unavailable, and wherein N indicates number of services used by the subscriber ; storing (S108) the advance credit indication for the communication session; and providing (S110), to the gateway , a grant for the network resources for maintaining the communication session in accordance with the obtained grant. obtaining (S102), from a gateway in the network , a request for network resources for maintaining the communication session for the subscriber ; requesting (S104), from an Online Charging Function, OCF, node and in response thereto, credit units corresponding to the network resources; obtaining (S106) a grant of the credit units for immediate use and an advance credit indication of additional credit units for future use in case where the OCF node becomes unavailable, wherein the grant of the credit units is valid for one single request for credit units for the communication session, and wherein the advance credit indication pertains to grant of credit units for N≥1 additional such requests for the same communication session, and wherein the advance credit indication is used for granting further network resources for maintaining the communication session for the subscriber when the OCF node is unavailable, and wherein N indicates number of services used by the subscriber ; storing (S108) the advance credit indication for the communication session; and providing (S110), to the gateway , a grant for the network resources for maintaining the communication session in accordance with the obtained grant.
System for assisting in driving a bicycle by sending a haptic feedback to a cyclist, comprising: - means for detecting the current value of a target quantity (q; v); - a memory module - a comparator module configured for determining a quantity representative of the error (e q ; e v ) between said current value of the target quantity (q; v) and said optimal value of the target quantity (q max ; v max ) supplied by the memory module ; - an actuator applicable to a portion of the bicycle , suitable for generating vibrations wherein said said target quantity is the bicycle speed and said means for detecting the current value of the target quantity comprise an angular speed sensor suitable for being coupled to a wheel of the bicycle and for generating a signal representative of its angular speed (w),and characterised by the system further comprising: - a control module configured for determining a vibration frequency (f) of the actuator , based on said error (e q ; e v ) between the current (q; v) and the optimal values (q max ; v max ) of the target quantity and for generating a command signal of the actuator so that the actuator vibrates at said vibration frequency (f), wherein said vibration implements the haptic feedback to the cyclist, and an optimal profile of said target quantity is stored or storable in said memory module as a function of the bicycle spatial position (x) along a predetermined path; the memory module being configured for supplying the optimal value of the target quantity (q max ; v max ) corresponding to the current spatial position (x) of the bicycle along the predetermined path, wherein the system further comprises a module for determining the bicycle spatial position (x) along said predetermined path. - means for detecting the current value of a target quantity (q; v); - a memory module - a comparator module configured for determining a quantity representative of the error (e q ; e v ) between said current value of the target quantity (q; v) and said optimal value of the target quantity (q max ; v max ) supplied by the memory module ; - an actuator applicable to a portion of the bicycle , suitable for generating vibrations - a control module configured for determining a vibration frequency (f) of the actuator , based on said error (e q ; e v ) between the current (q; v) and the optimal values (q max ; v max ) of the target quantity and for generating a command signal of the actuator so that the actuator vibrates at said vibration frequency (f), wherein said vibration implements the haptic feedback to the cyclist, and an optimal profile of said target quantity is stored or storable in said memory module as a function of the bicycle spatial position (x) along a predetermined path; the memory module being configured for supplying the optimal value of the target quantity (q max ; v max ) corresponding to the current spatial position (x) of the bicycle along the predetermined path, wherein the system further comprises a module for determining the bicycle spatial position (x) along said predetermined path.
A system for the in-line measurement of mill liner wear and mill bolt tension, wherein includes: (a) at the threaded end of a determined number of bolts, an acoustic wave emitter (E), an acoustic wave receiver (R), an electronic circuit, a power source and a communication device; (b) in the vicinity of the mill, a data storage and accumulation management device; and (c) in a remote position, a data processing and deployment system (a) at the threaded end of a determined number of bolts, an acoustic wave emitter (E), an acoustic wave receiver (R), an electronic circuit, a power source and a communication device; (b) in the vicinity of the mill, a data storage and accumulation management device; and (c) in a remote position, a data processing and deployment system
A coated cutting tool comprising a substrate and a coating layer formed on a surface of the substrate, wherein: the coating layer comprises at least one α-type aluminum oxide layer and a Ti compound layer between the substrate and the α-type aluminum oxide layer, wherein an average thickness of the α-type aluminum oxide layer is from 1.0 μm or more to 15 μm or less; and in the α-type aluminum oxide layer, when regarding a "texture coefficient of a plane," which is represented by formula below, as being denoted as a "TC18 ," and also regarding a "texture coefficient of a plane," which is represented by formula below, as being denoted as a "TC18 ," the TC18 is the highest texture coefficient and the TC18 is the second highest texture coefficient from among texture coefficients of eighteen crystal planes of the α-type aluminum oxide layer which are set forth below. [Equation 1] TC 18 0 0,6 = I 0 0,6 I 0 0 0,6 1 18 ∑ I h k l I 0 h k l − 1 [Equation 2] TC 18 0,0 12 = I 0,0 12 I 0 0,0 12 1 18 ∑ I h k l I 0 h k l − 1 In formulae and , I (h,k,l) denotes a peak intensity for an (h,k,l) plane in X-ray diffraction of the α-type aluminum oxide layer, I 0 (h,k,l) denotes a standard diffraction intensity for an (h,k,l) plane which is indicated on JCPDS Card No. 10-0173 for α-type aluminum oxide, and (h,k,l) refers to the eighteen crystal planes of , , , , , , , , , , , , , , , , and . the coating layer comprises at least one α-type aluminum oxide layer and a Ti compound layer between the substrate and the α-type aluminum oxide layer, wherein an average thickness of the α-type aluminum oxide layer is from 1.0 μm or more to 15 μm or less; and in the α-type aluminum oxide layer, when regarding a "texture coefficient of a plane," which is represented by formula below, as being denoted as a "TC18 ," and also regarding a "texture coefficient of a plane," which is represented by formula below, as being denoted as a "TC18 ," the TC18 is the highest texture coefficient and the TC18 is the second highest texture coefficient from among texture coefficients of eighteen crystal planes of the α-type aluminum oxide layer which are set forth below. [Equation 1] TC 18 0 0,6 = I 0 0,6 I 0 0 0,6 1 18 ∑ I h k l I 0 h k l − 1 [Equation 2] TC 18 0,0 12 = I 0,0 12 I 0 0,0 12 1 18 ∑ I h k l I 0 h k l − 1 In formulae and , I (h,k,l) denotes a peak intensity for an (h,k,l) plane in X-ray diffraction of the α-type aluminum oxide layer, I 0 (h,k,l) denotes a standard diffraction intensity for an (h,k,l) plane which is indicated on JCPDS Card No. 10-0173 for α-type aluminum oxide, and (h,k,l) refers to the eighteen crystal planes of , , , , , , , , , , , , , , , , and .
An adhesive composition comprising: a (meth)acrylate-based resin; and a polymer having a melting temperature (Tm) of 60°C or higher, as measured by using a differential scanning calorimetry (DSC), wherein the polymer is a copolymer of a monofunctional polysiloxane and one type of monomer, wherein the polymer having a melting temperature of 60°C or higher comprises, based on 100 parts by weight of the polymer having a melting temperature of 60°C or higher, the monofunctional polysiloxane in greater than or equal to 10 parts by weight and less than or equal to 40 parts by weight, and the monomer in greater than or equal to 60 parts by weight and less than or equal to 90 parts by weight, and wherein the monomer is represented by the following Chemical Formula 1: in Chemical Formula 1, X is N or O; R 1 is hydrogen or a methyl group; and n is an integer of 10 to 30. a (meth)acrylate-based resin; and a polymer having a melting temperature (Tm) of 60°C or higher, as measured by using a differential scanning calorimetry (DSC), wherein the polymer is a copolymer of a monofunctional polysiloxane and one type of monomer, wherein the polymer having a melting temperature of 60°C or higher comprises, based on 100 parts by weight of the polymer having a melting temperature of 60°C or higher, the monofunctional polysiloxane in greater than or equal to 10 parts by weight and less than or equal to 40 parts by weight, and the monomer in greater than or equal to 60 parts by weight and less than or equal to 90 parts by weight, and wherein the monomer is represented by the following Chemical Formula 1: in Chemical Formula 1, X is N or O; R 1 is hydrogen or a methyl group; and n is an integer of 10 to 30. X is N or O; R 1 is hydrogen or a methyl group; and n is an integer of 10 to 30.
Passenger car , comprising a body and at least one side door movable between a closed position and an open position, a side door fixing element being arranged on a free edge region of the at least one side door , characterized in that a body stop element arranged above the side door fixing element in the vertical direction of the motor vehicle is provided on a load-bearing motor vehicle pillar of the body , which body stop element is arranged at a distance from the side door fixing element in the vertical direction of the motor vehicle (z-direction) when the side door is in the closed position, in that the side door fixing element and the body stop element have an offset relative to one another in the transverse direction of the motor vehicle when the side door is in the closed position, and in that the side door fixing element can be displaced against the body stop element in the event of a deformation of the side door due to an impact of a collision partner on the side door .
A method, comprising: determining, using a mixer, to initially gate on a channel having an audio signal; determining whether non-speech audio is present in the audio signal of the channel initially gated on by the mixer, wherein the mixer generates a mixed audio signal based on at least the audio signal of the channel initially gated on; minimizing, using one or more of filtering or attenuation, errant noise in the audio signal of the channel initially gated on during a time duration between the mixer determining to gate on the channel initially gated on and determining whether the non-speech audio is present in the audio signal of the channel initially gated on; and when the non-speech audio is determined to be present in the audio signal of the channel initially gated on, overriding the mixer by gating off the channel initially gated on to cause the mixer to generate the mixed audio signal without the audio signal of the channel initially gated on. determining, using a mixer, to initially gate on a channel having an audio signal; determining whether non-speech audio is present in the audio signal of the channel initially gated on by the mixer, wherein the mixer generates a mixed audio signal based on at least the audio signal of the channel initially gated on; minimizing, using one or more of filtering or attenuation, errant noise in the audio signal of the channel initially gated on during a time duration between the mixer determining to gate on the channel initially gated on and determining whether the non-speech audio is present in the audio signal of the channel initially gated on; and when the non-speech audio is determined to be present in the audio signal of the channel initially gated on, overriding the mixer by gating off the channel initially gated on to cause the mixer to generate the mixed audio signal without the audio signal of the channel initially gated on.
An image processing apparatus comprising: a first demosaic processing unit configured to apply first demosaic processing to a mosaic image having a first number of colors (M) to generate a multispectral image having the first number of colors (M); a second demosaic processing unit configured to apply second demosaic processing to the mosaic image having the first number of colors (M) to generate a multispectral image having a second number of colors (N) equal to or more than three but less than the first number of colors (M); a first linear matrix processing unit configured to apply linear matrix processing to the multispectral image having the first number of colors (M) to generate a first image having a third number of colors less than the second number of colors (N); a second linear matrix processing unit configured to apply linear matrix processing to the multispectral image having the second number of colors (N) to generate a second image having the third number of colors; and a combination processing unit configured to perform combination processing of the first image and the second image, wherein the combination processing performed by the combination processing unit includes blend processing of blending the first image and the second image in accordance with a blend coefficient. a first demosaic processing unit configured to apply first demosaic processing to a mosaic image having a first number of colors (M) to generate a multispectral image having the first number of colors (M); a second demosaic processing unit configured to apply second demosaic processing to the mosaic image having the first number of colors (M) to generate a multispectral image having a second number of colors (N) equal to or more than three but less than the first number of colors (M); a first linear matrix processing unit configured to apply linear matrix processing to the multispectral image having the first number of colors (M) to generate a first image having a third number of colors less than the second number of colors (N); a second linear matrix processing unit configured to apply linear matrix processing to the multispectral image having the second number of colors (N) to generate a second image having the third number of colors; and a combination processing unit configured to perform combination processing of the first image and the second image, wherein the combination processing performed by the combination processing unit includes blend processing of blending the first image and the second image in accordance with a blend coefficient.
A system (200; 300) comprising: a machine tool (258; 324; 700) that includes a cutting tool (208; 708); a fluid subsystem that provides fluid to the cutting tool (208; 708); and at least one processor adapted to execute instructions that cause the at least one processor to: obtain a signal indicative of a load on the cutting tool (208; 708); establish a first value of at least one parameter of the fluid based on the signal; obtain a second value of the at least one parameter that is based on a simulation; determine a difference between the first value and the second value; and adjust a state of a device (304a; 308a) of the fluid subsystem based on the determined difference. a machine tool (258; 324; 700) that includes a cutting tool (208; 708); a fluid subsystem that provides fluid to the cutting tool (208; 708); and at least one processor adapted to execute instructions that cause the at least one processor to: obtain a signal indicative of a load on the cutting tool (208; 708); establish a first value of at least one parameter of the fluid based on the signal; obtain a second value of the at least one parameter that is based on a simulation; determine a difference between the first value and the second value; and adjust a state of a device (304a; 308a) of the fluid subsystem based on the determined difference. obtain a signal indicative of a load on the cutting tool (208; 708); establish a first value of at least one parameter of the fluid based on the signal; obtain a second value of the at least one parameter that is based on a simulation; determine a difference between the first value and the second value; and adjust a state of a device (304a; 308a) of the fluid subsystem based on the determined difference.
An audio device , the audio device comprising: an earbud housing having a size and shape suitable for at least partial insertion into an ear of a user; a speaker disposed within the earbud housing; a wireless transceiver disposed within the earbud housing; a biometric sensor disposed within the earbud housing and including a sensing surface arranged along an exterior surface of the earbud housing; an energy storage device disposed within the earbud housing and providing power for operation of the audio device; and a processor configured to determine an orientation of the earbud housing within the ear of a user using only a value of a biometric parameter detected by the biometric sensor and adjust an operational state of the speaker in accordance with the determined orientation. an earbud housing having a size and shape suitable for at least partial insertion into an ear of a user; a speaker disposed within the earbud housing; a wireless transceiver disposed within the earbud housing; a biometric sensor disposed within the earbud housing and including a sensing surface arranged along an exterior surface of the earbud housing; an energy storage device disposed within the earbud housing and providing power for operation of the audio device; and a processor configured to determine an orientation of the earbud housing within the ear of a user using only a value of a biometric parameter detected by the biometric sensor and adjust an operational state of the speaker in accordance with the determined orientation.
A method of determining a Hybrid Automatic Repeat reQuest acknowledgement codebook, performed by a terminal, wherein the method comprises: determining, (S401), a Hybrid Automatic Repeat reQuest, HARQ,-acknowledgement, ACK, codebook in a first slot according to a target offset set, when a HARQ-ACK is transmitted in the first slot; wherein the HARQ-ACK is a HARQ-ACK for a Physical Downlink Shared Channel, PDSCH, transmitted in a second slot or a Semi-Persistently Scheduled, SPS, PDSCH release transmitted in a second slot, the target offset set is represented by W, W=K1+TA_offset, K1 is a set of timing values indicating an interval between a slot of the PDSCH or the SPS PDSCH release and a slot of a corresponding HARQ-ACK, TA_offset is a value related to a Timing Advance TA configured by a signaling or calculated in a predetermined manner, and n_U=n+k+TA_offset, k is one of values in the set of K1, n_U is an index of the first slot, n is an index of the second slot. determining, (S401), a Hybrid Automatic Repeat reQuest, HARQ,-acknowledgement, ACK, codebook in a first slot according to a target offset set, when a HARQ-ACK is transmitted in the first slot; wherein the HARQ-ACK is a HARQ-ACK for a Physical Downlink Shared Channel, PDSCH, transmitted in a second slot or a Semi-Persistently Scheduled, SPS, PDSCH release transmitted in a second slot, the target offset set is represented by W, W=K1+TA_offset, K1 is a set of timing values indicating an interval between a slot of the PDSCH or the SPS PDSCH release and a slot of a corresponding HARQ-ACK, TA_offset is a value related to a Timing Advance TA configured by a signaling or calculated in a predetermined manner, and n_U=n+k+TA_offset, k is one of values in the set of K1, n_U is an index of the first slot, n is an index of the second slot.
A method for compensating for output power of a wind turbine, comprising: acquiring average values of first ambient temperatures of environments where the wind turbine is located, in respective periods; collecting output powers of the wind turbine at end time instants of the respective periods; and if both an average value of the first ambient temperatures in a current period and an average value of the first ambient temperatures in a previous period are greater than a preset temperature threshold, compensating for output power of the wind turbine collected at an end time instant of the current period based on a difference between the average values of the first ambient temperatures in the current period and the previous period, to ensure a stable output power value of the wind turbine, wherein the temperature threshold is an ambient temperature value when the wind turbine is in a full power state; and wherein in the full power state, grid-connected power is equal to rated power of the wind turbine; wherein the grid-connected power is electrical power to be transmitted to a power grid, and the grid-connected power is obtained by subtracting self-consumption power of the wind turbine from the output power of the wind turbine. acquiring average values of first ambient temperatures of environments where the wind turbine is located, in respective periods; collecting output powers of the wind turbine at end time instants of the respective periods; and if both an average value of the first ambient temperatures in a current period and an average value of the first ambient temperatures in a previous period are greater than a preset temperature threshold, compensating for output power of the wind turbine collected at an end time instant of the current period based on a difference between the average values of the first ambient temperatures in the current period and the previous period, to ensure a stable output power value of the wind turbine, wherein the temperature threshold is an ambient temperature value when the wind turbine is in a full power state; and wherein in the full power state, grid-connected power is equal to rated power of the wind turbine; wherein the grid-connected power is electrical power to be transmitted to a power grid, and the grid-connected power is obtained by subtracting self-consumption power of the wind turbine from the output power of the wind turbine.