mhurhangee/ep-ind-claims huggingface dataset:
An uplink power control method, comprising: receiving, by a terminal device, first indication information from a network side, wherein the first indication information is used to indicate whether the terminal device uses a downlink path loss estimation to obtain transmitting power of an uplink signal; if the first indication information indicates that the terminal device uses the downlink path loss estimation to obtain the transmitting power of the uplink signal: determining, by the terminal device, a target downlink signal for performing the downlink path loss estimation; performing, by the terminal device, the downlink path loss estimation based on the target downlink signal to obtain a downlink path loss estimate; and determining, by the terminal device, the transmitting power of the uplink signal according to the downlink path loss estimate; if the first indication information indicates that the terminal device does not use the downlink path loss estimation to obtain the transmitting power of the uplink signal: determining, by the terminal device, to use previously determined transmitting power as the transmitting power of the uplink signal; transmitting, by the terminal device, the uplink signal according to the transmitting power. receiving, by a terminal device, first indication information from a network side, wherein the first indication information is used to indicate whether the terminal device uses a downlink path loss estimation to obtain transmitting power of an uplink signal; if the first indication information indicates that the terminal device uses the downlink path loss estimation to obtain the transmitting power of the uplink signal: determining, by the terminal device, a target downlink signal for performing the downlink path loss estimation; performing, by the terminal device, the downlink path loss estimation based on the target downlink signal to obtain a downlink path loss estimate; and determining, by the terminal device, the transmitting power of the uplink signal according to the downlink path loss estimate; determining, by the terminal device, a target downlink signal for performing the downlink path loss estimation; performing, by the terminal device, the downlink path loss estimation based on the target downlink signal to obtain a downlink path loss estimate; and determining, by the terminal device, the transmitting power of the uplink signal according to the downlink path loss estimate; if the first indication information indicates that the terminal device does not use the downlink path loss estimation to obtain the transmitting power of the uplink signal: determining, by the terminal device, to use previously determined transmitting power as the transmitting power of the uplink signal; determining, by the terminal device, to use previously determined transmitting power as the transmitting power of the uplink signal; transmitting, by the terminal device, the uplink signal according to the transmitting power.
A rotor comprising: a rotor core formed of webs defining a layout of the magnets in the rotor core, the rotor core having a plurality of poles, each pole having: a plurality of slots for holding a magnet, the slots having at least a centerline slot (210, 260) and two angled wing slots (212, 262) extending from a position at or around respective ends of the centerline slot and tapering towards an outer circumference of the rotor core, and a plurality of magnets arranged in corresponding slots. a rotor core formed of webs defining a layout of the magnets in the rotor core, the rotor core having a plurality of poles, each pole having: a plurality of slots for holding a magnet, the slots having at least a centerline slot (210, 260) and two angled wing slots (212, 262) extending from a position at or around respective ends of the centerline slot and tapering towards an outer circumference of the rotor core, and a plurality of magnets arranged in corresponding slots. a plurality of slots for holding a magnet, the slots having at least a centerline slot (210, 260) and two angled wing slots (212, 262) extending from a position at or around respective ends of the centerline slot and tapering towards an outer circumference of the rotor core, and a plurality of magnets arranged in corresponding slots.
Method for controlling a light pattern provided by an automotive lighting device of an automotive vehicle, wherein the light pattern is a low beam pattern and the light pattern comprises a dynamic portion and a fixed portion, wherein the dynamic portion of the light pattern is provided by a matrix arrangement of light sources arranged in several columns by several rows, the method comprising the steps of - sensing a turn in a steering system of the automotive vehicle; - dividing the dynamic portion in a first portion and a second portion in a way that the luminous intensity of each of the first portion and of the second portion is not null; wherein the first portion presents a higher luminous intensity than that of the second portion and wherein the first portion comprises a cut-off with a diagonal line of the low beam pattern; - shifting the operation of the light sources associated to the first portion in the same direction as the sensed turn in a way that the cut-off is shifted according to the movement of steering system of the vehicle while the second portion remains still, thus creating a plurality of blank spaces between the shifted first portion and the second portion; and - creating a third portion between the shifted first portion and the second portion to fill in the blank spaces, wherein the luminous intensity of the third portion is a linear interpolation between the column of the shifted first portion which is closest to the third portion and the column of the second portion which is closest to the third portion. - sensing a turn in a steering system of the automotive vehicle; - dividing the dynamic portion in a first portion and a second portion in a way that the luminous intensity of each of the first portion and of the second portion is not null; wherein the first portion presents a higher luminous intensity than that of the second portion and wherein the first portion comprises a cut-off with a diagonal line of the low beam pattern; - shifting the operation of the light sources associated to the first portion in the same direction as the sensed turn in a way that the cut-off is shifted according to the movement of steering system of the vehicle while the second portion remains still, thus creating a plurality of blank spaces between the shifted first portion and the second portion; and - creating a third portion between the shifted first portion and the second portion to fill in the blank spaces, wherein the luminous intensity of the third portion is a linear interpolation between the column of the shifted first portion which is closest to the third portion and the column of the second portion which is closest to the third portion.
A solid polyaluminoxane composition comprising a polyalkylaluminoxane and a trialkylaluminum, the composition having a solubility in n-hexane at 25°C of less than 0.50 mol% as measured by a method (i) described below, the composition having a solubility in toluene at 25°C of less than 1.0 mol% as measured by a method (ii) described below, the molar fraction of alkyl groups derived from the trialkylaluminum moieties being 13 mol% or more relative to the total number of moles of alkyl groups derived from the polyalkylaluminoxane moieties and the alkyl groups derived from the trialkylaluminum moieties as measured with respect to tetrahydrofuran-d 8 soluble components by a method (iii) described below: [Method (i)] 2 g of the solid polyaluminoxane composition is added to 50 mL of n-hexane held at 25°C; the mixture is stirred for 2 hours and is filtered to give a filtrate and a residue; and the aluminum concentration in the filtrate is measured by ICP atomic emission spectroscopy (ICP-AES) to determine the solubility as the ratio of aluminum atoms present in the filtrate relative to the amount of aluminum atoms corresponding to 2 g of the solid polyaluminoxane composition; [Method (ii)] the solubility is measured in a similar manner to the method (i) except that toluene is used in place of n-hexane; [Method (iii)] 0.5 mL of tetrahydrofuran -d 8 (a heavy solvent) is added to 10 mg of the solid polyaluminoxane composition; the mixture is stirred at 25°C for 2 hours; and the molar fraction is determined by analyzing the THF-d 8 soluble components by 1 H-NMR at a measurement temperature of 24°C. [Method (i)] 2 g of the solid polyaluminoxane composition is added to 50 mL of n-hexane held at 25°C; the mixture is stirred for 2 hours and is filtered to give a filtrate and a residue; and the aluminum concentration in the filtrate is measured by ICP atomic emission spectroscopy (ICP-AES) to determine the solubility as the ratio of aluminum atoms present in the filtrate relative to the amount of aluminum atoms corresponding to 2 g of the solid polyaluminoxane composition; [Method (ii)] the solubility is measured in a similar manner to the method (i) except that toluene is used in place of n-hexane; [Method (iii)] 0.5 mL of tetrahydrofuran -d 8 (a heavy solvent) is added to 10 mg of the solid polyaluminoxane composition; the mixture is stirred at 25°C for 2 hours; and the molar fraction is determined by analyzing the THF-d 8 soluble components by 1 H-NMR at a measurement temperature of 24°C.
A method of selectively controlling communication of data between a supervisory processor and a subscriber, said method comprising: receiving from a data source a stream of encrypted data at the supervisory processor, the data source being a computer coupled to a gas turbine system; decrypting the encrypted data in the stream; enabling the subscriber to have access to the stream by transmitting the decrypted data to the subscriber over a network segment; controlling transmission of the stream of data from the supervisory processor to the subscriber based on a supervisory processor configuration wherein controlling transmission of the stream of data comprises selectively decrypting the encrypted data in the stream; determining that the subscriber has violated terms of an agreement between an owner of the data and the subscriber; receiving a command at the supervisory processor that alters the configuration of the supervisory processor, wherein the altered configuration of the supervisory processor renders the stream of data accessible by the subscriber unusable by the subscriber by not decrypting the encrypted data in the stream; wherein the data source coupled to a gas turbine receives operational state data from said turbine that comprises data from the combustion dynamics monitor which samples analog data from the gas turbine sensors; the operational state data being the data transmitted for conditional decryption. receiving from a data source a stream of encrypted data at the supervisory processor, the data source being a computer coupled to a gas turbine system; decrypting the encrypted data in the stream; enabling the subscriber to have access to the stream by transmitting the decrypted data to the subscriber over a network segment; controlling transmission of the stream of data from the supervisory processor to the subscriber based on a supervisory processor configuration wherein controlling transmission of the stream of data comprises selectively decrypting the encrypted data in the stream; determining that the subscriber has violated terms of an agreement between an owner of the data and the subscriber; receiving a command at the supervisory processor that alters the configuration of the supervisory processor, wherein the altered configuration of the supervisory processor renders the stream of data accessible by the subscriber unusable by the subscriber by not decrypting the encrypted data in the stream; wherein the data source coupled to a gas turbine receives operational state data from said turbine that comprises data from the combustion dynamics monitor which samples analog data from the gas turbine sensors; the operational state data being the data transmitted for conditional decryption.
A method of stabilizing a pore within a mesh fabric comprising the steps of: providing a mesh knit fabric made of a plurality of thermoplastic polymer yarns, the fabric having a first pore, the first pore having a first perimeter; causing at least a portion of the fabric surrounding the pore to be temporarily held taut; providing a support having a support outer perimeter; inserting the support into the first pore so that the first pore perimeter is in contact with the support outer perimeter; and placing the taut fabric and support in an oven for a predetermined time at a predetermined temperature, whereby the first pore perimeter permanently assumes that shape of the outer support perimeter. providing a mesh knit fabric made of a plurality of thermoplastic polymer yarns, the fabric having a first pore, the first pore having a first perimeter; causing at least a portion of the fabric surrounding the pore to be temporarily held taut; providing a support having a support outer perimeter; inserting the support into the first pore so that the first pore perimeter is in contact with the support outer perimeter; and placing the taut fabric and support in an oven for a predetermined time at a predetermined temperature, whereby the first pore perimeter permanently assumes that shape of the outer support perimeter.
An information processing apparatus comprising: an eyeball position estimation unit configured to estimate an eyeball position of a user in a pupil-corneal reflection method on the basis of a captured image including an eye of the user captured when the eye of the user looking at a display surface is irradiated with light; a discrepancy estimation unit configured to estimate an amount of discrepancy between a line-of-sight position on the display surface and a visual field center of the display surface, the line-of-sight position being identified on the basis of the eyeball position; and an operation instruction unit configured to issue an operation instruction to adjust a position of a device including the display surface on the basis of the estimated amount of discrepancy, when the amount of discrepancy is not within an allowable range. an eyeball position estimation unit configured to estimate an eyeball position of a user in a pupil-corneal reflection method on the basis of a captured image including an eye of the user captured when the eye of the user looking at a display surface is irradiated with light; a discrepancy estimation unit configured to estimate an amount of discrepancy between a line-of-sight position on the display surface and a visual field center of the display surface, the line-of-sight position being identified on the basis of the eyeball position; and an operation instruction unit configured to issue an operation instruction to adjust a position of a device including the display surface on the basis of the estimated amount of discrepancy, when the amount of discrepancy is not within an allowable range.
An apparatus for slicing food products, in particular a high-performance slicer, comprising a rotor shaft which rotates about an axis of rotation and which is axially adjustable in operation, in particular for the carrying out of blank cuts and/or for the setting of a cutting gap; a rotor driven by the rotor shaft; a cutting blade, in particular a circular blade, which is supported by the rotor, which revolves about the axis of rotation in a planetary motion and which additional rotates relative to the rotor about a blade axis extending offset in parallel with the axis of rotation; and a rotary drive for the rotor shaft.
An external control device configured for controlling a neurostimulator implanted within a patient, comprising: a user interface (72; 74) configured for receiving an input from a user; telemetry circuitry configured for communicating with the neurostimulator; and a control circuitry configured for customizing a pulse pattern on a pulse-by-pulse basis in response to the input from the user, and instructing the neurostimulator via the telemetry circuitry to deliver electrical stimulation energy to the patient in accordance with the customized pulse pattern, the pulse pattern including cyclically repeating basis patterns each including a group of individually customizable pulses. a user interface (72; 74) configured for receiving an input from a user; telemetry circuitry configured for communicating with the neurostimulator; and a control circuitry configured for customizing a pulse pattern on a pulse-by-pulse basis in response to the input from the user, and instructing the neurostimulator via the telemetry circuitry to deliver electrical stimulation energy to the patient in accordance with the customized pulse pattern, the pulse pattern including cyclically repeating basis patterns each including a group of individually customizable pulses.
A cryogen free cooling apparatus comprising: a vacuum chamber; a heat radiation shield (54, 10) surrounding a working region and located in the vacuum chamber; a cryofree cooling system having a cooling stage coupled to the heat radiation shield; a cold body within the vacuum chamber, wherein the cold body is formed by a surface linked to a cold plate coupled to the cooling stage of the cooling system; aligned apertures (52, 56, 58) in the heat radiation shield and vacuum chamber wall; sample loading apparatus having one or more elongate probes and a sample holding device attached to the one or more elongate probes for inserting the sample holding device through the aligned apertures (52, 56, 58) to the working region; one or more thermal connectors, whereby the sample holding device is releasably connected for heat conduction via said thermal connector(s) to the cold body so as to pre-cool a sample on or in the sample holding device before the sample holding device is inserted into the working region; and a support located at the working region; characterised in that the sample holding device includes one or more electrical connectors to allow electrical and thermal connections to be made to the support in the working region. a vacuum chamber; a heat radiation shield (54, 10) surrounding a working region and located in the vacuum chamber; a cryofree cooling system having a cooling stage coupled to the heat radiation shield; a cold body within the vacuum chamber, wherein the cold body is formed by a surface linked to a cold plate coupled to the cooling stage of the cooling system; aligned apertures (52, 56, 58) in the heat radiation shield and vacuum chamber wall; sample loading apparatus having one or more elongate probes and a sample holding device attached to the one or more elongate probes for inserting the sample holding device through the aligned apertures (52, 56, 58) to the working region; one or more thermal connectors, whereby the sample holding device is releasably connected for heat conduction via said thermal connector(s) to the cold body so as to pre-cool a sample on or in the sample holding device before the sample holding device is inserted into the working region; and a support located at the working region; characterised in that the sample holding device includes one or more electrical connectors to allow electrical and thermal connections to be made to the support in the working region.
A refrigerator comprising: a main body comprising an inner case and an outer case; a storage compartment defined by the inner case; a door configured to open and close the storage compartment; an ice making chamber provided on a rear surface of the door; a cold air supply device configured to supply cold air to the storage compartment and the ice making chamber; and a guide passage characterized in that the guide passage is formed by being recessed into the inner case to guide cold air generated in the cold air supply device to the ice making chamber, wherein the inner case comprises an upper wall, and the guide passage is formed by being recessed into the upper wall of the inner case to be exposed to the storage compartment. a main body comprising an inner case and an outer case; a storage compartment defined by the inner case; a door configured to open and close the storage compartment; an ice making chamber provided on a rear surface of the door; a cold air supply device configured to supply cold air to the storage compartment and the ice making chamber; and a guide passage characterized in that the guide passage is formed by being recessed into the inner case to guide cold air generated in the cold air supply device to the ice making chamber, wherein the inner case comprises an upper wall, and the guide passage is formed by being recessed into the upper wall of the inner case to be exposed to the storage compartment.
A membrane bonding structure for bonding membranes for formation of a sealing wall between a first surface and a second surface of a storage tank for storing liquefied gas, the membrane bonding structure comprising: a planar portion panel disposed on each of the first surface and the second surface for thermal insulation of the storage tank; a bonding panel disposed on a boundary between the first surface and the second surface together with the planar portion panel; a first membrane attached to the planar portion panel of the first surface and the bonding panel for sealing of the storage tank; and a second membrane attached to the planar portion panel of the second surface and the bonding panel for sealing of the storage tank wherein the first membrane and the second membrane are attached to the bonding panel so as not to be directly connected to each other, wherein the bonding panel comprises a pair of plywood sheets (31, 33), a heat insulator interposed between the pair of plywood sheets, wherein the pair of plywood sheets (31, 33) is attached to both surfaces of the heat insulator by a bonding agent, respectively, characterized in that the bonding panel further comprises a thermal protector stacked on one of the pair of plywood sheets, in that the bonding panel further comprises an Invar sheet stacked on the thermal protector, and in that the thermal protector is secured to the one plywood sheet by a staple, and the Invar sheet is secured to the thermal protector by a fastening screw coupled to the one plywood sheet through the thermal protector. a planar portion panel disposed on each of the first surface and the second surface for thermal insulation of the storage tank; a bonding panel disposed on a boundary between the first surface and the second surface together with the planar portion panel; a first membrane attached to the planar portion panel of the first surface and the bonding panel for sealing of the storage tank; and a second membrane attached to the planar portion panel of the second surface and the bonding panel for sealing of the storage tank wherein the first membrane and the second membrane are attached to the bonding panel so as not to be directly connected to each other, wherein the bonding panel comprises a pair of plywood sheets (31, 33), a heat insulator interposed between the pair of plywood sheets, wherein the pair of plywood sheets (31, 33) is attached to both surfaces of the heat insulator by a bonding agent, respectively, characterized in that the bonding panel further comprises a thermal protector stacked on one of the pair of plywood sheets, in that the bonding panel further comprises an Invar sheet stacked on the thermal protector, and in that the thermal protector is secured to the one plywood sheet by a staple, and the Invar sheet is secured to the thermal protector by a fastening screw coupled to the one plywood sheet through the thermal protector.