mhurhangee/patent-ind-claim-en huggingface dataset:
A computer program comprising instructions which, when the program is executed by a computer, cause the a computer to execute a process for sensing a change in a state of an object or an environment represented by multidimensional time series data measured by a sensor based on an attractor generated therefrom, comprising: reading, from a storage, multidimensional time series data that includes values of sets of time series data at each of times included in a first period; generating an attractor containing a plurality of points, each of the plurality of points representing values of the sets of time series data at a time included in the first period; generating, by performing a persistent homology process on the attractor, barcode data of each hole dimension, wherein a hole indicates an element in a homology group and the barcode data indicates a birth radius and a death radius of a hole for each hole dimension; generating Betti number sequence data from the barcode data, wherein the Betti number sequence data represents a relationship between an interval between the birth radius and the death radius, and a Betti number representing a number of holes for each hole dimension; characterized by calculating a distance between the generated Betti number sequence data and another Betti number sequence data that is generated for a second period that is a predetermined time before the first period; and outputting, when the distance is equal to or larger than a predetermined value, information indicating that a change in a state that is represented by the multidimensional time series data has occurred during the first period. reading, from a storage, multidimensional time series data that includes values of sets of time series data at each of times included in a first period; generating an attractor containing a plurality of points, each of the plurality of points representing values of the sets of time series data at a time included in the first period; generating, by performing a persistent homology process on the attractor, barcode data of each hole dimension, wherein a hole indicates an element in a homology group and the barcode data indicates a birth radius and a death radius of a hole for each hole dimension; generating Betti number sequence data from the barcode data, wherein the Betti number sequence data represents a relationship between an interval between the birth radius and the death radius, and a Betti number representing a number of holes for each hole dimension; characterized by calculating a distance between the generated Betti number sequence data and another Betti number sequence data that is generated for a second period that is a predetermined time before the first period; and outputting, when the distance is equal to or larger than a predetermined value, information indicating that a change in a state that is represented by the multidimensional time series data has occurred during the first period.
A swelling tape for a secondary battery, the swelling tape comprising a base layer and an adhesive swelling layer, wherein the adhesive swelling layer comprises a water-based self-healing binder; and the water-based self-healing binder comprises alginate. wherein the adhesive swelling layer comprises a water-based self-healing binder; and the water-based self-healing binder comprises alginate.
A counter-rotating turbine of an aircraft turbomachine , comprising: - a casing comprising at least one endoscopy port configured for an endoscopy plug of a non-destructive testing device to pass into said casing , said non-destructive testing device comprising said endoscopy plug adapted to be secured in a endoscopy port of a radially outer rotor of the counter-rotating turbine , said endoscopy plug comprising means for acquiring and transmitting images configured to acquire images of the rotor and to send said acquired images, and means for receiving and displaying images configured to receive and display said acquired images, said means for receiving and displaying images being connected to said means for acquiring and transmitting images by means of a wireless connection, - a first rotor , referred to as radially inner rotor, connected to a first turbine shaft and configured to rotate in a first direction of rotation, - a second rotor , referred to as radially outer rotor, connected to a second turbine shaft and configured to rotate in a direction of rotation opposite to the first direction of rotation, said second rotor being arranged radially around said first rotor , said casing being arranged radially around said second rotor , and being characterized in that said radially outer rotor has an endoscopy port into which the endoscopy plug of the non-destructive testing device is releasably secured. - a casing comprising at least one endoscopy port configured for an endoscopy plug of a non-destructive testing device to pass into said casing , said non-destructive testing device comprising said endoscopy plug adapted to be secured in a endoscopy port of a radially outer rotor of the counter-rotating turbine , said endoscopy plug comprising means for acquiring and transmitting images configured to acquire images of the rotor and to send said acquired images, and means for receiving and displaying images configured to receive and display said acquired images, said means for receiving and displaying images being connected to said means for acquiring and transmitting images by means of a wireless connection, - a first rotor , referred to as radially inner rotor, connected to a first turbine shaft and configured to rotate in a first direction of rotation, - a second rotor , referred to as radially outer rotor, connected to a second turbine shaft and configured to rotate in a direction of rotation opposite to the first direction of rotation, said second rotor being arranged radially around said first rotor , said casing being arranged radially around said second rotor , and being characterized in that said radially outer rotor has an endoscopy port into which the endoscopy plug of the non-destructive testing device is releasably secured.
A resource configuration method, the method comprising: transmitting configuration information of a physical uplink control channel, PUCCH, resource to a terminal; wherein the configuration information comprises a time interval from downlink data to feeding back PUCCH resource, acknowledgement/non-acknowledgement resource indication information, characterised in that the configuration information further comprises a format information employed for feeding back the PUCCH resource; wherein the format information comprises short PUCCH of 1 or 2 symbols, or long PUCCH of 4-14 symbols; if an uplink of a slot or an uplink slot comprises dynamically variable PUCCH formats, then the format information comprises a starting symbol position of the PUCCH and a length of the PUCCH. transmitting configuration information of a physical uplink control channel, PUCCH, resource to a terminal; wherein the configuration information comprises a time interval from downlink data to feeding back PUCCH resource, acknowledgement/non-acknowledgement resource indication information, characterised in that the configuration information further comprises a format information employed for feeding back the PUCCH resource; wherein the format information comprises short PUCCH of 1 or 2 symbols, or long PUCCH of 4-14 symbols; if an uplink of a slot or an uplink slot comprises dynamically variable PUCCH formats, then the format information comprises a starting symbol position of the PUCCH and a length of the PUCCH.
A method for organizing physical uplink shared channel, PUSCH, transmissions, the method comprising the steps of: generating , at a node , transmission time interval, TTI, bundling configuration information with instructions to bundle PUSCH transmissions for a hybrid automatic repeat request, HARQ, process in at least 20 TTIs in a 45 to 55 subframe time interval in at least one PUSCH TTI bundle; and transmitting the TTI bundling configuration information to a wireless device to enable the wireless device to transmit a PUSCH signal using the at least one PUSCH TTI bundle within the 45 to 55 subframe time interval; characterized in that each PUSCH TTI bundle includes 4 contiguous TTIs with a 12 subframe TTI bundle retransmission delay and up to 5 HARQ retransmissions for the wireless device . generating , at a node , transmission time interval, TTI, bundling configuration information with instructions to bundle PUSCH transmissions for a hybrid automatic repeat request, HARQ, process in at least 20 TTIs in a 45 to 55 subframe time interval in at least one PUSCH TTI bundle; and transmitting the TTI bundling configuration information to a wireless device to enable the wireless device to transmit a PUSCH signal using the at least one PUSCH TTI bundle within the 45 to 55 subframe time interval; characterized in that each PUSCH TTI bundle includes 4 contiguous TTIs with a 12 subframe TTI bundle retransmission delay and up to 5 HARQ retransmissions for the wireless device .
An apparatus configured to be employed for a base station, comprising: processing circuitry configured to: process a user equipment, UE, capability information that indicates a support for a cell reference signal, CRS, muting; provide CRS muting configuration parameters via a system information block, SIB, or a UE-dedicated radio resource control, RRC, signaling, the CRS muting configuration parameters indicating the CRS muting with an exception of frequency resources including: cell-specific resources including a central six physical resource blocks, PRBs, of a cell bandwidth, or the central six PRBs plus/minus Y PRBs on each side of the central six PRBs, wherein Y is a non-negative integer; and UE-specific resources including a channel bandwidth of the UE of a narrow band, NB, or a wide band, WB, plus/minus X PRBs on each side of the channel bandwidth, wherein X is a non-negative integer, wherein the CRS muting is performed on UE specific sets of subframes including N subframes before and during machine type communications, MTC, physical downlink control channel, MPDCCH, wherein N is a non-negative integer; and transmit the CRS at frequency locations based on the CRS muting configuration parameters. process a user equipment, UE, capability information that indicates a support for a cell reference signal, CRS, muting; provide CRS muting configuration parameters via a system information block, SIB, or a UE-dedicated radio resource control, RRC, signaling, the CRS muting configuration parameters indicating the CRS muting with an exception of frequency resources including: cell-specific resources including a central six physical resource blocks, PRBs, of a cell bandwidth, or the central six PRBs plus/minus Y PRBs on each side of the central six PRBs, wherein Y is a non-negative integer; and UE-specific resources including a channel bandwidth of the UE of a narrow band, NB, or a wide band, WB, plus/minus X PRBs on each side of the channel bandwidth, wherein X is a non-negative integer, cell-specific resources including a central six physical resource blocks, PRBs, of a cell bandwidth, or the central six PRBs plus/minus Y PRBs on each side of the central six PRBs, wherein Y is a non-negative integer; and UE-specific resources including a channel bandwidth of the UE of a narrow band, NB, or a wide band, WB, plus/minus X PRBs on each side of the channel bandwidth, wherein X is a non-negative integer, wherein the CRS muting is performed on UE specific sets of subframes including N subframes before and during machine type communications, MTC, physical downlink control channel, MPDCCH, wherein N is a non-negative integer; and transmit the CRS at frequency locations based on the CRS muting configuration parameters.
A power system comprising: an engine ; a fuel system comprising a fuel pump for varying the fuel injection pressure and configured to inject a main shot of fuel ; an aftertreatment system including: an oxidation catalyst configured to convert NO from the engine into N0 2 ; a particulate filter configured to trap soot from the engine ; and a sensor configured to provide a reading corresponding to the mass or quantity of soot per volume in the particulate filter ; an exhaust system configured to route exhaust from the engine to the aftertreatment system ; a backpressure valve disposed in the exhaust system ; and a controller being configured to increase an engine fuel injection pressure and at least partially close the back pressure valve and to change a timing of the main shot of fuel and to add an additional shot of fuel before or after the main shot of fuel when the mass or quantity of soot in the particulate filter is above a threshold in order to regenerate the particulate filter , characterized in that the controller is further configured to increase an engine fuel injection pressure when the mass or quantity of soot in the particulate filter is above said threshold. an engine ; a fuel system comprising a fuel pump for varying the fuel injection pressure and configured to inject a main shot of fuel ; an aftertreatment system including: an oxidation catalyst configured to convert NO from the engine into N0 2 ; a particulate filter configured to trap soot from the engine ; and a sensor configured to provide a reading corresponding to the mass or quantity of soot per volume in the particulate filter ; an oxidation catalyst configured to convert NO from the engine into N0 2 ; a particulate filter configured to trap soot from the engine ; and a sensor configured to provide a reading corresponding to the mass or quantity of soot per volume in the particulate filter ; an exhaust system configured to route exhaust from the engine to the aftertreatment system ; a backpressure valve disposed in the exhaust system ; and a controller being configured to increase an engine fuel injection pressure and at least partially close the back pressure valve and to change a timing of the main shot of fuel and to add an additional shot of fuel before or after the main shot of fuel when the mass or quantity of soot in the particulate filter is above a threshold in order to regenerate the particulate filter , characterized in that the controller is further configured to increase an engine fuel injection pressure when the mass or quantity of soot in the particulate filter is above said threshold.
A system for estimating a quantity of fluid in a container , the system comprising: a plurality of integrated sensor units , each of the sensor units comprising: a pressure sensor configured to measure a pressure at a physical location of the sensor unit ; an acceleration sensor configured to measure at least three components of an acceleration vector at the physical location of the sensor unit ; and a temperature sensor configured to measure a temperature at the physical location of the sensor unit ; and a remote data concentrator ; wherein each of the sensor units is configured to provide an output signal comprising the pressure, acceleration, and temperature measurements to the remote data concentrator via a communication pathway . a plurality of integrated sensor units , each of the sensor units comprising: a pressure sensor configured to measure a pressure at a physical location of the sensor unit ; an acceleration sensor configured to measure at least three components of an acceleration vector at the physical location of the sensor unit ; and a temperature sensor configured to measure a temperature at the physical location of the sensor unit ; and a pressure sensor configured to measure a pressure at a physical location of the sensor unit ; an acceleration sensor configured to measure at least three components of an acceleration vector at the physical location of the sensor unit ; and a temperature sensor configured to measure a temperature at the physical location of the sensor unit ; and a remote data concentrator ; wherein each of the sensor units is configured to provide an output signal comprising the pressure, acceleration, and temperature measurements to the remote data concentrator via a communication pathway .
An avian egg transfer system , comprising: a first securing arrangement configured to engage and deflect about an egg such that the egg is capable of being seated within the first securing arrangement ; a second securing arrangement opposingly positioned with respect to the first securing arrangement , the first and second securing arrangements each comprise a plurality of loop shaped resilient members cooperating to form an open-ended arrangement through which the egg is capable of being received, the first and second securing arrangements being configured to interact through relative movement with respect to one another, such interaction thereby causing an egg to be transferred therebetween, characterized in that the second securing arrangement is configured to engage and deflect about an egg such that the egg is capable of being seated within the second securing arrangement ; and wherein the egg is transferred between the first and second arrangements in either direction, without mechanical actuation of the loop shaped resilient members . a first securing arrangement configured to engage and deflect about an egg such that the egg is capable of being seated within the first securing arrangement ; a second securing arrangement opposingly positioned with respect to the first securing arrangement , the first and second securing arrangements each comprise a plurality of loop shaped resilient members cooperating to form an open-ended arrangement through which the egg is capable of being received, the first and second securing arrangements being configured to interact through relative movement with respect to one another, such interaction thereby causing an egg to be transferred therebetween, characterized in that the second securing arrangement is configured to engage and deflect about an egg such that the egg is capable of being seated within the second securing arrangement ; and wherein the egg is transferred between the first and second arrangements in either direction, without mechanical actuation of the loop shaped resilient members .
A method for detection of one or more antigenic peptide responsive T cells in a sample, the method comprising the following steps: i. providing loadable detection molecules comprising at least one peptide-free MHC class I molecule and at least one detectable label, ii. providing at least one antigenic peptide, iii. contacting the loadable detection molecules with the at least one antigenic peptide to provide loaded detection molecules comprising at least one peptide-MHC (pMHC) class I molecule, iv. contacting the loaded detection molecules with the sample, and v. detecting binding of the loaded detection molecules to the one or more antigenic peptide responsive T cells, wherein each of the at least one antigenic peptide is represented by: - at least two different detectable labels, or - at least one detectable label which is a nucleic acid label, wherein the peptide-free MHC class I molecule comprises a heavy chain comprising an alpha-1 domain and an alpha-2 domain connected by a disulfide bridge, said heavy chain comprising an amino acid sequence selected from: (a) SEQ ID NO: 1, or (b) an amino acid sequence having at least 80% sequence identity to the sequence in (a), wherein a mutant cysteine residue is positioned in the alpha-1 domain at amino acid residue 84 or 85 and a mutant cysteine residue is positioned in the alpha-2 domain at amino acid residue 139. i. providing loadable detection molecules comprising at least one peptide-free MHC class I molecule and at least one detectable label, ii. providing at least one antigenic peptide, iii. contacting the loadable detection molecules with the at least one antigenic peptide to provide loaded detection molecules comprising at least one peptide-MHC (pMHC) class I molecule, iv. contacting the loaded detection molecules with the sample, and v. detecting binding of the loaded detection molecules to the one or more antigenic peptide responsive T cells, wherein each of the at least one antigenic peptide is represented by: - at least two different detectable labels, or - at least one detectable label which is a nucleic acid label, - at least two different detectable labels, or - at least one detectable label which is a nucleic acid label, wherein the peptide-free MHC class I molecule comprises a heavy chain comprising an alpha-1 domain and an alpha-2 domain connected by a disulfide bridge, said heavy chain comprising an amino acid sequence selected from: (a) SEQ ID NO: 1, or (b) an amino acid sequence having at least 80% sequence identity to the sequence in (a), (a) SEQ ID NO: 1, or (b) an amino acid sequence having at least 80% sequence identity to the sequence in (a), wherein a mutant cysteine residue is positioned in the alpha-1 domain at amino acid residue 84 or 85 and a mutant cysteine residue is positioned in the alpha-2 domain at amino acid residue 139.
Production process for stamped parts of high mechanical resistance, through controlled electric heating comprising the following steps: a. transferring via a first moving robot , a sheet from a bales of sheets , to an electric heating device ; b. heating the sheet from a bales of sheets ; c. transferring the heated sheet from a bales of sheets via a second moving robot , to a specific molding tool with a liquid cooling unit arranged in a hydraulic press ; and d. after being formed, withdrawing as finished product, via a third moving robot ; wherein - the electric heating equipment employing the joule heating theory to raise the temperature of the plate to 900°C; and - the specific stamping tool is cooled by a liquid cooling unit containing channels for cooling, by heat exchange via water circulation, promoting the phase change of the microstructure of the sheet and the consequent hardening of the material, the cooling being done at a temperature of 5°C in the channels and the water generated from an ice water unit and the cooling rate of the stamping tool to promote the necessary change of strength for each product, as well as the flow rate that circulates in the stamping tool, are controlled. a. transferring via a first moving robot , a sheet from a bales of sheets , to an electric heating device ; b. heating the sheet from a bales of sheets ; c. transferring the heated sheet from a bales of sheets via a second moving robot , to a specific molding tool with a liquid cooling unit arranged in a hydraulic press ; and d. after being formed, withdrawing as finished product, via a third moving robot ; wherein - the electric heating equipment employing the joule heating theory to raise the temperature of the plate to 900°C; and - the specific stamping tool is cooled by a liquid cooling unit containing channels for cooling, by heat exchange via water circulation, promoting the phase change of the microstructure of the sheet and the consequent hardening of the material, the cooling being done at a temperature of 5°C in the channels and the water generated from an ice water unit and the cooling rate of the stamping tool to promote the necessary change of strength for each product, as well as the flow rate that circulates in the stamping tool, are controlled. - the electric heating equipment employing the joule heating theory to raise the temperature of the plate to 900°C; and - the specific stamping tool is cooled by a liquid cooling unit containing channels for cooling, by heat exchange via water circulation, promoting the phase change of the microstructure of the sheet and the consequent hardening of the material, the cooling being done at a temperature of 5°C in the channels and the water generated from an ice water unit and the cooling rate of the stamping tool to promote the necessary change of strength for each product, as well as the flow rate that circulates in the stamping tool, are controlled.