mhurhangee/patent-ind-claim-en huggingface dataset:
A gyrocompass device for determining a heading relative to surface of the Earth or other rotating planetary body, the device comprising: one or more gyroscopes, each fixed in a known orientation on a substrate that is parallel to a first plane, wherein the one or more gyroscopes provide a plurality of sense axes (X, Y) arranged such that the plurality of sense axes lie within the first plane and each sense axis is offset from the other sense axes by a known offset angle (α); and electronic circuitry configured to receive rotation rates from the plurality of sense axes of the one or more gyroscopes and determine the heading of the device relative to the surface of the Earth or other rotating planetary body based on the rotation rates received from the one or more gyroscopes, wherein the circuitry is configured to determine the heading of the device by fitting a sine or cosine function to the received rotation rates, characterized in that the one or more gyroscopes are MEMS gyroscopes (101 to 116; 121, 122) and in that the plurality of sense axes are at least three sense axes. one or more gyroscopes, each fixed in a known orientation on a substrate that is parallel to a first plane, wherein the one or more gyroscopes provide a plurality of sense axes (X, Y) arranged such that the plurality of sense axes lie within the first plane and each sense axis is offset from the other sense axes by a known offset angle (α); and electronic circuitry configured to receive rotation rates from the plurality of sense axes of the one or more gyroscopes and determine the heading of the device relative to the surface of the Earth or other rotating planetary body based on the rotation rates received from the one or more gyroscopes, wherein the circuitry is configured to determine the heading of the device by fitting a sine or cosine function to the received rotation rates, characterized in that the one or more gyroscopes are MEMS gyroscopes (101 to 116; 121, 122) and in that the plurality of sense axes are at least three sense axes.
A radial seal assembly , the radial seal assembly comprising: an inner rotating shaft , the inner rotating shaft including a plurality of inner rotating shaft fluid feed holes ; a primary segmented seal including a primary spring ; a secondary segmented seal including a secondary spring ; an outer housing , the outer housing including a plurality of outer housing fluid feed holes ; and a tertiary seal configured to axially seal the primary segmented seal and the secondary segmented seal; characterised in that the primary segmented seal includes a plurality of primary segmented seal fluid feed holes in fluid communication with the outer housing fluid feed holes , and through which fluid is fed to corresponding seal inner cavities wherein the assembly is configured so that as the inner rotating shaft rotates, the inner rotating shaft fluid feed holes periodically come into fluid communication alignment with the seal inner cavities such that the fluid may vent through the inner rotating shaft fluid feed holes . an inner rotating shaft , the inner rotating shaft including a plurality of inner rotating shaft fluid feed holes ; a primary segmented seal including a primary spring ; a secondary segmented seal including a secondary spring ; an outer housing , the outer housing including a plurality of outer housing fluid feed holes ; and a tertiary seal configured to axially seal the primary segmented seal and the secondary segmented seal; characterised in that the primary segmented seal includes a plurality of primary segmented seal fluid feed holes in fluid communication with the outer housing fluid feed holes , and through which fluid is fed to corresponding seal inner cavities wherein the assembly is configured so that as the inner rotating shaft rotates, the inner rotating shaft fluid feed holes periodically come into fluid communication alignment with the seal inner cavities such that the fluid may vent through the inner rotating shaft fluid feed holes .
A method comprising: identifying a subset of physical resource blocks, PRBs, within a Long Term Evolution, LTE, system bandwidth that are eligible for use as narrowband internet of things, NB-IoT, PRBs, wherein the eligibility of PRBs for use as NB-IoT PRBs is determined so as to avoid collision between the PRBs of the subset and at least one machine-type-communication, MTC, narrowband within the LTE system bandwidth (S1005) that is to be used for transmission of System Information Block 1, SIB1bis, or for transmission of paging-related information; and transmitting or receiving information via at least one of the eligible PRBs that has been allocated as a NB-IoT PRB, or via the at least one MTC narrowband (S1010); characterized in that the method further comprises: transmitting or receiving MTC information via the at least one MTC narrowband, by performing puncturing or rate matching to avoid transmission or reception of the MTC information via the at least one of the eligible PRBs allocated as a NB-IoT PRB, wherein the MTC information comprises the SIB1bis or the paging-related information. identifying a subset of physical resource blocks, PRBs, within a Long Term Evolution, LTE, system bandwidth that are eligible for use as narrowband internet of things, NB-IoT, PRBs, wherein the eligibility of PRBs for use as NB-IoT PRBs is determined so as to avoid collision between the PRBs of the subset and at least one machine-type-communication, MTC, narrowband within the LTE system bandwidth (S1005) that is to be used for transmission of System Information Block 1, SIB1bis, or for transmission of paging-related information; and transmitting or receiving information via at least one of the eligible PRBs that has been allocated as a NB-IoT PRB, or via the at least one MTC narrowband (S1010); characterized in that the method further comprises: transmitting or receiving MTC information via the at least one MTC narrowband, by performing puncturing or rate matching to avoid transmission or reception of the MTC information via the at least one of the eligible PRBs allocated as a NB-IoT PRB, wherein the MTC information comprises the SIB1bis or the paging-related information.
A location information reporting method, comprising: receiving , by a first base station, a first message sent by a core network device, wherein the first message comprises first instruction information used to instruct to report location information of a terminal device in a radio resource control, RRC, inactive state, and the first base station and the core network device have a control plane connection established for the terminal device; and sending , by the first base station, a second message to a second base station, wherein the second message comprises second instruction information, the second instruction information is used to instruct to report the location information of the terminal device, and the second base station is configured to provide a service for the terminal device at a current moment, wherein the second message is a reply message for a message that is sent by the first base station to the second base station and that is used to obtain a context of the terminal device. receiving , by a first base station, a first message sent by a core network device, wherein the first message comprises first instruction information used to instruct to report location information of a terminal device in a radio resource control, RRC, inactive state, and the first base station and the core network device have a control plane connection established for the terminal device; and sending , by the first base station, a second message to a second base station, wherein the second message comprises second instruction information, the second instruction information is used to instruct to report the location information of the terminal device, and the second base station is configured to provide a service for the terminal device at a current moment, wherein the second message is a reply message for a message that is sent by the first base station to the second base station and that is used to obtain a context of the terminal device.
A computer-implemented prediction model conversion method, comprising: converting a prediction model (S001) by converting a plurality of parameters which are included in the prediction model and are performing homogenization processing into at least one parameter for performing processing including nonlinear processing, the prediction model being a neural network; and generating an encrypted prediction model (S002) that performs prediction processing with input in a secret state remaining secret by encrypting the prediction model that has been converted, wherein the homogenization processing is processing performed by an equation y i = s i x i + t i , where x i is an input and y i is an output, s i and t i are the plurality of parameters for performing the homogenization processing, the processing including the nonlinear processing is processing performed by Equation , and y i = { 1 if x i + k i ≥ 0 − 1 if x i + k i < 0 k i is the at least one parameter for performing the processing including the nonlinear processing, and is determined using s i and t i , wherein k i is expressed by Equation , k i = { u , if x i ∀ , s i x i + t i ≥ 0 − u − 1 , if x i ∀ , s i x i + t i < 0 ⌊ t i s i ⌋ , if s i > 0 ⌈ t i s i ⌉ + p − 1 2 , if s i < 0 where u is a theoretical maximum value during computation of the prediction processing, and p is a divisor used in the encrypting. converting a prediction model (S001) by converting a plurality of parameters which are included in the prediction model and are performing homogenization processing into at least one parameter for performing processing including nonlinear processing, the prediction model being a neural network; and generating an encrypted prediction model (S002) that performs prediction processing with input in a secret state remaining secret by encrypting the prediction model that has been converted, wherein the homogenization processing is processing performed by an equation y i = s i x i + t i , where x i is an input and y i is an output, s i and t i are the plurality of parameters for performing the homogenization processing, the processing including the nonlinear processing is processing performed by Equation , and y i = { 1 if x i + k i ≥ 0 − 1 if x i + k i < 0 k i is the at least one parameter for performing the processing including the nonlinear processing, and is determined using s i and t i , wherein k i is expressed by Equation , k i = { u , if x i ∀ , s i x i + t i ≥ 0 − u − 1 , if x i ∀ , s i x i + t i < 0 ⌊ t i s i ⌋ , if s i > 0 ⌈ t i s i ⌉ + p − 1 2 , if s i < 0 where u is a theoretical maximum value during computation of the prediction processing, and p is a divisor used in the encrypting.
A hanger wire for contact wires of railway electrical lines comprising a plurality of strands obtained by stranding first wires in combination with second wires, characterised in that said first wires are made from copper or an alloy thereof and said second wires consist of a steel core coupled with a layer made from copper or an alloy thereof.
An exterior inspection device (A) comprising: a camera ; an inspection reference plane ; a light source ; a calibration reference plate ; an advance/retraction mechanism for advancing and retracting the calibration reference plate between a calibration position (P1) between the camera and the inspection reference plane within an image-taking area of the camera and a retracted position (P2) retracted therefrom; and a control unit for issuing a white balance adjustment command to the camera when the calibration reference plate is at the calibration position (P1); a conveyor for feeding an object to be inspected and providing a discriminative signal for discriminating between a driven state and a non-driven state to the control unit ; wherein the camera captures light reflected on the inspection reference plane when the calibration reference plate is in the retracted position (P2) or reflected on the calibration reference plate when the calibration reference plate is in the calibration position (P1); the control unit issues to the advance/retraction mechanism a drive command for moving the calibration reference plate to the calibration position (P1) when the conveyor is not being driven and the discriminating signal indicates the non-driven state so that white balance adjustment is carried out using the calibration reference plate . a camera ; an inspection reference plane ; a light source ; a calibration reference plate ; an advance/retraction mechanism for advancing and retracting the calibration reference plate between a calibration position (P1) between the camera and the inspection reference plane within an image-taking area of the camera and a retracted position (P2) retracted therefrom; and a control unit for issuing a white balance adjustment command to the camera when the calibration reference plate is at the calibration position (P1); a conveyor for feeding an object to be inspected and providing a discriminative signal for discriminating between a driven state and a non-driven state to the control unit ; wherein the camera captures light reflected on the inspection reference plane when the calibration reference plate is in the retracted position (P2) or reflected on the calibration reference plate when the calibration reference plate is in the calibration position (P1); the control unit issues to the advance/retraction mechanism a drive command for moving the calibration reference plate to the calibration position (P1) when the conveyor is not being driven and the discriminating signal indicates the non-driven state so that white balance adjustment is carried out using the calibration reference plate .
A method of fabricating an acoustic transducer comprising: fabricating a substrate ; depositing a bottom electrode on the substrate ; depositing a piezoelectrically active layer on the bottom electrode to form an active layer with an effective lateral coupling coefficient k 31,eff of less than 0.24; depositing a top electrode on the active layer ; wherein at least one electrode is patterned to form at least two active elements ; and, wherein a ratio of a thickness coupling coefficient k t to an effective lateral coupling coefficient k 31,eff of the active layer is 1.3 or greater. fabricating a substrate ; depositing a bottom electrode on the substrate ; depositing a piezoelectrically active layer on the bottom electrode to form an active layer with an effective lateral coupling coefficient k 31,eff of less than 0.24; depositing a top electrode on the active layer ; wherein at least one electrode is patterned to form at least two active elements ; and, wherein a ratio of a thickness coupling coefficient k t to an effective lateral coupling coefficient k 31,eff of the active layer is 1.3 or greater.
A method of communications, comprising: determining, by a first user equipment, UE , that a fastest clock rate is faster than an internal clock rate of the first UE by more than a first positive offset, wherein the fastest clock rate is associated with a second UE of one or more other UEs from which synchronization signals are received; and adjusting, by the first UE, the internal clock rate based on the determined fastest clock rate, wherein the internal clock rate is adjusted to align with the fastest clock rate plus a second positive offset. determining, by a first user equipment, UE , that a fastest clock rate is faster than an internal clock rate of the first UE by more than a first positive offset, wherein the fastest clock rate is associated with a second UE of one or more other UEs from which synchronization signals are received; and adjusting, by the first UE, the internal clock rate based on the determined fastest clock rate, wherein the internal clock rate is adjusted to align with the fastest clock rate plus a second positive offset.
A method of supplying a first fuel composition and a second fuel composition for use in a machine to achieve a fuel supply requirement, where the first fuel composition is different to the second fuel composition, the method comprising the steps of : i) identifying a period of operation corresponding to the fuel supply requirement; ii) determining at least one ambient air condition in which the machine will operate during the period of operation; iii) referring to a policy database to determine a duration of time in which, whilst in the ambient air condition, it is required to achieve a predetermined vapour trail characteristic, where the said duration may be equal to or less than the period of operation; iv) determining a resultant fuel composition for use by the machine in the ambient air condition to achieve the predetermined vapour trail characteristic, where the resultant fuel composition comprises the first fuel composition and the second fuel composition, the resultant fuel composition being calculated as a function of desired soot emission index determined by a soot requirement generator , and the desired soot emission index being determined as a function of one or more measured, forecast and/or inferred values of the ambient air condition including one or more of ambient temperature, ambient pressure and/or ambient humidity; v) determining the ratio of the first fuel composition and the second fuel composition required for sufficient resultant fuel composition for the duration of time determined in step iii); and vi) producing a first signal indicative of the ratio of the first and the second fuel compositions required for the duration of time determined in step iii). i) identifying a period of operation corresponding to the fuel supply requirement; ii) determining at least one ambient air condition in which the machine will operate during the period of operation; iii) referring to a policy database to determine a duration of time in which, whilst in the ambient air condition, it is required to achieve a predetermined vapour trail characteristic, where the said duration may be equal to or less than the period of operation; iv) determining a resultant fuel composition for use by the machine in the ambient air condition to achieve the predetermined vapour trail characteristic, where the resultant fuel composition comprises the first fuel composition and the second fuel composition, the resultant fuel composition being calculated as a function of desired soot emission index determined by a soot requirement generator , and the desired soot emission index being determined as a function of one or more measured, forecast and/or inferred values of the ambient air condition including one or more of ambient temperature, ambient pressure and/or ambient humidity; v) determining the ratio of the first fuel composition and the second fuel composition required for sufficient resultant fuel composition for the duration of time determined in step iii); and vi) producing a first signal indicative of the ratio of the first and the second fuel compositions required for the duration of time determined in step iii).
Harvesting device for harvesting root crop, in particular beet crop , the harvesting device comprising: - a support defining an uprooting position of the harvesting device, - an uprooting section comprising at least two uprooting units , each uprooting unit having at least one uprooting element , in particular the at least one uprooting element being a pair of uprooting shares, - each uprooting unit being adapted to uproot root crop, - at least one of the uprooting units , in particular each uprooting unit, being mobile with respect to the support, characterized in that : at least one of the uprooting units , in particular each uprooting unit, is mobile with respect to the support between • an active position in which the uprooting unit is able to uproot beet crop in a field having a field surface when the harvesting device is in the uprooting position, and • an inactive position in which the uprooting unit is unable to uproot beet crop in the field when the harvesting device is in the uprooting position. - a support defining an uprooting position of the harvesting device, - an uprooting section comprising at least two uprooting units , each uprooting unit having at least one uprooting element , in particular the at least one uprooting element being a pair of uprooting shares, - each uprooting unit being adapted to uproot root crop, - at least one of the uprooting units , in particular each uprooting unit, being mobile with respect to the support, • an active position in which the uprooting unit is able to uproot beet crop in a field having a field surface when the harvesting device is in the uprooting position, and • an inactive position in which the uprooting unit is unable to uproot beet crop in the field when the harvesting device is in the uprooting position.
Sheet packaging material comprising a cellulose layer covered by a coating layer that coats said cellulose layer to render it transparent, characterized in that the cellulose layer: - has a grammage of between 18 g/m 2 and 75 g/m 2 , - contains between 10% and 60% short fibers, - has a tear resistance in the short grain direction of between 138 mN and 250 mN, and - has a tear resistance in the long grain direction of between 129 mN and 220 mN. - has a grammage of between 18 g/m 2 and 75 g/m 2 , - contains between 10% and 60% short fibers, - has a tear resistance in the short grain direction of between 138 mN and 250 mN, and - has a tear resistance in the long grain direction of between 129 mN and 220 mN.