mhurhangee/ep-ind-claims huggingface dataset:
Method for adjusting the travel of a sliding stretching rod belonging to a device for forming hollow bodies made of thermoplastic material by stretch-blow-moulding, the stretching rod being made to follow a cycle of sliding from a starting position to an adjustable stretching end position in order to stretch the malleable wall of a hollow body before returning to the starting position to begin a subsequent cycle of stretching another hollow body, the method comprising a monitoring step consisting in detecting whether an axial force opposing the sliding of the stretching rod at the end of travel is greater than a given upper limit; characterized in that the stretching end position of a subsequent stretching cycle is adjusted automatically by slaving to the axial force detected during the monitoring step.
A method performed by a location server for target user equipment, UE, positioning, the method comprising: - sending (Step 402, 402-1, 500) one or more first New Radio Positioning Protocol Annex, NRPPa, messages to a base station that serves a target UE, wherein: - the one or more first NRPPa messages include an expected periodical reporting of the target UE and provide priority indication associated with positioning requirements of the target UE; and - the expected periodical reporting of the target UE at least indicates a periodicity with which the target UE reports positioning results to the location server; and - receiving (Step 404, 404-1, 504) a second NRPPa message from the base station, wherein the second NRPPa message acknowledges a success or failure of uplink, UL, grant resources, wherein the UL grant resources have been configured by the base station based upon the expected periodical reporting of the target UE and the priority indication associated with the positioning requirements of the target UE. - sending (Step 402, 402-1, 500) one or more first New Radio Positioning Protocol Annex, NRPPa, messages to a base station that serves a target UE, wherein: - the one or more first NRPPa messages include an expected periodical reporting of the target UE and provide priority indication associated with positioning requirements of the target UE; and - the expected periodical reporting of the target UE at least indicates a periodicity with which the target UE reports positioning results to the location server; and - receiving (Step 404, 404-1, 504) a second NRPPa message from the base station, wherein the second NRPPa message acknowledges a success or failure of uplink, UL, grant resources, wherein the UL grant resources have been configured by the base station based upon the expected periodical reporting of the target UE and the priority indication associated with the positioning requirements of the target UE.
A method for diagnosing residual life of a secondary battery module, the method comprising the steps of: acquiring charging information including current, voltage, and a charged state (SOC b, SOC c) of a secondary battery module; obtaining a present capacity and an internal resistance of the secondary battery module from the charging information, calculating a deterioration level (SOH, SOHQ, SOHR) of the secondary battery module through comparing the capacity and the internal resistance against their initial values, and specifying the deterioration value as an actual measurement value; acquiring output information of the secondary battery module; calculating a predicted value of the deterioration level (SOH, SOHQ, SOHR) by a prediction formula, using the output information; the method being characterized in that it also comprises the steps of: comparing the actual measurement value and the predicted value; and calculating residual life, if a difference between the actual measurement value and the predicted value is equal to or less than a predetermined value, wherein, if the difference between the actual measurement value and the predicted value is more than the predetermined value, the method is to correct the prediction formula based on the actual measurement value and calculate the predicted value by the corrected prediction formula. acquiring charging information including current, voltage, and a charged state (SOC b, SOC c) of a secondary battery module; obtaining a present capacity and an internal resistance of the secondary battery module from the charging information, calculating a deterioration level (SOH, SOHQ, SOHR) of the secondary battery module through comparing the capacity and the internal resistance against their initial values, and specifying the deterioration value as an actual measurement value; acquiring output information of the secondary battery module; calculating a predicted value of the deterioration level (SOH, SOHQ, SOHR) by a prediction formula, using the output information; the method being characterized in that it also comprises the steps of: comparing the actual measurement value and the predicted value; and calculating residual life, if a difference between the actual measurement value and the predicted value is equal to or less than a predetermined value, wherein, if the difference between the actual measurement value and the predicted value is more than the predetermined value, the method is to correct the prediction formula based on the actual measurement value and calculate the predicted value by the corrected prediction formula. comparing the actual measurement value and the predicted value; and calculating residual life, if a difference between the actual measurement value and the predicted value is equal to or less than a predetermined value, wherein, if the difference between the actual measurement value and the predicted value is more than the predetermined value, the method is to correct the prediction formula based on the actual measurement value and calculate the predicted value by the corrected prediction formula.
A method for detecting at least one analyte in at least one sample of a body fluid, wherein at least one test element with at least one test field is used, the at least one test field having at least one test chemistry, wherein the test chemistry is adapted to perform at least one optically detectable detection reaction in the presence of the analyte, characterized in that the method comprises acquiring an image sequence of images of the test field by using at least one image detector, wherein each image comprises a plurality of pixels, wherein the method further comprises detecting at least one characteristic feature of the test field in the images of the image sequence, wherein the method further comprises correcting a relative position change between the image detector and the test field in the image sequence by using the characteristic feature, thereby obtaining a sequence of corrected images, wherein the sequence of corrected images is adapted for observing a time-dependent change of at least one optically detectable property of the test field due to the detection reaction of the test chemistry with the analyte to be detected, wherein the correction of the relative position change comprises using at least one image of the image sequence as a reference image, wherein the reference image is kept unchanged, wherein the remaining images of the image sequence are corrected by using at least one calculational correction of the position of the pixels, wherein the calculational correction is chosen such that a correlation between the reference image and the corrected remaining images of the image sequence is maximized, wherein the calculational correction comprises at least one of the following: - a shifting of the pixels of the remaining images of the image sequence in at least one spatial direction, wherein the shifting is chosen such that the correlation between the reference image and the corrected remaining images is maximized; - at least one rotation of the remaining images of the image sequence about at least one rotational axis by at least one rotation angle, wherein the rotational axis and/or the rotation angle are chosen such that the correlation between the reference image and the corrected remaining images is maximized. - a shifting of the pixels of the remaining images of the image sequence in at least one spatial direction, wherein the shifting is chosen such that the correlation between the reference image and the corrected remaining images is maximized; - at least one rotation of the remaining images of the image sequence about at least one rotational axis by at least one rotation angle, wherein the rotational axis and/or the rotation angle are chosen such that the correlation between the reference image and the corrected remaining images is maximized.
A motor drive control device for an electric assisted vehicle provided with one-way clutches in a motor drive system and a pedal drive system, respectively, the device comprising: a first calculating part that calculates a pedal rotation conversion speed (Vph) that is converted from a pedal rotation (Np); and a second calculating part that calculates a second target torque for a motor depending on speed of the motor (Vm) and a target motor speed (Vmd), wherein the target motor speed (Vmd) is a smaller of the pedal rotation conversion speed (Vph) and a vehicle speed, and wherein the second calculating part calculates the second target torque during a period in which a first target torque (Td) is not detected, the first target torque (Td) being calculated based on a pedal torque (Tp). a first calculating part that calculates a pedal rotation conversion speed (Vph) that is converted from a pedal rotation (Np); and a second calculating part that calculates a second target torque for a motor depending on speed of the motor (Vm) and a target motor speed (Vmd), wherein the target motor speed (Vmd) is a smaller of the pedal rotation conversion speed (Vph) and a vehicle speed, and wherein the second calculating part calculates the second target torque during a period in which a first target torque (Td) is not detected, the first target torque (Td) being calculated based on a pedal torque (Tp).
An Interrogating Call Session Control Function, I-CSCF, entity, comprising: means configured to receive a register message with an Internet Protocol, IP, Multimedia Private Identity, IMPI, of a User Equipment, UE, from a Mobile Switching Centre, MSC, server enhanced for Service Domain Centralization in IP Multimedia Subsystem, IMS, SeDoC; means configured to detect the UE is an inbound roaming UE, based on a comparison of a Mobile Network Code, MNC, and Mobile Country Code, MCC, included in the IMPI, means configured to query an IMS Centralized Services, ICS, Interworking Function, ICS-IWF, entity whether an operator network indicated by the MNC and MCC has an IMS roaming agreement; means configured to receive an address of a Serving Call Session Control Function, S-CSCF, entity which handles a Circuit-Switched, CS, authentication procedure in a case that there is no IMS roaming agreement or any other related Service Level Agreement in place with the operator network; and means configured to forward the register message with an indication that the register message is for inbound roaming UE, towards the S-CSCF entity, so that the S-CSCF entity requests authentication info from the ICS-IWF entity which acts as a Home Subscriber Server, HSS, towards the S-CSCF entity. means configured to receive a register message with an Internet Protocol, IP, Multimedia Private Identity, IMPI, of a User Equipment, UE, from a Mobile Switching Centre, MSC, server enhanced for Service Domain Centralization in IP Multimedia Subsystem, IMS, SeDoC; means configured to detect the UE is an inbound roaming UE, based on a comparison of a Mobile Network Code, MNC, and Mobile Country Code, MCC, included in the IMPI, means configured to query an IMS Centralized Services, ICS, Interworking Function, ICS-IWF, entity whether an operator network indicated by the MNC and MCC has an IMS roaming agreement; means configured to receive an address of a Serving Call Session Control Function, S-CSCF, entity which handles a Circuit-Switched, CS, authentication procedure in a case that there is no IMS roaming agreement or any other related Service Level Agreement in place with the operator network; and means configured to forward the register message with an indication that the register message is for inbound roaming UE, towards the S-CSCF entity, so that the S-CSCF entity requests authentication info from the ICS-IWF entity which acts as a Home Subscriber Server, HSS, towards the S-CSCF entity.
Method for protecting a field, characterized in that it comprises the following steps: - providing a tower crane comprising: • a mast; • a jib extending in a longitudinal direction and comprising a first end and a second end opposite one another in the longitudinal direction, the jib being arranged on the mast at the level of an assembly point (Pa) that is proximal with respect to the first end and distal with respect to the second end; • transverse struts fitted on the jib and distributed between the first end and the second end; - erecting the tower crane on a first side of the field and then pivoting the tower crane so that the jib extends above the field; method characterised in that it comprises: - guying the jib at the level of the second end. - providing a tower crane comprising: • a mast; • a jib extending in a longitudinal direction and comprising a first end and a second end opposite one another in the longitudinal direction, the jib being arranged on the mast at the level of an assembly point (Pa) that is proximal with respect to the first end and distal with respect to the second end; • transverse struts fitted on the jib and distributed between the first end and the second end; • a mast; • a jib extending in a longitudinal direction and comprising a first end and a second end opposite one another in the longitudinal direction, the jib being arranged on the mast at the level of an assembly point (Pa) that is proximal with respect to the first end and distal with respect to the second end; • transverse struts fitted on the jib and distributed between the first end and the second end; - erecting the tower crane on a first side of the field and then pivoting the tower crane so that the jib extends above the field; - guying the jib at the level of the second end.
Method for correcting/calibrating, implemented by at least one calculation means, a value, called measured value, of a parameter for characterizing bone tissue determined by fractal measurement on a greyscale image produced in a first configuration, called measurement configuration, with respect to a second configuration, called reference configuration, distinguished from said measurement configuration by a difference affecting the measured value of said characterizing parameter, said method being characterized in that the characterizing parameter is a bone texture parameter, and in that it comprises the following steps: - determining a fractal dimension, called measured fractal dimension, of said greyscale image produced in the measurement configuration, - correcting said measured fractal dimension with reference to said reference configuration, said correction providing a value, called corrected value, of said fractal dimension, - determining a value, called corrected value, of said characterizing parameter from said corrected value of said fractal dimension. - determining a fractal dimension, called measured fractal dimension, of said greyscale image produced in the measurement configuration, - correcting said measured fractal dimension with reference to said reference configuration, said correction providing a value, called corrected value, of said fractal dimension, - determining a value, called corrected value, of said characterizing parameter from said corrected value of said fractal dimension.
An RF signal detection system, equipped with an acousto-optic component diffracting a light beam emitted in a monochromatic laser resonator system, focusing lens placed in the path of diffracted light beam between the acousto-optic component and a multi-segment photo detector, while the acousto-optic component includes a piezoelectric transducer connected to an antenna, characterized in that the acousto-optic component is placed together with a focusing lens in the monochromatic laser resonator system between an active medium and an optical fibers matrix, where the optical fibers create a partly- reflective output mirror integrated with the multi-segment photo-detector, while the endfaces of the optical fibers are located perpendicularly to the light beam and covered with a partly-reflecting layer, and the opposite ends of the optical fibers are connected to the multi-segment detector.
A method for aligning first three-dimensional point cloud image with a second 3D point cloud image comprising the steps of: providing a first 3D point cloud image from a model to a vision system processor; providing a second 3D point cloud image from a target to a vision system processor; establishing a passing overall score for at least one possible alignment of the first 3D point cloud image with the second 3D point cloud image; estimating a coverage score for the at least one possible alignment of the first 3D point cloud image with the second 3D point cloud image so that the coverage score describes an amount of desired features in the first 3D point cloud image present in the second 3D point cloud image; and estimating a clutter score for the at least one possible alignment of the first 3D point cloud image with the second 3D point cloud image so that the clutter score describes extraneous features in the second 3D point cloud image that are not present in the first 3D point cloud image; and estimating the overall score for the at least one possible alignment as a difference between the coverage score and the clutter score, wherein an alignment of the at least one possible alignment of the first 3D point cloud image with the second 3D point cloud image is considered an alignment candidate for aligning the first three-dimensional point cloud image with the second 3D point cloud image if the overall score for the alignment is above the passing overall score, and one or more of said alignment candidates having the highest overall score are selected as the alignment solution for said second 3D point cloud. providing a first 3D point cloud image from a model to a vision system processor; providing a second 3D point cloud image from a target to a vision system processor; establishing a passing overall score for at least one possible alignment of the first 3D point cloud image with the second 3D point cloud image; estimating a coverage score for the at least one possible alignment of the first 3D point cloud image with the second 3D point cloud image so that the coverage score describes an amount of desired features in the first 3D point cloud image present in the second 3D point cloud image; and estimating a clutter score for the at least one possible alignment of the first 3D point cloud image with the second 3D point cloud image so that the clutter score describes extraneous features in the second 3D point cloud image that are not present in the first 3D point cloud image; and estimating the overall score for the at least one possible alignment as a difference between the coverage score and the clutter score, wherein an alignment of the at least one possible alignment of the first 3D point cloud image with the second 3D point cloud image is considered an alignment candidate for aligning the first three-dimensional point cloud image with the second 3D point cloud image if the overall score for the alignment is above the passing overall score, and one or more of said alignment candidates having the highest overall score are selected as the alignment solution for said second 3D point cloud.
Process for the manufacture of -4-N,N-di-(C 1-3)-alkylamino crotonic acid in HX salt form of formula I wherein R 1 and R 2 independently denote C 1-3 -alkyl groups and X - denotes an acid anion, comprising the following synthesis steps: a) step 1: wherein R 1, R 2 and R 3 independently denote C 1-3 -alkyl groups, OBu t denotes a tert-butyloxy group, HX denotes an acid selected from HCl, HBr, MeSO 3 H, p-CH 3 C 6 H 4 SO 3 H (p-toluenesulfonic acid) and CF 3 CO 2 H, the base denotes a strong base such as alkali hydroxide, and solvent denotes water, a water miscible organic solvent such as MeOH or EtOH, and the mixtures thereof, and b) step 2: wherein R 1 and R 2 independently denote C 1-3 -alkyl groups, OBu t denotes a tert-butyloxy group, HX denotes an acid, and solvent denotes a suitable solvent such as ethyl acetate, i-PrOAc, MTBE (methyl t-butyl ether), 2-MeTHF, MeCN, and dioxane. a) step 1: wherein R 1, R 2 and R 3 independently denote C 1-3 -alkyl groups, OBu t denotes a tert-butyloxy group, HX denotes an acid selected from HCl, HBr, MeSO 3 H, p-CH 3 C 6 H 4 SO 3 H (p-toluenesulfonic acid) and CF 3 CO 2 H, the base denotes a strong base such as alkali hydroxide, and solvent denotes water, a water miscible organic solvent such as MeOH or EtOH, and the mixtures thereof, and b) step 2:
An electric motor (300; 300') configured to propel a vehicle, the motor comprising: a stator; a rotor that rotates with respect to the stator; a magnet located on the stator or the rotor; a first winding segment and a second winding segment located on the other of the stator or the rotor; a controller adapted to operate the first winding segment and the second winding segment in series or in parallel as a function of at least the motor current; a power supply for the electric motor (300; 300'), wherein the controller is further adapted to operate the first winding segment and the second winding segment in series or in parallel as a function of at least one of power supply voltage and vehicle speed; an output shaft (304; 304') connected to the rotor; and a transmission coupled to the output shaft (304; 304'), the transmission having a plurality of selectable gear ratios, characterized in that the controller is further adapted to operate the first winding segment and the second winding segment in series or in parallel as a function of the selected gear ratio of the transmission, and wherein the controller is adapted to operate the first winding segment and the second winding segment in series or in parallel as a function of (i) the motor current, and (ii) the vehicle speed x the power supply voltage x the selected gear ratio of the transmission. a stator; a rotor that rotates with respect to the stator; a magnet located on the stator or the rotor; a first winding segment and a second winding segment located on the other of the stator or the rotor; a controller adapted to operate the first winding segment and the second winding segment in series or in parallel as a function of at least the motor current; a power supply for the electric motor (300; 300'), wherein the controller is further adapted to operate the first winding segment and the second winding segment in series or in parallel as a function of at least one of power supply voltage and vehicle speed; an output shaft (304; 304') connected to the rotor; and a transmission coupled to the output shaft (304; 304'), the transmission having a plurality of selectable gear ratios, characterized in that the controller is further adapted to operate the first winding segment and the second winding segment in series or in parallel as a function of the selected gear ratio of the transmission, and wherein the controller is adapted to operate the first winding segment and the second winding segment in series or in parallel as a function of (i) the motor current, and (ii) the vehicle speed x the power supply voltage x the selected gear ratio of the transmission.