mhurhangee/ep-ind-claims huggingface dataset:
A charging method, comprising: receiving, by a charging system, first charging information sent by a traffic detection function TDF entity, wherein the first charging information carries a correlation identifier of a data flow of an application borne by the TDF entity; receiving, by the charging system, second charging information sent by a policy and charging enforcement function entity PCEF entity, wherein the second charging information carries a correlation identifier of a data flow borne by the PCEF entity; and performing, by the charging system, correlation processing for the first charging information and the second charging information according to the correlation identifier of the data flow of the application borne by the TDF entity and the correlation identifier of the data flow borne by the PCEF entity, wherein the correlation processing comprises: determining, by the charging system, duplicated charging information if the correlation identifier in the first charging information is the same as the correlation identifier in the second charging information, and performing charging for non-duplicated charging information by removing the determined duplicated charging information. receiving, by a charging system, first charging information sent by a traffic detection function TDF entity, wherein the first charging information carries a correlation identifier of a data flow of an application borne by the TDF entity; receiving, by the charging system, second charging information sent by a policy and charging enforcement function entity PCEF entity, wherein the second charging information carries a correlation identifier of a data flow borne by the PCEF entity; and performing, by the charging system, correlation processing for the first charging information and the second charging information according to the correlation identifier of the data flow of the application borne by the TDF entity and the correlation identifier of the data flow borne by the PCEF entity, wherein the correlation processing comprises: determining, by the charging system, duplicated charging information if the correlation identifier in the first charging information is the same as the correlation identifier in the second charging information, and performing charging for non-duplicated charging information by removing the determined duplicated charging information.
System for measuring P physical parameters with a multimode optical fiber, P being an integer greater than or equal to two, including: - a light source, arranged to generate a source optical signal, - a multimode measurement optical fiber arranged to transport optical signals in at least M second predetermined propagation modes that are distinct from one another, M being an integer greater than or equal to P, the measurement optical fiber including a measurement section arranged to reflect the optical signals with a wavelength that is variable according to the physical parameters to be measured, - a detection device (17, 17 1, 17 2, 17 M, 17 12) arranged to measure wavelengths of the optical signals reflected by the measurement section, and - an optical module (13, 13 1, 13 2, 14, 15, 15 1, 15 2, 41, 42 1, 42 2, 43, 44, 45) arranged to generate M optical signals from the source optical signal, the optical signals being injected into the measurement optical fiber in order to propagate each in one of the second propagation modes, the optical module also being arranged to transfer the optical signals reflected toward the detection device (17, 17 1, 17 2, 17 M, 17 12). - a light source, arranged to generate a source optical signal, - a multimode measurement optical fiber arranged to transport optical signals in at least M second predetermined propagation modes that are distinct from one another, M being an integer greater than or equal to P, the measurement optical fiber including a measurement section arranged to reflect the optical signals with a wavelength that is variable according to the physical parameters to be measured, - a detection device (17, 17 1, 17 2, 17 M, 17 12) arranged to measure wavelengths of the optical signals reflected by the measurement section, and - an optical module (13, 13 1, 13 2, 14, 15, 15 1, 15 2, 41, 42 1, 42 2, 43, 44, 45) arranged to generate M optical signals from the source optical signal, the optical signals being injected into the measurement optical fiber in order to propagate each in one of the second propagation modes, the optical module also being arranged to transfer the optical signals reflected toward the detection device (17, 17 1, 17 2, 17 M, 17 12).
A refrigerator comprising a fresh food compartment wherein foodstuffs to be cooled are placed, a freezing compartment wherein foodstuffs to be frozen are placed and an ice cream making device having - a cabinet disposed into the freezing compartment, - a receptacle situated inside the cabinet wherein ice cream is prepared, - a mixer situated within the receptacle, - a motor that actuates and rotates the mixer and - a transmission means that transmits the movement of the motor to the mixer,the ice cream making device having - a bottom wall that forms the base of the cabinet, - a front cover that is opened and closed at the front face of the cabinet facing the user,wherein - the cabinet is fixed to the side and/or upper wall of the freezing compartment, characterized in that: - a housing disposed on the bottom wall, whereon the receptacle is mounted, - an extension that extends from the bottom wall towards the outside of the cabinet and that supports the motor and - a casing that is attached to the bottom wall and that supports the motor and the transmission means, - the mixer, the motor and the transmission means can be mounted to, and dismounted from the freezing compartment together with the cabinet.
Cooking appliance such as a hot air fryer, which comprises a main body, a container which is removable from the main body, a basket which is removable from the container and a handling system which comprises configuration change means making it possible, either to handle the container incorporating the basket together, or to handle the basket individually, released and freed from the container, or to handle the container individually, released and freed from the basket, so as to enable a first mode of cooking foodstuffs in the basket incorporated in the container and a second mode of cooking foodstuffs directly in the container, the basket being extracted from it, the handling system, a first removable assembly device arranged between the basket and the handle to place the handle on the basket or remove it from it and a second removable assembly device arranged between the container and the handle to place the handle, assembled or not with the basket, on the container or remove it from it, the first removable assembly device comprising a support tab arranged on the basket, a housing arranged on a body integral with the handle to receive the tab and first locking means, enabling the securing of the tab housed in the body integral with the handle, characterised in that the first locking means comprise a latch arranged on the tab and formed by an orifice on a curved part disposed at the front of said support tab, the body comprising a housing on its upper face, wherein the curved part of the support tab can penetrate, and a bolt arranged on the body integral with the handle and a bolt actuation mechanism (42, 35).
A compound according to formula wherein R1, R2, R3, R4 and R5 are selected independently of each other from H, C 1-6 alkyl, C 2-6 alkenyl, C 2-6 alkynyl, C 1-6 alkoxy, cyano and halogen, wherein said C 1-6 alkyl, C 2-6 alkenyl and C 2-6 alkynyl is optionally substituted with one or more substituents independently selected from chlorine and fluorine; R6 is hydroxymethyl; A7 is C-R7, A8 is N and A9 is C-R9; R7, R9, R10 and R11 are selected independently of each other from H, C 1-6 alkyl, C 2-6 alkenyl, C 2-6 alkynyl, C 1-6 alkoxy, cyano, NR12R13, C 1-6 alkylsulfonyl and halogen, wherein said C 1-6 alkyl, C 2-6 alkenyl, C 2-6 alkynyl or C 1-6 alkoxy is optionally substituted with one or more substituents selected from chlorine, fluorine, C 1-6 alkoxy, cyano and NR12R13; R12 and R13 independently represent hydrogen, C 1-6 alkyl, C 2-6 alkenyl and C 2-6 alkynyl; and pharmaceutically acceptable salts thereof. wherein R1, R2, R3, R4 and R5 are selected independently of each other from H, C 1-6 alkyl, C 2-6 alkenyl, C 2-6 alkynyl, C 1-6 alkoxy, cyano and halogen, wherein said C 1-6 alkyl, C 2-6 alkenyl and C 2-6 alkynyl is optionally substituted with one or more substituents independently selected from chlorine and fluorine; R6 is hydroxymethyl; A7 is C-R7, A8 is N and A9 is C-R9; R7, R9, R10 and R11 are selected independently of each other from H, C 1-6 alkyl, C 2-6 alkenyl, C 2-6 alkynyl, C 1-6 alkoxy, cyano, NR12R13, C 1-6 alkylsulfonyl and halogen, wherein said C 1-6 alkyl, C 2-6 alkenyl, C 2-6 alkynyl or C 1-6 alkoxy is optionally substituted with one or more substituents selected from chlorine, fluorine, C 1-6 alkoxy, cyano and NR12R13; R12 and R13 independently represent hydrogen, C 1-6 alkyl, C 2-6 alkenyl and C 2-6 alkynyl; and pharmaceutically acceptable salts thereof.
An apparatus for reducing material to chips and for forming a bale from the chips produced, the apparatus comprising: a chipper assembly having a chipping mechanism operable to reduce the material to chips; and a bale forming assembly operatively connected to the chipper assembly, the bale forming assembly having a housing and a baling mechanism contained within an interior space of the housing, the housing having an opening defined therein for receiving chips from the chipper assembly, the opening providing access to the interior space of the housing, the baling mechanism being operable to form a bale from the chips produced by the chipper assembly, characterized in that the bale forming assembly is configured for side-loading of the chips therein and in that the bale forming assembly is oriented generally perpendicular to the chipper assembly. a chipper assembly having a chipping mechanism operable to reduce the material to chips; and a bale forming assembly operatively connected to the chipper assembly, the bale forming assembly having a housing and a baling mechanism contained within an interior space of the housing, the housing having an opening defined therein for receiving chips from the chipper assembly, the opening providing access to the interior space of the housing, the baling mechanism being operable to form a bale from the chips produced by the chipper assembly, characterized in that the bale forming assembly is configured for side-loading of the chips therein and in that the bale forming assembly is oriented generally perpendicular to the chipper assembly.
A curable composition for dental impression comprising: a curable base composition and a surfactant system comprising a first surfactant, which is at least one compound having the following formula wherein R are each, independently of one another, a C 1 -C 4 aliphatic; each R 1 is, independently of the others, a C 1 -C 6 aliphatic; each R 2 is, independently of the others, selected from a group consisting of: H and C 1 -C 3 aliphatic; each R 3 is selected, independently of the others, from a group consisting of: H and C 1 -C 4 aliphatic; x is an integer from 0 to 5; y is an integer from 1 to 10; a is an integer from 1 to 30; b is an integer from 0 to 5; and a second surfactant, which is at least one compound having the following formula: wherein R 4 is selected from a group consisting of: and R 5 is selected from a group consisting of: and and R 6 is selected from a group consisting of: and wherein k, j, z, r, d and t are each, independently of one another, an integer from 1 to 10; q is an integer from 1 to 100; Rf are each, independently of one another, a C 1 -C 6 fluorine containing alkyl; and Rf i are each, independently of one another, selected from a group consisting of: CF 3 -CF 2 -CF 2 -O-CF(CF 3)-CH 2 - and CF 3 -(CF 2) e -(CH 2)f-, wherein e is an integer from 1 to 7 and f is an integer from 1 to 10. a curable base composition and a surfactant system comprising a first surfactant, which is at least one compound having the following formula wherein R are each, independently of one another, a C 1 -C 4 aliphatic; each R 1 is, independently of the others, a C 1 -C 6 aliphatic; each R 2 is, independently of the others, selected from a group consisting of: H and C 1 -C 3 aliphatic; each R 3 is selected, independently of the others, from a group consisting of: H and C 1 -C 4 aliphatic; x is an integer from 0 to 5; y is an integer from 1 to 10; a is an integer from 1 to 30; b is an integer from 0 to 5; and a second surfactant, which is at least one compound having the following formula: wherein R 4 is selected from a group consisting of: and R 5 is selected from a group consisting of: and and R 6 is selected from a group consisting of: and wherein k, j, z, r, d and t are each, independently of one another, an integer from 1 to 10; q is an integer from 1 to 100; Rf are each, independently of one another, a C 1 -C 6 fluorine containing alkyl; and Rf i are each, independently of one another, selected from a group consisting of: CF 3 -CF 2 -CF 2 -O-CF(CF 3)-CH 2 - and CF 3 -(CF 2) e -(CH 2)f-, wherein e is an integer from 1 to 7 and f is an integer from 1 to 10.
A vehicle lighting fixture comprising: a light source; an outer lens disposed in front of the light source; a heat sink thermally connected to the light source; and an air blower having air blowing openings behind the light source, the heat sink including: a base portion extending outward, relative to the light source, in an intersection direction intersecting with an optical axis extending frontward of the light source; and a heat dissipation portion extending longitudinally from an outer portion of the base portion in the intersection direction, dissipating heat to air blown from the air blowing openings, and directing the air to the outer lens, characterized in that the air blower includes a casing being comprised of a housing fitting into a heat sink internal space and a back cover engaging, from a back side, with a back end surface of the heat sink, the back cover includes an annular front surface and is formed to project radially outward relative to the outer diameter of the housing, the air blowing openings are arranged in the front surface, and the air blower is configured such that the air hits the back cover, and then, flows so as to come around radially outward to be ejected forward from the air blowing openings, so as to be directed to the outer lens along the heat dissipation portion. a base portion extending outward, relative to the light source, in an intersection direction intersecting with an optical axis extending frontward of the light source; and a heat dissipation portion extending longitudinally from an outer portion of the base portion in the intersection direction, dissipating heat to air blown from the air blowing openings, and directing the air to the outer lens, characterized in that the air blower includes a casing being comprised of a housing fitting into a heat sink internal space and a back cover engaging, from a back side, with a back end surface of the heat sink, the back cover includes an annular front surface and is formed to project radially outward relative to the outer diameter of the housing, the air blowing openings are arranged in the front surface, and the air blower is configured such that the air hits the back cover, and then, flows so as to come around radially outward to be ejected forward from the air blowing openings, so as to be directed to the outer lens along the heat dissipation portion.
A light fixture (100, 400, 440, 600) including a lens and a lighting element, the light fixture comprising: a controller (140, 610) configured to control said lighting element; a filter apparatus, comprising: a light filter movable into an optical path between the lighting element and the lens, in use, under control of the controller (140, 610) during execution of a light program, said light filter being a diffusion filter configured to diffuse a light beam passing through said light diffusion filter; and the filter apparatus configured to automatically move said light diffusion filter from a position outside the optical path to a position within the optical path upon power down of the light fixture (100, 400, 440, 600). a controller (140, 610) configured to control said lighting element; a filter apparatus, comprising: a light filter movable into an optical path between the lighting element and the lens, in use, under control of the controller (140, 610) during execution of a light program, said light filter being a diffusion filter configured to diffuse a light beam passing through said light diffusion filter; and the filter apparatus configured to automatically move said light diffusion filter from a position outside the optical path to a position within the optical path upon power down of the light fixture (100, 400, 440, 600). a light filter movable into an optical path between the lighting element and the lens, in use, under control of the controller (140, 610) during execution of a light program, said light filter being a diffusion filter configured to diffuse a light beam passing through said light diffusion filter; and the filter apparatus configured to automatically move said light diffusion filter from a position outside the optical path to a position within the optical path upon power down of the light fixture (100, 400, 440, 600).
A method for controlling an electric actuator of an electromechanical power steering system having a control unit, in which method - a manipulated variable T1 of an actuating motor is determined by a controller, the manipulated variable T1 being the torque output by the actuating motor, wherein a target current value and/or a target voltage value which is fed to the actuating motor is determined on the basis of the manipulated variable T1, - in order, starting from an actual position X as state variable of the actuator, which is the position of a rack and/or a pivoting angle of a wheel, - to reach a target position Xd as target position, wherein a steering angle applied to a steering wheel is measured in a steering sensor, the target position Xd is determined therefrom in a signal processing unit and the determined target position Xd as well as an actual position of the rack or of the pivoting angle of the wheel is transmitted to the control unit as actual value X, and in which - a control value of the electric actuator is calculated on the basis of the manipulated variable T1, characterized in that the manipulated variable T1 of the actuating motor is calculated by using the second time derivative of the target position d 2 Xd/dt 2 and an achieved control change ΔX| τ - ΔX| 0, where ΔX | τ = Difference target - actual position at time τ and ΔX | 0 = Difference target - actual position at time t = t 0. - a manipulated variable T1 of an actuating motor is determined by a controller, the manipulated variable T1 being the torque output by the actuating motor, wherein a target current value and/or a target voltage value which is fed to the actuating motor is determined on the basis of the manipulated variable T1, - in order, starting from an actual position X as state variable of the actuator, which is the position of a rack and/or a pivoting angle of a wheel, - to reach a target position Xd as target position, wherein a steering angle applied to a steering wheel is measured in a steering sensor, the target position Xd is determined therefrom in a signal processing unit and the determined target position Xd as well as an actual position of the rack or of the pivoting angle of the wheel is transmitted to the control unit as actual value X, and in which - a control value of the electric actuator is calculated on the basis of the manipulated variable T1, characterized in that the manipulated variable T1 of the actuating motor is calculated by using the second time derivative of the target position d 2 Xd/dt 2 and an achieved control change ΔX| τ - ΔX| 0, where ΔX | τ = Difference target - actual position at time τ and ΔX | 0 = Difference target - actual position at time t = t 0.
A calibration method for calibrating the shafts of a machine tool, used to determine positioning errors of the drive axes of the machine, comprising a work bench, a head and encoders configured for determining the position of the drive axes, the method comprises the steps of: A. arranging in the head a measuring gauge provided with three linear displacement sensors (6.1) which are arranged orthogonal to one another, B. arranging in the work bench at least one precision sphere, C. establishing an estimated reference position of the center of the precision sphere according to an estimated position of the drive axes of the machine, D. moving the head until positioning the measuring gauge over the precision sphere according to the estimated reference position established in step C, characterized in that the method further comprises the steps of: E. iteratively controlling the drive axes of the machine based on the information provided by the three linear displacement sensors (6.1) of the measuring gauge until they are located at the same distance from the center of the precision sphere, F. recording the actual position of the drive axes of the machine by means of the encoders, G. comparing the actual position of the drive axes recorded in step F with the estimated position of the drive axes established in step C in order to determine the positioning error of the drive axes according to said difference. A. arranging in the head a measuring gauge provided with three linear displacement sensors (6.1) which are arranged orthogonal to one another, B. arranging in the work bench at least one precision sphere, C. establishing an estimated reference position of the center of the precision sphere according to an estimated position of the drive axes of the machine, D. moving the head until positioning the measuring gauge over the precision sphere according to the estimated reference position established in step C, characterized in that the method further comprises the steps of: E. iteratively controlling the drive axes of the machine based on the information provided by the three linear displacement sensors (6.1) of the measuring gauge until they are located at the same distance from the center of the precision sphere, F. recording the actual position of the drive axes of the machine by means of the encoders, G. comparing the actual position of the drive axes recorded in step F with the estimated position of the drive axes established in step C in order to determine the positioning error of the drive axes according to said difference. E. iteratively controlling the drive axes of the machine based on the information provided by the three linear displacement sensors (6.1) of the measuring gauge until they are located at the same distance from the center of the precision sphere, F. recording the actual position of the drive axes of the machine by means of the encoders, G. comparing the actual position of the drive axes recorded in step F with the estimated position of the drive axes established in step C in order to determine the positioning error of the drive axes according to said difference.