mhurhangee/ep-ind-claims huggingface dataset:
An illumination control system for controlling at least one exterior vehicle light of a controlled vehicle, the system comprising: a control unit in communication with the at least one exterior vehicle light and operable to acquire electrical signals received from an array of sensors of an imaging system for obtaining an image to a front of the controlled vehicle, each sensor generating electrical signals representing a light level sensed by the sensor, the control unit being further operable to separately process the electrical signals, wherein the control unit is operable to examine a position and brightness of an on-coming vehicle headlamp over time, as indicated by the electrical signals provided by the array of sensors to determine when a median width is appropriate for the activation of a motorway lighting mode, characterized in that the control unit causes the at least one exterior vehicle light to transition to the motorway lighting mode responsive to the determined median width. a control unit in communication with the at least one exterior vehicle light and operable to acquire electrical signals received from an array of sensors of an imaging system for obtaining an image to a front of the controlled vehicle, each sensor generating electrical signals representing a light level sensed by the sensor, the control unit being further operable to separately process the electrical signals, wherein the control unit is operable to examine a position and brightness of an on-coming vehicle headlamp over time, as indicated by the electrical signals provided by the array of sensors to determine when a median width is appropriate for the activation of a motorway lighting mode, characterized in that the control unit causes the at least one exterior vehicle light to transition to the motorway lighting mode responsive to the determined median width.
A mounting device comprising: a collecting section configured to hold and move multiple components for each of which imaging conditions are defined as a range including multiple values to an arrangement position in a state with multiple of the components collected; an imaging section configured to image the multiple components held by the collecting section; and a control section configured to, when the collecting section is holding the multiple components for which the defined ranges of imaging condition are not the same, cause the imaging section to image the multiple components using imaging conditions with a shared value among the ranges defined for the multiple components held by the collecting section. a collecting section configured to hold and move multiple components for each of which imaging conditions are defined as a range including multiple values to an arrangement position in a state with multiple of the components collected; an imaging section configured to image the multiple components held by the collecting section; and a control section configured to, when the collecting section is holding the multiple components for which the defined ranges of imaging condition are not the same, cause the imaging section to image the multiple components using imaging conditions with a shared value among the ranges defined for the multiple components held by the collecting section.
A system for planning an ablation procedure for ablation of a tissue mass in a patient, including: a graphical user interface for presenting a representation of the mass to a user; and an optimization component for receiving image data related to the mass and determining the ablation regions to cover the mass and for use in the ablation procedure, characterized in that the optimization component is configured to determine a unique coverage area, UCA, for a predetermined number of candidate ablation regions of an inital set of candidate ablation regions such that the UCA for a given candidate ablation region includes a portion of a planned target volume, PTV, (40, 70, 102) that is covered solely by the given candidate ablation region, wherein the PTV includes the mass, and to remove a candidate ablation region from the initial set of candidate ablation regions if the candidate ablation region does not have a UCA. a graphical user interface for presenting a representation of the mass to a user; and an optimization component for receiving image data related to the mass and determining the ablation regions to cover the mass and for use in the ablation procedure, characterized in that the optimization component is configured to determine a unique coverage area, UCA, for a predetermined number of candidate ablation regions of an inital set of candidate ablation regions such that the UCA for a given candidate ablation region includes a portion of a planned target volume, PTV, (40, 70, 102) that is covered solely by the given candidate ablation region, wherein the PTV includes the mass, and to remove a candidate ablation region from the initial set of candidate ablation regions if the candidate ablation region does not have a UCA.
An interferometric measurement system for measuring an optical fiber including multiple primary cores configured in the optical fiber and an auxiliary core configured in the optical fiber, the system comprising: interferometric detection circuitry configured to detect measurement interferometric pattern data associated with each of the multiple primary cores and the auxiliary core; and data processing circuitry configured to: determine compensation parameters based on the detected measurement interferometric pattern data for the multiple primary cores, the compensation parameters compensating for variations between a calibration configuration of the multiple primary cores and an actual configuration of the multiple primary cores, compare a predicted parameter value for the auxiliary core with a measurement-based parameter value for the auxiliary core to produce a comparison, determine an unreliability of the determined compensation parameters based on the comparison, and generate a signal in response to the unreliability. interferometric detection circuitry configured to detect measurement interferometric pattern data associated with each of the multiple primary cores and the auxiliary core; and data processing circuitry configured to: determine compensation parameters based on the detected measurement interferometric pattern data for the multiple primary cores, the compensation parameters compensating for variations between a calibration configuration of the multiple primary cores and an actual configuration of the multiple primary cores, compare a predicted parameter value for the auxiliary core with a measurement-based parameter value for the auxiliary core to produce a comparison, determine an unreliability of the determined compensation parameters based on the comparison, and generate a signal in response to the unreliability. determine compensation parameters based on the detected measurement interferometric pattern data for the multiple primary cores, the compensation parameters compensating for variations between a calibration configuration of the multiple primary cores and an actual configuration of the multiple primary cores, compare a predicted parameter value for the auxiliary core with a measurement-based parameter value for the auxiliary core to produce a comparison, determine an unreliability of the determined compensation parameters based on the comparison, and generate a signal in response to the unreliability.
Optical sensor with only one transmitting unit, by means of which transmitted light beams running in the direction of a transmitted beam axis are emitted, with only one receiving unit, which has a received beam axis and by means of which transmitted light beams reflected as received light beams from an object to be detected and running in the direction of the receiving beam axis are detected, and with an evaluating unit in which an object detection signal is generated in dependence on received signals at the output of the receiving unit, and with means for setting the angle of inclination between transmitted beam axis and the received beam axis, wherein a detection range for bright objects is predeterminable by presetting an angle of inclination and wherein the setting of the detection range is carried out in dependence on a characteristic curve defining setting values for different degrees of brightness of objects and/or different distance ranges.
System comprising a clip (100; 1100) for closing a bag for foodstuff and an intelligent portable device, wherein the clip comprises at least one wireless communication module (40; 140) configured to communicate with a corresponding wireless communication module of the intelligent portable device; characterized in that the wireless communication module (40; 140) of the clip comprises a memory unit (41; 141), said wireless communication module of the intelligent portable device transmits to the clip (100; 1100) the name (nam prod) and expiry date (exp prod) of a given foodstuff associated with the clip and previously entered in the intelligent portable device by means of an application of the intelligent portable device, the name (nam prod) and expiry date (exp prod) transmitted by the intelligent portable device being stored in said memory unit (41; 141) and in that said wireless communication module (40; 140) of the clip (100; 1100) is also configured to transmit to the intelligent portable device said name (nam prod) and expiry date (exp prod) previously stored therein.
An end-effector, comprising: a clamp arm; and an ultrasonic blade configured to acoustically couple to an ultrasonic transducer and to electrically couple to a pole of an electrical generator; wherein the clamp arm comprises: a clamp jaw having a proximal end and a distal end; characterized in that, the clamp arm further comprises: a plurality of variable longitudinal support elements; and a cantilever electrode facing the ultrasonic blade and configured to electrically couple to an opposite pole of the electrical generator, wherein the cantilever electrode is fixed to the proximal end of the clamp jaw at a proximal end and free to deflect at a distal end, wherein the cantilever electrode is supported by the variable longitudinal support elements, and wherein the variable longitudinal support elements apply a variable force on the cantilever electrode from the proximal end to the distal end. a clamp arm; and an ultrasonic blade configured to acoustically couple to an ultrasonic transducer and to electrically couple to a pole of an electrical generator; wherein the clamp arm comprises: a clamp jaw having a proximal end and a distal end; characterized in that, the clamp arm further comprises: a plurality of variable longitudinal support elements; and a cantilever electrode facing the ultrasonic blade and configured to electrically couple to an opposite pole of the electrical generator, wherein the cantilever electrode is fixed to the proximal end of the clamp jaw at a proximal end and free to deflect at a distal end, wherein the cantilever electrode is supported by the variable longitudinal support elements, and wherein the variable longitudinal support elements apply a variable force on the cantilever electrode from the proximal end to the distal end. a plurality of variable longitudinal support elements; and a cantilever electrode facing the ultrasonic blade and configured to electrically couple to an opposite pole of the electrical generator, wherein the cantilever electrode is fixed to the proximal end of the clamp jaw at a proximal end and free to deflect at a distal end, wherein the cantilever electrode is supported by the variable longitudinal support elements, and wherein the variable longitudinal support elements apply a variable force on the cantilever electrode from the proximal end to the distal end.
Method for producing a turbine rotor of an exhaust gas turbocharger, wherein the turbine rotor comprises a turbine wheel with a hub and turbine blades that extend from the hub, and a shaft, said method comprising the steps of: providing the turbine wheel, which is made of a first material, and a shaft made from a second material that is different from the first material, wherein a titanium-aluminium alloy, in particular a titanium aluminide, is used as the first material; and - connecting the shaft to the hub of the turbine wheel; characterised by the step of: - forming a protective layer by applying or introducing a halogen on or in the surface of the turbine wheel and subsequently heat-treating the turbine rotor, wherein the heat treatment is carried out in an environment having an oxygen partial pressure which is greater than a first oxygen partial pressure from which the first material is oxidized and is less than a second oxygen partial pressure from which the second material is oxidized. providing the turbine wheel, which is made of a first material, and a shaft made from a second material that is different from the first material, wherein a titanium-aluminium alloy, in particular a titanium aluminide, is used as the first material; and - connecting the shaft to the hub of the turbine wheel; - forming a protective layer by applying or introducing a halogen on or in the surface of the turbine wheel and subsequently heat-treating the turbine rotor, wherein the heat treatment is carried out in an environment having an oxygen partial pressure which is greater than a first oxygen partial pressure from which the first material is oxidized and is less than a second oxygen partial pressure from which the second material is oxidized.
A method for broadcasting, by a distributed unit, DU, of a base station, BS, system information in a wireless communication system, the method comprising: receiving, from a central unit, CU, of the BS, a first message that contains a plurality of system information; receiving, from a user equipment, UE (10, 1800), a second message that contains a request for system information; transmitting, to the CU of the BS, a third message that includes the UE's (10, 1800) request for the system information; receiving, from the CU of the BS, a fourth message that includes an enumerated type of the requested system information, wherein the enumerated type of the requested system information identifies the requested system information from among the plurality of system information that was received from the CU in the first message; and broadcasting the requested system information. receiving, from a central unit, CU, of the BS, a first message that contains a plurality of system information; receiving, from a user equipment, UE (10, 1800), a second message that contains a request for system information; transmitting, to the CU of the BS, a third message that includes the UE's (10, 1800) request for the system information; receiving, from the CU of the BS, a fourth message that includes an enumerated type of the requested system information, wherein the enumerated type of the requested system information identifies the requested system information from among the plurality of system information that was received from the CU in the first message; and broadcasting the requested system information.
Thermoelectric device comprising first and second legs (2a, 2b) having first ends in contact with a first surface and second ends in contact with a second surface, the first and second legs respectively comprising first and second conducting elements (8a, 8b) extending continuously between the first and second surfaces, characterized in that the first and second legs (2a, 2b) respectively comprise third and fourth conducting elements (8c, 8d) extending continuously between the first and second surfaces, the third conducting element being adjacent to the first conducting element and separated from the first conducting element by an insulator and the fourth conducting element being adjacent to the second conducting element and separated from the second conducting element by an insulator, and in that it comprises selection means enabling formation of a first thermocouple from the first and second conducting elements (8a, 8b) and formation of a second thermocouple from the third and fourth conducting elements (8c, 8d).
A resonator adapted to transmit power in a resonance mode, the resonator comprising: a first coil having a wire group including three wires arranged in line and alternately extended in first direction and second direction orthogonal to the first direction; and a second coil including three sub-coils and a ferrite plate, wherein the first coil is stacked adjacent to the second coil, and the first coil corresponds to a resonance coil adapted to be driven in the resonance mode and the second coil corresponds to an induction coil adapted to be driven in an induction mode, respectively, wherein the three sub-coils have first to third sub-coils, the first sub-coil is arranged in line neighboring to the second sub-coil in the first direction and the first and second sub-coils are stacked on the ferrite plate, and characterized in that the third sub-coil is stacked on the first and second sub-coils and positioned between the first and second sub-coils, and wherein the first coil is stacked on the third sub-coil included in the second coil, and the distance from an upper surface of the ferrite plate up to the upper surface of the first coil is 2.85 to 4.85 mm and the distance from the upper surface of the third sub-coil up to the upper surface of the first coil is 0.55 to 2.55 mm. a first coil having a wire group including three wires arranged in line and alternately extended in first direction and second direction orthogonal to the first direction; and a second coil including three sub-coils and a ferrite plate, wherein the first coil is stacked adjacent to the second coil, and the first coil corresponds to a resonance coil adapted to be driven in the resonance mode and the second coil corresponds to an induction coil adapted to be driven in an induction mode, respectively, wherein the three sub-coils have first to third sub-coils, the first sub-coil is arranged in line neighboring to the second sub-coil in the first direction and the first and second sub-coils are stacked on the ferrite plate, and characterized in that the third sub-coil is stacked on the first and second sub-coils and positioned between the first and second sub-coils, and wherein the first coil is stacked on the third sub-coil included in the second coil, and the distance from an upper surface of the ferrite plate up to the upper surface of the first coil is 2.85 to 4.85 mm and the distance from the upper surface of the third sub-coil up to the upper surface of the first coil is 0.55 to 2.55 mm.
Objective lens, consisting of, in order from an object side to an image side: a first meniscus lens having a convex side towards the object side; a second meniscus lens having a convex side towards the object side; a first condensing unit configured to condense light from the second meniscus lens; an aperture stop; a second condensing unit configured to condense light from the aperture stop; wherein an apex of the second meniscus lens is spaced apart from the first meniscus lens; a total number of lenses in the first and second condensing units is not less than 4 and not more than 6; if a radius of the first meniscus lens on the object side is denoted r1, a radius of the first meniscus lens on the image side is denoted r2, a radius of the second meniscus lens on the object side is denoted r3, and a radius of the second meniscus lens on the image side is denoted r4, the following four conditions are fulfilled: 1.98 ≥ r 2 / r 4 ≥ 1.40; 0.35 ≥ r 4 / r 3 ≥ 0.111; 0.65 ≥ r 2 / r 3 ≥ 0.16; and 4.0 ≤ r 1 / r 4 ≤ 7.6, characterized in that a field of view of the objective lens is not less than 225°. a first meniscus lens having a convex side towards the object side; a second meniscus lens having a convex side towards the object side; a first condensing unit configured to condense light from the second meniscus lens; an aperture stop; a second condensing unit configured to condense light from the aperture stop; wherein an apex of the second meniscus lens is spaced apart from the first meniscus lens; a total number of lenses in the first and second condensing units is not less than 4 and not more than 6; if a radius of the first meniscus lens on the object side is denoted r1, a radius of the first meniscus lens on the image side is denoted r2, a radius of the second meniscus lens on the object side is denoted r3, and a radius of the second meniscus lens on the image side is denoted r4, the following four conditions are fulfilled: 1.98 ≥ r 2 / r 4 ≥ 1.40; 0.35 ≥ r 4 / r 3 ≥ 0.111; 0.65 ≥ r 2 / r 3 ≥ 0.16; and 4.0 ≤ r 1 / r 4 ≤ 7.6,
Electric compressor comprising a compression mechanism, an electric motor driving the compression mechanism, said electric motor having an axis of rotation, an inverter powering said electric motor, the inverter being mounted in an inverter housing, the electric motor being mounted in a housing extending longitudinally along the axis of rotation and having a first end linked to the inverter housing by a plurality of fastening devices, characterized in that the motor comprises a stator of circular periphery, the motor housing comprising, on its internal periphery, a plurality of protuberances in contact with the circular periphery of the stator, and in that the motor housing comprises, on its internal periphery and between two consecutive protuberances, a plurality of recesses into which extends at least one of the fastening devices.