mhurhangee/ep-ind-claims huggingface dataset:
A data generating apparatus that generates shoe last data for manufacturing a shoe from measured foot shape data, the data generating apparatus comprising: an input unit that receives the foot shape data; a computing unit that computes the shoe last data from the foot shape data received by the input unit; and an output unit that outputs the shoe last data computed by the computing unit, a storage unit that prestores a plurality of pieces of the shoe last data, wherein the input unit further receives selected additional information prior to the shoe last data being computed, and the computing unit selects one of the plurality of pieces of the shoe last data stored in the storage unit, based on the foot shape data, the shoe last data including first data corresponding to an upper-side region of the shoe and second data corresponding to a sole-side region of the shoe, specifies a portion of the selected piece of the shoe last data to be corrected, corrects a portion of the selected first data that is different from the foot shape data, corrects the second data to match the selected first data, combines corrected first data and corrected second data to generate shoe last data K, specifies a portion of the shoe last data K, corresponding to the corrected first data and corrected second data, to be corrected, based on the additional information, and calculates an amount of correction of the specified portion of the shoe last data K based on the additional information. an input unit that receives the foot shape data; a computing unit that computes the shoe last data from the foot shape data received by the input unit; and an output unit that outputs the shoe last data computed by the computing unit, a storage unit that prestores a plurality of pieces of the shoe last data, wherein the input unit further receives selected additional information prior to the shoe last data being computed, and the computing unit selects one of the plurality of pieces of the shoe last data stored in the storage unit, based on the foot shape data, the shoe last data including first data corresponding to an upper-side region of the shoe and second data corresponding to a sole-side region of the shoe, specifies a portion of the selected piece of the shoe last data to be corrected, corrects a portion of the selected first data that is different from the foot shape data, corrects the second data to match the selected first data, combines corrected first data and corrected second data to generate shoe last data K, specifies a portion of the shoe last data K, corresponding to the corrected first data and corrected second data, to be corrected, based on the additional information, and calculates an amount of correction of the specified portion of the shoe last data K based on the additional information.
Motor vehicle comprising at least one driver assistance system for forecasting forecast data about at least one future driving situation of the motor vehicle by evaluating ego data relating to the motor vehicle and ambient data relating to the motor vehicle surroundings, wherein in a first operating mode of the driver assistance system the motor vehicle is controllable by a driver, wherein the driver assistance system is configured, when a trigger condition or at least one trigger condition of a plurality of trigger conditions is fulfilled, to switch over temporarily into a second operating mode, in which the control of the motor vehicle is carried out autonomously by the driver assistance system without the possibility of intervention on the part of the driver, wherein the trigger condition is configured to evaluate at least forecast data, wherein the forecast data comprise trajectory data which describe several driveable trajectories starting from the current position of the motor vehicle, wherein the driver assistance system is configured to calculate trajectory data under at least one limiting condition specified from ego data and/or ambient data and the trigger condition is configured to evaluate the trajectory data characterised in that the trigger condition is configured to evaluate driver characteristic data describing at least one driver characteristic, wherein the driver assistance system is configured to specify a threshold value for a vehicle parameter from the trajectory data and the driver characteristic data and the trigger condition or one of the trigger conditions is the overshooting or undershooting of the threshold value. the driver assistance system is configured to calculate trajectory data under at least one limiting condition specified from ego data and/or ambient data and the trigger condition is configured to evaluate the trajectory data characterised in that the trigger condition is configured to evaluate driver characteristic data describing at least one driver characteristic, wherein the driver assistance system is configured to specify a threshold value for a vehicle parameter from the trajectory data and the driver characteristic data and the trigger condition or one of the trigger conditions is the overshooting or undershooting of the threshold value.
A method of transferring pipes from a carrier vessel to a laying vessel, the method being characterized by comprising the steps of gripping the pipes in the hold of the carrier vessel and releasing the pipes, in a given position, inside a transfer station on the carrier vessel using a manipulator mounted on the carrier vessel; and guiding a gripping device, connected to a crane, into said given position at the transfer station.
A method for evaluating clinical acceptability of reference data in a substantially continuous glucose monitoring system prior to accepting the data as valid entries to be processed by the substantially continuous glucose monitoring system, the method including: receiving a data stream from a substantially continuous analyte sensor, including one or more sensor data points; receiving reference data from a reference analyte monitor, including one or more reference data points; and characterized by evaluating the clinical acceptability of the reference data using substantially time corresponding sensor data, wherein the reference data is evaluated for deviation from its substantially time corresponding sensor data, and wherein the evaluating the clinical acceptability further comprises using a clinical risk associated with that deviation based on a glucose value indicated by the reference data. receiving a data stream from a substantially continuous analyte sensor, including one or more sensor data points; receiving reference data from a reference analyte monitor, including one or more reference data points; and characterized by evaluating the clinical acceptability of the reference data using substantially time corresponding sensor data, wherein the reference data is evaluated for deviation from its substantially time corresponding sensor data, and wherein the evaluating the clinical acceptability further comprises using a clinical risk associated with that deviation based on a glucose value indicated by the reference data.
Magnetic actuator, comprising: - a coil, - an inner pole, - an armature, and - a magnetic return arrangement, characterized in that the magnetic return arrangement has a magnetic return element composed of a material with a two-phase structure. - a coil, - an inner pole, - an armature, and - a magnetic return arrangement,
A steel sheet for a fuel tank, comprising: a Zn-Ni alloy plated layer which is placed on one surface of a base metal and formed on the one surface wherein the Zn-Ni alloy plated layer optionally contains Fe, Co, Sn, and/or Cr; and an inorganic chromate-free chemical conversion coating film which is placed over the Zn-Ni alloy plated layer, wherein the inorganic chromate-free chemical conversion coating film contains one or more selected from a silane coupling agent, a condensation polymer of a silane coupling agent, silica, silicate, phosphoric acid, and phosphate, and a compound of one or more metals selected from Ti, Zr, V, Mo, and W, wherein the inorganic chromate-free chemical conversion coating film optionally contains a water repellent, wherein the Zn-Ni alloy plated layer has cracks starting from an interface between the Zn-Ni alloy plated layer and the inorganic chromate-free chemical conversion coating film and reaching an interface between the Zn-Ni alloy plated layer and the base metal, a water contact angle on a surface of the inorganic chromate-free chemical conversion coating film is more than or equal to 50 degrees, and a surface opposite to the one surface having neither the Zn-Ni alloy plated layer nor the inorganic chromate-free chemical conversion coating film, wherein a water contact angle on the surface not having the Zn-Ni alloy plated layer and the inorganic chromate-free chemical conversion coating film is less than 10 degrees. a Zn-Ni alloy plated layer which is placed on one surface of a base metal and formed on the one surface wherein the Zn-Ni alloy plated layer optionally contains Fe, Co, Sn, and/or Cr; and an inorganic chromate-free chemical conversion coating film which is placed over the Zn-Ni alloy plated layer, wherein the inorganic chromate-free chemical conversion coating film contains one or more selected from a silane coupling agent, a condensation polymer of a silane coupling agent, silica, silicate, phosphoric acid, and phosphate, and a compound of one or more metals selected from Ti, Zr, V, Mo, and W, wherein the inorganic chromate-free chemical conversion coating film optionally contains a water repellent, wherein the Zn-Ni alloy plated layer has cracks starting from an interface between the Zn-Ni alloy plated layer and the inorganic chromate-free chemical conversion coating film and reaching an interface between the Zn-Ni alloy plated layer and the base metal, a water contact angle on a surface of the inorganic chromate-free chemical conversion coating film is more than or equal to 50 degrees, and a surface opposite to the one surface having neither the Zn-Ni alloy plated layer nor the inorganic chromate-free chemical conversion coating film, wherein a water contact angle on the surface not having the Zn-Ni alloy plated layer and the inorganic chromate-free chemical conversion coating film is less than 10 degrees.
An accumulator (1, 101) for an air-conditioning circuit intended to be mounted between an evaporator and a compressor of said circuit, this accumulator incorporating a baffle (5, 105), a dessicant system (13, 113) and an internal heat exchanger (10, 110) which includes two high and low pressure ducts (12, 112, and 17, 117) respectively intended to be covered by a refrigerant fluid of said circuit and positioned around a longitudinal axis of symmetry (6, 106) of the accumulator, characterized in that said exchanger further includes a stack of fins (11, 11', 11", 111) for cooling the fluid flowing in said high pressure duct via the low pressure fluid contained in the accumulator, these fins being stacked along the accumulator substantially perpendicularly to said axis and supporting said dessicant system on the one hand and at least said high pressure duct around said axis.
A building comprising a roof with a ridge line, and a building structure in the form of a rain gutter comprising at least a first and a second roof gutter hanger, and a fall restraint for a worker on the roof, the fall restraint comprising: a yoke line, a first end of the yoke line releasably connected to the first gutter hanger with a first anchor line and a second end of the yoke line releasably connected to a the second gutter hanger with a second anchor line, a support line, a first end of the support line slidably connected to the yoke line and a second end of the support line connected to a worker harness, wherein the support line is adapted to travel over the ridge line of the roof and in use at least partially supporting a weight of the worker. a yoke line, a first end of the yoke line releasably connected to the first gutter hanger with a first anchor line and a second end of the yoke line releasably connected to a the second gutter hanger with a second anchor line, a support line, a first end of the support line slidably connected to the yoke line and a second end of the support line connected to a worker harness, wherein the support line is adapted to travel over the ridge line of the roof and in use at least partially supporting a weight of the worker.
Railway vehicle comprising: - a body equipped with at least one fixed floor (15, 16) delimiting a corridor which extends along the length of the vehicle; - a platform extending between two lateral faces of the body, which platform is arranged opposite an opening of the body which is normally closed by a door, and is movable vertically relative to the floor (15, 16) between a top position in which the platform is in alignment with the floor (15, 16) and a bottom position in which the platform is out of alignment with the floor (15, 16), the bottom position corresponding to a boarding/alighting situation; - at least one movable passage between the floor (15, 16) and the movable platform; characterised in that the or each movable passage has at least one step (24, 25) which is movable between an intermediate position, between the top position and the bottom position of the platform, and the top position of the platform, so that, in the top position, the or each step (24, 25) is in alignment with the floor (15, 16) and the movable platform. - a body equipped with at least one fixed floor (15, 16) delimiting a corridor which extends along the length of the vehicle; - a platform extending between two lateral faces of the body, which platform is arranged opposite an opening of the body which is normally closed by a door, and is movable vertically relative to the floor (15, 16) between a top position in which the platform is in alignment with the floor (15, 16) and a bottom position in which the platform is out of alignment with the floor (15, 16), the bottom position corresponding to a boarding/alighting situation; - at least one movable passage between the floor (15, 16) and the movable platform;
An operating method for a building automation system, wherein the operating method comprises the following steps: - providing and/or collecting of at least one information, which describes at least one performed time expenditure and energy expenditure for obtaining at least one specific building zone climate and/or at least one specific building zone climate change, - using the at least one information, determining (S3.1) at least one required time expenditure and energy expenditure for obtaining at least one building zone climate to be achieved and/or at least one building zone climate change to be achieved, wherein the required time expenditure is a minimum time expenditure and the required energy expenditure is a minimum energy expenditure, and - using the at least one information, determining (S3.2) at least one measure for influencing the building zone climate with which at least one building zone climate to be achieved and/or at least one building zone climate change to be achieved can be obtained in a time-optimized and/or energy-optimized manner or can be obtained with a user-prescribable preference. - providing and/or collecting of at least one information, which describes at least one performed time expenditure and energy expenditure for obtaining at least one specific building zone climate and/or at least one specific building zone climate change, - using the at least one information, determining (S3.1) at least one required time expenditure and energy expenditure for obtaining at least one building zone climate to be achieved and/or at least one building zone climate change to be achieved, wherein the required time expenditure is a minimum time expenditure and the required energy expenditure is a minimum energy expenditure, and - using the at least one information, determining (S3.2) at least one measure for influencing the building zone climate with which at least one building zone climate to be achieved and/or at least one building zone climate change to be achieved can be obtained in a time-optimized and/or energy-optimized manner or can be obtained with a user-prescribable preference.
A spark plug (1; 1a), comprising: an insulator having an axial hole formed in an axis direction of the spark plug; a center electrode retained in one end side of the axial hole; a metal terminal retained in the other end side of the axial hole; an electrical connection part arranged in the axial hole to establish electrical connection between the center electrode and the metal terminal; and a metal shell holding therein the insulator, wherein the electrical connection part (60; 60a) includes a conductor having a first crystal phase formed of a Fe-containing oxide and a second crystal phase formed of a conductive metal oxide characterized in that said conductive metal oxide is made of perovskite crystal structure. an insulator having an axial hole formed in an axis direction of the spark plug; a center electrode retained in one end side of the axial hole; a metal terminal retained in the other end side of the axial hole; an electrical connection part arranged in the axial hole to establish electrical connection between the center electrode and the metal terminal; and a metal shell holding therein the insulator, wherein the electrical connection part (60; 60a) includes a conductor having a first crystal phase formed of a Fe-containing oxide and a second crystal phase formed of a conductive metal oxide characterized in that said conductive metal oxide is made of perovskite crystal structure.
Portable electronic end-user device comprising a wireless communication module, a memory and a user interface, wherein the memory comprises a do-not-track value that is switchable by an end-user via the user interface between Yes and No, and wherein the end-user device is further adapted to communicate a do-not-track flag via the wireless communication module depending on the do-not-track value characterized in that the end-user device is provided with a WiFi management frame generator adapted for integrating a do-not-track flag as metadata in the WiFi probes.
A device for measuring at least one physical parameter of a fluid flow, in particular the total air temperature, comprising: - a profiled body having an elongate shape along a longitudinal axis, and having at least two walls arranged contiguous to each other at an acute angle to form a wedge-shaped portion, said wedge-shaped portion extending in a direction parallel to the longitudinal axis of the profiled body; - at least one sensing element to measure the physical parameter of the fluid flow, said sensing element being arranged in a window arranged through the profiled body, characterized in that each of the walls (71; 72) forming the wedge-shaped portion comprises at least one notch separate from the window said notch forming a deflector angle relative to said wall (71; 72) to weaken the formation of ice on the wedge-shaped portion. - a profiled body having an elongate shape along a longitudinal axis, and having at least two walls arranged contiguous to each other at an acute angle to form a wedge-shaped portion, said wedge-shaped portion extending in a direction parallel to the longitudinal axis of the profiled body; - at least one sensing element to measure the physical parameter of the fluid flow, said sensing element being arranged in a window arranged through the profiled body, characterized in that each of the walls (71; 72) forming the wedge-shaped portion comprises at least one notch separate from the window said notch forming a deflector angle relative to said wall (71; 72) to weaken the formation of ice on the wedge-shaped portion.
A method for collecting radio link failure data in a wireless network, the method comprising: receiving, by a first radio access node, radio link failure data related to a connection failure experienced by a user equipment on a radio link between the user equipment and a radio access node; determining, using information contained in the radio link failure data, whether the radio link failure data satisfies at least one filtering condition wherein the at least one filtering condition comprises at least one of: a presence of detailed location information in the radio link failure report, a protocol release version of the radio link failure report, a signal strength of non-serving cells above/below a threshold, a carrier frequency of a last serving cell, and PLMN or TAI of the last serving cell; and when it is determined that the radio link failure data satisfies the at least one filtering condition, sending the radio link failure data to at least one of a second radio access node and a radio link failure data collection entity. receiving, by a first radio access node, radio link failure data related to a connection failure experienced by a user equipment on a radio link between the user equipment and a radio access node; determining, using information contained in the radio link failure data, whether the radio link failure data satisfies at least one filtering condition wherein the at least one filtering condition comprises at least one of: a presence of detailed location information in the radio link failure report, a protocol release version of the radio link failure report, a signal strength of non-serving cells above/below a threshold, a carrier frequency of a last serving cell, and PLMN or TAI of the last serving cell; and when it is determined that the radio link failure data satisfies the at least one filtering condition, sending the radio link failure data to at least one of a second radio access node and a radio link failure data collection entity. a presence of detailed location information in the radio link failure report, a protocol release version of the radio link failure report, a signal strength of non-serving cells above/below a threshold, a carrier frequency of a last serving cell, and PLMN or TAI of the last serving cell; and when it is determined that the radio link failure data satisfies the at least one filtering condition, sending the radio link failure data to at least one of a second radio access node and a radio link failure data collection entity.
A multilayer shrink film for a shrink label capable to shrink under exposure to external energy, the multilayer film comprising a first skin layer, a second skin layer and a core layer between the first skin layer and the second skin layer, wherein the core layer comprises copolymer of ethylene and butyl acrylate(s) and further heterophasic polypropylene block copolymer(s) or random copolymer(s) of propylene, and wherein at least one of the first skin layer and the second skin layer comprise between 50 and 90 wt.% of polyethylene and between 10 and 50 wt.% of propylene terpolymer(s), random copolymer(s) of propylene or heterophasic polypropylene block copolymer(s).