mhurhangee/ep-ind-claims huggingface dataset:
Method for cutting graphics areas from a multiplicity of substantially-identical sheets having registration marks at predetermined positions at and about the graphics areas (42a-d), including the following steps: (a) providing a plotter for sequentially receiving the sheets, (b) providing a sensor operatively connected to the plotter for moving over a work surface and configured to sense work-surface positions of registration marks of the sheets, (c) providing a cutter operatively connected to sensor and movable to cut the graphics areas (42a-d) from a sheet in response to sensed registration-mark positions to the work surface, (d) providing a programmed controller operatively connecting the cutter to the sensor to control cutter movement, and (e) sensing the work-surface positions of the registration marks of a sheet and calculating an expected work-surface position for each such registration mark based on the work-surface positions of at least some of the other registration marks; characterized by the further steps of: classifying each registration mark as active or inactive based on a first error criterion and applying the classification to corresponding marks of a subsequent sheet, the active marks being fewer than the total number of registration marks; sensing the work-surface positions of the active registration marks of the subsequent sheet; and cutting the graphics area(s) (42a-d) from the subsequent sheet based on the sensed positions of the active marks, thereby reducing the time for accurate cut-processing of the subsequent sheet. (a) providing a plotter for sequentially receiving the sheets, (b) providing a sensor operatively connected to the plotter for moving over a work surface and configured to sense work-surface positions of registration marks of the sheets, (c) providing a cutter operatively connected to sensor and movable to cut the graphics areas (42a-d) from a sheet in response to sensed registration-mark positions to the work surface, (d) providing a programmed controller operatively connecting the cutter to the sensor to control cutter movement, and (e) sensing the work-surface positions of the registration marks of a sheet and calculating an expected work-surface position for each such registration mark based on the work-surface positions of at least some of the other registration marks; classifying each registration mark as active or inactive based on a first error criterion and applying the classification to corresponding marks of a subsequent sheet, the active marks being fewer than the total number of registration marks; sensing the work-surface positions of the active registration marks of the subsequent sheet; and cutting the graphics area(s) (42a-d) from the subsequent sheet based on the sensed positions of the active marks, thereby reducing the time for accurate cut-processing of the subsequent sheet.
A method for enabling traffic acceleration in a mobile telecommunication network, the method comprising the following steps: - receiving, at a radio network node, hereinafter referred to as node, ( 2,19), a name resolution reply message from a content delivery provider ( 3; 95) located outside the mobile telecommunication network; - intercepting, at the node, the reply message; - extracting, at the node, a token from the reply message; and - comparing, at the node, the token with a stored token in the node ( 2,19); the method being characterized in that it further comprises: - replacing, at the node, in the reply message, an Internet Protocol, IP, address of a content delivery provider server with a preset IP address ( 91,92) of an acceleration edge server ( 4,20) attached to the node (2,19) in the mobile network, when there is a match between the token and the stored token; and - sending from the node ( 2,19) the modified reply message to a mobile terminal. - receiving, at a radio network node, hereinafter referred to as node, ( 2,19), a name resolution reply message from a content delivery provider ( 3; 95) located outside the mobile telecommunication network; - intercepting, at the node, the reply message; - extracting, at the node, a token from the reply message; and - comparing, at the node, the token with a stored token in the node ( 2,19); the method being characterized in that it further comprises: - replacing, at the node, in the reply message, an Internet Protocol, IP, address of a content delivery provider server with a preset IP address ( 91,92) of an acceleration edge server ( 4,20) attached to the node (2,19) in the mobile network, when there is a match between the token and the stored token; and - sending from the node ( 2,19) the modified reply message to a mobile terminal.
Production process of a workpiece rack for industrial use, comprising the steps of: - providing a mold having a cavity that reproduces, in negative, the shape of the finished rack; - providing a solid supporting structure by means of cutting, according to a predetermined length, and bending a metal profile, having a predetermined thickness, in the shape of a channel with an essentially "C" or "omega" cross section; - washing the mold cavity; - pouring a predetermined amount of cold liquid plastisol into the mold; - placing said solid supporting structure in the mold cavity according to the shape provided in said cavity; - inserting said mold into an oven maintained at a temperature from 220 to 350 °C to harden the plastisol to the required hardness; - removing the mold from the oven and cooling it to the extraction temperature and extracting the finished rack, characterized in that it comprises a step in which: - said solid supporting structure bent in the shape of a channel is provided with a surface coating, before insertion into the mold, forming a film of surface coating on the solid supporting structure by applying a liquid primer, subsequently placing said solid structure in the oven, at a temperature of 220-300 °C for 10-20 minutes, and causing said film of primer to dry, so that the dried primer adheres closely to said solid structure. - providing a mold having a cavity that reproduces, in negative, the shape of the finished rack; - providing a solid supporting structure by means of cutting, according to a predetermined length, and bending a metal profile, having a predetermined thickness, in the shape of a channel with an essentially "C" or "omega" cross section; - washing the mold cavity; - pouring a predetermined amount of cold liquid plastisol into the mold; - placing said solid supporting structure in the mold cavity according to the shape provided in said cavity; - inserting said mold into an oven maintained at a temperature from 220 to 350 °C to harden the plastisol to the required hardness; - removing the mold from the oven and cooling it to the extraction temperature and extracting the finished rack, - said solid supporting structure bent in the shape of a channel is provided with a surface coating, before insertion into the mold, forming a film of surface coating on the solid supporting structure by applying a liquid primer, subsequently placing said solid structure in the oven, at a temperature of 220-300 °C for 10-20 minutes, and causing said film of primer to dry, so that the dried primer adheres closely to said solid structure.
Lighting module comprising at least one first lighting device and a second lighting device, the first lighting device comprising a holder common to at least one first light emitter and at least one second light emitter, the first light emitter being spaced apart from the second light emitter so as to generate a window which is not illuminated by the first lighting device, characterized in that the second illuminating device generates at least one light strip which fills the window, and in that the first illuminating device has a first optical axis, the second illuminating device has a second optical axis, the first optical axis and the second optical axis forming a non-zero angle of between 0.5° and 4° with respect to one another.
An aqueous solution comprising adrenalin and an antidepressant, wherein the antidepressant is chosen from the group consisting of amoxapine, amitriptylinoxide, butriptyline, clomipramine, demexiptiline, dibenzepin, dimetacrine, dosulepin, doxepin, imipraminoxide, lofepramine, maprotiline, mianserin, melitracen, metapramine, nitroxazepine, nortriptyline, noxiptiline, pipofezine, propizepine, protriptyline, quinupramine, amineptine and trimipramine, or one of its pharmaceutically acceptable salts; wherein adrenalin is at a concentration comprised between 0.05 mg/ml and 1.0 mg/ml in said solution; and wherein the antidepressant is at a concentration comprised between 0.1 mg/ml and 10 mg/ml in said solution.
A sampling system for sampling a surface array having an analyte, the system comprising: a sampling probe having a tip and which is adapted to sample the surface array for analysis when disposed at a desired spaced distance from the surface array so that an optimum liquid microjunction is presented between the tip of the sampling probe and the surface array; means (28, 29) for moving the sampling probe and the surface array toward and away from one another along a Z-axis; and means (44, 45, 50) for capturing an image of both the tip of the probe and the surface array and for generating signals which correspond to the captured image; characterised in that the means for capturing an image includes means for directing a light beam toward the probe tip so that a shadow of the probe tip is cast upon the surface array and so that the image captured by the image-capturing means includes both the probe tip and the shadow of the probe tip; and in that the system further comprises means (30 for receiving the signals which correspond to the captured image and for determining the actual distance between the tip of the probe and the surface array from the captured image; and comparison means for comparing the actual distance between the tip of the probe and the surface array to the desired target distance and for initiating the movement of the surface array and the probe tip toward or away from one another when the difference between the actual distance between the tip of the probe and the surface array and the desired distance is outside of a predetermined range so that by moving the surface array and the probe tip toward or away from one another, the actual target distance approaches the desired distance; wherein said means for receiving and determining is adapted to generate from the captured image a plot along the Z-axis of the line average brightness of lines in the image perpendicular to the Z-axis to determine said actual distance. a sampling probe having a tip and which is adapted to sample the surface array for analysis when disposed at a desired spaced distance from the surface array so that an optimum liquid microjunction is presented between the tip of the sampling probe and the surface array; means (28, 29) for moving the sampling probe and the surface array toward and away from one another along a Z-axis; and means (44, 45, 50) for capturing an image of both the tip of the probe and the surface array and for generating signals which correspond to the captured image;
A method for controlling an air conditioner, the method comprising: determining time information for determining an execution time of a low-noise operation; and performing the low-noise operation according to the determined time information, wherein the determining the time information for determining the execution time of the low-noise operation comprises: determining a reference time through a predetermined operation process; and determining a range of the execution time of the low-noise operation on the basis of the determined reference time, wherein the performing of the low-noise operation comprises: limiting a maximum value of an operation frequency of a compressor; and increasing a target superheating degree and target supercooling degree of an indoor unit to reduce an amount of refrigerant introduced into the indoor unit. determining time information for determining an execution time of a low-noise operation; and performing the low-noise operation according to the determined time information, wherein the determining the time information for determining the execution time of the low-noise operation comprises: determining a reference time through a predetermined operation process; and determining a range of the execution time of the low-noise operation on the basis of the determined reference time, determining a reference time through a predetermined operation process; and determining a range of the execution time of the low-noise operation on the basis of the determined reference time, wherein the performing of the low-noise operation comprises: limiting a maximum value of an operation frequency of a compressor; and increasing a target superheating degree and target supercooling degree of an indoor unit to reduce an amount of refrigerant introduced into the indoor unit. limiting a maximum value of an operation frequency of a compressor; and increasing a target superheating degree and target supercooling degree of an indoor unit to reduce an amount of refrigerant introduced into the indoor unit.
A flame resistant fabric comprising: a plurality of spun yarns formed of short staple fibers having lengths of 5 cm (2 inches) or less, wherein at least some of the plurality of spun yarns comprise flame resistant fibers, characterized in that the fabric comprises a plurality of long staple yarns formed from long staple fibers having a staple length of more than 5 cm (2 inches).
An external fixation strut for use with an external fixation system, the external fixation strut comprising: a main body including an interior cavity; a threaded rod at least partially positioned within the interior cavity of the main body; an actuator operatively coupled to the threaded rod so that, in use, rotation of the actuator causes the threaded rod to rotate; a first fixed arm positioned about, and immovably coupled to, the main body; and a second movable arm threadably coupled to the threaded rod, and positioned about the main body, so that, in use, rotation of the threaded rod causes the second movable arm to move, along the main body, relative to the first fixed arm. a main body including an interior cavity; a threaded rod at least partially positioned within the interior cavity of the main body; an actuator operatively coupled to the threaded rod so that, in use, rotation of the actuator causes the threaded rod to rotate; a first fixed arm positioned about, and immovably coupled to, the main body; and a second movable arm threadably coupled to the threaded rod, and positioned about the main body, so that, in use, rotation of the threaded rod causes the second movable arm to move, along the main body, relative to the first fixed arm.
Method for positioning a robot-guided interaction apparatus with respect to an object, in which - a plurality of radar antennas are integrated in the interaction apparatus or mounted on the interaction apparatus in such a manner that at least one region of an interaction space of the interaction apparatus can be scanned with the radar antennas, - the radar antennas are controlled to emit and to receive radar signals, - one or more distances from the radar antennas to the object are determined from the received radar signals, and a 3-D image of a scene captured with the radar antennas is generated, and - the distances determined and the 3-D image generated from the received radar signals are communicated as data to a robot controller, which positions the interaction apparatus with respect to the object on the basis of said data, characterized in that when a multi-segment gripping tool is used as the interaction apparatus, at least one radar antenna is integrated in or mounted on each of the segments (1, 2) of the gripping tool that are movable relative to each other, and the distance from each segment (1, 2) to the object is determined in each case from the received radar signals. - a plurality of radar antennas are integrated in the interaction apparatus or mounted on the interaction apparatus in such a manner that at least one region of an interaction space of the interaction apparatus can be scanned with the radar antennas, - the radar antennas are controlled to emit and to receive radar signals, - one or more distances from the radar antennas to the object are determined from the received radar signals, and a 3-D image of a scene captured with the radar antennas is generated, and - the distances determined and the 3-D image generated from the received radar signals are communicated as data to a robot controller, which positions the interaction apparatus with respect to the object on the basis of said data,
A system for cleaning aquatic environments comprising: - at least one tray adapted to receive and hold water polluted by waste, notably microplastics, while allowing the water to evaporate, - means adapted to provide on the tray a controlled volume of water and - means adapted to recover the solid residues present on the tray after evaporation of the water, characterized in that the means for recovering the solid residues comprises a film placed on the surface of the tray, for receiving the polluted water, said film being able to be rolled or folded on itself. - at least one tray adapted to receive and hold water polluted by waste, notably microplastics, while allowing the water to evaporate, - means adapted to provide on the tray a controlled volume of water and - means adapted to recover the solid residues present on the tray after evaporation of the water,
A method for optimising mobility management in a cellular network with a least one mobile terminal wherein the mobile terminal performs the steps: i. Measuring the receive signal level and receive signal quality, during a handover and/or cell reselection procedure for a number of neighbouring cells and the serving cell, ii. combining these data with information about the physical frequency on which they were determined, and where applicable with the used scrambling code, iii. storing said measurement data in a global database for future use, wherein the global database is connected to a network planning database and said measured data stored in the global database is transferred to the network planning database and used for network planning by identifying areas of poor coverage or poor quality or areas of frequent call drops, and for handover parameter optimisation. i. Measuring the receive signal level and receive signal quality, during a handover and/or cell reselection procedure for a number of neighbouring cells and the serving cell, ii. combining these data with information about the physical frequency on which they were determined, and where applicable with the used scrambling code, iii. storing said measurement data in a global database for future use, wherein the global database is connected to a network planning database and said measured data stored in the global database is transferred to the network planning database and used for network planning by identifying areas of poor coverage or poor quality or areas of frequent call drops, and for handover parameter optimisation.
Hydrostatic drive system of a mobile machine, in particular an industrial truck, having an internal combustion engine and a working hydraulic system which is driven by the internal combustion engine, wherein the working hydraulic system has at least one hydraulic pump which is driven by the internal combustion engine, wherein the hydraulic pump sucks pressure medium out of a container with a suction side and feeds it into a feedline which is made to extend to the working hydraulic system, and wherein the drive system has a supply circuit and is provided with at least one pressure medium accumulator, wherein the pressure medium accumulator is provided for supplying the supply circuit with pressure medium, wherein the pressure medium accumulator is connected, for the purpose of charging with pressure medium, to the feedline of the hydraulic pump by means of a charging line and for the purpose of supplying the supply circuit a supply pressure supply line is connected to the pressure medium accumulator, characterized in that a pressure regulating valve, in particular a pressure reduction valve, is arranged in the supply pressure supply line, and a shut-off valve which can be activated is arranged between a closed position and an open position is arranged in the charging line.
A thermoregulated multilayer material, comprising: - A support having • a transmission coefficient Γ s substantially equal to 0, for rays with a wavelength A of between 0.25 and 25 pm; • a reflection coefficient ρs ≥ 0.9, for incident rays with wavelength A of between 7.5 and 10 pm; - a thermoregulated layer with a thickness of between 50 and 500 nm with a base of rare earth perovskite cobaltites or rare earth perovskite nickelates or rare earth manganites, said thermoregulated layer topping one of the surfaces of said support; - said thermoregulated material having: • for rays with wavelength A of between 0.25 and 2.5 pm; an absorption coefficient αm ≥ 0.8; • and, for incident rays with wavelength A of between 7.5 and 10 pm; a reflection coefficient ρ m: *** ≥ 0.85, when the temperature T of said multilayer material is ≤ 100°C; *** between 0.3 and 0.85, when the temperature T of said multilayer material is between 100 and 400°C. - A support having • a transmission coefficient Γ s substantially equal to 0, for rays with a wavelength A of between 0.25 and 25 pm; • a reflection coefficient ρs ≥ 0.9, for incident rays with wavelength A of between 7.5 and 10 pm; • a transmission coefficient Γ s substantially equal to 0, for rays with a wavelength A of between 0.25 and 25 pm; • a reflection coefficient ρs ≥ 0.9, for incident rays with wavelength A of between 7.5 and 10 pm; - a thermoregulated layer with a thickness of between 50 and 500 nm with a base of rare earth perovskite cobaltites or rare earth perovskite nickelates or rare earth manganites, said thermoregulated layer topping one of the surfaces of said support; - said thermoregulated material having: • for rays with wavelength A of between 0.25 and 2.5 pm; an absorption coefficient αm ≥ 0.8; • and, for incident rays with wavelength A of between 7.5 and 10 pm; a reflection coefficient ρ m: *** ≥ 0.85, when the temperature T of said multilayer material is ≤ 100°C; *** between 0.3 and 0.85, when the temperature T of said multilayer material is between 100 and 400°C. • for rays with wavelength A of between 0.25 and 2.5 pm; an absorption coefficient αm ≥ 0.8; • and, for incident rays with wavelength A of between 7.5 and 10 pm; a reflection coefficient ρ m: *** ≥ 0.85, when the temperature T of said multilayer material is ≤ 100°C; *** between 0.3 and 0.85, when the temperature T of said multilayer material is between 100 and 400°C. *** ≥ 0.85, when the temperature T of said multilayer material is ≤ 100°C; *** between 0.3 and 0.85, when the temperature T of said multilayer material is between 100 and 400°C.