mhurhangee/ep-ind-claims huggingface dataset:
Street lamp which is configured to change a light output depending on the weather, wherein the street lamp has a weather sensor in order to detect rain and/or snow, characterized in that two electrodes are arranged at a smaller distance and a third electrode is arranged at a greater distance from one of the two first-mentioned electrodes (A, B) in the weather sensor on an insulation body, and an electronic circuit of the weather sensor is configured to measure both the resistance or the capacitance between the two more closely spaced electrodes (A, B) and the resistance or the capacitance between the two more widely spaced electrodes (B, C), and in that the street lamp has a control circuit which is configured to change a luminous flux and/or a luminous color of a light output by the street lamp depending on the measured resistance or the measured capacitance. the street lamp has a weather sensor in order to detect rain and/or snow, characterized in that two electrodes are arranged at a smaller distance and a third electrode is arranged at a greater distance from one of the two first-mentioned electrodes (A, B) in the weather sensor on an insulation body, and an electronic circuit of the weather sensor is configured to measure both the resistance or the capacitance between the two more closely spaced electrodes (A, B) and the resistance or the capacitance between the two more widely spaced electrodes (B, C), and in that the street lamp has a control circuit which is configured to change a luminous flux and/or a luminous color of a light output by the street lamp depending on the measured resistance or the measured capacitance.
A transistor comprising: a zinc oxynitride semiconductor (ZnON) channel layer and optionally further including at least one metal other than Zn a gate electrode corresponding to the channel layer; a source electrode connected to a first region of the channel layer; and a drain electrode connected to a second region of the channel layer; characterised by a hole blocking layer disposed between the channel layer and at least one of the source electrode and the drain electrode, wherein the sum of the electron affinity and the energy band gap of the hole blocking layer is greater than the sum of the electron affinity and the energy band gap of the channel layer. wherein the hole blocking layer includes GaZn oxide. a zinc oxynitride semiconductor (ZnON) channel layer and optionally further including at least one metal other than Zn a gate electrode corresponding to the channel layer; a source electrode connected to a first region of the channel layer; and a drain electrode connected to a second region of the channel layer; characterised by a hole blocking layer disposed between the channel layer and at least one of the source electrode and the drain electrode, wherein the sum of the electron affinity and the energy band gap of the hole blocking layer is greater than the sum of the electron affinity and the energy band gap of the channel layer. wherein the hole blocking layer includes GaZn oxide.
A system for determining a respiratory effort for a subject, the system comprising: a processor configured to: receive a relaxed signal representing a subject breathing in a relaxed manner; receive a forced signal representing a subject breathing in a forced manner; determine a smoothed relaxed signal based on smoothing the relaxed signal over a first averaging window; determine a smoothed forced signal based on smoothing the forced signal over a second averaging window, and determine a respiratory effort based on the smoothed relaxed signal and the smoothed forced signal; characterised in that the first averaging window is longer than the second averaging window. receive a relaxed signal representing a subject breathing in a relaxed manner; receive a forced signal representing a subject breathing in a forced manner; determine a smoothed relaxed signal based on smoothing the relaxed signal over a first averaging window; determine a smoothed forced signal based on smoothing the forced signal over a second averaging window, and determine a respiratory effort based on the smoothed relaxed signal and the smoothed forced signal; characterised in that the first averaging window is longer than the second averaging window.
An electronic theft-preventing system, comprising: a first multi-axis magnetometer arranged in a first station and configured to output a first vector signal (lvs) representing movement of a first magnetic field vector; a second multi-axis magnetometer arranged in a second station and configured to output a second vector signal (rvs) representing movement of a second magnetic field vector; a signal processor coupled to receive the first and second vector signals, and characterised in that the signal processor is configured to: - estimate a first rotation of the first magnetic field vector and a second rotation of the second magnetic field vector; - generate a first indicator signal comprising indication of a counter-direction rotation or a same-direction rotation; - determine whether to issue or inhibit an alarm signal that warns about a possible theft-related event in response to at least the first indicator signal. a first multi-axis magnetometer arranged in a first station and configured to output a first vector signal (lvs) representing movement of a first magnetic field vector; a second multi-axis magnetometer arranged in a second station and configured to output a second vector signal (rvs) representing movement of a second magnetic field vector; a signal processor coupled to receive the first and second vector signals, and characterised in that the signal processor is configured to: - estimate a first rotation of the first magnetic field vector and a second rotation of the second magnetic field vector; - generate a first indicator signal comprising indication of a counter-direction rotation or a same-direction rotation; - determine whether to issue or inhibit an alarm signal that warns about a possible theft-related event in response to at least the first indicator signal. - estimate a first rotation of the first magnetic field vector and a second rotation of the second magnetic field vector; - generate a first indicator signal comprising indication of a counter-direction rotation or a same-direction rotation; - determine whether to issue or inhibit an alarm signal that warns about a possible theft-related event in response to at least the first indicator signal.
A coated article comprising: a coating or layer system supported by a glass substrate, the coating or layer system comprising from the glass substrate outwardly: a) a titanium oxide inclusive layer; b) a zinc oxide inclusive contact layer; c) a silver inclusive layer; d) a nickel chrome oxide inclusive layer; e) a tin oxide inclusive layer; f) a zinc oxide inclusive layer; g) a silver inclusive layer; h) a nickel chrome oxide inclusive layer; and i) a silicon nitride inclusive layer (23, 25); wherein the coated article has a visible transmission of at least about 70% and the coating or layer system has a sheet resistance (R s) of no greater than 5.0 ohms/square. a coating or layer system supported by a glass substrate, the coating or layer system comprising from the glass substrate outwardly: a) a titanium oxide inclusive layer; b) a zinc oxide inclusive contact layer; c) a silver inclusive layer; d) a nickel chrome oxide inclusive layer; e) a tin oxide inclusive layer; f) a zinc oxide inclusive layer; g) a silver inclusive layer; h) a nickel chrome oxide inclusive layer; and i) a silicon nitride inclusive layer (23, 25); a) a titanium oxide inclusive layer; b) a zinc oxide inclusive contact layer; c) a silver inclusive layer; d) a nickel chrome oxide inclusive layer; e) a tin oxide inclusive layer; f) a zinc oxide inclusive layer; g) a silver inclusive layer; h) a nickel chrome oxide inclusive layer; and i) a silicon nitride inclusive layer (23, 25); wherein the coated article has a visible transmission of at least about 70% and the coating or layer system has a sheet resistance (R s) of no greater than 5.0 ohms/square.
Tomographic atom probe comprising: - a sample-holding device for receiving a sample of material to be analysed having an extraction area of substantially pointed shape, - a position-sensitive detector of useful diameter D and spaced apart from the sample by a distance L; - an electrostatic lens consisting of three electrodes, a first electrode or extractor, arranged in proximity to the sample, an intermediate second electrode, and a distal third electrode arranged between the intermediate electrode and the detector, the three electrodes having a symmetry of revolution about the axis Oz passing through the point of the sample and perpendicular to the plane P of the detector; characterized in that, since the distance L is greater than 2.75 D, the respective potentials of the sample, of the first electrode of the lens and of the detector are such that the ions deriving from the sample mounted on the sample-holder are attracted towards the first electrode and towards the detector; the cross-sectional profile of the intermediate electrode, in a cross-sectional plane rOz passing through the axis Oz, defining three points M 1, M 2 and M 3 of respective coordinates (r 1, z 1), (r 2, z 2) and (r 3, z 3) relative to an origin z 0 on the point of the sample, which satisfy the following conditions: z 1 < z 2 < z 3, | z 1 − z 0 | < D / 3, | z 2 − z 1 | < 0.65. D, | z 3 − z 1 | < 1.4. D, r 2 = r 1, 0.1. D<r 1 < 0.65. D, D < r 3 < 1.6. D; all the points of the cross-sectional profile of the electrode being situated outside the area of the cross-sectional plane delimited by the profile of a cone with cylindrical tip limited by the points M 1, M 2 and M 3. - a sample-holding device for receiving a sample of material to be analysed having an extraction area of substantially pointed shape, - a position-sensitive detector of useful diameter D and spaced apart from the sample by a distance L; - an electrostatic lens consisting of three electrodes, a first electrode or extractor, arranged in proximity to the sample, an intermediate second electrode, and a distal third electrode arranged between the intermediate electrode and the detector, the three electrodes having a symmetry of revolution about the axis Oz passing through the point of the sample and perpendicular to the plane P of the detector;
A lashing system for securing containers on a vehicle, in particular a ship, comprising lashing plate and a lashing means, characterised in that: a) the lashing plate comprises at least two lashing eyes, which are connected solely linear guidance rail for the lashing mans, and b) the lashing means comprises a guidance means complementary to the guidance rail of the lashing plate. a) the lashing plate comprises at least two lashing eyes, which are connected solely linear guidance rail for the lashing mans, and b) the lashing means comprises a guidance means complementary to the guidance rail of the lashing plate.
A method for product data management, the method performed by a data processing system and comprising: receiving inputs including robot information, tooling information, operation information, and position information; generating a list of tooling candidates for a robot required to complete one or more tasks for a complex operation and a task location for each of the one or more tasks in the complex operation; removing a tooling candidate from the list of tooling candidates when the robot cannot reach every task location on a path required by the complex task when using that tooling candidate; adjusting the path to remove one or more collision events; calculating a total energy consumption value for each remaining tooling candidate; and returning an optimal tooling of the robot based on the tooling candidate with the lowest energy consumption. receiving inputs including robot information, tooling information, operation information, and position information; generating a list of tooling candidates for a robot required to complete one or more tasks for a complex operation and a task location for each of the one or more tasks in the complex operation; removing a tooling candidate from the list of tooling candidates when the robot cannot reach every task location on a path required by the complex task when using that tooling candidate; adjusting the path to remove one or more collision events; calculating a total energy consumption value for each remaining tooling candidate; and returning an optimal tooling of the robot based on the tooling candidate with the lowest energy consumption.
A blade for a turbine engine comprising: a structure providing spaced apart suction and pressure sides (40, 42); and a cooling passage provided by the structure and including a first passageway near the pressure side and a second passageway arranged between the first passageway and the suction side; wherein the structure includes a root and a tip opposite the root; and wherein the cooling passage includes: a bend arranged near the tip interconnecting the first and second passageways (48, 52); a third passageway fluidly interconnected to the second passageway by a second bend and arranged between the second passageway and the suction side; and an inlet at the root, characterised in that: said cooling passage further comprises a fourth passageway fluidly connected to the third passageway by a third bend arranged near the tip, the fourth passageway extending generally parallel with the tip in a direction from the suction side to the pressure side and arranged between the first bend and the tip, said cooling passage extending from the inlet to an end, the end being arranged in the fourth passageway near the tip. a structure providing spaced apart suction and pressure sides (40, 42); and a cooling passage provided by the structure and including a first passageway near the pressure side and a second passageway arranged between the first passageway and the suction side; wherein the structure includes a root and a tip opposite the root; and wherein the cooling passage includes: a bend arranged near the tip interconnecting the first and second passageways (48, 52); a third passageway fluidly interconnected to the second passageway by a second bend and arranged between the second passageway and the suction side; and an inlet at the root, characterised in that: a bend arranged near the tip interconnecting the first and second passageways (48, 52); a third passageway fluidly interconnected to the second passageway by a second bend and arranged between the second passageway and the suction side; and an inlet at the root, characterised in that: said cooling passage further comprises a fourth passageway fluidly connected to the third passageway by a third bend arranged near the tip, the fourth passageway extending generally parallel with the tip in a direction from the suction side to the pressure side and arranged between the first bend and the tip, said cooling passage extending from the inlet to an end, the end being arranged in the fourth passageway near the tip.
A two-dimensional code recognition method, comprising: determining whether a picture includes a two-dimensional code; identifying the two-dimensional code, when the picture includes the two-dimensional code; and analyzing the identified two-dimensional code, characterized in that when the identified two-dimensional code contains a phone number, providing functions of copying and dialing, when the picture comprises two or more two-dimensional codes, the method further comprises: displaying a two-dimensional code choosing option; receiving an instruction input by a user via the two-dimensional code choosing option; and determining which two-dimensional code is to be identified according to the instruction, wherein the two-dimensional code choosing option is shown in the form of a label. determining whether a picture includes a two-dimensional code; identifying the two-dimensional code, when the picture includes the two-dimensional code; and analyzing the identified two-dimensional code, characterized in that when the identified two-dimensional code contains a phone number, providing functions of copying and dialing, when the picture comprises two or more two-dimensional codes, the method further comprises: displaying a two-dimensional code choosing option; receiving an instruction input by a user via the two-dimensional code choosing option; and determining which two-dimensional code is to be identified according to the instruction, wherein the two-dimensional code choosing option is shown in the form of a label. displaying a two-dimensional code choosing option; receiving an instruction input by a user via the two-dimensional code choosing option; and determining which two-dimensional code is to be identified according to the instruction, wherein the two-dimensional code choosing option is shown in the form of a label.
A data processing device configured to be connected to one or more physiological sensors (2a,2b,2c) for receiving physiological data of a user, to one or more behavioral sensors for receiving behavioral data of the user and to a vehicle context detection unit for receiving vehicle context information, and to determine a discomfort level index value based on a personality profile of the user together with at least the vehicle context information and physiological and behavioral data received within corresponding time windows.
A projectile, the projectile comprising a shell and a bunch of filaments, the bunch being wound in a coil and the bunch being placed inside the shell, characterised in that the filaments are of carbon fibre whereby the filament bunch is a carbon fibre tow comprising at least 1000 filaments. a shell and a bunch of filaments, the bunch being wound in a coil and the bunch being placed inside the shell, characterised in that the filaments are of carbon fibre whereby the filament bunch is a carbon fibre tow comprising at least 1000 filaments.
An ultrasound stimulation helmet for regulating the expression of a brain endogenous neurotrophic factor or a neurodegenerative disease-related protein, wherein the ultrasound stimulation helmet comprising: a main body, wherein the main body is wearable on a patient's head, the main body comprising a front adjustment knob, a back adjustment knob, a fastening support frame, and a plurality of position adjustment knobs; a plurality of ultrasound probes detachably mounted on the main body for generating ultrasound waves, wherein angle of the ultrasound probe itself are adjustable; wherein the fastening support frame adjust the length of the main body according to the size of the head of the patient, and the ultrasound probes are connected with the position adjustment knob of the main body so that the ultrasound probes are moved up, down, left and right according to the patient's head, and characterized in that each of the ultrasound probes comprises a frequency adjustment knob and an intensity adjustment knob for controlling the output frequency and the output of the ultrasound probe intensity respectively. a main body, wherein the main body is wearable on a patient's head, the main body comprising a front adjustment knob, a back adjustment knob, a fastening support frame, and a plurality of position adjustment knobs; a plurality of ultrasound probes detachably mounted on the main body for generating ultrasound waves, wherein angle of the ultrasound probe itself are adjustable; wherein the fastening support frame adjust the length of the main body according to the size of the head of the patient, and the ultrasound probes are connected with the position adjustment knob of the main body so that the ultrasound probes are moved up, down, left and right according to the patient's head,
A process for the finishing of urea comprising the steps of: (a) removing water from an aqueous urea solution via evaporation and condensation in a first evaporation and condensation section, obtaining a urea melt; (b) subjecting at least a first part of said urea melt to a finishing treatment comprising a step of granulation, said finishing treatment resulting in solid urea and contaminated air (12, 33) containing urea dust and ammonia; (c) subjecting at least part of said contaminated air (12, 33) to a scrubbing treatment in at least one scrubbing unit, said treatment comprising an acid scrubbing treatment with water and an acid, and a dust scrubbing, said acid scrubbing treatment producing an aqueous solution comprising urea and ammonium salts; (d) subjecting at least part of said aqueous solution comprising urea and ammonium salts to evaporation in a second evaporation section, obtaining a liquid stream comprising urea and ammonium salts and a gaseous stream; (e) subjecting said gaseous stream to condensation in a second condensation section, obtaining a recycle aqueous stream, (f) using at least a part of said recycle aqueous stream for the scrubbing of contaminated air of point c) above, (g) converting at least a portion of said liquid stream comprising urea and ammonium salts into solid particles (20, 32), and (h) using said solid particles as seeds for said step of granulation. (a) removing water from an aqueous urea solution via evaporation and condensation in a first evaporation and condensation section, obtaining a urea melt; (b) subjecting at least a first part of said urea melt to a finishing treatment comprising a step of granulation, said finishing treatment resulting in solid urea and contaminated air (12, 33) containing urea dust and ammonia; (c) subjecting at least part of said contaminated air (12, 33) to a scrubbing treatment in at least one scrubbing unit, said treatment comprising an acid scrubbing treatment with water and an acid, and a dust scrubbing, said acid scrubbing treatment producing an aqueous solution comprising urea and ammonium salts; (d) subjecting at least part of said aqueous solution comprising urea and ammonium salts to evaporation in a second evaporation section, obtaining a liquid stream comprising urea and ammonium salts and a gaseous stream; (e) subjecting said gaseous stream to condensation in a second condensation section, obtaining a recycle aqueous stream, (f) using at least a part of said recycle aqueous stream for the scrubbing of contaminated air of point c) above, (g) converting at least a portion of said liquid stream comprising urea and ammonium salts into solid particles (20, 32), and (h) using said solid particles as seeds for said step of granulation.