mhurhangee/patent-ind-claim-en huggingface dataset:
A system, comprising an antenna (ANT2), a component (CMP) configured to receive and/or transmit information via said antenna according to a contactless communication protocol and a capacitive inductive network connected between the antenna (ANT2) and the component (CMP) and including electromagnetic interference filtering means , characterised in that it comprises processing means (MTR) configured to modify the impedance of the electromagnetic interference filtering means so as to control frequency tuning of the antenna, wherein the filtering means are configurable and capable of assuming different filtering configurations all having substantially a same reference cut-off frequency (f) and the processing means (MTR) include said configurable filtering means and control means (MCTL) configured to select the filtering configuration for which the current flowing in said antenna (ANT2) has the largest value, and wherein the filtering means have a reference inductance (LEMI) and a reference capacitive value (CEMI) associated with said reference cut-off frequency (f), the filtering means include a configurable capacitive inductive circuit connected between the component (CMP) and the terminals of the antenna (ANT2) and a configurable capacitive circuit connected between the capacitive inductive circuit and a point of minimum voltage (GND), the configurable capacitive inductive circuit including a capacitive inductive module (BLC1, BLC2) configurable by a first set of switchable auxiliary capacitive circuits (CX1 i , CX2 i ) and the configurable capacitive circuit including a capacitive module (CA1, CA2) configurable by a second set of switchable auxiliary capacitive circuits (CX3 i , CX4 i ), and in each filtering configuration the impedance of the capacitive inductive circuit at said cut-off frequency is equal to said reference inductance (LEMI) and the impedance of the capacitive circuit at said cut-off frequency is equal to said reference capacitive value (CEMI).
A process for the preparation of anti-reflection passivation layers of silicon surface by coating ZrO 2 layer and the said process comprising the steps of: (a) providing ZrO 2 precursor solution using sol-gel method; (b) depositing ZrO 2 precursor solution as obtained in step (a) on the front surface of silicon by spin coating; (c) drying the spin-coated precursor layer at a temperature in the range of 70 to 200 °C for period in the range of 5 min to 30 min; (d) repetiting step (b) and step (c) on the rear surface of silicon; (e) pyrolysing the precursor layers deposited on both surfaces at a temperature in the range of 350 to 450 °C for period in the range of 10 to 180 sec; (f) firing of the pyrolysed layer at a temperature in the range of 650 to 750 °C for period in the range of 3 to 60 sec; (g) post-firing anneal of the sample under the ambience of hydrogen or forming gas at a temperature in the range of 300 to 450 °C for period in the range of 10 min to 60 min to obtain antireflection passivation layer of silicon surface. (a) providing ZrO 2 precursor solution using sol-gel method; (b) depositing ZrO 2 precursor solution as obtained in step (a) on the front surface of silicon by spin coating; (c) drying the spin-coated precursor layer at a temperature in the range of 70 to 200 °C for period in the range of 5 min to 30 min; (d) repetiting step (b) and step (c) on the rear surface of silicon; (e) pyrolysing the precursor layers deposited on both surfaces at a temperature in the range of 350 to 450 °C for period in the range of 10 to 180 sec; (f) firing of the pyrolysed layer at a temperature in the range of 650 to 750 °C for period in the range of 3 to 60 sec; (g) post-firing anneal of the sample under the ambience of hydrogen or forming gas at a temperature in the range of 300 to 450 °C for period in the range of 10 min to 60 min to obtain antireflection passivation layer of silicon surface.
A method, comprising: mounting a phosphor on a tacky layer of a dicing tape ; dicing the phosphor from the dicing tape into phosphor plates ; removing the phosphor plates from the dicing tape ; and attaching the phosphor plates on light-emitting device (LED) dies, characterized in that , the phosphor is a ceramic, and the tacky layer is acrylic-free and also free of metal-containing catalyst. mounting a phosphor on a tacky layer of a dicing tape ; dicing the phosphor from the dicing tape into phosphor plates ; removing the phosphor plates from the dicing tape ; and attaching the phosphor plates on light-emitting device (LED) dies, characterized in that , the phosphor is a ceramic, and the tacky layer is acrylic-free and also free of metal-containing catalyst.
A method for obtaining a colloid comprising functionalized liquid colloidal particles comprising the following steps: a) dispersing an oil 1 in an aqueous solution 2 comprising a fragmentation surfactant, resulting in obtaining an emulsion 3 comprising drops of oil suspended in an aqueous phase; b) dissolving lipids intended to functionalize said oil drops in a polar aprotic solvent, resulting in obtaining a functionalization solution 4; c) preparing a functionalization mixture 5, comprising the emulsion 3 and the functionalization solution 4, the volume fraction of the polar aprotic solvent in said functionalization mixture 5 being comprised between 1 and 15%, preferably between 5 and 15%, advantageously between 8 and 15%; d) incubating the functionalization mixture 5, during which at least part of the lipids initially present in the functionalization solution 4 are adsorbed on the surface of the oil drops initially present in the emulsion 3; and e) eliminating lipids not adsorbed during step d); thus allowing to obtain a colloid comprising functionalized liquid colloidal particles consisting of the drops of oil obtained at the end of step a) on the surface of which the lipids are adsorbed during step d). a) dispersing an oil 1 in an aqueous solution 2 comprising a fragmentation surfactant, resulting in obtaining an emulsion 3 comprising drops of oil suspended in an aqueous phase; b) dissolving lipids intended to functionalize said oil drops in a polar aprotic solvent, resulting in obtaining a functionalization solution 4; c) preparing a functionalization mixture 5, comprising the emulsion 3 and the functionalization solution 4, the volume fraction of the polar aprotic solvent in said functionalization mixture 5 being comprised between 1 and 15%, preferably between 5 and 15%, advantageously between 8 and 15%; d) incubating the functionalization mixture 5, during which at least part of the lipids initially present in the functionalization solution 4 are adsorbed on the surface of the oil drops initially present in the emulsion 3; and e) eliminating lipids not adsorbed during step d);
Deformation tube for a coupling, in particular a train coupling; 1.1 having two tubular parts which, counter to a resistance, are able to be pushed into one another; 1.2 having a securing element in the form of a screw or a nut which is screwed into a counter element or is screwed onto a counter element and, on account thereof, mutually braces the two tubular parts , characterized by 1.3 a detection installation which is specified for detecting a rotation, or a rotation and axial displacement, of the securing element and/or the counter element in relation to at least one of the two tubular parts . 1.1 having two tubular parts which, counter to a resistance, are able to be pushed into one another; 1.2 having a securing element in the form of a screw or a nut which is screwed into a counter element or is screwed onto a counter element and, on account thereof, mutually braces the two tubular parts , characterized by 1.3 a detection installation which is specified for detecting a rotation, or a rotation and axial displacement, of the securing element and/or the counter element in relation to at least one of the two tubular parts .
A computer-implemented method for controlling an operation of an agricultural machinery , the agricultural machinery comprising: a work vehicle with at least one driven wheel ; an agricultural implement connected to the work vehicle and comprising at least one ground engaging tool ; and an actuator mechanism for moving at least components of the agricultural implement with respect to the work vehicle, wherein the method comprises: receiving wheel-slip-data indicative of an amount of wheel slip for the driven wheel of the work vehicle; determining an actuator-control-signal for moving at least components of the agricultural implement on the basis of the wheel-slip-data; characterised by providing the determined actuator-control-signal to the actuator mechanism of the agricultural machinery between tillage of successive working rows. a work vehicle with at least one driven wheel ; an agricultural implement connected to the work vehicle and comprising at least one ground engaging tool ; and an actuator mechanism for moving at least components of the agricultural implement with respect to the work vehicle, wherein the method comprises: receiving wheel-slip-data indicative of an amount of wheel slip for the driven wheel of the work vehicle; determining an actuator-control-signal for moving at least components of the agricultural implement on the basis of the wheel-slip-data; characterised by providing the determined actuator-control-signal to the actuator mechanism of the agricultural machinery between tillage of successive working rows. receiving wheel-slip-data indicative of an amount of wheel slip for the driven wheel of the work vehicle; determining an actuator-control-signal for moving at least components of the agricultural implement on the basis of the wheel-slip-data; characterised by providing the determined actuator-control-signal to the actuator mechanism of the agricultural machinery between tillage of successive working rows.
A method of reassigning a first elevator car of a plurality of elevator cars by a dispatch system , comprising: dispatching the first elevator car from a current location to a first destination location to pick up an occupant at the first destination location; determining the first elevator car stopped at an intermediate location positioned between the current location and the first destination location; determining a number of occupants within the first elevator car is greater than at least a second elevator car of a plurality of elevator cars after the first elevator car stopped at the intermediate location; and directing the first elevator car to a second destination location different from the first destination location. dispatching the first elevator car from a current location to a first destination location to pick up an occupant at the first destination location; determining the first elevator car stopped at an intermediate location positioned between the current location and the first destination location; determining a number of occupants within the first elevator car is greater than at least a second elevator car of a plurality of elevator cars after the first elevator car stopped at the intermediate location; and directing the first elevator car to a second destination location different from the first destination location.
An aircraft environmental control system for controlling a temperature of a fluid, the control system comprising: a temperature sensor configured to measure a temperature of the fluid and to generate a first signal, the first signal being indicative of the measured temperature; a control signal generator configured to, dependent upon the first signal, generate a control signal for controlling the temperature of the fluid; characterised by : one or more processors configured to, responsive to determining that the measured temperature is less than or equal to a pre-determined threshold value, increase a gain of the control signal generator . a temperature sensor configured to measure a temperature of the fluid and to generate a first signal, the first signal being indicative of the measured temperature; a control signal generator configured to, dependent upon the first signal, generate a control signal for controlling the temperature of the fluid; characterised by : one or more processors configured to, responsive to determining that the measured temperature is less than or equal to a pre-determined threshold value, increase a gain of the control signal generator .
A one pot process for the preparation of a compound of formula I with a trans ratio of more than 75 %. , comprising reacting a compound of the formula II comprising the following reaction conditions: - use of Ruthenium on Carbon as Catalyst - use of a solvent selected from Water, Acetone, isopropanol, Ethanol, Methanol or mixtures thereof. - reaction under basic conditions - a reaction temperature of more than 90°C and less than 120 °C using hydrogen pressure of not more than 15bar. - use of Ruthenium on Carbon as Catalyst - use of a solvent selected from Water, Acetone, isopropanol, Ethanol, Methanol or mixtures thereof. - reaction under basic conditions - a reaction temperature of more than 90°C and less than 120 °C using hydrogen pressure of not more than 15bar.
An ultrasonic wave-based voice signal transmission system, comprising: an ultrasonic modulator, a beamforming controller, an ultrasonic transducer array, and a user detector, wherein the ultrasonic modulator, the user detector, and the ultrasonic transducer array all are connected to the beamforming controller; the ultrasonic modulator is configured to modulate (S101) a voice signal onto an ultrasonic band and output the modulated voice signal to the beamforming controller; the user detector is configured to detect (S103) a user and output a detection result of the user to the beamforming controller, wherein the detection result is a location information of the user or a decision information; the beamforming controller is configured to control (S105) a phase and an amplitude of the modulated voice signal according to the detection result output by the user detector, to obtain an electrical signal that points to the user, and output, to the ultrasonic transducer array, the signal that points to the user; and the ultrasonic transducer is configured to convert the electrical signal that points to the user and that is output by the beamforming controller into an ultrasonic signal with a beam pointing to the user, and transmit (S107) the ultrasonic signal, and characterised in that : the detection result is the location information of the user, the user detector comprises a voice signal receiver array and a voice analyzer, wherein the voice signal receiver array is connected to the voice analyzer, the voice analyzer is connected to the beamforming controller, the voice signal receiver array is configured to receive an external voice signal, the voice analyzer is configured to obtain, by means of analysis, the location of the user according to a signal characteristic of the external voice signal received by the voice signal receiver array and output the location of the user to the beamforming controller, and the beamforming controller is specifically configured to control, according to the location of the user output by the voice analyzer, the phase and the amplitude of the modulated signal output by the ultrasonic modulator.
A cooling system for use in cooling heat-generating electronic components , the system comprising: a heat-generating electronic component ; a radiator ; at least one cold plate for cooling the electronic heat-generating component , the cold plate comprising integrally attached metal hoses for the passage of cooling fluid from the radiator , and the return of heated cooling fluid to the radiator ; a silicon casing for connecting each of the metal hoses to the radiator , wherein the silicon casing fits over the metal hoses respectively near their ends ; and a waterproof spray plate between the silicon casings and the electronic component ; wherein the waterproof spray plate has a reverse curved upper surface to direct any water spray away from the electronic component . a heat-generating electronic component ; a radiator ; at least one cold plate for cooling the electronic heat-generating component , the cold plate comprising integrally attached metal hoses for the passage of cooling fluid from the radiator , and the return of heated cooling fluid to the radiator ; a silicon casing for connecting each of the metal hoses to the radiator , wherein the silicon casing fits over the metal hoses respectively near their ends ; and a waterproof spray plate between the silicon casings and the electronic component ; wherein the waterproof spray plate has a reverse curved upper surface to direct any water spray away from the electronic component .
A system for generating an output signal from an input audio signal using a transposition factor T, comprising: - an analysis window unit for applying an analysis window of length L a , thereby extracting a frame of samples of the input signal ; - an analysis transformation unit of order M , for transforming the samples from the time domain into the frequency domain yielding M complex coefficients; - a nonlinear processing unit , for altering the phase of the complex coefficients by using the transposition factor T; - a synthesis transformation unit of order M, for transforming the altered coefficients into M altered samples; and - a synthesis window unit for applying a synthesis window of length L s to the M altered samples, thereby generating a frame of the output signal; wherein the length of the analysis window is equal to the length of the synthesis window, and characterized in that M is based on the transposition factor T. - an analysis window unit for applying an analysis window of length L a , thereby extracting a frame of samples of the input signal ; - an analysis transformation unit of order M , for transforming the samples from the time domain into the frequency domain yielding M complex coefficients; - a nonlinear processing unit , for altering the phase of the complex coefficients by using the transposition factor T; - a synthesis transformation unit of order M, for transforming the altered coefficients into M altered samples; and - a synthesis window unit for applying a synthesis window of length L s to the M altered samples, thereby generating a frame of the output signal;
An inorganic particulate material comprising: (a) equal to or more than about 3 ppm of particles having a particle size equal to or greater than about 40 μm and having a d 98 less than about 11 μm;or (b) equal to or more than about 3 ppm of particles having a particle size equal to or greater than about 40 μm and equal to or less than about 40 wt% of particles smaller than about 0.75 μm; or (c) equal to or less than about 40 wt% of particles smaller than about 0.75 μm and having a d 98 less than about 11 μm; or (d) an inorganic particulate material that has not undergone dry sieving or sifting and having a d 98 less than about 11 μm or equal to or less than about 8 μm; or (e) equal to or more than about 3 ppm of particles having a particle size equal to or greater than about 25 μm and having a d 98 of less than 11 μm wherein the inorganic particulate material is selected from an alkali earth metal carbonate, wollastonite, kaolin, bauxite, talc, mica, and combinations thereof; and wherein the % of particles smaller than 0.75 μm is equal to or less than about 40 wt%, and/or wherein the % of particles smaller than 0.5 μm is equal to or less than about 25 wt%. (a) equal to or more than about 3 ppm of particles having a particle size equal to or greater than about 40 μm and having a d 98 less than about 11 μm;or (b) equal to or more than about 3 ppm of particles having a particle size equal to or greater than about 40 μm and equal to or less than about 40 wt% of particles smaller than about 0.75 μm; or (c) equal to or less than about 40 wt% of particles smaller than about 0.75 μm and having a d 98 less than about 11 μm; or (d) an inorganic particulate material that has not undergone dry sieving or sifting and having a d 98 less than about 11 μm or equal to or less than about 8 μm; or (e) equal to or more than about 3 ppm of particles having a particle size equal to or greater than about 25 μm and having a d 98 of less than 11 μm
Composition comprising chemotherapeutic particles comprising at least 95% paclitaxel, docetaxel, or pharmaceutically acceptable salts thereof, wherein the particles have a specific surface area (SSA) determined by BET analysis of between 10 m 2 /g and 50 m 2 /g and a bulk density of between 0.050 g/cm 3 and 0.15 g/cm 3 , for use in treating a solid tumor by direct injection into the tumor, such as a malignant tumor.
An acoustically powered sensor unit for obtaining sensor data indicative of flight characteristics of an aircraft comprising: a housing comprising a first portion comprising a diaphragm , wherein the diaphragm is configured to receive acoustic energy from an engine of the aircraft , and a second portion configured to be coupled to an exterior of an aircraft ; a voice coil actuator disposed within the housing and coupled to the diaphragm , wherein the voice coil actuator is configured to receive kinetic energy by way of a vibration of the diaphragm and responsively generate an electrical power signal; and one or more sensors disposed within the housing and powered using energy from the electrical power signal, wherein the one or more sensors are configured to obtain the sensor data indicative of flight characteristics of the aircraft , wherein the one or more sensors comprise a plurality of pressure transducers disposed within the housing, wherein the first portion of the housing further comprises a plurality of pressure differential diaphragms that correspond to the plurality of pressure transducers , and wherein the sensor data comprises pressure data determined by the plurality of pressure transducers based on vibrations of the corresponding pressure differential diaphragms ; and wherein the first portion of the housing is curved to generate a pressure differential across different locations of the housing, and wherein the pressure data is indicative of the pressure differential. a housing comprising a first portion comprising a diaphragm , wherein the diaphragm is configured to receive acoustic energy from an engine of the aircraft , and a second portion configured to be coupled to an exterior of an aircraft ; a voice coil actuator disposed within the housing and coupled to the diaphragm , wherein the voice coil actuator is configured to receive kinetic energy by way of a vibration of the diaphragm and responsively generate an electrical power signal; and one or more sensors disposed within the housing and powered using energy from the electrical power signal, wherein the one or more sensors are configured to obtain the sensor data indicative of flight characteristics of the aircraft , wherein the one or more sensors comprise a plurality of pressure transducers disposed within the housing, wherein the first portion of the housing further comprises a plurality of pressure differential diaphragms that correspond to the plurality of pressure transducers , and wherein the sensor data comprises pressure data determined by the plurality of pressure transducers based on vibrations of the corresponding pressure differential diaphragms ; and wherein the first portion of the housing is curved to generate a pressure differential across different locations of the housing, and wherein the pressure data is indicative of the pressure differential.