mhurhangee/patent-ind-claim-en huggingface dataset:
An electronic system for controlling vibrations and/or inertial forces occurring at a plurality of areas of interest within an operating vehicle, the electronic system comprising circuitry configured to: receive input data comprising sensor data from one or more environment sensors and/or one or more internal sensors ; convert, by means of a machine learning system , the input data into actuator settings; transmit the actuator settings to one or more actuators to control vibrations and/or inertial forces occurring at each of the plurality of areas of interest within the vehicle, wherein the electronic system is characterized in that the circuitry is configured to convert, by means of the machine learning system, the sensor data directly into the actuator settings, or wherein the circuitry is configured to convert, by means of the machine learning system, the sensor data into a vibration distribution (v(x,y,z,t)) of vibrations occurring at each of the plurality of areas of interest within the vehicle and to determine the actuator settings based on the vibration distribution (v(x,y,z,t)), wherein the received sensor data include road condition data of a road in front of the vehicle, obtained by one or more of: an RGB camera, an infrared camera, a RADAR sensor, a LiDAR sensor, an ultrasonic sensor and a microphone, and the road condition data include an impulse response of a strip of the road. receive input data comprising sensor data from one or more environment sensors and/or one or more internal sensors ; convert, by means of a machine learning system , the input data into actuator settings; transmit the actuator settings to one or more actuators to control vibrations and/or inertial forces occurring at each of the plurality of areas of interest within the vehicle, wherein the electronic system is characterized in that the circuitry is configured to convert, by means of the machine learning system, the sensor data directly into the actuator settings, or wherein the circuitry is configured to convert, by means of the machine learning system, the sensor data into a vibration distribution (v(x,y,z,t)) of vibrations occurring at each of the plurality of areas of interest within the vehicle and to determine the actuator settings based on the vibration distribution (v(x,y,z,t)), wherein the received sensor data include road condition data of a road in front of the vehicle, obtained by one or more of: an RGB camera, an infrared camera, a RADAR sensor, a LiDAR sensor, an ultrasonic sensor and a microphone, and the road condition data include an impulse response of a strip of the road.
A detection device, comprising: a first correlation circuit that computes correlation of a first wave detection signal which is a phase-modulated input wave detected at determined frequency with a determined code sequence for every code composing the determined code sequence, and to generate a plurality of first correlation signals the number of which corresponds to a code sequence length, which is a length of the determined code sequence; and a control circuit that rotates phases of the plurality of first correlation signals, generates an added value by adding the phase-rotated plurality of first correlation signals, and determines based on the added value whether the phase-modulated input wave is a return wave from a determined object; characterized in that the control circuit includes a plurality of phase control circuits (59 -59(n)) that rotate phases of the first correlation signals by determined amounts based on a plurality of different amounts of the Doppler shift, and generate added values by adding the phase-rotated first correlation signals, wherein the determined amounts based on the amounts of the Doppler shift are any one of 0°, 90°, 180°, and 270°. a first correlation circuit that computes correlation of a first wave detection signal which is a phase-modulated input wave detected at determined frequency with a determined code sequence for every code composing the determined code sequence, and to generate a plurality of first correlation signals the number of which corresponds to a code sequence length, which is a length of the determined code sequence; and a control circuit that rotates phases of the plurality of first correlation signals, generates an added value by adding the phase-rotated plurality of first correlation signals, and determines based on the added value whether the phase-modulated input wave is a return wave from a determined object; characterized in that the control circuit includes a plurality of phase control circuits (59 -59(n)) that rotate phases of the first correlation signals by determined amounts based on a plurality of different amounts of the Doppler shift, and generate added values by adding the phase-rotated first correlation signals, wherein the determined amounts based on the amounts of the Doppler shift are any one of 0°, 90°, 180°, and 270°.
An image pickup device , comprising: a wiring substrate , said wiring substrate comprising: an insulating substrate having an upper surface, a lower surface and an opening penetrating through the insulating substrate from the upper surface to the lower surface; and a plurality of connection electrodes disposed on the lower surface in a surrounding region surrounding the opening , and an image sensor mounted on the lower surface of the insulating substrate of the wiring substrate below said opening and electrically connected to the plurality of connection electrodes , said image sensor comprising a light receiving section facing said opening , wherein the surrounding region of said lower surface consists of an inclined area surrounding the opening and a flat area surrounding the inclined area , characterized by the inclined area being inclined downward with respect to the flat area towards the image sensor and being located between the flat area and the opening on said lower surface. a wiring substrate , said wiring substrate comprising: an insulating substrate having an upper surface, a lower surface and an opening penetrating through the insulating substrate from the upper surface to the lower surface; and a plurality of connection electrodes disposed on the lower surface in a surrounding region surrounding the opening , and an insulating substrate having an upper surface, a lower surface and an opening penetrating through the insulating substrate from the upper surface to the lower surface; and a plurality of connection electrodes disposed on the lower surface in a surrounding region surrounding the opening , and an image sensor mounted on the lower surface of the insulating substrate of the wiring substrate below said opening and electrically connected to the plurality of connection electrodes , said image sensor comprising a light receiving section facing said opening , wherein the surrounding region of said lower surface consists of an inclined area surrounding the opening and a flat area surrounding the inclined area , characterized by the inclined area being inclined downward with respect to the flat area towards the image sensor and being located between the flat area and the opening on said lower surface.
An electronic device comprising an embedded subscriber identity module in the form of an electronic chip including a plurality of interfaces (47, 48; 47, 47') each configured to communicate with a dedicated modulator-demodulator circuit , each interface comprising: a first pad on which a supply signal is applied; a second pad on which a synchronization signal is applied; a third pad on which a reset signal is applied; and a fourth input-output pad on which a signal representative of information to be sent is applied. a first pad on which a supply signal is applied; a second pad on which a synchronization signal is applied; a third pad on which a reset signal is applied; and a fourth input-output pad on which a signal representative of information to be sent is applied.
A method of increasing membrane hydrophilicity comprising steps of: a) providing a membrane comprising polyaniline, a polyaniline derivative, or co-polymer thereof and one or more gel inhibiting agents; and b) treating the membrane with one or more hydrophilicity restoration agents, thereby increasing the hydrophilicity of the membrane, wherein the treating comprises contacting the membrane with the hydrophilicity restoration agent for at least 15 min, the one or more gel inhibiting agents comprises 4-methylpiperidine, n-butylamine, 2,5-dimethyl-3-pyrroline, 3,3-dimethylpiperidine, diisopropylamine, hexamethyleneimine, N-ethylbenzylamine, piperazine, 2,6-dimethylmorpholine, piperidine, dibutylamine, N-methylpiperidine, N,N'-dimethylpiperazine, triethylamine, or diethylnicotinamide, or a combination thereof, the one or more hydrophilicity restoration agents comprise(s) (+/-) camphor-10-sulfonic acid, such as (-) camphor-10-sulfonic acid or (+) camphor-10-sulfonic acid, or a combination thereof, and wherein the membrane has an increased value of Δ G 131 IF and/or of Δ G 132 IF of at least 5, 10, 15, 20, 25, 30, 50, 75, or 100 mJ/m 2 after treatment. a) providing a membrane comprising polyaniline, a polyaniline derivative, or co-polymer thereof and one or more gel inhibiting agents; and b) treating the membrane with one or more hydrophilicity restoration agents, thereby increasing the hydrophilicity of the membrane, wherein the treating comprises contacting the membrane with the hydrophilicity restoration agent for at least 15 min, the one or more gel inhibiting agents comprises 4-methylpiperidine, n-butylamine, 2,5-dimethyl-3-pyrroline, 3,3-dimethylpiperidine, diisopropylamine, hexamethyleneimine, N-ethylbenzylamine, piperazine, 2,6-dimethylmorpholine, piperidine, dibutylamine, N-methylpiperidine, N,N'-dimethylpiperazine, triethylamine, or diethylnicotinamide, or a combination thereof, the one or more hydrophilicity restoration agents comprise(s) (+/-) camphor-10-sulfonic acid, such as (-) camphor-10-sulfonic acid or (+) camphor-10-sulfonic acid, or a combination thereof, and wherein the membrane has an increased value of Δ G 131 IF and/or of Δ G 132 IF of at least 5, 10, 15, 20, 25, 30, 50, 75, or 100 mJ/m 2 after treatment.
Electromechanical conversion device (DI) comprising: a resonant electrical circuit comprising an inductance (L) and a capacitor (C), the capacitor (C) having at least a first electrode (EC1) and a second electrode (EC2); and a mechanical oscillator (OM) comprising at least one microbeam (MP, MP1) formed in a membrane, the first and second electrodes (EC1, EC2) being located side by side and the first electrode (EC1) of the capacitor (C) being located on a face of the microbeam (MP, MP1) in such a way that the electrical capacitance of the capacitor (C) varies when the mechanical oscillator (OM) oscillates; device wherein the inductance (L) comprises an electric track (PE) of very low thickness made on the membrane and made of a superconductive material chosen in such a way as to obtain an electric track (PE) having a high kinetic inductance, three times greater than its magnetic inductance.
A system for advancing a guidewire through a vessel wall comprising: a first catheter comprising a catheter body having a first lumen therethrough and a first side aperture , a first deflection surface, and a first alignment element within the first lumen; a second catheter comprising a catheter body having a second lumen therethrough and a second side aperture, a second deflection surface, and a second alignment element within the second lumen; and a guidewire, wherein the first and second alignment elements are configured to align the first and second side apertures to create a guidewire pathway through the first and second catheters. a first catheter comprising a catheter body having a first lumen therethrough and a first side aperture , a first deflection surface, and a first alignment element within the first lumen; a second catheter comprising a catheter body having a second lumen therethrough and a second side aperture, a second deflection surface, and a second alignment element within the second lumen; and a guidewire, wherein the first and second alignment elements are configured to align the first and second side apertures to create a guidewire pathway through the first and second catheters.
A method for measuring carbon concentration which obtains the carbon concentration in a measurement semiconductor sample made of an FZ silicon single crystal manufactured by a floating zone (FZ) method from measurement values measured by a photoluminescence (PL) method, the method comprising: previously preparing respective FZ silicon single crystals manufactured by the FZ method from a plurality of types of starting materials which have different contained oxygen concentrations due to a difference in manufacturing methods, and creating and preparing calibration curves each indicating a relationship between a measurement value based on the photoluminescence (PL) method and the carbon concentration from standard samples made of the respective FZ silicon single crystals in accordance with the respective types of starting materials of the FZ silicon single crystals; selecting a calibration curve of the same type of starting material as a starting material of the measurement semiconductor sample from the plurality of prepared calibration curves; and obtaining the carbon concentration of the measurement semiconductor sample from the measurement value of the measurement semiconductor sample based on the photoluminescence method with the use of the selected calibration curve. previously preparing respective FZ silicon single crystals manufactured by the FZ method from a plurality of types of starting materials which have different contained oxygen concentrations due to a difference in manufacturing methods, and creating and preparing calibration curves each indicating a relationship between a measurement value based on the photoluminescence (PL) method and the carbon concentration from standard samples made of the respective FZ silicon single crystals in accordance with the respective types of starting materials of the FZ silicon single crystals; selecting a calibration curve of the same type of starting material as a starting material of the measurement semiconductor sample from the plurality of prepared calibration curves; and obtaining the carbon concentration of the measurement semiconductor sample from the measurement value of the measurement semiconductor sample based on the photoluminescence method with the use of the selected calibration curve.
Device for heating preform bodies composed of thermoplastic material for application in blow moulding or thermoforming, comprising a main body (1.0) and a further main body (2.0), on the surface of which is formed at least one first layer (1.1, 2.1) having a plurality of electrical heating resistors in the form of conductor loops arranged in a planar/plane geometric fashion, wherein the main bodies (1.0, 2.0) furthermore have contact elements via which the heating resistors are connectable to a power source (1.2, 2.2) and the electrical heating resistors are formed from a doped ceramic material, polymer material or with an electrically conductive metal layer or oxide layer and are applied on an electrically insulating carrier layer, which is electrically insulated on a side facing the main body (1.0, 2.0), and the electrical heating resistors have a thickness in the range of 1 μm to 100 μm and a width in the range of 0.001 mm to 5 mm and a plurality of heating resistors are each individually controllable, wherein a defined temperature profile with a locally differentiated temperature distribution is able to be generated and is able to be transferred to the preform body via an outer contact layer (1.3, 2.3) formed on the first layer (1.1, 2.1), and wherein the outer contact layer (1.3, 2.3) corresponds to at least one partial region of the surface of the preform body , characterized in that at least the main bodies (1.0, 2.0) are formed from a ceramic material and electrically conductive connections are achieved by means of plated-through holes in the material.
An object handling system comprising two substantially perpendicular sets of rails forming a grid above a plurality of stacks of containers , the spacing of the perpendicular rails defining a grid spacing, wherein a first portion of stacks comprise containers of single grid spacing size, the handling system further comprising a plurality of a first robotic load handling devices operating on the grid above the first portion of stacks of containers , the load handling devices , comprising a body mounted on wheels, the body comprising lifting means for lifting a container from a stack of containers , the wheels comprising a first set of wheels being arranged to engage with at least two rails of the first set of rails and a second set of wheels being arranged to engage with at least two rails of the second set of rails , the first set of wheels being independently moveable and driveable with respect to the second set of wheels such that when in motion only one set of wheels is engaged with the grid at any one time thereby enabling movement of the load handling devices along the rails by driving only the set of wheels engaged with the rails, characterised in that a second portion of stacks comprise containers larger than one grid spacing, the system further comprising at least one second robotic load handling device adapted to drive above the first and second portion of stacks, the at least one second robotic handling device operable on the grid being adapted so as to lift and move containers from within the second portion of stacks comprising containers larger than one grid spacing.
A configuration module for establishing a local end-to-end, E2E, path connecting at least one source node and at least one target node via at least one radio access network, RAN, node, in a vehicle-to-everything, V2X, service communication, the configuration module being configured to: - select data radio bearers, DRBs, per quality of service, QoS, flow based on inter-node information from the at least one source node, the at least one target node, the at least one RAN node and all other nodes involved in establishing the local E2E path; and - initiate, after selecting the DRBs per QoS flow, a radio resource communication, RRC, connection configuration using an identification, ID, of the local E2E path to be established. - select data radio bearers, DRBs, per quality of service, QoS, flow based on inter-node information from the at least one source node, the at least one target node, the at least one RAN node and all other nodes involved in establishing the local E2E path; and - initiate, after selecting the DRBs per QoS flow, a radio resource communication, RRC, connection configuration using an identification, ID, of the local E2E path to be established.
An electric scooter , comprising: a chassis that includes an electric battery, a controller, and one or more external charging ports; a deck disposed on top of the chassis ; a steering tube attached to a front wheel fork through the chassis ; handlebars supported by the steering tube ; a front wheel attached to the front wheel fork; a back wheel attached to a rear of the chassis ; a hub motor fixed to the back wheel or front wheel and controlled by the controller; and attachment components that facilitate attachment of the electric scooter to another electric scooter ; wherein the attachment components include: a vertical attachment component configured to vertically attach a front portion of the electric scooter to a rear portion of another electric scooter ; a vertical reception component configured to facilitate attachment of another electric scooter to a rear portion of the electric scooter ; and a lateral attachment component ) configured to laterally attach the chassis of the electric scooter to a chassis of another electric scooter . a chassis that includes an electric battery, a controller, and one or more external charging ports; a deck disposed on top of the chassis ; a steering tube attached to a front wheel fork through the chassis ; handlebars supported by the steering tube ; a front wheel attached to the front wheel fork; a back wheel attached to a rear of the chassis ; a hub motor fixed to the back wheel or front wheel and controlled by the controller; and attachment components that facilitate attachment of the electric scooter to another electric scooter ; wherein the attachment components include: a vertical attachment component configured to vertically attach a front portion of the electric scooter to a rear portion of another electric scooter ; a vertical reception component configured to facilitate attachment of another electric scooter to a rear portion of the electric scooter ; and a lateral attachment component ) configured to laterally attach the chassis of the electric scooter to a chassis of another electric scooter . a vertical attachment component configured to vertically attach a front portion of the electric scooter to a rear portion of another electric scooter ; a vertical reception component configured to facilitate attachment of another electric scooter to a rear portion of the electric scooter ; and a lateral attachment component ) configured to laterally attach the chassis of the electric scooter to a chassis of another electric scooter .
A method of predistortion of a digital signal in a transmitter chain, comprising: obtaining an input signal sampled at a first sampling rate; decomposing the input signal into k_down input signal subsets of equal length L by sequentially assigning each k_down-th sample of the input signal , starting with an l-th sample, to an l-th input signal subset in ascending order of sample number, wherein L, k down and l are integers, l being from 1 to k_down; generating k down model input signal subsets of equal length L, by applying a non-linear model to each of the k_down input signal subsets; generating k_up predistortion signal subsets of equal length L, wherein each predistortion signal subset is generated by combining the k_down model input signal subsets, each model input signal subset being multiplied by an adaptation coefficient, wherein k_up is an integer greater than k down; and generating a predistortion signal with a second sampling rate which is k_up/k_down times the first sampling rate, by sequentially assigning one sample from each predistortion signal subset, in ascending order of subset number, from 1 to k_up, to the predistortion signal until all samples of the k_up predistortion signal subsets are assigned. obtaining an input signal sampled at a first sampling rate; decomposing the input signal into k_down input signal subsets of equal length L by sequentially assigning each k_down-th sample of the input signal , starting with an l-th sample, to an l-th input signal subset in ascending order of sample number, wherein L, k down and l are integers, l being from 1 to k_down; generating k down model input signal subsets of equal length L, by applying a non-linear model to each of the k_down input signal subsets; generating k_up predistortion signal subsets of equal length L, wherein each predistortion signal subset is generated by combining the k_down model input signal subsets, each model input signal subset being multiplied by an adaptation coefficient, wherein k_up is an integer greater than k down; and generating a predistortion signal with a second sampling rate which is k_up/k_down times the first sampling rate, by sequentially assigning one sample from each predistortion signal subset, in ascending order of subset number, from 1 to k_up, to the predistortion signal until all samples of the k_up predistortion signal subsets are assigned.
A glass composition comprising: (a) 45-81 wt% B 2 O 3 , (b) 1-7 wt% Na 2 O, (c) 0.1-5 wt% Al 2 O 3 , (d) 0.1-2 wt% Li 2 O, (e) 0.5-6 wt% TiO 2 , (f) 0.1-9 wt% ZnO and (g) 4-25 wt% BaO no bismuth, no vanadium, no cadmium and devoid of lead.