mhurhangee/patent-ind-claim-en huggingface dataset:
A method for manufacturing an optoelectronic device comprising at least one first area devoid of three-dimensional semiconductor structures and at least one second area provided with three-dimensional semiconductor structures , said method comprising: - A provision of a support carrying on a basal plane (xy) a plurality of three-dimensional semiconductor structures , said structures each having a base facing a first side (C1) and a vertex opposite the base , facing a second side (C2) opposite the first side (C1), - A formation, from the first side (C1), of a sacrificial portion under the bases of a first set of 3D structures of the plurality of three-dimensional semiconductor structures , - A formation of a barrier portion around the sacrificial portion , said barrier portion having a basal wall extending under the sacrificial portion , and a side wall extending along the edge of the sacrificial portion , said side wall separating, in projection in a direction (z) normal to the basal plane (xy), the first set of 3D structures from a second set of 3D structures of the plurality of three-dimensional semiconductor structures , - A formation, from the second side (C2), of an access trench up to the sacrificial portion , said access trench extending continuously along the side wall of the barrier portion , in projection in the direction (z) normal to the basal plane (xy), - An etching of the sacrificial portion from the access trench , - A removal of the first set of 3D structures , so as to define at least one first area of the device. - A provision of a support carrying on a basal plane (xy) a plurality of three-dimensional semiconductor structures , said structures each having a base facing a first side (C1) and a vertex opposite the base , facing a second side (C2) opposite the first side (C1), - A formation, from the first side (C1), of a sacrificial portion under the bases of a first set of 3D structures of the plurality of three-dimensional semiconductor structures , - A formation of a barrier portion around the sacrificial portion , said barrier portion having a basal wall extending under the sacrificial portion , and a side wall extending along the edge of the sacrificial portion , said side wall separating, in projection in a direction (z) normal to the basal plane (xy), the first set of 3D structures from a second set of 3D structures of the plurality of three-dimensional semiconductor structures , - A formation, from the second side (C2), of an access trench up to the sacrificial portion , said access trench extending continuously along the side wall of the barrier portion , in projection in the direction (z) normal to the basal plane (xy), - An etching of the sacrificial portion from the access trench , - A removal of the first set of 3D structures , so as to define at least one first area of the device.
A working machine comprising: a vehicle body ; a traveling device that supports the vehicle body ; a drive that drives the traveling device and has a drive motor that drives the traveling device ; a cabin that accommodates an operator seat , a hood provided at a front portion of the vehicle body , the working machine being characterized in that the drive has a fuel cell that supplies electric power to the drive motor , the fuel cell being disposed in an inside of the hood , a controller that controls power supply from the fuel cell to the drive motor , and a hydrogen tank that supplies a hydrogen gas for fuel to the fuel cell , the hydrogen tank being disposed above a ceiling wall defining an internal space (S1) of the cabin . a vehicle body ; a traveling device that supports the vehicle body ; a drive that drives the traveling device and has a drive motor that drives the traveling device ; a cabin that accommodates an operator seat , a hood provided at a front portion of the vehicle body , the working machine being characterized in that the drive has a fuel cell that supplies electric power to the drive motor , the fuel cell being disposed in an inside of the hood , a controller that controls power supply from the fuel cell to the drive motor , and a hydrogen tank that supplies a hydrogen gas for fuel to the fuel cell , the hydrogen tank being disposed above a ceiling wall defining an internal space (S1) of the cabin . a fuel cell that supplies electric power to the drive motor , the fuel cell being disposed in an inside of the hood , a controller that controls power supply from the fuel cell to the drive motor , and a hydrogen tank that supplies a hydrogen gas for fuel to the fuel cell , the hydrogen tank being disposed above a ceiling wall defining an internal space (S1) of the cabin .
Use of branching enzyme EC 2.4.1.18 to improve cohesiveness in bread, cohesiveness being measured by compressing a 3-cm crumb by 21 mm twice using a rheometer with a 25 mm disc-type adapter, and taking the area ratio of waveforms representing the compression stress, area of second compression / area of first compression, as the cohesiveness.
A processing system comprising: an X-Ray Fluorescence analysis device configured to detect an X-ray intensity (I) of character X-rays that are generated by irradiating a catalytic layer of a noble metal formed on a surface of a substrate with X-rays; a laser microscope configured to detect a thickness (T) of the catalytic layer ; and a controller configured to: calculate, from the detected X-ray intensity (I), a deposition amount (A) of the noble metal per unit area in the catalytic layer , the deposition amount (A) being different from a coverage factor (ε) of the catalytic layer ; calculate, using both the calculated deposition amount (A) and the detected thickness (T) of the catalytic layer , a density (p) of the catalytic layer ; and determine, based at least on the calculated density (p), whether or not the catalytic layer has been formed into a state suitable for etching the surface of the substrate . an X-Ray Fluorescence analysis device configured to detect an X-ray intensity (I) of character X-rays that are generated by irradiating a catalytic layer of a noble metal formed on a surface of a substrate with X-rays; a laser microscope configured to detect a thickness (T) of the catalytic layer ; and a controller configured to: calculate, from the detected X-ray intensity (I), a deposition amount (A) of the noble metal per unit area in the catalytic layer , the deposition amount (A) being different from a coverage factor (ε) of the catalytic layer ; calculate, using both the calculated deposition amount (A) and the detected thickness (T) of the catalytic layer , a density (p) of the catalytic layer ; and determine, based at least on the calculated density (p), whether or not the catalytic layer has been formed into a state suitable for etching the surface of the substrate . calculate, from the detected X-ray intensity (I), a deposition amount (A) of the noble metal per unit area in the catalytic layer , the deposition amount (A) being different from a coverage factor (ε) of the catalytic layer ; calculate, using both the calculated deposition amount (A) and the detected thickness (T) of the catalytic layer , a density (p) of the catalytic layer ; and determine, based at least on the calculated density (p), whether or not the catalytic layer has been formed into a state suitable for etching the surface of the substrate .
A signal processing system for a hearing implant system having an implanted electrode array with a plurality of stimulation contacts for delivering electrode stimulation signals to adjacent auditory neural tissue, the system comprising: a band pass filter bank configured for processing an audio input signal to generate a plurality of band pass signals each representing an associated band of audio frequencies in the audio input signal; and an implant signal processor configured for processing the band pass signals to generate the electrode stimulation signals, wherein the processing includes: i. monitoring a key feature characteristic of the audio input signal, ii. using an original coding strategy to generate the electrode stimulation signals when the key feature is less than or equal to an initial value, and iii. using a different new coding strategy to generate the electrode stimulation signals when the key feature is greater than or equal to a coding change value; characterized in that the implant signal processor is configured for automatically transitioning from the original coding strategy to the new coding strategy over a transition period of time during which the implant signal processor adaptively changes the original coding strategy to become the new coding strategy, wherein one of the coding strategies is an event-based coding strategy and the other coding strategy is an envelope-based coding strategy. a band pass filter bank configured for processing an audio input signal to generate a plurality of band pass signals each representing an associated band of audio frequencies in the audio input signal; and an implant signal processor configured for processing the band pass signals to generate the electrode stimulation signals, wherein the processing includes: i. monitoring a key feature characteristic of the audio input signal, ii. using an original coding strategy to generate the electrode stimulation signals when the key feature is less than or equal to an initial value, and iii. using a different new coding strategy to generate the electrode stimulation signals when the key feature is greater than or equal to a coding change value; i. monitoring a key feature characteristic of the audio input signal, ii. using an original coding strategy to generate the electrode stimulation signals when the key feature is less than or equal to an initial value, and iii. using a different new coding strategy to generate the electrode stimulation signals when the key feature is greater than or equal to a coding change value; characterized in that the implant signal processor is configured for automatically transitioning from the original coding strategy to the new coding strategy over a transition period of time during which the implant signal processor adaptively changes the original coding strategy to become the new coding strategy, wherein one of the coding strategies is an event-based coding strategy and the other coding strategy is an envelope-based coding strategy.
A furniture item for equipping a vehicle compartment, comprising a fixed structural console and at least one shelf , each shelf comprising a panel having a proximal end and a distal end relative to the console , each shelf being hinged on the console by the proximal end of the panel , so as to be rotatable about a hinge pin, between a raised position and a lowered position, the shelf including a rim extending substantially parallel to the hinge pin in the vicinity of the proximal end , the rim being secured to the panel , the rim and the panel forming a support for equipment in the raised position of the shelf , characterized in that each shelf comprises lateral flanges extending along lateral edges of the panel and of the rim , perpendicular to the hinge pin, from the proximal end to the distal end of the panel .
A method for detecting road users along at least one known area of a traffic route, using at least one radar sensor comprising at least one transmission device for radar radiation and at least one reception device for radar radiation, wherein the sensor is placed above and/or besides the roadway on poles, signs or traffic lights, and for detecting a disturbance, during which the detection of road users is not or not to an optimum degree possible, wherein the method comprises the following steps: - emitting transmission signals by means of the at least one transmission device for radar radiation, - detecting received signals by means of the at least one reception device for radar radiation, - mixing the transmission signals and the received signals to produce baseband signals and calculating a detection matrix from the baseband signals and evaluating the detection matrix in an evaluation module of an electronic data processing device, wherein peaks of the detection matrix are assigned to objects, - checking whether a disturbance criterion is met in a diagnostic module, wherein the detection matrix and the baseband signals are used, - generating signals from the results of the evaluation in the evaluation module and the check in the diagnostic module, and - transmitting the signals to a control module of an electronic data processing device. - emitting transmission signals by means of the at least one transmission device for radar radiation, - detecting received signals by means of the at least one reception device for radar radiation, - mixing the transmission signals and the received signals to produce baseband signals and calculating a detection matrix from the baseband signals and evaluating the detection matrix in an evaluation module of an electronic data processing device, wherein peaks of the detection matrix are assigned to objects, - checking whether a disturbance criterion is met in a diagnostic module, wherein the detection matrix and the baseband signals are used, - generating signals from the results of the evaluation in the evaluation module and the check in the diagnostic module, and - transmitting the signals to a control module of an electronic data processing device.
An antioxidant stabilized crosslinked ultra-high molecular weight polyethylene medical component prepared by a method comprising preheating a consolidated homogeneous blend comprising ultra-high molecular weight polyethylene (UHMWPE) and 0.1 to 0.2 weight percent antioxidant that is tocopherol, to a preheat temperature of 60 °C to 130 °C and electron beam irradiating with a total dose of 150 kGy to 250 kGy while maintaining the consolidated blend at a temperature below the melting point of the consolidated blend, the medical component comprising: crosslinked UHMWPE including tocopherol that has reacted with a free-radical on the crosslinked UHMWPE and remaining unreacted tocopherol. crosslinked UHMWPE including tocopherol that has reacted with a free-radical on the crosslinked UHMWPE and remaining unreacted tocopherol.
A cleaning sheet for cleaning a cleaning target object (F), comprising: a base material sheet ; a first brush portion that is provided to the base material sheet and is formed of a fiber material; and a second brush portion that is provided to the base material sheet characterized in that the second brush portion is formed of crushed pulp materials that are layered, and wherein the first brush portion is formed by joining the base material sheet and a fibrous web in a plurality of joining portions , cutting the fibrous web in a predetermined position between the joining portions , and raising the fibrous web . a base material sheet ; a first brush portion that is provided to the base material sheet and is formed of a fiber material; and a second brush portion that is provided to the base material sheet characterized in that the second brush portion is formed of crushed pulp materials that are layered, and wherein the first brush portion is formed by joining the base material sheet and a fibrous web in a plurality of joining portions , cutting the fibrous web in a predetermined position between the joining portions , and raising the fibrous web .
A removable memory card receptacle for receiving a plurality of different types of removable memory cards directly inserted into the receptacle, comprising: a housing comprising a pin coupled to a control circuit , said pin useable for both card insertion and card type detection; an insertion switch coupled to the control circuit the insertion switch configured to detect insertion of the removable memory card, the control circuit comprising the software further configured to receive an insertion signal from the insertion switch to detect when the removable memory card is inserted into the removable memory card receptacle; a type switch coupled to the control circuit and characterised in that the type switch configured to discriminate between different types of removable memory cards based on differing form factors; a control system operatively coupled to the pin ; and the control circuit comprising software configured to receive a type signal from the type switch to detect a type of removable memory card inserted into a removable memory card receptacle, wherein said type includes a Secure Digital, SD protocol type of removable memory card or a Universal Flash Storage, UFS protocol type of removable memory card; and wherein the control circuit is configured to generate a detection signal based on the insertion and type signals and provide a detection signal to the pin; wherein the control system is configured to: communicate with the inserted removable memory card using an SD protocol if the detection signal indicates the type of the inserted removable memory card is SD; and communicate with the inserted removable memory card using a UFS protocol if the detection signal indicates the type of the inserted removable memory card is UFS. a housing comprising a pin coupled to a control circuit , said pin useable for both card insertion and card type detection; an insertion switch coupled to the control circuit the insertion switch configured to detect insertion of the removable memory card, the control circuit comprising the software further configured to receive an insertion signal from the insertion switch to detect when the removable memory card is inserted into the removable memory card receptacle; a type switch coupled to the control circuit and characterised in that the type switch configured to discriminate between different types of removable memory cards based on differing form factors; communicate with the inserted removable memory card using an SD protocol if the detection signal indicates the type of the inserted removable memory card is SD; and communicate with the inserted removable memory card using a UFS protocol if the detection signal indicates the type of the inserted removable memory card is UFS.
A composition [composition (COMP)] comprising: - at least one alkali metal salt of bis(fluoro sulfonyl)imide [FSI-salt]; - at least one compound of formula (I) or an alkali metal salt thereof as represented in the following formulae, in an amount below 25 ppm, as measured by ionic chromatography : - at least one alkali metal salt of bis(fluoro sulfonyl)imide [FSI-salt]; - at least one compound of formula (I) or an alkali metal salt thereof as represented in the following formulae, in an amount below 25 ppm, as measured by ionic chromatography :
Device for producing a coal cake for coking, comprising a moulding box open at the top for accommodating bulk material consisting of ground coal and at least one impact element acting on the bulk material in the moulding box for compressing and compacting the bulk material to form a block, and a ram block which is provided for resting on the bulk material and transmits the impulse of the impact element to the bulk material at least partially, characterized in that the impact element and the ram block are components of a machining unit which as a whole is mobile both horizontally and vertically with the aid of a movement device , and in that devices are provided for movably coupling the ram block to the machining unit .
A device for use in electrical nerve modulation in a subject, comprising: a) an actuator ; b) a tubular element having a proximal end connected to the actuator and a distal end; c) a flexible shaft coaxially disposed within the tubular element , comprising a proximal end operably connected to the actuator and a distal end, and adapted to be slid along the tubular element ; d) a conformable support comprising a proximal end operably connected to the tubular element's distal end, and a distal end operably connected to the flexible shaft's distal end, having a portion of its length helically wrapped about a distal portion of the flexible shaft so to define a radius and a pitch ; and e) a plurality of electrodes operably disposed along the helically configured portion of the conformable support , and electrically connectable to a generator , adapted to contact the endoluminal surface of a blood vessel of the subject and deliver electrical energy characterised in that : the actuator is a rotational and linear actuator configured to modify the pitch , radius or both of the helically configured portion of the conformable support via actuator's driven extension, retraction and/or rotation of the flexible shaft . a) an actuator ; b) a tubular element having a proximal end connected to the actuator and a distal end; c) a flexible shaft coaxially disposed within the tubular element , comprising a proximal end operably connected to the actuator and a distal end, and adapted to be slid along the tubular element ; d) a conformable support comprising a proximal end operably connected to the tubular element's distal end, and a distal end operably connected to the flexible shaft's distal end, having a portion of its length helically wrapped about a distal portion of the flexible shaft so to define a radius and a pitch ; and e) a plurality of electrodes operably disposed along the helically configured portion of the conformable support , and electrically connectable to a generator , adapted to contact the endoluminal surface of a blood vessel of the subject and deliver electrical energy characterised in that : the actuator is a rotational and linear actuator configured to modify the pitch , radius or both of the helically configured portion of the conformable support via actuator's driven extension, retraction and/or rotation of the flexible shaft .
A medical device , comprising: a flexible electrode array having a bend radius of no more than about 2mm; and a fluidic component , wherein the fluidic component is fluidically actuatable to cause the fluidic component to change configuration; wherein the fluidic component and the flexible electrode array are configured such that a change in configuration of the fluidic component causes a change in configuration of the flexible electrode array. a flexible electrode array having a bend radius of no more than about 2mm; and a fluidic component , wherein the fluidic component is fluidically actuatable to cause the fluidic component to change configuration; wherein the fluidic component and the flexible electrode array are configured such that a change in configuration of the fluidic component causes a change in configuration of the flexible electrode array.
An apparatus comprising: a controller configured to: identify a desired speed for an electric motor during operation of the electric motor ; generate an indicator that indicates that a duty cycle for the electric motor should have a magnitude greater than 100 percent; generate a limited duty cycle command to set the duty cycle for the electric motor , the duty cycle being limited to a maximum magnitude of 100 percent; and use the indicator to change a voltage applied to the electric motor to cause the electric motor to turn at the desired speed while maintaining the duty cycle . identify a desired speed for an electric motor during operation of the electric motor ; generate an indicator that indicates that a duty cycle for the electric motor should have a magnitude greater than 100 percent; generate a limited duty cycle command to set the duty cycle for the electric motor , the duty cycle being limited to a maximum magnitude of 100 percent; and use the indicator to change a voltage applied to the electric motor to cause the electric motor to turn at the desired speed while maintaining the duty cycle .