mhurhangee/ep-ind-claims huggingface dataset:
An electronic component, comprising: a spatial light modulator device, a circuit board comprising a first major surface, at least one electrically conductive redistribution layer and a first cavity positioned in the first major surface, the spatial light modulator device being positioned within the cavity and electrically connected to the redistribution layer; and a Peltier heater/cooler device, comprising a first heater/cooler surface, at least one pair of thermoelectric members and a second heater/cooler surface, wherein the first heater/cooler surface, the thermoelectric members and the second heater/cooler surface are coplanar and are at least partially embedded between layers of the circuit board, and the Peltier heater/cooler device is in thermal contact with the spatial light modulator device. a spatial light modulator device, a circuit board comprising a first major surface, at least one electrically conductive redistribution layer and a first cavity positioned in the first major surface, the spatial light modulator device being positioned within the cavity and electrically connected to the redistribution layer; and a Peltier heater/cooler device, comprising a first heater/cooler surface, at least one pair of thermoelectric members and a second heater/cooler surface, wherein
Distribution group belonging to a hydraulic machine and comprising a curved conduit (2, 41, 42, 43, 44, 45; 2a; 2b) intended to channel a flow to supply the wheel of the hydraulic machine, the wheel being intended to rotate about a rotation axis, the curved conduit (2, 41, 42, 43, 44, 45; 2a; 2b) being provided with fins (8; 8a; 8b) that are secured to its inner wall (22; 22a; 22b) and comprising openings, characterised in that the openings of two adjacent fins (8; 8a; 8b) are offset with respect to one another along an axis that follows the curvature of the curved conduit.
A method of discharging a battery assembly used to power at least part of an object, said method comprising: detecting when power to the object is turned off; a timer receiving a signal from the object when the power to the object is turned off; the timer starting a timing upon receiving the signal and detecting an amount of time elapsed since the power to the object is turned off; a battery management system switching a control switch to a closed state if the amount of time exceeds a threshold length of time; the battery management system switching the control switch to an open state if the power to the object is turned on, or if a voltage of the battery assembly reaches a threshold voltage value; initiating a controlled self-discharge of the battery assembly when the control switch is switched to the closed state; and terminating the controlled self-discharge when the control switch is switched to the open state, wherein the controlled self-discharge of the battery assembly is performed by a self-discharging circuit electrically coupled to the battery assembly, wherein the self-discharging circuit comprises a self-discharging resistor and the control switch connected in parallel with positive and negative terminals of the battery assembly. detecting when power to the object is turned off; a timer receiving a signal from the object when the power to the object is turned off; the timer starting a timing upon receiving the signal and detecting an amount of time elapsed since the power to the object is turned off; a battery management system switching a control switch to a closed state if the amount of time exceeds a threshold length of time; the battery management system switching the control switch to an open state if the power to the object is turned on, or if a voltage of the battery assembly reaches a threshold voltage value; initiating a controlled self-discharge of the battery assembly when the control switch is switched to the closed state; and terminating the controlled self-discharge when the control switch is switched to the open state, wherein the controlled self-discharge of the battery assembly is performed by a self-discharging circuit electrically coupled to the battery assembly, wherein the self-discharging circuit comprises a self-discharging resistor and the control switch connected in parallel with positive and negative terminals of the battery assembly.
A method of fitting an attachment, such as a trim, onto a portion of a profiled strip fastened to the periphery of a glazing pane, this fitting operation being carried out by means of an intermediate fastening device, this intermediate fastening device comprising at least one clip having at least one upstream cooperating part intended to cooperate with said profiled strip and a downstream cooperating part intended to cooperate with said attachment, said method including a step of fastening said intermediate fastening device onto said profiled strip, characterized in that said intermediate fastening device includes an upstream cooperating part having a plurality of catching tabs joined by a base, said base being substantially flat and said tabs being oriented substantially perpendicular to said base with said tabs arranged in diametrically opposed pairs relative to a central plane of longitudinal symmetry of said base, said tabs terminating at their ends that penetrate into the material of the profiled strip in a plurality of pointed teeth, the end of each tab being deformable, said ends of the tabs being deformed by applying a force to the ends of said tabs toward the material of said profiled strip in two opposed directions so as to penetrate the material of said profiled strip during the fastening step.
Method for processing a main signal received from at least one terminal, TER, during a given time interval, called current time interval, said method being performed on-board by a satellite; said satellite comprising a memory and means for processing data contained in said memory; said method comprising: - receiving (1R1), during the current time interval, a main signal, containing at least one message from at least one terminal, TER, each message having a priority level, messages with higher priority being demodulated first; - sampling (1S1) said main signal to obtain samples; - storing (1S2) the obtained samples into the satellite memory; - demodulating (1D1) the messages corresponding to the current time interval contained in the samples stored in memory comprising, for each message of the messages contained in the samples and by priority order: ▪ demodulating and decoding (1D11) the message; ▪ forwarding (1D12), using direct link when the satellite is in the range of a ground station, GS, or inter-satellite-link, the demodulated message to a ground station, GS; the demodulation sub-steps (1D11) being repeated until the maximum number of messages that the means for processing data are able to demodulate during a time interval is reached, samples corresponding only to the messages already demodulated being deleted from memory; - after the current time interval, when the satellite is in the range of a ground station, GS, transmitting (1T1) to said ground station, GS, the samples contained in the memory corresponding to said current time interval. - receiving (1R1), during the current time interval, a main signal, containing at least one message from at least one terminal, TER, each message having a priority level, messages with higher priority being demodulated first; - sampling (1S1) said main signal to obtain samples; - storing (1S2) the obtained samples into the satellite memory; - demodulating (1D1) the messages corresponding to the current time interval contained in the samples stored in memory comprising, for each message of the messages contained in the samples and by priority order: ▪ demodulating and decoding (1D11) the message; ▪ forwarding (1D12), using direct link when the satellite is in the range of a ground station, GS, or inter-satellite-link, the demodulated message to a ground station, GS; the demodulation sub-steps (1D11) being repeated until the maximum number of messages that the means for processing data are able to demodulate during a time interval is reached, samples corresponding only to the messages already demodulated being deleted from memory; ▪ demodulating and decoding (1D11) the message; ▪ forwarding (1D12), using direct link when the satellite is in the range of a ground station, GS, or inter-satellite-link, - after the current time interval, when the satellite is in the range of a ground station, GS, transmitting (1T1) to said ground station, GS, the samples contained in the memory corresponding to said current time interval.
An ultrasonic surgical apparatus comprising: a signal generator configured to output a drive signal having a frequency; an oscillating structure, configured to receive the drive signal and to oscillate at the frequency of the drive signal; a bridge circuit configured to detect the mechanical motion of the oscillating structure and to output a signal representative of the mechanical motion; the apparatus characterised by: a microcontroller configured to receive the signal output by the bridge circuit, the microcontroller configured to determine an instantaneous frequency at which the oscillating structure is oscillating based on the received signal, and to determine a frequency adjustment necessary to maintain the oscillating structure oscillating at its resonance frequency, the microcontroller further configured to determine the Q value of the signal received from the bridge circuit and to determine the material type contacting the oscillating structure based on the determined Q value. a signal generator configured to output a drive signal having a frequency; an oscillating structure, configured to receive the drive signal and to oscillate at the frequency of the drive signal; a bridge circuit configured to detect the mechanical motion of the oscillating structure and to output a signal representative of the mechanical motion; the apparatus characterised by: a microcontroller configured to receive the signal output by the bridge circuit, the microcontroller configured to determine an instantaneous frequency at which the oscillating structure is oscillating based on the received signal, and to determine a frequency adjustment necessary to maintain the oscillating structure oscillating at its resonance frequency, the microcontroller further configured to determine the Q value of the signal received from the bridge circuit and to determine the material type contacting the oscillating structure based on the determined Q value.
A method for authenticating and accepting messages received from devices in a system, the method comprising: determining whether a message is received from an authorized device; determining whether the message is in response to a command sent to the device; if the message is a response to a command sent to the device, accessing a first business logic module associated with commanded operations, to determine whether information contained in the message complies with policies in the first business logic module; and if the message is not a response to a command sent to the device, accessing a second business logic module associated with device-originated messages, to determine if the message complies with policies in the second business logic module,whereby each business logic module comprises a different set of business rules. determining whether a message is received from an authorized device; determining whether the message is in response to a command sent to the device; if the message is a response to a command sent to the device, accessing a first business logic module associated with commanded operations, to determine whether information contained in the message complies with policies in the first business logic module; and if the message is not a response to a command sent to the device, accessing a second business logic module associated with device-originated messages, to determine if the message complies with policies in the second business logic module,whereby each business logic module comprises a different set of business rules.
Composition comprising 4-oxo-2-pentenoic acid for use in the treatment or prevention of cardiovascular disorders wherein the composition is not a pharmaceutical.
Front unit for a ski binding, in particular for an alpine touring binding, the front unit being adjustable between an open position and a closed position, comprising: a base plate comprising a fastening assembly for fastening to a ski, two lateral bearing elements (16a, 16b), which are arranged on a transverse ski axis extending substantially orthogonally to a longitudinal ski axis and in parallel with a ski axis and are configured to engage with lateral counter-bearing elements of a ski boot in order to hold the ski boot so as to be pivotable about the transverse ski axis, the bearing elements (16a, 16b) having a spacing in the closed position of the front unit that is configured for engagement with the counter-bearing elements and having a spacing in the open position of the front unit that is greater than in the closed position, such that the ski boot can be introduced between the bearing elements (16a, 16b) or can be removed from the front unit, and a movement apparatus (18a, 18b, 26, 28) for moving the bearing elements (16a, 16b) between the open position and the closed position of the front unit, the movement apparatus (18a, 18b, 26, 28) comprising a closing actuation portion, the actuation of which causes the bearing elements (16a, 16b) to move from the open position into the closed position, characterised in that a width b of the closing actuation portion is between 30 mm and 40 mm in a ski width direction orthogonal to the longitudinal ski axis. a base plate comprising a fastening assembly for fastening to a ski, two lateral bearing elements (16a, 16b), which are arranged on a transverse ski axis extending substantially orthogonally to a longitudinal ski axis and in parallel with a ski axis and are configured to engage with lateral counter-bearing elements of a ski boot in order to hold the ski boot so as to be pivotable about the transverse ski axis, the bearing elements (16a, 16b) having a spacing in the closed position of the front unit that is configured for engagement with the counter-bearing elements and having a spacing in the open position of the front unit that is greater than in the closed position, such that the ski boot can be introduced between the bearing elements (16a, 16b) or can be removed from the front unit, and a movement apparatus (18a, 18b, 26, 28) for moving the bearing elements (16a, 16b) between the open position and the closed position of the front unit, the movement apparatus (18a, 18b, 26, 28) comprising a closing actuation portion, the actuation of which causes the bearing elements (16a, 16b) to move from the open position into the closed position, characterised in that a width b of the closing actuation portion is between 30 mm and 40 mm in a ski width direction orthogonal to the longitudinal ski axis.
A method for precision inkjet printing, comprising: determining an initial actuation parameter associated with an initial pressure waveform; based on the initial pressure waveform, actuating a print head to eject a droplet from a nozzle; acquiring an image of the droplet; processing the acquired image to estimate a volume of the droplet; based on the estimated volume of the droplet and a target volume, adjusting the initial actuation parameter; wherein adjusting the initial actuation parameter further comprises calculating an error between the estimated volume of the droplet and the target volume of the droplet; characterised in that the method for precision inkjet printing further comprising: optimizing the error using an optimization routine, the optimization routine being configured to optimize the error to result in droplets whose volume measurements closely match target volumes. determining an initial actuation parameter associated with an initial pressure waveform; based on the initial pressure waveform, actuating a print head to eject a droplet from a nozzle; acquiring an image of the droplet; processing the acquired image to estimate a volume of the droplet; based on the estimated volume of the droplet and a target volume, adjusting the initial actuation parameter; wherein adjusting the initial actuation parameter further comprises calculating an error between the estimated volume of the droplet and the target volume of the droplet; characterised in that the method for precision inkjet printing further comprising: optimizing the error using an optimization routine, the optimization routine being configured to optimize the error to result in droplets whose volume measurements closely match target volumes.
An electrical control system, in particular for home automation systems, comprising at least one electronic switching device, which includes a switching module; said switching module comprising: - a switching circuit including at least one controlled switch arranged to allow a selective implementation of a 2-way switch configuration or a 3-way switch configuration or a 4-way switch configuration; and - a plurality of terminals (81, 82, 83, 84) arranged to allow the connection of said switching module to an external electrical system; said switching module being arranged to allow the selective application of the 2-way switch configuration of the switching circuit or 3-way switch configuration of the switching circuit or 4-way switch configuration of the switching circuit to said plurality of terminals (81, 82, 83, 84), in a partial way, or total way, or so that to implement a total separation to said plurality of terminals (81, 82, 83, 84); wherein: - the total application of the 3-way switch configuration includes the application of the 3-way switch configuration to said plurality of terminals (81, 82, 83, 84); - the partial application of the 3-way switch configuration includes the application of the 2-way switch configuration to said plurality of terminals (81, 82, 83, 84); - the total application of the 4-way switch configuration includes the application of the 4-way switch configuration to said plurality of terminals (81, 82, 83, 84); - the partial application of the 4-way switch configuration includes the application of the 3-way switch configuration to said plurality of terminals (81, 82, 83, 84) or the application of the 2-way switch configuration to said plurality of terminals (81, 82, 83, 84). - a switching circuit including at least one controlled switch arranged to allow a selective implementation of a 2-way switch configuration or a 3-way switch configuration or a 4-way switch configuration; and - a plurality of terminals (81, 82, 83, 84) arranged to allow the connection of said switching module to an external electrical system; - the total application of the 3-way switch configuration includes the application of the 3-way switch configuration to said plurality of terminals (81, 82, 83, 84); - the partial application of the 3-way switch configuration includes the application of the 2-way switch configuration to said plurality of terminals (81, 82, 83, 84); - the total application of the 4-way switch configuration includes the application of the 4-way switch configuration to said plurality of terminals (81, 82, 83, 84); - the partial application of the 4-way switch configuration includes the application of the 3-way switch configuration to said plurality of terminals (81, 82, 83, 84) or the application of the 2-way switch configuration to said plurality of terminals (81, 82, 83, 84).
The use of a composition containing a crosslinked hydroxypropyl starch phosphate and a white dextrin for the production of fresh milk products with a reduced fat content, characterized in that: - the crosslinked hydroxypropyl starch phosphate has a degree of substitution of between 0.09 and 0.2, preferably of between 0.09 and 0.14, even more preferentially approximately 0.10 to 0.11; - the white dextrin has: o a DE of less than 5, preferably less than 3, more preferentially less than 2, o a viscosity at 40% solids of between 3600 and 6000 mPa.s, and o a solubles content of less than 30%, as described in the portion "Measurement of the solubles content of the white dextrins" of the description, wherein - the crosslinked hydroxypropyl starch phosphate is incorporated into the milk product in a content comprised between 0.4% and 5%, - the white dextrin is incorporated into the milk product in a content comprises between 0.1% and 2% by weight. - the crosslinked hydroxypropyl starch phosphate has a degree of substitution of between 0.09 and 0.2, preferably of between 0.09 and 0.14, even more preferentially approximately 0.10 to 0.11; - the white dextrin has: o a DE of less than 5, preferably less than 3, more preferentially less than 2, o a viscosity at 40% solids of between 3600 and 6000 mPa.s, and o a solubles content of less than 30%, as described in the portion "Measurement of the solubles content of the white dextrins" of the description, wherein - the crosslinked hydroxypropyl starch phosphate is incorporated into the milk product in a content comprised between 0.4% and 5%, - the white dextrin is incorporated into the milk product in a content comprises between 0.1% and 2% by weight. o a DE of less than 5, preferably less than 3, more preferentially less than 2, o a viscosity at 40% solids of between 3600 and 6000 mPa.s, and o a solubles content of less than 30%, as described in the portion "Measurement of the solubles content of the white dextrins" of the description, wherein - the crosslinked hydroxypropyl starch phosphate is incorporated into the milk product in a content comprised between 0.4% and 5%, - the white dextrin is incorporated into the milk product in a content comprises between 0.1% and 2% by weight. - the crosslinked hydroxypropyl starch phosphate is incorporated into the milk product in a content comprised between 0.4% and 5%, - the white dextrin is incorporated into the milk product in a content comprises between 0.1% and 2% by weight.
A method for operating a Device Management, DM, gateway in a communication system including the DM gateway, a DM server (140, 220, 302), and a device, the method comprising: detecting, by the DM gateway, a new manageable device; determining, by the DM gateway, one or more characteristics of the device; and invoking (408, 412, 414), by the DM gateway, an algorithm based on the determined one or more characteristics of the device, wherein the DM gateway operates according to the invoked algorithm, so that the DM server (140, 220, 302) can subsequently manage the device, by sending management commands to the device, via the DM gateway, and by processing alerts received from the device, via the DM gateway, wherein the one or more characteristics of the device comprise at least one of a first characteristic of whether the device is configured for a proxy connection with the DM server (140, 220, 302), and a second characteristic of whether the device is configured for DM gateway bypass. detecting, by the DM gateway, a new manageable device; determining, by the DM gateway, one or more characteristics of the device; and invoking (408, 412, 414), by the DM gateway, an algorithm based on the determined one or more characteristics of the device, wherein the DM gateway operates according to the invoked algorithm, so that the DM server (140, 220, 302) can subsequently manage the device, by sending management commands to the device, via the DM gateway, and by processing alerts received from the device, via the DM gateway, wherein the one or more characteristics of the device comprise at least one of a first characteristic of whether the device is configured for a proxy connection with the DM server (140, 220, 302), and a second characteristic of whether the device is configured for DM gateway bypass.