mhurhangee/patent-ind-claim-en huggingface dataset:
Method for processing a message received via an electronic communication network by a user terminal, the method comprising: receiving the message (S3, S3'), said message comprising: - data corresponding to initial message content determined by the sender of the message; and - at least one datum corresponding to a function, the at least one datum being determined by the sender of the message; determining final content (S5, S5'), said final content comprising: - the initial message content determined by the sender of the message; and - specific content obtained by determining a result of the function applied to at least data present on the user terminal. receiving the message (S3, S3'), said message comprising: - data corresponding to initial message content determined by the sender of the message; and - at least one datum corresponding to a function, the at least one datum being determined by the sender of the message; - data corresponding to initial message content determined by the sender of the message; and - at least one datum corresponding to a function, the at least one datum being determined by the sender of the message; determining final content (S5, S5'), said final content comprising: - the initial message content determined by the sender of the message; and - specific content obtained by determining a result of the function applied to at least data present on the user terminal. - the initial message content determined by the sender of the message; and - specific content obtained by determining a result of the function applied to at least data present on the user terminal.
A pulse generator, comprising: a plurality of electrode nodes, each electrode node configured to be coupled to an electrode to provide stimulation pulses to a patient's tissue; and digital-to-analog converter (DAC) circuitry configured to receive a plurality of digital amplitude signals defining an input pulse, wherein the plurality of digital amplitude signals prescribe at least one constant amplitude for the input pulse, and wherein the input pulse is characterized by constant amplitude transitions, characterised in that : the DAC circuitry is further configured to receive a plurality of digital slew rate signals prescribing a slew rate, wherein DAC circuitry is further configured to form the input pulse as an output pulse at one of the plurality of electrode nodes that is slewed proportionally with the slew rate at the constant amplitude transitions. a plurality of electrode nodes, each electrode node configured to be coupled to an electrode to provide stimulation pulses to a patient's tissue; and digital-to-analog converter (DAC) circuitry configured to receive a plurality of digital amplitude signals defining an input pulse, wherein the plurality of digital amplitude signals prescribe at least one constant amplitude for the input pulse, and wherein the input pulse is characterized by constant amplitude transitions, characterised in that : the DAC circuitry is further configured to receive a plurality of digital slew rate signals prescribing a slew rate, wherein DAC circuitry is further configured to form the input pulse as an output pulse at one of the plurality of electrode nodes that is slewed proportionally with the slew rate at the constant amplitude transitions.
A system for determining the orientation of a vehicle within a plant, having the vehicle and a stationarily arranged transmission module, wherein the vehicle is movable on a driving surface of the plant and has a receiving module, the transmission module has a light source , in particular a light-emitting diode, and a first polarisation filter , wherein the first polarisation filter is in the form of a linear polarisation filter, so that linearly polarized light can be emitted from the transmission module, characterised in that the receiving module has a light sensor , a liquid crystal , a control means for the liquid crystal and a second polarisation filter , wherein the second polarisation filter is in the form of a linear polarisation filter, wherein the second polarisation filter is arranged between the light sensor and the liquid crystal , wherein the liquid crystal is controllable by means of the control means in such a manner that the polarisation of the linearly polarized light passing through the liquid crystal is rotated through a first angle or through a second angle, in particular through 0° or through 90°, wherein the first angle and the second angle are unequal, wherein light from the light source , which has passed through the first polarisation filter , then the liquid crystal and then the second polarisation filter , can be detected by means of the light sensor , wherein the receiving module has a receiver and an evaluation means , wherein the receiver is configured to measure a signal of the light sensor , namely a current, wherein the evaluation means is configured to determine the orientation of the vehicle on the driving surface from two measured values of the light sensor, wherein the system has a stationarily arranged receiving module associated with the stationarily arranged transmission module, wherein the stationarily arranged receiving module and the receiving module of the vehicle are of the same kind, wherein the vehicle has a transmission module, wherein the transmission module of the vehicle and the stationarily arranged transmission module are of the same kind, wherein a bi-directional data transfer between the vehicle and the central control means can be carried out by means of the transmission modules and receiving modules.
A miniature speaker comprising a plurality of sound generating elements, wherein each sound generating element comprises a sound cavity and a moveable element associated therewith, wherein the moveable element comprises cantilever beams configured to move said moveable element and thus generate sound pressure waves in response to an applied drive signal, wherein the cantilever beams of each sound generating element form one or more arrays of cantilever beams; wherein a first group of sound generating elements form part of a first MEMS die ; wherein the first MEMS die is arranged on a surface of a first carrier substrate having a plurality of through-going openings arranged therein, and wherein the plurality of through-going openings are acoustically connected to the first group of sound generating elements; characterized in that a second group of sound generating elements form part of a second MEMS die arranged on a second carrier substrate having a plurality of through-going openings arranged therein, and wherein the plurality of through-going openings are acoustically connected to the second group of sound generating elements, and wherein the plurality of through-going openings in the first and second carrier substrates are acoustically connected to a common front volume arranged between the first and second carrier substrates , said common front volume being acoustically connected to a sound outlet in a housing of the miniature speaker. a second group of sound generating elements form part of a second MEMS die arranged on a second carrier substrate having a plurality of through-going openings arranged therein, and wherein the plurality of through-going openings are acoustically connected to the second group of sound generating elements, and wherein the plurality of through-going openings in the first and second carrier substrates are acoustically connected to a common front volume arranged between the first and second carrier substrates , said common front volume being acoustically connected to a sound outlet in a housing of the miniature speaker.
A vehicle , comprising: a cab having a door opening on a side thereof; a chassis that supports the cab ; two or more steps leading to the door opening, each of which is supported by the cab or the chassis , wherein the two or more steps are placed within one or more recesses in the cab or chassis ; a door connected to the cab , wherein the door fits within the door opening , and the door comprises a main door portion and a lower door extension having a lower edge that terminates near to an upper surface of a lowermost step , the lower door extension covers a majority of the one or more recesses , and the lower door extension extends outboard to match the outboard extension of a fender or exterior cab side panel to provide a coplanar transition from the fender to the door , or from the door to the exterior cab side panel , or both, wherein the lower door extension is integral with the main door portion ; and characterized in that the vehicle further comprises a gap between a lowermost edge of an exterior cab side panel on the cab and a chassis fairing supported on the chassis , wherein the gap extends along the side of the cab and the chassis fairing at least from the rear of the lower door extension to an end of the cab , and wherein the gap is angled greater than 0 degrees with respect to a horizontal direction. a cab having a door opening on a side thereof; a chassis that supports the cab ; two or more steps leading to the door opening, each of which is supported by the cab or the chassis , wherein the two or more steps are placed within one or more recesses in the cab or chassis ; a door connected to the cab , wherein the door fits within the door opening , and the door comprises a main door portion and a lower door extension having a lower edge that terminates near to an upper surface of a lowermost step , the lower door extension covers a majority of the one or more recesses , and the lower door extension extends outboard to match the outboard extension of a fender or exterior cab side panel to provide a coplanar transition from the fender to the door , or from the door to the exterior cab side panel , or both, wherein the lower door extension is integral with the main door portion ; and characterized in that the vehicle further comprises a gap between a lowermost edge of an exterior cab side panel on the cab and a chassis fairing supported on the chassis , wherein the gap extends along the side of the cab and the chassis fairing at least from the rear of the lower door extension to an end of the cab , and wherein the gap is angled greater than 0 degrees with respect to a horizontal direction.
Gas burner for cooktops, of the type comprising at least one outer annular flame spreader , having a respective annular distribution chamber of the mixture, at least one first fluidic inlet for the fuel gas, at least one first axial venturi mixer (3 a), configured to receive as an input said gas from said first fluidic inlet and primary air from a first atmospheric air inlet , said at least one annular distribution chamber being fluidically connected to said first venturi mixer through a partition chamber of the fuel mixture leaving said first venturi mixer , said partition chamber being fluidically connected to at least two fluidic passages connecting said first venturi mixer to two regions of said annular distribution chamber of the outer annular flame spreader which are oppositely arranged with respect to said first venturi mixer , and at least one ignition device to light said mixture that leaves said outer flame spreader , and wherein, considering a plan view of the burner in use condition, said outer annular flame spreader defines a geometric figure (F) having a centroid (G), and wherein an axis (A) orthogonal to said plan view and passing through said centroid (G) is outside the first venturi mixer , said gas burner being characterized in that it comprises at least one second fluidic gas inlet , said first fluidic inlet being fluidically connected to said first venturi mixer , and the second fluidic gas inlet being connected to a second venturi mixer , said second venturi mixer being arranged outside said axis (A), so as to surround it.
Method for manufacturing a microchannel, characterised in that it comprises at least: - a step of fastening via a covalent bond a polymer of the hydrogel type onto a face of a substrate, the polymer of the hydrogel type being capable of undergoing variations in volume under the action of an outside stimulus; - a step of forming said microchannel at the interface of two layers of material, at least one of the two materials being the substrate, in such a way that the polymer is disposed in the volume of said microchannel; and in that : - the step of fastening the polymer is carried out before the step of forming the microchannel; - said face of the substrate is flat; - said variations in volume being carried out perpendicularly to said face of the substrate; - the polymer modifying the hydrodynamic resistance of the microchannel in a reversible manner. - a step of fastening via a covalent bond a polymer of the hydrogel type onto a face of a substrate, the polymer of the hydrogel type being capable of undergoing variations in volume under the action of an outside stimulus; - a step of forming said microchannel at the interface of two layers of material, at least one of the two materials being the substrate, in such a way that the polymer is disposed in the volume of said microchannel; - the step of fastening the polymer is carried out before the step of forming the microchannel; - said face of the substrate is flat; - said variations in volume being carried out perpendicularly to said face of the substrate; - the polymer modifying the hydrodynamic resistance of the microchannel in a reversible manner.
A terminal configured to communicate with a plurality of base stations in a dual connectivity using a first Radio Access Technology, RAT, and a second RAT, the terminal comprising: a control unit configured to, based on a sum of an uplink transmission power via the first RAT and an uplink transmission power via the second RAT, and a power ramping counter, control transmission power of a random access preamble via the second RAT;and a transmission unit configured to transmit the random access preamble via the second RAT based on the transmission power of the random access preamble, wherein, in a case where the sum of the uplink transmission power via the first RAT and the uplink transmission power via the second RAT exceeds a total maximum transmission power in the dual connectivity, the control unit is configured to reduce the transmission power of the random access preamble, and to suspend the power ramping counter; wherein, when the transmission power of the random access preamble is reduced by an amount greater than a threshold value, the control unit is configured not to transmit the random access preamble; and wherein the first RAT is Long Term Evolution, LTE, and the second RAT is New Radio, NR. a control unit configured to, based on a sum of an uplink transmission power via the first RAT and an uplink transmission power via the second RAT, and a power ramping counter, control transmission power of a random access preamble via the second RAT;and a transmission unit configured to transmit the random access preamble via the second RAT based on the transmission power of the random access preamble, wherein, in a case where the sum of the uplink transmission power via the first RAT and the uplink transmission power via the second RAT exceeds a total maximum transmission power in the dual connectivity, the control unit is configured to reduce the transmission power of the random access preamble, and to suspend the power ramping counter; wherein, when the transmission power of the random access preamble is reduced by an amount greater than a threshold value, the control unit is configured not to transmit the random access preamble; and wherein the first RAT is Long Term Evolution, LTE, and the second RAT is New Radio, NR.
Multi-wall alveolar plate made of transparent or translucent material, including at least two substantially parallel longitudinal outer walls cross-braced by more than two transverse walls delimiting a plurality of cells , wherein said plate includes a number n of longitudinal inner walls higher than one, each longitudinal inner wall extending substantially parallel between the two longitudinal outer walls , the plurality of longitudinal inner walls defining a number of rows of cells higher than two and equal to n+1, each row of cells comprising at least two cells , and wherein at least all the cells of the row of cells located under one of the two outer walls are completely filled with glass particles , said particles being transparent or translucent glass beads having a particle size between 425 μm and 850 μm.
A contact head for a current collector adapted for charging a vehicle equipped with an electric drive in rapid charging systems, comprising at least two oppositely arranged electrical contacts mounted on at least two pressing elements that are rotatably disposed on at least one axis of rotation with a limited angle of rotation and having at least one resilient element for pressing the electrical contacts against at least two conductive strips of a compatible contact device of a charging station, said conductive strips being arranged on opposite sides of the contact head and through which the power supply voltage is applied, whereas the pressing elements are formed as opposing arms - a first arm and a second arm ; at least one electrical contact is provided on the first arm ; at least one electrical contact is provided on the second arm ; characterized in that at least one axis of rotation around which the arms rotate is aligned essentially in the direction of the longitudinal axis of the vehicle, parallel to the direction of vehicle movement; wherein to the second arm , on an axis parallel to the at least one axis of rotation , a third arm is rotatably attached through a resilient element, on said third arm an earthing contact is arranged, the earthing contact being in an extended position and protruding beyond the boundary of the head , so that when connecting the head to the charging station, the earthing contact contacts the conductive strip as the first of all contacts; wherein on one of the arms , from the side facing the conductive strips, a communication contact is provided. the pressing elements are formed as opposing arms - a first arm and a second arm ; at least one electrical contact is provided on the first arm ; at least one electrical contact is provided on the second arm ; characterized in that at least one axis of rotation around which the arms rotate is aligned essentially in the direction of the longitudinal axis of the vehicle, parallel to the direction of vehicle movement; wherein to the second arm , on an axis parallel to the at least one axis of rotation , a third arm is rotatably attached through a resilient element, on said third arm an earthing contact is arranged, the earthing contact being in an extended position and protruding beyond the boundary of the head , so that when connecting the head to the charging station, the earthing contact contacts the conductive strip as the first of all contacts; wherein on one of the arms , from the side facing the conductive strips, a communication contact is provided.
An anti-TIM-3 antibody or an antigen-binding portion thereof, wherein said antibody comprises the H-CDR1-3 and L-CDR1-3 amino acid sequences of SEQ ID NOs: 7-12, respectively, and wherein said antibody or antigen-binding portion increases IFN-γ and TNF-α secretion in a one-way mixed lymphocyte reaction assay.
A powder formulation comprising a therapeutically effective amount of (R)-N-[-1-(1-naphthyl)ethyl]-3-[3-(trifluoromethyl)phenyl]propan-1-amine hydrochloride admixed with at least 2% w/w to 5% w/w of silicon dioxide.
A capsule preparation for use in treating cancer, comprising DFP-11207 or a pharmaceutically acceptable salt thereof and a hygroscopic agent.
A method of determining usage of a construction machine including a milling drum , the milling drum having a drum width , the method comprising: (a) detecting with at least one profile sensor at least one profile parameter of a ground surface in front of the milling drum wherein the at least one profile parameter comprises a location along the drum width of at least one previously cut edge of a previously milled area in front of the milling drum ; (b) detecting with at least one distance sensor at least one distance parameter corresponding to a distance traveled by the construction machine ; and (c) determining the usage of the construction machine by determining an area of a ground surface milled by the construction machine , the method further comprising: determining whether the milling drum is actively milling the ground surface ; and wherein step (c) comprises determining the area of the ground surface milled at least partially as a function of the profile parameter and the distance parameter for all time intervals during which the milling drum is actively milling the ground surface and accounting for an actual width of material being milled being less than the drum width due to the presence of the previously milled area in front of the milling drum . (a) detecting with at least one profile sensor at least one profile parameter of a ground surface in front of the milling drum wherein the at least one profile parameter comprises a location along the drum width of at least one previously cut edge of a previously milled area in front of the milling drum ; (b) detecting with at least one distance sensor at least one distance parameter corresponding to a distance traveled by the construction machine ; and (c) determining the usage of the construction machine by determining an area of a ground surface milled by the construction machine , the method further comprising: determining whether the milling drum is actively milling the ground surface ; and wherein step (c) comprises determining the area of the ground surface milled at least partially as a function of the profile parameter and the distance parameter for all time intervals during which the milling drum is actively milling the ground surface and accounting for an actual width of material being milled being less than the drum width due to the presence of the previously milled area in front of the milling drum . determining whether the milling drum is actively milling the ground surface ; and wherein step (c) comprises determining the area of the ground surface milled at least partially as a function of the profile parameter and the distance parameter for all time intervals during which the milling drum is actively milling the ground surface and accounting for an actual width of material being milled being less than the drum width due to the presence of the previously milled area in front of the milling drum .