mhurhangee/ep-ind-claims huggingface dataset:
An apparatus for simultaneously heating a plurality of food products, comprising: - a containment structure that inside the containment structure forms a housing chamber and that is equipped with at least one openable and closable access door for allowing or not access from the outside to the housing chamber; - one or more separating elements mounted in the housing chamber, the separating elements delimiting in the housing chamber a plurality of separate housing compartments for receiving the food products; - radio frequency dielectric heating means, mounted in the containment structure and, in turn, comprising a first electrode and a second electrode, and a power supply device electrically connected to the first electrode and the second electrode for applying between the first electrode and the second electrode a variable electric potential difference with an operating frequency of between 1 MHz and 300 MHz; wherein the housing compartments are aligned along a first direction and form a row of housing compartments that extends from a first housing compartment to a final housing compartment; the one or more separating elements extend mainly perpendicularly to the first direction; the first electrode and the second electrode each extend mainly in a plane perpendicular to the first direction, and face each other and the one or more separating elements, characterized in that the first electrode and the second electrode delimit on two opposite sides the row of housing compartments; the separating elements are positioned between the first electrode and the second electrode; the first housing compartment is delimited, on two opposite sides, respectively by the first electrode and by a separating element; the final housing compartment is delimited, on two opposite sides, respectively by the second electrode and by a separating element; and inside the housing chamber, between the first electrode and the second electrode, there is also at least one inductor. - a containment structure that inside the containment structure forms a housing chamber and that is equipped with at least one openable and closable access door for allowing or not access from the outside to the housing chamber; - one or more separating elements mounted in the housing chamber, the separating elements delimiting in the housing chamber a plurality of separate housing compartments for receiving the food products; - radio frequency dielectric heating means, mounted in the containment structure and, in turn, comprising a first electrode and a second electrode, and a power supply device electrically connected to the first electrode and the second electrode for applying between the first electrode and the second electrode a variable electric potential difference with an operating frequency of between 1 MHz and 300 MHz;
A user interface for use in an electronic device comprising: a display including a touch screen surface; and wherein the touch screen surface comprises a plurality of keys(16a-d, 17), wherein each of the plurality of keys includes a proximate sensor for receiving a proximate input and a tactile sensor for receiving a tactile input; and a controller (41, 42), wherein the controller is configured to receive a proximate input of a given one of the plurality of keys, and upon receiving the proximate input, the controller causes the display to display an enlarged indication of the function of the given one of the plurality of keys; characterized in that the controller is further configured to receive a tactile input from at least one of the plurality of keys, and upon receiving the tactile input, the controller causes the electronic device to carry out the function indicated on the display regardless of the key from which the tactile input is received. a display including a touch screen surface; and wherein the touch screen surface comprises a plurality of keys(16a-d, 17), wherein each of the plurality of keys includes a proximate sensor for receiving a proximate input and a tactile sensor for receiving a tactile input; and a controller (41, 42), wherein the controller is configured to receive a proximate input of a given one of the plurality of keys, and upon receiving the proximate input, the controller causes the display to display an enlarged indication of the function of the given one of the plurality of keys; characterized in that the controller is further configured to receive a tactile input from at least one of the plurality of keys, and upon receiving the tactile input, the controller causes the electronic device to carry out the function indicated on the display regardless of the key from which the tactile input is received.
A screen assembly for a window comprising a screen supported by an elongate support member adapted to be mounted in an upper region of the window opening, a pair of mounting brackets (16,18) being provided for attachment to respective sides of the window opening adjacent the top face of the window opening, each end of the elongate support member having means for engaging a respective mounting bracket (16,18), whereby the mounting brackets may be attached the sides of a window opening such that the support member may be engaged onto the mounting brackets to mount the support member in the window opening, characterised in that each mounting bracket (16,18) comprises a first part attachable to a respective side of a window opening and a second part adapted to be mounted on the first part, said second part being adapted to engage a respective end of the elongate support member, wherein said second part of each mounting bracket is adapted to be mounted on the respective first part in a plurality of positions to enable the relative position of the second part of each mounting bracket to be adjusted with respective to the first part, in use, in a substantially vertical direction.
Control arrangement for the operation of a motor vehicle locking system, wherein the motor vehicle locking system has an electric drive having an electric drive motor, wherein the electric drive is fed, during normal operation, by a normal supply voltage in order to provide a motorized locking function for an adjustable closing element of the motor vehicle, wherein the control arrangement has an energy storage arrangement having at least one energy store in the form of a capacitor, wherein the energy storage arrangement provides an electrical emergency supply voltage (U N) for the electric drive in an emergency operating mode, in particular in the event of failure of the normal supply voltage, wherein the energy storage arrangement has at least one boost stage (9, 10), which is connected downstream of the energy store to generate the emergency supply voltage (U N), wherein the boost stage (9, 10) boosts an electrical input voltage at an input of the boost stage (9, 10) into an electrical output voltage at an output of the boost stage (9, 10), characterized in that the energy storage arrangement, to generate the emergency supply voltage (U N), has a first boost stage connected downstream of the energy store for generating the emergency supply voltage (U N) and a second boost stage connected downstream of the first boost stage. wherein the control arrangement has an energy storage arrangement having at least one energy store in the form of a capacitor, wherein the energy storage arrangement provides an electrical emergency supply voltage (U N) for the electric drive in an emergency operating mode, in particular in the event of failure of the normal supply voltage, wherein the energy storage arrangement has at least one boost stage (9, 10), which is connected downstream of the energy store to generate the emergency supply voltage (U N), wherein the boost stage (9, 10) boosts an electrical input voltage at an input of the boost stage (9, 10) into an electrical output voltage at an output of the boost stage (9, 10), characterized in that the energy storage arrangement, to generate the emergency supply voltage (U N), has a first boost stage connected downstream of the energy store for generating the emergency supply voltage (U N) and a second boost stage connected downstream of the first boost stage.
A method for reducing average current consumption in a local oscillator, LO path, comprising: receiving an LO signal at a master frequency divider and a slave frequency divider; mixing output from the master frequency divider with an input signal to produce a first mixed output; mixing output from the slave frequency divider with the input signal to produce a second mixed output; and forcing the second mixed output to be in phase with the first mixed output, wherein the forcing comprises: determining a phase difference between output from the master frequency divider and output from the slave frequency divider; inverting the phase of the slave frequency divider using a cross-coupled switch if there is a phase difference; and summing the first mixed output and the second mixed output. receiving an LO signal at a master frequency divider and a slave frequency divider; mixing output from the master frequency divider with an input signal to produce a first mixed output; mixing output from the slave frequency divider with the input signal to produce a second mixed output; and forcing the second mixed output to be in phase with the first mixed output, wherein the forcing comprises: determining a phase difference between output from the master frequency divider and output from the slave frequency divider; inverting the phase of the slave frequency divider using a cross-coupled switch if there is a phase difference; and determining a phase difference between output from the master frequency divider and output from the slave frequency divider; inverting the phase of the slave frequency divider using a cross-coupled switch if there is a phase difference; and summing the first mixed output and the second mixed output.
A method for the calibration of a yaw rate measurement in a motor vehicle, wherein the motor vehicle has at least a device for determining the yaw rate, a camera system, a steering-angle sensor or a lateral-acceleration sensor, wherein a first calibration is performed while the vehicle is not in motion and a second calibration is performed while the vehicle is in motion, characterized in that, when a calibration is performed while the vehicle is in motion, • the camera system covers that region of the surroundings which is in front of the motor vehicle, • a traffic lane is predicted from the image data of the camera system, • a straight-ahead motion or a cornering and thus the yaw rate is estimated from the course of the traffic lane, and • a calibration is performed while the vehicle is in motion if a straight-ahead motion was determined, wherein one derives that the vehicle is currently performing a straight-ahead motion if the vehicle exceeds a predetermined speed and/or the curvature of the predicted traffic lane exceeds a predetermined radius, and wherein one derives, on the basis of the indicators "vehicle speed", "radius of curvature" and "traffic lane", whether the motor vehicle is currently performing a straight-ahead motion. • the camera system covers that region of the surroundings which is in front of the motor vehicle, • a traffic lane is predicted from the image data of the camera system, • a straight-ahead motion or a cornering and thus the yaw rate is estimated from the course of the traffic lane, and • a calibration is performed while the vehicle is in motion if a straight-ahead motion was determined, wherein one derives that the vehicle is currently performing a straight-ahead motion if the vehicle exceeds a predetermined speed and/or the curvature of the predicted traffic lane exceeds a predetermined radius, and wherein one derives, on the basis of the indicators "vehicle speed", "radius of curvature" and "traffic lane", whether the motor vehicle is currently performing a straight-ahead motion.
A method for extracting a maj or vessel region from a blood vessel image performed by a processor, the method comprising: extracting an entire vessel region from the blood vessel image; extracting a major vessel region from the blood vessel image based on a machine learning model which extracts a major vessel region; detecting a separated portion of the blood vessel in the major vessel region; determining an area between blobs (521, 523) in which a shortest distance between blobs corresponding to the major vessel region is smaller than a threshold distance as the separated portion of the blood vessel; generating a connecting line which connects the area between blobs (521, 523); scaling at least one of the image size of the entire vessel region and the image size of the major vessel region to match image sizes of two regions; and correcting the major vessel region by connecting the separated portion in the major vessel region using the area corresponding to the connecting line in the entire vessel region, wherein the correcting the major vessel region includes: determining the region corresponding to a pixel position indicated by the connecting line of the major vessel region from the entire vessel region; and performing a region growing on the separated region between the blobs (521, 523) based on the determined region to connect the blobs (521, 523). extracting an entire vessel region from the blood vessel image; extracting a major vessel region from the blood vessel image based on a machine learning model which extracts a major vessel region; detecting a separated portion of the blood vessel in the major vessel region; determining an area between blobs (521, 523) in which a shortest distance between blobs corresponding to the major vessel region is smaller than a threshold distance as the separated portion of the blood vessel; generating a connecting line which connects the area between blobs (521, 523); scaling at least one of the image size of the entire vessel region and the image size of the major vessel region to match image sizes of two regions; and correcting the major vessel region by connecting the separated portion in the major vessel region using the area corresponding to the connecting line in the entire vessel region, wherein the correcting the major vessel region includes: determining the region corresponding to a pixel position indicated by the connecting line of the major vessel region from the entire vessel region; and performing a region growing on the separated region between the blobs (521, 523) based on the determined region to connect the blobs (521, 523). determining the region corresponding to a pixel position indicated by the connecting line of the major vessel region from the entire vessel region; and performing a region growing on the separated region between the blobs (521, 523) based on the determined region to connect the blobs (521, 523).
A fitting body having a longitudinal axis, comprising: a conduit end socket comprising a shoulder at an axially inner end of said conduit end socket and an end surface at an axially outer end of said conduit end socket, said conduit end socket being characterized by: an inner wall surface that extends axially between said shoulder and said end surface, said shoulder [124, 224] extends on a radial line with respect to the longitudinal axis, said inner wall surface comprises a conduit end capture surface, a ferrule camming surface, and a tapered wall surface that extends from said conduit end capture surface to said ferrule camming surface, said tapered wall surface being tapered in a radially outward direction towards said axially outer end, said tapered wall surface being discontinuous with said conduit end capture surface. a conduit end socket comprising a shoulder at an axially inner end of said conduit end socket and an end surface at an axially outer end of said conduit end socket, said conduit end socket being characterized by: an inner wall surface that extends axially between said shoulder and said end surface, said shoulder [124, 224] extends on a radial line with respect to the longitudinal axis, said inner wall surface comprises a conduit end capture surface, a ferrule camming surface, and a tapered wall surface that extends from said conduit end capture surface to said ferrule camming surface, said tapered wall surface being tapered in a radially outward direction towards said axially outer end, said tapered wall surface being discontinuous with said conduit end capture surface. an inner wall surface that extends axially between said shoulder and said end surface, said shoulder [124, 224] extends on a radial line with respect to the longitudinal axis, said inner wall surface comprises a conduit end capture surface, a ferrule camming surface, and a tapered wall surface that extends from said conduit end capture surface to said ferrule camming surface, said tapered wall surface being tapered in a radially outward direction towards said axially outer end, said tapered wall surface being discontinuous with said conduit end capture surface.
A method of processing coal to remove contaminants, comprising the steps of: providing a solution of aqueous ammonia in a selected concentration range of ammonia in a reaction vessel (18, 120); adding (12, 14) coal into the reaction vessel (18, 120); agitating the coal inside the reaction vessel (18, 120) to mix the coal and solution to cause the solution to be brought into contact with the surfaces and pores of the coal; discharging the processed coal from the vessel; monitoring the process to detect when the concentration of aqueous ammonia in the reaction vessel has fallen below the selected range; and feeding (22, 32) aqueous ammonia solution with an ammonia concentration in or above the selected range to the reaction vessel to return the solution to within the selected range, characterised by separating pyritic sulfur and other denser than coal particles from the coal by gravitational or centrifugal screen separation apparatus within the reaction vessel (18, 120) or by removing the processed coal from the reaction vessel (18, 120) in a slurry of coal in aqueous ammonia solution and directing the slurry to gravitational or centrifugal screen separation apparatus outside the reaction vessel (18, 120) and draining the slurry to separate the coal from the solution; and by drying the processed coal without rinsing to leave an aqueous ammonia coating on the coal surface and in the pores. providing a solution of aqueous ammonia in a selected concentration range of ammonia in a reaction vessel (18, 120); adding (12, 14) coal into the reaction vessel (18, 120); agitating the coal inside the reaction vessel (18, 120) to mix the coal and solution to cause the solution to be brought into contact with the surfaces and pores of the coal; discharging the processed coal from the vessel; monitoring the process to detect when the concentration of aqueous ammonia in the reaction vessel has fallen below the selected range; and feeding (22, 32) aqueous ammonia solution with an ammonia concentration in or above the selected range to the reaction vessel to return the solution to within the selected range, separating pyritic sulfur and other denser than coal particles from the coal by gravitational or centrifugal screen separation apparatus within the reaction vessel (18, 120) or by removing the processed coal from the reaction vessel (18, 120) in a slurry of coal in aqueous ammonia solution and directing the slurry to gravitational or centrifugal screen separation apparatus outside the reaction vessel (18, 120) and draining the slurry to separate the coal from the solution; and
Process for manufacturing a single-piece blisk, comprising: - a step in which an abrasive water jet is used to cut a block of material, so as to create blade preforms extending radially outwards from a disk, while keeping material to form the connecting means between directly consecutive blade preforms, the cutting step being done such that said connecting means approximately form a ring at a radial spacing from said disk, and connecting said blade preforms together at a radially inwards distance from their tips; then - a step to remove said connecting means. - a step in which an abrasive water jet is used to cut a block of material, so as to create blade preforms extending radially outwards from a disk, while keeping material to form the connecting means between directly consecutive blade preforms, the cutting step being done such that said connecting means approximately form a ring at a radial spacing from said disk, and connecting said blade preforms together at a radially inwards distance from their tips; then - a step to remove said connecting means.
A multimeric protein construct, comprising a multimerizing scaffold bearing (i) at least one targeting moiety that is capable of binding to a target cell, and (ii) at least two effector immunogenic moieties that are non-toxic by themselves, wherein the scaffold is a C4BP protein, or comprises a multimerizing fragment thereof and wherein the effector moiety is fragment C of tetanus toxin (TTFgC), for use in redirecting anti-tetanus immune response that was pre-existing in a patient, toward an undesired target cell.
A contact spring block for a sequential test of electronic components, comprises: a base block, a group of single contact springs, and a clip-on device, wherein the clip-on device is fastenable to the base block by clipping the clip-on device to the base block, and wherein the group of single contact springs is clamped and aligned when the clip-on device is clipped to the base block. a base block, a group of single contact springs, and a clip-on device, wherein the clip-on device is fastenable to the base block by clipping the clip-on device to the base block, and wherein the group of single contact springs is clamped and aligned when the clip-on device is clipped to the base block.
A method of wireless communication comprising: receiving a configuration of an uplink control format supporting at least three acknowledgement / negative acknowledgement, ACK/NAK, bits in a time division duplex, TDD, system; determining whether a special subframe configuration supports downlink data transmission, wherein the special subframe configuration represents a combination of Downlink Pilot Time Slot, DwPTS, symbols, Guard Period, GP, symbols, and Uplink Pilot Time Slot, UpPTS, symbols; allocating a number of ACK/NAK bits based at least in part on the determination; and transmitting ACK/NAK information in an uplink subframe based at least in part on the allocation. receiving a configuration of an uplink control format supporting at least three acknowledgement / negative acknowledgement, ACK/NAK, bits in a time division duplex, TDD, system; determining whether a special subframe configuration supports downlink data transmission, wherein the special subframe configuration represents a combination of Downlink Pilot Time Slot, DwPTS, symbols, Guard Period, GP, symbols, and Uplink Pilot Time Slot, UpPTS, symbols; allocating a number of ACK/NAK bits based at least in part on the determination; and transmitting ACK/NAK information in an uplink subframe based at least in part on the allocation.