mhurhangee/ep-ind-claims huggingface dataset:
Heating device connection, in particular for an induction cooking appliance, having at least one first power unit which is provided for supplying power to a heating element (18; 36), characterised by a relief unit which is provided to relieve the first power unit by an at least partial power take-over in at least one operating mode, wherein the relief unit has a second power unit, associated with the heating element (18; 36), which optionally can be switched on to relieve the first power unit, and wherein the second power unit can be operated for the purpose of relieving the first power unit for supplying the first heating element (18; 36).
Use of a plastics film comprising - at least one layer A comprising at least one polycarbonate and - at least one layer B comprising at least one vinyl polymer, characterised in that the layer(s) A comprising polycarbonate and the layer(s) B comprising at least one vinyl polymer have been coextruded, and the layer B comprising at least one vinyl polymer has a layer thickness of 100 μm or less and a surface roughness (R3z value) measured according to DIN EN ISO 4288 of less than 1 μm and the plastics film has a transmission in the visible wavelength range of more than 50% and the total thickness of the plastics film is 1000 μm or less, in the production of metallised components. - at least one layer A comprising at least one polycarbonate and - at least one layer B comprising at least one vinyl polymer,
An apparatus (420, 620) comprising a memory and a controller, wherein said controller is configured to: identify at least one visitor terminal (410, 610) accessing a web service; generate a visitor-specific copy of said web service; share said visitor-specific copy between said at least one visitor terminal (410, 610) and an operator terminal (420, 620); receive additional data and to inject said additional data into a data flow from a server (450, 650) to said visitor terminal (410, 610) to provide said visitor terminal (410, 610) with an updated visitor-specific copy of said web service.; wherein said apparatus is the operator terminal (420, 620) and said controller is further configured to: provide a script tag to the server (450, 650) for inclusion in a web service, which script tag enables said visitor terminal (410, 610) to request establishment of a connection between the operator terminal (420, 620) and the visitor terminal (410, 610) through a communication server; establish said connection and inject said additional data into said dataflow through said connection. identify at least one visitor terminal (410, 610) accessing a web service; generate a visitor-specific copy of said web service; share said visitor-specific copy between said at least one visitor terminal (410, 610) and an operator terminal (420, 620); receive additional data and to inject said additional data into a data flow from a server (450, 650) to said visitor terminal (410, 610) to provide said visitor terminal (410, 610) with an updated visitor-specific copy of said web service.; wherein said apparatus is the operator terminal (420, 620) and said controller is further configured to: provide a script tag to the server (450, 650) for inclusion in a web service, which script tag enables said visitor terminal (410, 610) to request establishment of a connection between the operator terminal (420, 620) and the visitor terminal (410, 610) through a communication server; establish said connection and inject said additional data into said dataflow through said connection. provide a script tag to the server (450, 650) for inclusion in a web service, which script tag enables said visitor terminal (410, 610) to request establishment of a connection between the operator terminal (420, 620) and the visitor terminal (410, 610) through a communication server; establish said connection and inject said additional data into said dataflow through said connection.
An apparatus, comprising: a semiconductor die including a core area and a pad ring; timer based clamping circuitry configured in the core area, the clamping circuitry including: a number of capacitor blocks, each comprising a capacitor, located in a first location of the core area; a number of resistor blocks, each comprising a resistor, located in a second location of the core area; a number of inverter blocks, each comprising an inverter, located in a third location of the core area; and a number of inverter plus bigFET blocks, each comprising an inverter plus bigFET, located in a fourth location of the core area, wherein the first, second, third, and fourth locations are distributed apart from each other in the core area; and a plurality of chip level conductive couplings arranged to couple the distributed building blocks. a semiconductor die including a core area and a pad ring; timer based clamping circuitry configured in the core area, the clamping circuitry including: a number of capacitor blocks, each comprising a capacitor, located in a first location of the core area; a number of resistor blocks, each comprising a resistor, located in a second location of the core area; a number of inverter blocks, each comprising an inverter, located in a third location of the core area; and a number of inverter plus bigFET blocks, each comprising an inverter plus bigFET, located in a fourth location of the core area, wherein the first, second, third, and fourth locations are distributed apart from each other in the core area; and a number of capacitor blocks, each comprising a capacitor, located in a first location of the core area; a number of resistor blocks, each comprising a resistor, located in a second location of the core area; a number of inverter blocks, each comprising an inverter, located in a third location of the core area; and a number of inverter plus bigFET blocks, each comprising an inverter plus bigFET, located in a fourth location of the core area, wherein the first, second, third, and fourth locations are distributed apart from each other in the core area; and a plurality of chip level conductive couplings arranged to couple the distributed building blocks.
An extended release pharmaceutical formulation for use in the vitreous for the treatment of vascular eye disorders, the pharmaceutical formulation comprising microparticles having a diameter of from 2 microns to 70 microns, the microparticles having a protein particle core within a polymer cortex, the protein particle containing less than 3% water by weight, wherein the microparticles release the protein in a physiological aqueous environment at about 37°C at a rate of from about 0.01 mg/week to about 0.30 mg/week over at least 60 days.
A resource allocation method, comprising: determining, by a base station, for an ACKnowledgement or Non-ACKnowledgement, ACK/NACK, channel corresponding to a downlink carrier, one physical channel area among multiple physical channel areas, wherein the physical channel area is dynamically selected and is a Long Term Evolution, LTE, area or a Long Term Evolution-Advanced, LTE-A, specific area, whereby the ACK/NACK channel corresponding to non-paired downlink carriers is mapped to the configured LTE-A specific area and the ACK/NACK channel corresponding to paired downlink carriers is mapped to the physical LTE channel area reserved by the LTE system for sending or receiving ACK/NACK information according to a rule of the LTE system, the paired carriers have a number of uplink carriers equal to the number of the downlink carriers, and the non-paired carriers have no corresponding paired carriers for feeding back ACK/NACK messages; and notifying, by the base station, information about the determined physical channel area to a User Equipment, UE, by signaling, wherein the information about the determined physical channel area is for the UE to determine an uplink ACK/NACK channel in the determined physical channel area according to a mapping rule. determining, by a base station, for an ACKnowledgement or Non-ACKnowledgement, ACK/NACK, channel corresponding to a downlink carrier, one physical channel area among multiple physical channel areas, wherein the physical channel area is dynamically selected and is a Long Term Evolution, LTE, area or a Long Term Evolution-Advanced, LTE-A, specific area, whereby the ACK/NACK channel corresponding to non-paired downlink carriers is mapped to the configured LTE-A specific area and the ACK/NACK channel corresponding to paired downlink carriers is mapped to the physical LTE channel area reserved by the LTE system for sending or receiving ACK/NACK information according to a rule of the LTE system, the paired carriers have a number of uplink carriers equal to the number of the downlink carriers, and the non-paired carriers have no corresponding paired carriers for feeding back ACK/NACK messages; and notifying, by the base station, information about the determined physical channel area to a User Equipment, UE, by signaling, wherein the information about the determined physical channel area is for the UE to determine an uplink ACK/NACK channel in the determined physical channel area according to a mapping rule.
A method, comprising: executing a convolutional neural network layer on an image processor comprising multiple stencil processors (102;300;1202), each stencil processor having an array (305;405) of execution lanes and a two-dimensional shift register (306;406), the two-dimensional shift register being arranged to provide local respective register space for the execution lanes of the respective stencil processor (102;300;1202), the executing of the convolutional neural network comprising carrying out the following steps on each of the stencil processors using the same three-dimensional block of image data (701;801;901;1001) but a different coefficient set (702;802;902;1002) of the convolutional neural network layer for each of the stencil processors: a) loading a plane of image data of the three-dimensional block of image data (701;801;901;1001) into the two-dimensional shift register; and b) performing a two-dimensional convolution of the plane of image data with an array of coefficient values of the coefficient set (702;802;902;1002) for the respective stencil processor by sequentially: concurrently multiplying within the execution lanes respective pixel and coefficient values to produce an array of partial products; concurrently summing within the execution lanes the partial products with respective accumulations of partial products being kept within the two dimensional register for different stencils within the image data; and, effecting alignment of values for the two-dimensional convolution within the execution lanes by shifting content within the two-dimensional shift register array. a) loading a plane of image data of the three-dimensional block of image data (701;801;901;1001) into the two-dimensional shift register; and b) performing a two-dimensional convolution of the plane of image data with an array of coefficient values of the coefficient set (702;802;902;1002) for the respective stencil processor by sequentially: concurrently multiplying within the execution lanes respective pixel and coefficient values to produce an array of partial products; concurrently summing within the execution lanes the partial products with respective accumulations of partial products being kept within the two dimensional register for different stencils within the image data; and, effecting alignment of values for the two-dimensional convolution within the execution lanes by shifting content within the two-dimensional shift register array. concurrently multiplying within the execution lanes respective pixel and coefficient values to produce an array of partial products; concurrently summing within the execution lanes the partial products with respective accumulations of partial products being kept within the two dimensional register for different stencils within the image data; and, effecting alignment of values for the two-dimensional convolution within the execution lanes by shifting content within the two-dimensional shift register array.
Method of soft coating for a confectionery centre comprising: a. the provision of a confectionery core; b. optionally, a gumming step; c. a coating step by: i. applying at least a first sugar-alcohol syrup having a rheometer viscosity at 60°C between 1600 mPa.s and 120 mPa.s, and/or a dry matter between 70 and 87% (mass/mass); ii. applying a first pulverulent sugar-alcohol composition comprising an average particle size D(0.5) of less than 600 μm; iii. applying a second pulverulent sugar-alcohol composition comprising an average particle size D(0.5) of less than 500 μm; iv. steps c.i), c.ii) and/or c.iii) are repeated, preferably at least four consecutive times; d. a step of finishing the coating by: i) applying at least a second sugar-alcohol syrup having a rheometer viscosity between 20mPa.s and 50mPa.s, and/or a dry matter of between 50 and 70% (mass/mass); ii) applying the first and/or the second pulverulent composition of sugar-alcohol; iii) optionally, steps d.i) and d.ii) repeated at least once; e. optionally, a step of polishing and/or applying a shine agent; f. optionally, a step of applying a sealing agent. a. the provision of a confectionery core; b. optionally, a gumming step; c. a coating step by: i. applying at least a first sugar-alcohol syrup having a rheometer viscosity at 60°C between 1600 mPa.s and 120 mPa.s, and/or a dry matter between 70 and 87% (mass/mass); ii. applying a first pulverulent sugar-alcohol composition comprising an average particle size D(0.5) of less than 600 μm; iii. applying a second pulverulent sugar-alcohol composition comprising an average particle size D(0.5) of less than 500 μm; iv. steps c.i), c.ii) and/or c.iii) are repeated, preferably at least four consecutive times; i. applying at least a first sugar-alcohol syrup having a rheometer viscosity at 60°C between 1600 mPa.s and 120 mPa.s, and/or a dry matter between 70 and 87% (mass/mass); ii. applying a first pulverulent sugar-alcohol composition comprising an average particle size D(0.5) of less than 600 μm; iii. applying a second pulverulent sugar-alcohol composition comprising an average particle size D(0.5) of less than 500 μm; iv. steps c.i), c.ii) and/or c.iii) are repeated, preferably at least four consecutive times; d. a step of finishing the coating by: i) applying at least a second sugar-alcohol syrup having a rheometer viscosity between 20mPa.s and 50mPa.s, and/or a dry matter of between 50 and 70% (mass/mass); ii) applying the first and/or the second pulverulent composition of sugar-alcohol; iii) optionally, steps d.i) and d.ii) repeated at least once; i) applying at least a second sugar-alcohol syrup having a rheometer viscosity between 20mPa.s and 50mPa.s, and/or a dry matter of between 50 and 70% (mass/mass); ii) applying the first and/or the second pulverulent composition of sugar-alcohol; iii) optionally, steps d.i) and d.ii) repeated at least once; e. optionally, a step of polishing and/or applying a shine agent; f. optionally, a step of applying a sealing agent.
A method for controlling a painting robot for series coating of workpieces, wherein the painting robot has a plurality of motion axes, with the following steps: - detecting the position (x, y, z) of at least one reference point on the painting robot, - comparing the position (x, y, z) of the reference point with at least one specified limit value (x S, y S, z S), wherein the limit value (x S, y S, z S) defines a region which is blocked for the robot movement, - influencing the robot movement as a function of the distance between the position (x, y, z) of the reference point and the specified limit value (x S, y S, z S) - detecting the robot speed (v 1, v 2, v 3), characterised in that a) a safety distance (Δx, Δy, Δz) is ascertained as a function of the robot speed (v 1, v 2, v 3), the robot movement being influenced if the position (x, y, z) of the reference point reaches or drops below the safety distance (Δx, Δy, Δz) from the specified limit value (x S, y S, z S), b) the robot speed (v 1, v 2, v 3) is detected in the plurality of motion axes of the painting robot, and c) the safety distance (Δx, Δy, Δz) for a plurality of spatial directions is determined as a function of the absolute value of the robot speed (v 1, v 2, v 3) in the different motion axes and/or the direction of the robot movement in the individual motion axes and/or the position of the painting robot in the individual motion axes. - detecting the position (x, y, z) of at least one reference point on the painting robot, - comparing the position (x, y, z) of the reference point with at least one specified limit value (x S, y S, z S), wherein the limit value (x S, y S, z S) defines a region which is blocked for the robot movement, - influencing the robot movement as a function of the distance between the position (x, y, z) of the reference point and the specified limit value (x S, y S, z S) - detecting the robot speed (v 1, v 2, v 3), a) a safety distance (Δx, Δy, Δz) is ascertained as a function of the robot speed (v 1, v 2, v 3), the robot movement being influenced if the position (x, y, z) of the reference point reaches or drops below the safety distance (Δx, Δy, Δz) from the specified limit value (x S, y S, z S), b) the robot speed (v 1, v 2, v 3) is detected in the plurality of motion axes of the painting robot, and c) the safety distance (Δx, Δy, Δz) for a plurality of spatial directions is determined as a function of the absolute value of the robot speed (v 1, v 2, v 3) in the different motion axes and/or the direction of the robot movement in the individual motion axes and/or the position of the painting robot in the individual motion axes.
A system for verifying ACARS messages received at an aircraft and emitted from a ground entity, both provided with Aircraft Communications Addressing and Reporting Systems "ACARS", the system is characterised in that it comprises: i) a database having attack data; ii) a flight data acquisition module configured to gather real-time flight parameters from aircraft systems; iii) an auxiliary module configured to convert ACARS messages into a preformatted data; iv) a detection module configured to process the preformatted data; v) a protection module configured to perform protecting actions; wherein the detection module is further configured to perform in parallel at least one of the following scanning actions: • an statistical analysis; • a grammatical validation; • a semantic inspection; over the preformatted data based at least on the attack data and on the real-time flight parameters so that the detection module is able to detect an attack, thus informing to the protection module to perform a protecting action. i) a database having attack data; ii) a flight data acquisition module configured to gather real-time flight parameters from aircraft systems; iii) an auxiliary module configured to convert ACARS messages into a preformatted data; iv) a detection module configured to process the preformatted data; v) a protection module configured to perform protecting actions; wherein the detection module is further configured to perform in parallel at least one of the following scanning actions: • an statistical analysis; • a grammatical validation; • a semantic inspection; • an statistical analysis; • a grammatical validation; • a semantic inspection;
Smart card comprising a fingerprint sensor, characterized in that the smart card further comprises a detection circuit comprising at least one first electrode and one second electrode that are isolated from one another and form an open circuit in the detection circuit, the first electrode and the second electrode being disposed so that, when a user presses a first finger onto the fingerprint sensor, the first finger is in contact with the first electrode and the user can press a second finger onto the second electrode so as to form a loop closing the open circuit, the detection circuit further comprising a filtering circuit linked to the first electrode and to the second electrode, a generator arranged to generate first signals at the terminals of the filtering circuit, and processing means arranged to acquire second signals on one of the first electrode and second electrode and to detect from the second signals if the first finger and the second finger comprise a bogus finger.
Use of nanoparticles of at least one oxide of at least one transition metal doped with a rare earth element, obtained through a sol-gel process, as a sensitive material in a chemical sensor for detecting or assaying vapors of one or more target compound(s) or molecule(s); in which the nanoparticles are present in the sensor in the form of a solid thin film of nanoparticles; preferably mesoporous, said thin film being characterized by a thickness of 2 nanometers to one micrometer; preferably of 100 nm to 300 nm, for example 200 nm.
A device for fastening a headrest of a piece of seating furniture or of a piece of reclining furniture to a backrest of the piece of seating furniture or of the piece of reclining furniture, respectivel, and for adjusting the headrest relative to the backrest, - comprising a shaft extending along its longitudinal axis (L s), which is intended for arrangement on the headrest, and a sleeve extending along its longitudinal axis (L H), which is intended for arrangement on the backrest, - wherein the shaft is properly mounted in the sleeve, - wherein the shaft is shiftable in the sleeve along its longitudinal axis (L s) and along the longitudinal axis (L H) of the sleeve in order to adjust the height of the headrest relative to the backrest, and - wherein a fastening element, which serves to fasten the headrest to the shaft, is rotatably fastened to the shaft, in particular to a first end of the shaft, wherein the fastening element is rotatable about an axis which extends substantially perpendicularly to the longitudinal axis (L s) of the shaft, characterized in that an insert with a feed-through opening for the shaft is arranged in or on a portion of the sleeve, wherein the insert is pretensioned in a direction transverse to the longitudinal axis (L H) of the sleeve. - comprising a shaft extending along its longitudinal axis (L s), which is intended for arrangement on the headrest, and a sleeve extending along its longitudinal axis (L H), which is intended for arrangement on the backrest, - wherein the shaft is properly mounted in the sleeve, - wherein the shaft is shiftable in the sleeve along its longitudinal axis (L s) and along the longitudinal axis (L H) of the sleeve in order to adjust the height of the headrest relative to the backrest, and - wherein a fastening element, which serves to fasten the headrest to the shaft, is rotatably fastened to the shaft, in particular to a first end of the shaft, wherein the fastening element is rotatable about an axis which extends substantially perpendicularly to the longitudinal axis (L s) of the shaft,