mhurhangee/ep-ind-claims huggingface dataset:
A method for driving a buffer circuit, wherein the buffer circuit includes an output terminal; a first transistor whose drain is connected to a clock signal (CLK1b) that is of at least one of a first voltage and a second voltage lower than the first voltage, the first transistor for supplying the clock signal to the output terminal; and a second transistor connected to a voltage source that supplies a third voltage lower than the first voltage, the second transistor for supplying the third voltage to the output terminal, the method comprising: causing the first transistor to switch to a conducting state in a first period in which the clock signal is of the first voltage; causing both the first transistor and the second transistor to be in the conducting state in a second period in which the clock signal is of the second voltage, following the first period in which the clock signal is of the first voltage and in which the voltage output to the output terminal has reached the first voltage; and causing a control signal of the first transistor to be at the second voltage in a third period following the second period; the method being characterized in that the second voltage is set as a voltage lower than the third voltage causing the first transistor to switch to a conducting state in a first period in which the clock signal is of the first voltage; causing both the first transistor and the second transistor to be in the conducting state in a second period in which the clock signal is of the second voltage, following the first period in which the clock signal is of the first voltage and in which the voltage output to the output terminal has reached the first voltage; and causing a control signal of the first transistor to be at the second voltage in a third period following the second period; the method being characterized in that the second voltage is set as a voltage lower than the third voltage
Method for treating a fibre stock for making of paper, board or the like, the method comprising - obtaining a fibre thick stock, - adding to the fibre thick stock at least one cationic first agent, selected from group comprising cationic starch having a charge density of 0.1 - 2 meq/g; cationic copolymers of acrylamide or methacrylamide, having a charge density of 0.2 - 5 meq/g; and any of their mixture; - adding separately to the fibre stock and after the addition of the cationic first agent, at least one anionic second agent, which is an water-soluble anionic copolymer of acrylamide, methacrylamide or acrylonitrile, and which has an anionic charge of 0.4 - 5 meq/g in such amount that the ratio of the added absolute cationic charge to the added absolute anionic charge is from 1:0.1 to 1:0.95, whereby the cationic first agent is allowed to interact with the fibres in the thick stock before the anionic second agent is added. - obtaining a fibre thick stock, - adding to the fibre thick stock at least one cationic first agent, selected from group comprising cationic starch having a charge density of 0.1 - 2 meq/g; cationic copolymers of acrylamide or methacrylamide, having a charge density of 0.2 - 5 meq/g; and any of their mixture; - adding separately to the fibre stock and after the addition of the cationic first agent, at least one anionic second agent, which is an water-soluble anionic copolymer of acrylamide, methacrylamide or acrylonitrile, and which has an anionic charge of 0.4 - 5 meq/g in such amount that the ratio of the added absolute cationic charge to the added absolute anionic charge is from 1:0.1 to 1:0.95, whereby the cationic first agent is allowed to interact with the fibres in the thick stock before the anionic second agent is added.
A packaging filled with powder, the packaging comprising: a container provided with a base, the inside wall of the container consisting of a heat-sealable material; a heat-sealable film above the powder and joined by heat-sealing to said inside wall of the container; characterised by a lid rim fixed to a top edge of the container at a distance from the heat-sealable film; and a lid hingedly connected to the lid rim, a scoop for dosing said powder, the scoop being accommodated within a top part of the container and placed on the heat-sealable film; wherein the powder is a pulverulent baby food and an inert gas is sealed within the container beneath the heat-sealable film. a container provided with a base, the inside wall of the container consisting of a heat-sealable material; a heat-sealable film above the powder and joined by heat-sealing to said inside wall of the container; characterised by a lid rim fixed to a top edge of the container at a distance from the heat-sealable film; and a lid hingedly connected to the lid rim, a scoop for dosing said powder, the scoop being accommodated within a top part of the container and placed on the heat-sealable film; wherein the powder is a pulverulent baby food and an inert gas is sealed within the container beneath the heat-sealable film.
A method of storing data comprising the steps of: a) separating the data into a plurality of data subsets; b) generating parity data from the plurality of data subsets such that any one or more of the plurality of data subsets may be recreated from the remaining data subsets and the parity data; c) repeating steps a and b on each of the plurality of data subsets and parity data providing further data subsets and further parity data; the method being characterized by the step of: d) storing each of the further data subsets and further parity data in separate storage locations, wherein the separate storage locations are remote from each other and accessed over an external network. a) separating the data into a plurality of data subsets; b) generating parity data from the plurality of data subsets such that any one or more of the plurality of data subsets may be recreated from the remaining data subsets and the parity data; c) repeating steps a and b on each of the plurality of data subsets and parity data providing further data subsets and further parity data; the method being characterized by the step of: d) storing each of the further data subsets and further parity data in separate storage locations, wherein the separate storage locations are remote from each other and accessed over an external network.
Device for conveying products within a production line, between an upstream station dispensing in accordance with a first referencing of products, and a downstream station supplied with said products in accordance with another referencing; said device comprising: - at least one conveyor extending between said upstream station and said downstream station, which conveyor is configured to transport said products in accordance with said other referencing in at least one conveying direction; - said conveyor comprising a receiving zone at said upstream station and a zone for supplying said downstream station; - means for accompanying the products by pushing, said accompanying means comprising a section extending parallel with respect to at least a portion of said at least one conveyor, located between said upstream station and said downstream station; characterized in that: - said portion comprises a fixed downstream end; - said portion and said receiving zone are integrally movable between a top position and a bottom position, said portion being movable around its fixed downstream end; and - said section is jointly movable with said portion. - at least one conveyor extending between said upstream station and said downstream station, which conveyor is configured to transport said products in accordance with said other referencing in at least one conveying direction; - said conveyor comprising a receiving zone at said upstream station and a zone for supplying said downstream station; - means for accompanying the products by pushing, said accompanying means comprising a section extending parallel with respect to at least a portion of said at least one conveyor, located between said upstream station and said downstream station; - said portion comprises a fixed downstream end; - said portion and said receiving zone are integrally movable between a top position and a bottom position, said portion being movable around its fixed downstream end; and - said section is jointly movable with said portion.
A method of forming adaptive insulation comprising: forming an insulative material from at least first and second structural components (18, 20), wherein the first and second structural components (18, 20) are joined together and are comprised of first and second materials, respectively, that have different coefficients of thermal expansion such that the insulative material is configured to change shape in response to changes in temperature; and integrating the insulative material formed of at least the first and second structural components (18, 20) with a non-adaptive insulative material, characterised in that the first structural component comprises a sheet formed of the first material and the second structural component comprises a plurality of pieces of the second material, and wherein forming the insulative material comprises joining the plurality of pieces to the sheet with the plurality of pieces being spaced apart from one another. forming an insulative material from at least first and second structural components (18, 20), wherein the first and second structural components (18, 20) are joined together and are comprised of first and second materials, respectively, that have different coefficients of thermal expansion such that the insulative material is configured to change shape in response to changes in temperature; and integrating the insulative material formed of at least the first and second structural components (18, 20) with a non-adaptive insulative material, characterised in that the first structural component comprises a sheet formed of the first material and the second structural component comprises a plurality of pieces of the second material, and wherein forming the insulative material comprises joining the plurality of pieces to the sheet with the plurality of pieces being spaced apart from one another.
Circuit for software tracing in a system on a chip comprising a plurality of components (311, 312, 31x), each component comprising at least one local processor connected to a local communication bus; each component being connected to a global communication bus; wherein the circuit further comprises a separate ring shaped trace data bus being configured to transmit trace data generated by code running on the components; each component further comprising a trace slave module (36, 41) being configured to receive, store and transmit software trace data generated on said component and being connected to said local bus of said component; the circuit further comprising a trace master module (37, 51) being configured to receive software trace data transmitted by a plurality of trace slave modules and being configured to transmit the software trace data to an external trace data acquisition interface; the trace slave modules (36, 41) and the trace master module (37, 51) being connected by the ring shaped trace data bus; wherein the trace master module (37, 51) is configured to control trace data scheduling by injecting a trace data transmission authorization token into the trace data stream on the ring shaped trace data bus; a trace slave module (36, 41) is configured to forward all incoming trace data it is receiving from a previous trace slave module on the ring shaped trace data bus and drain its stored trace data into the trace data stream on the ring shaped trace data bus upon detection of said trace data transmission authorization token and is further configured to forward the trace data transmission authorization token as part of the trace data stream back to the trace master module (37, 51); and the trace master module (37, 51) is further configured to receive and detect the trace data authorization token and to transmit the trace data to the external trace data acquisition interface upon detection of the trace data authorization token.
Mobile phone having a control device which is configured to carry out a function which assists a driver in driving a vehicle, characterized by an acceleration sensor which is designed to measure an acceleration of the mobile phone and to transfer measured values for the acceleration to the control device, wherein the control device is configured to carry out the function in accordance with the measured values for the acceleration by actuating a component of the vehicle.
A polymeric particle comprising a core, a first shell, and a second shell: said core comprising, when dry, at least one void; said first shell polymer having a calculated glass transition temperature ("Tg") greater than 50 °C and comprising, as polymerized units, from 15% to 60%, by weight based on the weight of said first shell polymer, monomer selected from the group consisting of acrylonitrile, methacrylonitrile, acrylamide, methacrylamide, and mixtures thereof; and from 0.3% to 10%, by weight based on the weight of said first shell polymer, multiethylenically unsaturated monomer; and said second shell polymer having a Tg of from -60 °C to 50 °C; wherein the weight ratio of said second shell polymer to the total of all other structures of said polymeric particle is from 0.5:1 to 3:1. said core comprising, when dry, at least one void; said first shell polymer having a calculated glass transition temperature ("Tg") greater than 50 °C and comprising, as polymerized units, from 15% to 60%, by weight based on the weight of said first shell polymer, monomer selected from the group consisting of acrylonitrile, methacrylonitrile, acrylamide, methacrylamide, and mixtures thereof; and from 0.3% to 10%, by weight based on the weight of said first shell polymer, multiethylenically unsaturated monomer; and said second shell polymer having a Tg of from -60 °C to 50 °C; wherein the weight ratio of said second shell polymer to the total of all other structures of said polymeric particle is from 0.5:1 to 3:1.
A self-sealing tyre for vehicle wheels comprising: at least one carcass ply, a tread band applied in a radially external position with respect to said carcass ply in a crown region, at least one liner applied in radially internal position with respect to said carcass ply, a sealing assembly applied in radially internal position with respect to the liner and axially extended at least at a part of the crown portion of the tyre; wherein said sealing assembly comprises a self-supporting elastomeric film comprising at least 50% by weight with respect to the weight of the film itself of a thermoplastic elastomeric polyurethane, and a layer of sealing material associated with and supported by said self-supporting elastomeric film; wherein-the self-supporting elastomeric film is radially internal with respect to the layer of sealing material and said layer of sealing material is arranged substantially in contact with the liner. at least one carcass ply, a tread band applied in a radially external position with respect to said carcass ply in a crown region, at least one liner applied in radially internal position with respect to said carcass ply, a sealing assembly applied in radially internal position with respect to the liner and axially extended at least at a part of the crown portion of the tyre; wherein said sealing assembly comprises a self-supporting elastomeric film comprising at least 50% by weight with respect to the weight of the film itself of a thermoplastic elastomeric polyurethane, and a layer of sealing material associated with and supported by said self-supporting elastomeric film; wherein-the self-supporting elastomeric film is radially internal with respect to the layer of sealing material and said layer of sealing material is arranged substantially in contact with the liner.
A flexible sensor patch comprising: a flexible base having outer and inner surfaces and a periphery; an adhesive layer disposed on at least a portion of the outer surface; a sensor comprising a capacitive sensor element, the capacitive sensor element comprising: a first conductive electrode; a second conductive electrode; and a dielectric microporous material disposed between the first and second conductive electrodes; and the sensor further comprising a radiofrequency transponder disposed on the flexible base and coplanar with the first conductive electrode which is surrounded by the radiofrequency transponder, and a flexible porous cover secured to the flexible base along at least major portion of the periphery, wherein the flexible porous cover and the flexible base collectively enclose at least a major portion of the sensor. a flexible base having outer and inner surfaces and a periphery; an adhesive layer disposed on at least a portion of the outer surface; a sensor comprising a capacitive sensor element, the capacitive sensor element comprising: a first conductive electrode; a second conductive electrode; and a dielectric microporous material disposed between the first and second conductive electrodes; and the sensor further comprising a radiofrequency transponder disposed on the flexible base and coplanar with the first conductive electrode which is surrounded by the radiofrequency transponder, and a first conductive electrode; a second conductive electrode; and a dielectric microporous material disposed between the first and second conductive electrodes; and the sensor further comprising a radiofrequency transponder disposed on the flexible base and coplanar with the first conductive electrode which is surrounded by the radiofrequency transponder, and a flexible porous cover secured to the flexible base along at least major portion of the periphery, wherein the flexible porous cover and the flexible base collectively enclose at least a major portion of the sensor.
An anonymizing method for a database system, comprising the steps of: receiving a new list of user IDs in response to a new query, where a user ID identifies a single user or any other entity whose individual privacy is to be preserved; comparing the new list with at least one stored list to determine a new user count, the new user count being a number of users that are in the new list but not the stored list; generating a noisy difference value by adding noise to the new user count; comparing the noisy difference value to a first threshold value stored in memory; outputting a noisy count corresponding to the stored list if the noisy difference value is less than the first threshold value; and outputting a new noisy count for the new list if the noisy difference value is greater than the first threshold value. receiving a new list of user IDs in response to a new query, where a user ID identifies a single user or any other entity whose individual privacy is to be preserved; comparing the new list with at least one stored list to determine a new user count, the new user count being a number of users that are in the new list but not the stored list; generating a noisy difference value by adding noise to the new user count; comparing the noisy difference value to a first threshold value stored in memory; outputting a noisy count corresponding to the stored list if the noisy difference value is less than the first threshold value; and outputting a new noisy count for the new list if the noisy difference value is greater than the first threshold value.
A method of operating a telemetry system, the method comprising: automatically populating a base field of a schema in an event definition using a logging library of the telemetry system for an event of an instrumented software application; and automatically populating a conditional field of the schema in the event definition using the logging library in response to a selected condition for the event, the conditional field being one of: statically determined and automatically populated for all application events for a given environmental subset of the instrumented software application, wherein the given environmental subset includes an application platform, an operating system, or a cloud environment; and dynamically determined and automatically populated for all events of a given use subset for the instrumented software application, wherein the given use subset includes the instrumented software application being connected to a specific network. automatically populating a base field of a schema in an event definition using a logging library of the telemetry system for an event of an instrumented software application; and automatically populating a conditional field of the schema in the event definition using the logging library in response to a selected condition for the event, the conditional field being one of: statically determined and automatically populated for all application events for a given environmental subset of the instrumented software application, wherein the given environmental subset includes an application platform, an operating system, or a cloud environment; and dynamically determined and automatically populated for all events of a given use subset for the instrumented software application, wherein the given use subset includes the instrumented software application being connected to a specific network. statically determined and automatically populated for all application events for a given environmental subset of the instrumented software application, wherein the given environmental subset includes an application platform, an operating system, or a cloud environment; and dynamically determined and automatically populated for all events of a given use subset for the instrumented software application, wherein the given use subset includes the instrumented software application being connected to a specific network.