mhurhangee/ep-ind-claims huggingface dataset:
A process comprising co-processing at least a fossil-based feed, pyrolysis liquid derived from a renewable material and a distillation residue from tall oil distillation in an oil refinery conversion process, wherein the total content of the pyrolysis liquid and the distillation residue is in the range of 1.0 to 80.0 wt.-% based on the whole feedstock.
Processing method intended to make it possible to produce an image, referred to as the final image, comprising a juxtaposition of image elements in a substrate having a thickness and producing a thickness image such that a shadow effect of each image element is produced on its neighbouring image elements, said method comprising a step of determining, on the basis of a target image referred to as the objective image, an improved production setpoint which can be used as input by an image production device to produce said final image; where the determining step comprises the following steps: - modelling the image production device with a transfer function F transforming a plurality of production setpoints S into a corresponding predicted image, and - determining, by inverting the transfer function F, the improved production setpoint which can be used as input by the production device to produce said final image, so as to at least partially correct the shadow effect in the final image, in which said determining step comprises an automatic iterative computation minimizing a colorimetric distance between the objective image and an image predicted by the transfer function F applied to a production setpoint S. said method comprising a step of determining, on the basis of a target image referred to as the objective image, an improved production setpoint which can be used as input by an image production device to produce said final image; where the determining step comprises the following steps: - modelling the image production device with a transfer function F transforming a plurality of production setpoints S into a corresponding predicted image, and - determining, by inverting the transfer function F, the improved production setpoint which can be used as input by the production device to produce said final image, so as to at least partially correct the shadow effect in the final image, - modelling the image production device with a transfer function F transforming a plurality of production setpoints S into a corresponding predicted image, and - determining, by inverting the transfer function F, the improved production setpoint which can be used as input by the production device to produce said final image, so as to at least partially correct the shadow effect in the final image, in which said determining step comprises an automatic iterative computation minimizing a colorimetric distance between the objective image and an image predicted by the transfer function F applied to a production setpoint S.
A beverage dispensing device including: a body configured to receive and dispense a supply of draught beverage from a source, the beverage dispensing device including: a tap mounted thereto for dispensing said draught beverage; and an infusion chamber, whereby the infusion chamber defines an enclosed space for receiving one or more infusion products; whereby the infusion chamber is openable so as to be filled with one or more infusion products; and whereby the infusion chamber is in fluid communication with said body so as to receive the supply of draught beverage therefrom such that the beverage passes through said infusion chamber prior to being dispensed from the tap, characterised in that the infusion chamber is mounted to said body so as to be positioned above said body; and in that the infusion chamber is configured to receive the supply of draught beverage via a delivery pipe that projects from the body of the dispensing device to extend within the infusion chamber and terminate adjacent an upper region of the infusion chamber; and in that the body has an outlet formed on an upper surface thereof for receiving the draught beverage present in the infusion chamber.
A method of registering a priority of physical-layer systems with an application server within a wireless communications system, comprising: registering an access terminal with each of a plurality of systems, each of the plurality of systems associated with a different physical-layer; obtaining contact information by which the access terminal can be contacted over each of the plurality of systems; determining a system prioritization of each of the plurality of systems for the access terminal after registering with each of the plurality of systems; and registering the access terminal with the application server that is configured to arbitrate communication sessions for the access terminal after determining the system prioritization of each of the plurality of systems by reporting, to the application server, (i) the system prioritization and (ii) the contact information of each of the plurality of systems in a single registration message. registering an access terminal with each of a plurality of systems, each of the plurality of systems associated with a different physical-layer; obtaining contact information by which the access terminal can be contacted over each of the plurality of systems; determining a system prioritization of each of the plurality of systems for the access terminal after registering with each of the plurality of systems; and registering the access terminal with the application server that is configured to arbitrate communication sessions for the access terminal after determining the system prioritization of each of the plurality of systems by reporting, to the application server, (i) the system prioritization and (ii) the contact information of each of the plurality of systems in a single registration message.
Forming tool for producing a composite component which consists of a carrier inserted into the forming tool and fixed therein by means of a vacuum and a material layer to be connected in the forming tool at least partially to the carrier, wherein a carrier receiving geometry is present in the forming tool, which comprises vacuum cups and a plurality of vacuum fields (5, 6, 7), characterised in that the forming tool is designed such that the individual vacuum cups (5, 6, 7) are activated in a cascade shape and direction-oriented, proceeding from a first vacuum field.
A method comprising: receiving, by a user equipment, a set of reference signals from a network controller; sending, by the UE, a measurement report to the network controller based on a first reference signal of the received reference signals; determining, by the UE, that a quantity of the first reference signal reported in the measurement report exceeds a threshold; and based thereon monitoring, by the UE, a physical downlink control channel, PDCCH, over a search space on a first control resource set, CORESET, a spatial quasi-colocation, QCL, field in a transmission configuration indication, TCI, state of the first CORESET being set to a resource index of the first reference signal; and wherein the UE stops monitoring the PDCCH over the search space on the first CORESET responsive to the UE failing to detect a DCI message within a number of slots. receiving, by a user equipment, a set of reference signals from a network controller; sending, by the UE, a measurement report to the network controller based on a first reference signal of the received reference signals; determining, by the UE, that a quantity of the first reference signal reported in the measurement report exceeds a threshold; and based thereon monitoring, by the UE, a physical downlink control channel, PDCCH, over a search space on a first control resource set, CORESET, a spatial quasi-colocation, QCL, field in a transmission configuration indication, TCI, state of the first CORESET being set to a resource index of the first reference signal; and wherein the UE stops monitoring the PDCCH over the search space on the first CORESET responsive to the UE failing to detect a DCI message within a number of slots.
An active pen that is configured to transmit, through coupling capacitance, a signal to a sensor electrode group connected to a sensor controller, the active pen comprising: a pen tip electrode provided on a leading end in a pen axis direction of the active pen; a peripheral electrode provided behind in the pen axis direction as viewed from the pen tip electrode; and a signal processing unit that is configured to transmit a downlink signal through the pen tip electrode and that is configured to transmit a reverse-phase signal of the downlink signal from the peripheral electrode at the same time, characterized in that: for enabling detection of a rotation angle of the active pen about the pen axis by the sensor controller, the peripheral electrode includes a plurality of segmented electrodes (22b, 22c) having anisotropic shapes with respect to rotation about the pen axis, and the signal processing unit is configured to individually switch each of the plurality of segmented electrodes (22b, 22c) to transmit the downlink signal or to transmit the reverse-phase signal. a pen tip electrode provided on a leading end in a pen axis direction of the active pen; a peripheral electrode provided behind in the pen axis direction as viewed from the pen tip electrode; and a signal processing unit that is configured to transmit a downlink signal through the pen tip electrode and that is configured to transmit a reverse-phase signal of the downlink signal from the peripheral electrode at the same time, characterized in that: for enabling detection of a rotation angle of the active pen about the pen axis by the sensor controller, the peripheral electrode includes a plurality of segmented electrodes (22b, 22c) having anisotropic shapes with respect to rotation about the pen axis, and the signal processing unit is configured to individually switch each of the plurality of segmented electrodes (22b, 22c) to transmit the downlink signal or to transmit the reverse-phase signal. for enabling detection of a rotation angle of the active pen about the pen axis by the sensor controller, the peripheral electrode includes a plurality of segmented electrodes (22b, 22c) having anisotropic shapes with respect to rotation about the pen axis, and the signal processing unit is configured to individually switch each of the plurality of segmented electrodes (22b, 22c) to transmit the downlink signal or to transmit the reverse-phase signal.
Method for limiting the production of pollutants, in particular fine particles, of a thermal engine of a hybrid vehicle, during the starting phase of said thermal engine, said hybrid vehicle comprising an engine structure comprising said thermal engine, an electric motor, a primary shaft and a clutch arranged between said heat engine and said electric motor, said heat engine having a maximum torque of operation, said method using a computer and comprising the following steps: - a step a) of obtaining the maximum quantity of pollutants (QTEM) to reject; - a step b) of obtaining an operating curve (CFONC) of said heat engine indicating the quantity of pollutants released as a function of the torque generated by said heat engine; - a step c) of determining a maximum torque to be generated by said heat engine for the quantity of pollutants to be rejected (QTEM) from said operating curve (CFONC); - a step d) of calculating a target speed (REGCI) of the heat engine from said maximum torque; - a step e) of measuring the speed of the primary shaft (REGAP); - a step f) of calculating an intermediate torque; - a step g) of calculating an acceleration of the actual speed (REGR) of said heat engine; - a step h) of determining a speed setpoint (RCONS) of the heat engine from said acceleration; - a step i) of regulating the actual speed (REGR) of the heat engine following the speed setpoint (RCONS) until reaching said target speed (REGCI); - a step j) of regulating the real speed (REGR) of said thermal engine until equalizing said real speed (REGR) with said speed of the primary shaft (REGAP). - a step a) of obtaining the maximum quantity of pollutants (QTEM) to reject; - a step b) of obtaining an operating curve (CFONC) of said heat engine indicating the quantity of pollutants released as a function of the torque generated by said heat engine; - a step c) of determining a maximum torque to be generated by said heat engine for the quantity of pollutants to be rejected (QTEM) from said operating curve (CFONC); - a step d) of calculating a target speed (REGCI) of the heat engine from said maximum torque; - a step e) of measuring the speed of the primary shaft (REGAP); - a step f) of calculating an intermediate torque; - a step g) of calculating an acceleration of the actual speed (REGR) of said heat engine; - a step h) of determining a speed setpoint (RCONS) of the heat engine from said acceleration; - a step i) of regulating the actual speed (REGR) of the heat engine following the speed setpoint (RCONS) until reaching said target speed (REGCI); - a step j) of regulating the real speed (REGR) of said thermal engine until equalizing said real speed (REGR) with said speed of the primary shaft (REGAP).
A reinforced polyester resin composition, which comprises, with respect to 100 parts by mass of a polyester resin, 10 to 100 parts by mass of an inorganic filler as component and 0.001 to 10 parts by mass of a metal salt of a sulfonamide compound as component, said metal salt of said sulfonamide compound having a structure represented by the following Formula: (wherein, R 1 and R 2 independently represent a hydrogen atom, halogen atom, alkali metal atom, amino group, C 1 -C 10 alkyl group which is optionally branched or substituted, C 1 -C 10 alkoxy group which is optionally branched or substituted or C 3 -C 30 cyclic group which is optionally substituted; R 1 and R 2 are also optionally linked together to form a cyclic group; n represents number of 1 or 2; when n is 1, M represents an alkali metal atom or Al 3-n; when n is 2, the plural R 1 s and R 2 s are each optionally different; M represents a divalent metal atom selected from magnesium, calcium, strontium, barium, titanium, manganese, iron, zinc, silicon, zirconium, yttrium and hafnium, Al 3-n or linking group selected from the group consisting of a C 1 -C 12 alkylene group which is optionally substituted, C 2 -C 12 alkenylene group which is optionally substituted, C 3 -C 8 cycloalkylene group which is optionally substituted, C 4 -C 20 alkylene group having an ether bond, alkylene group which is interrupted by a cycloalkylene group and has a total of 5 to 20 carbon atoms, C 6 -C 12 arylene group which is optionally substituted and a combination thereof; and when M is said linking group, either of R 1 and R 2 is an alkali metal).
A cast iron cylindrical member comprising a plurality of projections including constricted projections on the outer peripheral surface, wherein the average height H of the formed projections is from 0.3 mm to 1.0 mm, the number Pn of projections per 100 mm 2 is from 20 to 110, the constriction rate Pr of the projections is 0.7 or more, and which satisfies the following and (ii): letting the number of projections per 100 mm 2 be Pn, the constriction rate of a projection be Pr, the average height of the projections be H (mm), the average of the maximum thickness of 20 arbitrary projections among the constricted projections be A av (mm), and the average of the minimum thicknesses of the 20 arbitrary projections be B av (mm), whereby 0.0025 ≤ A av 2 − B av 2 × π / 4 × Pn × Pr / 100 × 0.35 H / 2 is satisfied, where the constriction rate Pr of the projections is (the number of constricted projections per 100 mm 2 /Pn). (ii) 1.1 ≤ A av / B av ≤ 2.5. letting the number of projections per 100 mm 2 be Pn, the constriction rate of a projection be Pr, the average height of the projections be H (mm), the average of the maximum thickness of 20 arbitrary projections among the constricted projections be A av (mm), and the average of the minimum thicknesses of the 20 arbitrary projections be B av (mm), whereby 0.0025 ≤ A av 2 − B av 2 × π / 4 × Pn × Pr / 100 × 0.35 H / 2 is satisfied, where the constriction rate Pr of the projections is (the number of constricted projections per 100 mm 2 /Pn). (ii) 1.1 ≤ A av / B av ≤ 2.5.
A signal processing method, wherein the method comprises: obtaining P real-number signals; performing at least number theoretic transform NTT processing on the P real-number signals to obtain P transform-domain first real-number signals; performing at least clock recovery on the P transform-domain first real-number signals to obtain P transform-domain second real-number signals; performing at least polarization compensation and inverse number theoretic transform INTT processing on the P transform-domain second real-number signals to obtain m time-domain complex-number signals X and m time-domain complex-number signals Y; and performing phase recovery and decoding on the m time-domain complex-number signals X and the m time-domain complex-number signals Y to obtain bit signals, wherein m and P are positive integers. obtaining P real-number signals; performing at least number theoretic transform NTT processing on the P real-number signals to obtain P transform-domain first real-number signals; performing at least clock recovery on the P transform-domain first real-number signals to obtain P transform-domain second real-number signals; performing at least polarization compensation and inverse number theoretic transform INTT processing on the P transform-domain second real-number signals to obtain m time-domain complex-number signals X and m time-domain complex-number signals Y; and performing phase recovery and decoding on the m time-domain complex-number signals X and the m time-domain complex-number signals Y to obtain bit signals, wherein m and P are positive integers.
An eyeglass lens processing apparatus comprising: a lens rotating unit which includes a lens chuck shaft (102R, 102L) for holding an eyeglass lens and a motor for rotating the lens chuck shaft; and a tool rotating unit which includes a beveling tool for forming a bevel on a periphery of the lens, a spindle to which the beveling tool is attached and which is disposed parallel to the lens chuck shaft or disposed to be inclined with respect to the lens chuck shaft at a predetermined angle, and a motor for rotating the spindle, wherein the beveling tool includes a first processing part (Vr, 500Vr) for forming a rear bevel at a rear side of the lens and a second processing part (Vrk, 500Vrk) for forming a bevel foot coupled to the rear bevel, characterized in that in the second processing part, a distance (yn) from a line (Xp) parallel to the lens chuck shaft and passing through a point of a border with the first processing part gradually increases from the border point as the starting point to an endpoint of the second processing surface and an increase rate of the distance (yn) gradually increases at least in two steps from the border point to the endpoint. a lens rotating unit which includes a lens chuck shaft (102R, 102L) for holding an eyeglass lens and a motor for rotating the lens chuck shaft; and a tool rotating unit which includes a beveling tool for forming a bevel on a periphery of the lens, a spindle to which the beveling tool is attached and which is disposed parallel to the lens chuck shaft or disposed to be inclined with respect to the lens chuck shaft at a predetermined angle, and a motor for rotating the spindle, wherein the beveling tool includes a first processing part (Vr, 500Vr) for forming a rear bevel at a rear side of the lens and a second processing part (Vrk, 500Vrk) for forming a bevel foot coupled to the rear bevel, characterized in that in the second processing part, a distance (yn) from a line (Xp) parallel to the lens chuck shaft and passing through a point of a border with the first processing part gradually increases from the border point as the starting point to an endpoint of the second processing surface and an increase rate of the distance (yn) gradually increases at least in two steps from the border point to the endpoint. wherein the beveling tool includes a first processing part (Vr, 500Vr) for forming a rear bevel at a rear side of the lens and a second processing part (Vrk, 500Vrk) for forming a bevel foot coupled to the rear bevel, characterized in that in the second processing part, a distance (yn) from a line (Xp) parallel to the lens chuck shaft and passing through a point of a border with the first processing part gradually increases from the border point as the starting point to an endpoint of the second processing surface and an increase rate of the distance (yn) gradually increases at least in two steps from the border point to the endpoint.
A communication system (100A, 100D, 100E, 500) comprising: three or more nodes; and a multi-core fiber (200, 210, 220, 230) having a plurality of cores, the multi-core fiber being used in at least a partial segment of a connection between the nodes, wherein one node of the nodes is connected to the multi-core fiber and includes a connector (530, 540, 550, 560, 570, 580) configured to add and drop a signal to and from an allocated core exclusively allocated from among the cores as a communication path between the one node and another node of the nodes and configured to relay a signal transmitted through another core of the cores allocated for communication between other nodes in the multi-core fiber connected to the one node, wherein a relative positional relationship between a connection point of the allocated core in which a signal is added or dropped in the connector and a connection point of another core in which a signal is relayed in the connector is the same for all of the nodes connected to the multi-core fiber, characterized in that a connection, in the connector, between cores through which the signal is relayed is determined in accordance with a logical topology in the communication system. three or more nodes; and a multi-core fiber (200, 210, 220, 230) having a plurality of cores, the multi-core fiber being used in at least a partial segment of a connection between the nodes, wherein one node of the nodes is connected to the multi-core fiber and includes a connector (530, 540, 550, 560, 570, 580) configured to add and drop a signal to and from an allocated core exclusively allocated from among the cores as a communication path between the one node and another node of the nodes and configured to relay a signal transmitted through another core of the cores allocated for communication between other nodes in the multi-core fiber connected to the one node, wherein a relative positional relationship between a connection point of the allocated core in which a signal is added or dropped in the connector and a connection point of another core in which a signal is relayed in the connector is the same for all of the nodes connected to the multi-core fiber, characterized in that a connection, in the connector, between cores through which the signal is relayed is determined in accordance with a logical topology in the communication system.