mhurhangee/ep-ind-claims huggingface dataset:
A method of transmitting acknowledgement/not-acknowledgement, ACK/NACK, for a user equipment, UE, which has been configured with a plurality of serving cells, the method comprising: receiving data in at least one of a subframe n-4 of a first cell and a subframe n-4 of a second cell, wherein n is an integer number; and transmitting ACK/NACK information for the data in a subframe n of the first cell, wherein the first cell uses a Frequency Division Duplex, FDD, radio frame, wherein the second cell uses a Time Division Duplex, TDD, radio frame, each subframe of the TDD radio frame being configured as an uplink subframe, a downlink subframe or a special subframe according to an uplink-downlink configuration, and characterized in that if the subframe n-4 of the second cell is a subframe which cannot be used for receiving the data, the ACK/NACK information is transmitted by a physical uplink control channel, PUCCH, format 1a or 1b, and if the subframe n-4 of the second cell is a subframe which can be used for receiving the data, the ACK/NACK information is transmitted by a channel selection scheme. receiving data in at least one of a subframe n-4 of a first cell and a subframe n-4 of a second cell, wherein n is an integer number; and transmitting ACK/NACK information for the data in a subframe n of the first cell, wherein the first cell uses a Frequency Division Duplex, FDD, radio frame, wherein the second cell uses a Time Division Duplex, TDD, radio frame, each subframe of the TDD radio frame being configured as an uplink subframe, a downlink subframe or a special subframe according to an uplink-downlink configuration, and characterized in that if the subframe n-4 of the second cell is a subframe which cannot be used for receiving the data, the ACK/NACK information is transmitted by a physical uplink control channel, PUCCH, format 1a or 1b, and if the subframe n-4 of the second cell is a subframe which can be used for receiving the data, the ACK/NACK information is transmitted by a channel selection scheme.
A flange assembly for use with a solid oxide fuel cell (SOFC) system, said flange assembly comprising: a first flange; a second flange; a dielectric element coupled between said first flange and said second flange, said dielectric element comprising an outer cylindrical surface and an inner cylindrical surface, said inner cylindrical surface defining a cylindrical region having a circumference, said inner cylindrical surface further defining a channel that extends radially about the circumference of the cylindrical region; and at least one bolt and at least one dielectric shoulder washer, said at least one bolt coupling said first flange to said second flange, said at least one dielectric shoulder washer at least partially extending about said at least one bolt. a first flange; a second flange; a dielectric element coupled between said first flange and said second flange, said dielectric element comprising an outer cylindrical surface and an inner cylindrical surface, said inner cylindrical surface defining a cylindrical region having a circumference, said inner cylindrical surface further defining a channel that extends radially about the circumference of the cylindrical region; and at least one bolt and at least one dielectric shoulder washer, said at least one bolt coupling said first flange to said second flange, said at least one dielectric shoulder washer at least partially extending about said at least one bolt.
A milking system for milking a dairy animal, comprising - a milking cup for obtaining the milk, - a measuring chamber which is in flow communication with the milking cup for at least temporarily containing the obtained milk, and having a sensor system (24, 26) arranged therein or thereon for measuring at least one property of the milk, wherein the sensor system (24, 26) comprises - a plurality of at least three optical sensor devices, each configured to measure values of a property of the milk, which sensor devices are in particular in a row, and - a sensor control unit for actuating the sensor system (24, 26) and for processing the measured values, wherein the sensor control unit is configured to repeatedly select one of the sensor devices in a targeted manner, wherein each sensor device is selectable, wherein at least two of the optical sensor devices are identical, wherein the sensor system is configured to in each case measure the local value of the property of the milk at the location of the selected sensor device using the selected sensor device, and to determine a value of the at least one property of the milk in the measuring chamber on the basis of the values measured locally by the plurality of sensor devices, characterized in that each of the optical sensor devices comprises a plurality of optical sub-sensors and each of the optical sensor devices is or comprises an RGB chip or RGB-IR chip. - a milking cup for obtaining the milk, - a measuring chamber which is in flow communication with the milking cup for at least temporarily containing the obtained milk, and having a sensor system (24, 26) arranged therein or thereon for measuring at least one property of the milk, wherein the sensor system (24, 26) comprises - a plurality of at least three optical sensor devices, each configured to measure values of a property of the milk, which sensor devices are in particular in a row, and - a sensor control unit for actuating the sensor system (24, 26) and for processing the measured values, wherein the sensor control unit is configured to repeatedly select one of the sensor devices in a targeted manner, wherein each sensor device is selectable, wherein at least two of the optical sensor devices are identical, wherein the sensor system is configured to in each case measure the local value of the property of the milk at the location of the selected sensor device using the selected sensor device, and to determine a value of the at least one property of the milk in the measuring chamber on the basis of the values measured locally by the plurality of sensor devices, characterized in that each of the optical sensor devices comprises a plurality of optical sub-sensors and each of the optical sensor devices is or comprises an RGB chip or RGB-IR chip.
An apparatus comprising: an inlet for receiving a portion of a fluid flowing through a conduit; a valve coupled to the inlet; a pump coupled to the valve; a vessel coupled to the valve; and a gas chromatograph coupled to the valve, wherein the apparatus further comprises a controller configured to control cellection of a composite sample in the vessel, the composite sample comprising two or more discrete samples of the fluid, each of the discrete samples collected at a selected interval from at least one other discrete sample and having a selected volume, and wherein the interval is based on an elapsed time between the discrete samples or on the volume of fluid flow through the conduit. an inlet for receiving a portion of a fluid flowing through a conduit; a valve coupled to the inlet; a pump coupled to the valve; a vessel coupled to the valve; and a gas chromatograph coupled to the valve, wherein the apparatus further comprises a controller configured to control cellection of a composite sample in the vessel, the composite sample comprising two or more discrete samples of the fluid, each of the discrete samples collected at a selected interval from at least one other discrete sample and having a selected volume, and wherein the interval is based on an elapsed time between the discrete samples or on the volume of fluid flow through the conduit.
System for controlling a power train of a motor vehicle, the power train being capable of delivering an engine torque to a hydraulic torque converter, and comprising means for determining a temperature gradient of the oil of the hydraulic torque converter, characterized in that it comprises means for estimating a curve of the force of resistance to forward travel of the motor vehicle depending on a practical mass of the motor vehicle based on said temperature gradient, and means for controlling said engine torque depending on said estimation.
Method for modifying surfaces of plastics, wherein at least one solution or dispersion which comprises at least one modifier substance, at least one solvent or dispersion medium and at least one or more auxiliaries is applied to the surface of a moulding tool, where compounds having reactive groups are used as modifier substance, the at least one solvent or dispersion medium is then removed from the moulding tool leaving behind the at least one modifier substance and the one or more auxiliaries, where the one or more auxiliaries are present as particle, crystallite or structured body after removal of the solvent or dispersion medium, at least one plastic is then introduced as melt into the moulding tool at least in the region of the modifier substance and the auxiliary or auxiliaries and the moulded plastic is then taken from the moulding tool, where the reactive groups of the modifier substances form covalent bonds with the surface of the plastic during shaping or afterwards, and the auxiliary or auxiliaries is/are subsequently at least partially removed from the surface of the shaped plastic to produce at least one cavity.
A silicon nitride substrate comprising a high thermal conductive silicon nitride sintered body having a thermal conductivity, as measured by a laser flash method, of 50 W/m·K or more and a three-point bending strength, measured in accordance with JIS-R1601, of 600 MPa or more, wherein highest peak intensities detected at diffraction angles of 29.3 ± 0.2°, 29.7 ± 0.2°, 27.0 ± 0.2°, and 36.1 ± 0.2° are expressed as I 29.3°, I 29.7°, I 27.0°, and I 36.1°, respectively, the highest peak intensities being detected by XRD analysis for an arbitrary cross section of the silicon nitride sintered body, characterized in that the thickness of the silicon nitride substrate is 0.10 mm or more and 0.70 mm or less, the high thermal conductive silicon nitride sintered body is configured such that a peak ratio (I 29.3°)/(I 27.0° + I 36.1°) satisfies a range of 0.01 to 0.08, and a peak ratio (I 29.7°)/(I 27.0° + I 36.1°) satisfies a range of 0.02 to 0.16, wherein I 29.3° and I 29.7° correspond to peaks depending on a rare earth element-hafnium-oxygen compound crystal, and I 27.0° and I 36.1° correspond to peaks depending on a β-Si 3 N 4 crystal, and the high thermal conductive silicon nitride sintered body includes 3 to 10% by mass of a rare earth element in terms of oxide, and includes 0.5 to 5% by mass of hafnium in terms of oxide.
Method for manufacturing a part, comprising the following steps: a) nanostructuring of a CLR (Covert Laser Readable) pattern on a substrate; e) deposition of a conductive layer above the substrate respectively above the diffractive layer portions on this substrate; f) deposition of a second photosensitive resin layer; g) illumination of said second photosensitive resin layer through a second photomask, so as to selectively remove portions of said second photosensitive resin; h) electroforming-based deposition of matter on top of said conductive layer between the remaining portions of the second photosensitive resin; i) release of the part by removal of at least the second photosensitive resin. a) nanostructuring of a CLR (Covert Laser Readable) pattern on a substrate; e) deposition of a conductive layer above the substrate respectively above the diffractive layer portions on this substrate; f) deposition of a second photosensitive resin layer; g) illumination of said second photosensitive resin layer through a second photomask, so as to selectively remove portions of said second photosensitive resin; h) electroforming-based deposition of matter on top of said conductive layer between the remaining portions of the second photosensitive resin; i) release of the part by removal of at least the second photosensitive resin.
A computer based method for estimating an orientation of a target using depth image data, the method comprising the steps of: receiving a feed of depth images capturing a target, the depth images including pixel depth information; determining a correlation between each image and a corresponding orientation measure for a set of images in the feed, the set of images representative of a set of target orientations, and the correlation providing a match between an image and a corresponding orientation measure representative of the orientation of the target captured in the image; storing the set of depth images of the target and the correlation; and comparing, based in appearance, a current depth image of the target with the depth images in the set of depth images to determine, based on the correlation, a corresponding orientation measure indicative of a current orientation of the target as captured in the current depth image, further comprising: determining an appearance variation value of the target; and in response to the appearance variation value exceeding a maximum variation, determining the correlation for a second set of images of the target; storing the correlation; and replacing the stored set of images with the second set of images.
Iron comprising a tank for containing water, which is provided with an outlet opening and steam generating means configured to receive a part of said water from said tank and to transform it into steam, characterized in that it further comprises an adjusting device configured to allow a user to adjust the amount of said water transferred from said tank to said steam generating means, wherein said adjusting device comprises a control element configured to generate an electrical signal when it is manually actuated by said user, wherein said electrical signal is variable in a manner proportional to an action exerted by said user on said control element, and electrical actuating means controlled by an electronic control unit in response to said electrical signal and configured to move a shutter member associated with said outlet opening in a manner proportional to said electrical signal, to adjust the amount of water fed to said steam generating means and therefore the flow rate of generated steam, wherein said shutter member has a shutter end to which there is associated a shutter element cooperating with said outlet opening, and an operating end opposite to said shutter end and operable by said electrical actuating means to cause a translation of said shutter member and consequently move said shutter element away from said outlet opening and bring it towards at least any intermediate position between a fully closed position and a fully open position.
A method for establishing biometric identification information transmission, comprising: transmitting, by a biometric identification apparatus, a first random number to a driving unit; receiving, by the biometric identification apparatus, a second random number and a first identity verification information from the driving unit; generating, by the biometric identification apparatus, a key of a first session according to the first random number, the second random number and a pre-shared key, and generating, by the biometric identification apparatus, a second identity verification information according to the key of the first session, the first random number and the second random number, wherein the key of the first session comprises two or more keys of a second session; transmitting, by the biometric identification apparatus, the second identity verification information to the driving unit; determining, by the biometric identification apparatus, according to the first identity verification information and the second identity verification information, whether a session between the biometric identification apparatus and the driving unit is established successfully; encrypting, by the biometric identification apparatus, the biometric identification information by using one of the two or more keys of the second session to generate a first ciphertext when it is determined that the session between the biometric identification apparatus and the driving unit is established successfully; and transmitting, by the biometric identification apparatus, the first ciphertext to the driving unit. transmitting, by a biometric identification apparatus, a first random number to a driving unit; receiving, by the biometric identification apparatus, a second random number and a first identity verification information from the driving unit; generating, by the biometric identification apparatus, a key of a first session according to the first random number, the second random number and a pre-shared key, and generating, by the biometric identification apparatus, a second identity verification information according to the key of the first session, the first random number and the second random number, wherein the key of the first session comprises two or more keys of a second session; transmitting, by the biometric identification apparatus, the second identity verification information to the driving unit; determining, by the biometric identification apparatus, according to the first identity verification information and the second identity verification information, whether a session between the biometric identification apparatus and the driving unit is established successfully; encrypting, by the biometric identification apparatus, the biometric identification information by using one of the two or more keys of the second session to generate a first ciphertext when it is determined that the session between the biometric identification apparatus and the driving unit is established successfully; and transmitting, by the biometric identification apparatus, the first ciphertext to the driving unit.
A package comprising a flexible material comprising a polymeric film, characterized in that the package comprises; a first panel made from the flexible material, wherein at least part of the first panel is adjacent to a self-fold in the flexible material and about flat; a second panel made from the flexible material, wherein at least part of the second panel is adjacent to the self-fold in the flexible material and about flat; and the self-fold, which has a differential thermal-mechanical set when compared with the flexible material outside of the self-fold; and wherein the self-fold forms an angle (α) of 100-170 degrees between the adjacent parts of the panels.
A composition for delivering a protein into a cell, the composition comprising: (a) a protein to be delivered to a cell, wherein the protein is associated with a supernegatively charged protein resulting in a complex that is negatively charged; and (b) a cationic polymer or a cationic lipid, optionally wherein the composition is a pharmaceutical composition. (a) a protein to be delivered to a cell, wherein the protein is associated with a supernegatively charged protein resulting in a complex that is negatively charged; and (b) a cationic polymer or a cationic lipid,
An underlayment adapted to receive and secure at least one heating element of a radiant heating assembly, comprising: a base material defining an area and having a first side and a second side disposed opposite the first side; a first protrusion disposed on the first side of the base material, the first protrusion configured as a geometric shape having at least two sides, wherein one or more of the at least two sides includes an element receiving surface; and a second protrusion disposed on the first side of the base material and adjacent to the first protrusion, the second protrusion configured as a geometric shape having at least two sides, wherein one or more of the at least two sides includes an element receiving surface, and wherein the element receiving surface of the second protrusion is offset from and facing the element receiving surface of the first protrusion forming an element receiving cavity therebetween; and wherein the element receiving cavity is configured to contain at least one heating element of the radiant heating assembly, characterised in that the first and second protrusions further comprise at least one cutout portion extending partially into the first and second protrusions respectively. a base material defining an area and having a first side and a second side disposed opposite the first side; a first protrusion disposed on the first side of the base material, the first protrusion configured as a geometric shape having at least two sides, wherein one or more of the at least two sides includes an element receiving surface; and a second protrusion disposed on the first side of the base material and adjacent to the first protrusion, the second protrusion configured as a geometric shape having at least two sides, wherein one or more of the at least two sides includes an element receiving surface, and wherein the element receiving surface of the second protrusion is offset from and facing the element receiving surface of the first protrusion forming an element receiving cavity therebetween; and wherein the element receiving cavity is configured to contain at least one heating element of the radiant heating assembly, characterised in that the first and second protrusions further comprise at least one cutout portion extending partially into the first and second protrusions respectively.
Restraining assembly able to be attached to a portable tool to allow the connection of a safety cord to said tool, said assembly comprising: - a first and a second attachment plate suitable for being secured to said portable tool while gripping the body thereof; - an anchoring element suitable for attaching said cord; - a first and a second flexible securing element each having an end secured to said anchoring element and an end respectively secured to said first and said second attachment plate, characterised in that the lengths of said first and second securing elements are selected so as to place said anchoring element with respect to the centre of gravity of said tool to which said assembly is intended to be attached so as to give a predetermined orientation to said tool when it is suspended from said cord by said restraining assembly. - a first and a second attachment plate suitable for being secured to said portable tool while gripping the body thereof; - an anchoring element suitable for attaching said cord; - a first and a second flexible securing element each having an end secured to said anchoring element and an end respectively secured to said first and said second attachment plate, characterised in that the lengths of said first and second securing elements are selected so as to place said anchoring element with respect to the centre of gravity of said tool to which said assembly is intended to be attached so as to give a predetermined orientation to said tool when it is suspended from said cord by said restraining assembly.
An underwater acoustic-wave particle-motion sensor comprising: a rigid body having a periphery around which an underwater acoustic wave diffracts without passing through, wherein said rigid body includes a cavity; and a diffraction-pressure-gradient acoustic-wave particle-motion sensor coupled to the rigid body to sense the diffracted acoustic wave and further producing a first sensor output signal that responds to acoustic-wave particle motion and to rigid-body motion; characterised in that a rigid-body motion sensor is received by the cavity so as to be isolated from particle motion associated with the diffracted acoustic wave and is configured to produce a second sensor output signal that corresponds almost entirely to rigid-body motion. a rigid body having a periphery around which an underwater acoustic wave diffracts without passing through, wherein said rigid body includes a cavity; and a diffraction-pressure-gradient acoustic-wave particle-motion sensor coupled to the rigid body to sense the diffracted acoustic wave and further producing a first sensor output signal that responds to acoustic-wave particle motion and to rigid-body motion; characterised in that a rigid-body motion sensor is received by the cavity so as to be isolated from particle motion associated with the diffracted acoustic wave and is configured to produce a second sensor output signal that corresponds almost entirely to rigid-body motion.