mhurhangee/ep-ind-claims huggingface dataset:
A radio frequency receive coil arrangement for use in a magnetic resonance imaging scanner, the arrangement comprising: - an RF coil or antenna (50, 50'; 52, 52') configured for receiving an RF signal, and - an electronics module (544, 545, 546, 541) configured for generating a compressed analog RF output signal which is transmitted via a cable or a Wireless transmission path to an RF receiver, wherein the electronics module (544, 545, 546, 547) comprises the following as a unitary structure on or with the RF coil or antenna (50, 50'; 52, 52'): - a compression circuitry (230, 330, 430, 530), configured for compressing the received RF signal, - a gain controller (232, 332, 432, 532) configured for generating a gain control signal for controlling the compression circuitry (230, 330, 430, 530) such that the analog RF output signal is compressed in its dynamic range for being transmitted via the cable or the wireless transmission path or for being digitized in an analog-to-digital converter, - an encoder (240, 440) configured for encoding the gain control signal, and - a signal combiner (242, 442) configured for superimposing the encoded gain control signal on the compressed RF output signal, wherein the unitary structure is disposed directly on the RF coil or antenna (50, 50'; 52, 52'), or attached therewith via an additional support structure. - an RF coil or antenna (50, 50'; 52, 52') configured for receiving an RF signal, and - an electronics module (544, 545, 546, 541) configured for generating a compressed analog RF output signal which is transmitted via a cable or a Wireless transmission path to an RF receiver, wherein the electronics module (544, 545, 546, 547) comprises the following as a unitary structure on or with the RF coil or antenna (50, 50'; 52, 52'): - a compression circuitry (230, 330, 430, 530), configured for compressing the received RF signal, - a gain controller (232, 332, 432, 532) configured for generating a gain control signal for controlling the compression circuitry (230, 330, 430, 530) such that the analog RF output signal is compressed in its dynamic range for being transmitted via the cable or the wireless transmission path or for being digitized in an analog-to-digital converter, - an encoder (240, 440) configured for encoding the gain control signal, and - a signal combiner (242, 442) configured for superimposing the encoded gain control signal on the compressed RF output signal,
A consumer product comprising a microcapsule product, the microcapsule product being obtainable by a process comprising the steps of: reacting a copolymer of acrylamide and acrylic acid and a melamine-formaldehyde resin to form a crosslinked network of polymers; admixing an active material which is a fragrance to the reactant mixture; encapsulating the active material with the crosslinked network of polymers to form a polymer encapsulated material; and curing the polymer encapsulated material at a temperature greater than 90°C to provide the microcapsule product, which is capable of retaining the fragrance in the consumer product, wherein the shell of the microcapsule product is a crosslinked network of polymers obtained from reacting a copolymer of acrylamide and acrylic acid and a melamine-formaldehyde resin and wherein said crosslinked network of polymers was cured at a temperature greater than 90°C and wherein the core of the microcapsule product is a fragrance, and wherein the consumer product comprises an agent selected from surfactants, alcohols, volatile silicones, and mixtures thereof, and wherein the consumer product is selected from the group consisting of laundry detergent, fabric softeners, bleach products, tumble dryer sheets, liquid dish detergents, automatic dish detergents, hair shampoos, hair conditioners, toothpastes, mouthwash, oral care products, liquid soaps, body wash, lotions, creams, hair gels, anti-perspirants, deodorants, shaving products, colognes, and automatic dishwashing compositions, foodstuffs, beverages and mixtures thereof. reacting a copolymer of acrylamide and acrylic acid and a melamine-formaldehyde resin to form a crosslinked network of polymers; admixing an active material which is a fragrance to the reactant mixture; encapsulating the active material with the crosslinked network of polymers to form a polymer encapsulated material; and curing the polymer encapsulated material at a temperature greater than 90°C to provide the microcapsule product, which is capable of retaining the fragrance in the consumer product, wherein the shell of the microcapsule product is a crosslinked network of polymers obtained from reacting a copolymer of acrylamide and acrylic acid and a melamine-formaldehyde resin and wherein said crosslinked network of polymers was cured at a temperature greater than 90°C and wherein the core of the microcapsule product is a fragrance, and wherein the consumer product comprises an agent selected from surfactants, alcohols, volatile silicones, and mixtures thereof, and wherein the consumer product is selected from the group consisting of laundry detergent, fabric softeners, bleach products, tumble dryer sheets, liquid dish detergents, automatic dish detergents, hair shampoos, hair conditioners, toothpastes, mouthwash, oral care products, liquid soaps, body wash, lotions, creams, hair gels, anti-perspirants, deodorants, shaving products, colognes, and automatic dishwashing compositions, foodstuffs, beverages and mixtures thereof.
A chassis for a vacuum cleaner including a duct portion affording a passage for suction airflow of the cleaner characterized in that the entire duct portion is formed in the course of a moulding operation which forms the rest of the chassis.
Method of assembling a beam and a structural element (11, 12) of an aircraft seat to one another, characterized in that it comprises: - a step of making at least one recess in an internal face of a beam passage zone of the structural element (11, 12), - a step of inserting the beam into the beam passage zone, - a step of deforming the beam so that a deformed portion of the beam gets into the recess of the beam passage zone, and - a step of deforming the beam passage zone, so that at least a portion of an internal face of said beam passage zone bears against an external face of the beam along a contact surface. - a step of making at least one recess in an internal face of a beam passage zone of the structural element (11, 12), - a step of inserting the beam into the beam passage zone, - a step of deforming the beam so that a deformed portion of the beam gets into the recess of the beam passage zone, and - a step of deforming the beam passage zone, so that at least a portion of an internal face of said beam passage zone bears against an external face of the beam along a contact surface.
A method for a user equipment, UE (306, 408), to report channel state information, CSI, for a plurality of transmission and reception points, TRPs, in a communication system, the method comprising: measuring downlink, DL, channels received from a plurality of TRPs; determining a plurality of transmission hypotheses based on the measured DL channels from the plurality of TRPs; and transmitting channel state information, CSI, to a network in the communication system, the CSI including a precoding matrix indicator, PMI, characterized by the PMI having at least a spatial domain basis matrix that is common to all of the plurality of transmission hypotheses and at least one coefficient matrix that is based on the spatial domain basis matrix. measuring downlink, DL, channels received from a plurality of TRPs; determining a plurality of transmission hypotheses based on the measured DL channels from the plurality of TRPs; and transmitting channel state information, CSI, to a network in the communication system, the CSI including a precoding matrix indicator, PMI, characterized by the PMI having at least a spatial domain basis matrix that is common to all of the plurality of transmission hypotheses and at least one coefficient matrix that is based on the spatial domain basis matrix.
A system comprising: a magnetic resonance imaging system; a gantry; a radiation therapy head fixed to the gantry; a collimating device associated with the radiation therapy head, including a plurality of leaves; a plurality of leaf drive motors associated with the collimating device; characterized in that it further comprises: a plurality of position sensors for determining the position of associated leaves; and a plurality of magnetic shields substantially surrounding the plurality of position sensors. a magnetic resonance imaging system; a gantry; a radiation therapy head fixed to the gantry; a collimating device associated with the radiation therapy head, including a plurality of leaves; a plurality of leaf drive motors associated with the collimating device; characterized in that it further comprises: a plurality of position sensors for determining the position of associated leaves; and a plurality of magnetic shields substantially surrounding the plurality of position sensors. a plurality of position sensors for determining the position of associated leaves; and a plurality of magnetic shields substantially surrounding the plurality of position sensors.
A method of communication, comprising: determining (1802, 2302) at least one resource for communicating return link control information, wherein the determination comprises performing a modulo operation on a ratio of: a quantity of control channel indices allocated for forward link control signaling, K, multiplied by a control parameter, A, to a quantity of return link carriers, L CC; and communicating (1804, 2304) the return link control information via the determined at least one resource. determining (1802, 2302) at least one resource for communicating return link control information, wherein the determination comprises performing a modulo operation on a ratio of: a quantity of control channel indices allocated for forward link control signaling, K, multiplied by a control parameter, A, to a quantity of return link carriers, L CC; and communicating (1804, 2304) the return link control information via the determined at least one resource.
A method for aligning Quality of Service, QOS, of a Wireless Local Area Network, WLAN, and QoS of a packet core network, characterized by comprising: establishing multiple second Internet Protocol Security, IPSEC, tunnels between the WLAN and the packet core network, mapping Differentiated Services Code Point, DSCP, values to QoSs on the WLAN, and transporting the QoSs to the packet core network via the second IPSEC tunnels; wherein, the DSCP values are different DSCP values of different bearers created by a user equipment, UE, and the DSCP values are transported to the WLAN via first IPSEC tunnels established between the UE and the WLAN, each first IPSEC tunnel corresponding to a different bearer. establishing multiple second Internet Protocol Security, IPSEC, tunnels between the WLAN and the packet core network, mapping Differentiated Services Code Point, DSCP, values to QoSs on the WLAN, and transporting the QoSs to the packet core network via the second IPSEC tunnels; wherein, the DSCP values are different DSCP values of different bearers created by a user equipment, UE, and the DSCP values are transported to the WLAN via first IPSEC tunnels established between the UE and the WLAN, each first IPSEC tunnel corresponding to a different bearer.
A method of forming a wrapped article, comprising the steps of: forming a continuous stream of material; moving the continuous stream of material along an elongated path; compressing the continuous stream of material to reduce the cross-sectional area thereof until a predetermined cross-sectional dimension is achieved; drawing the compressed continuous stream of material through a rod-forming arrangement, the rod-forming arrangement having a non-contact displacement transducer associated therewith; folding at least one web longitudinally around the compressed continuous stream of material to form a continuous rod of material; and detecting variations in rod density within the rod-forming arrangement from a signal obtained from the non-contact displacement transducer. forming a continuous stream of material; moving the continuous stream of material along an elongated path; compressing the continuous stream of material to reduce the cross-sectional area thereof until a predetermined cross-sectional dimension is achieved; drawing the compressed continuous stream of material through a rod-forming arrangement, the rod-forming arrangement having a non-contact displacement transducer associated therewith; folding at least one web longitudinally around the compressed continuous stream of material to form a continuous rod of material; and detecting variations in rod density within the rod-forming arrangement from a signal obtained from the non-contact displacement transducer.
A method of allocating a plurality of sub-carriers amongst users on a downlink-shared channel of a telecommunication system, the method comprising: selecting (30, 32) a plurality of physical resource blocks, each physical resource block comprising an equal predetermined number of consecutive sub-carriers during a predetermined time period; assigning (34, 38, 40, 44) the physical resource blocks as either localized physical resource blocks, for handling localized transmission in which each localized virtual resource block of a shared channel transmission to a certain user equipment is mapped one-to-one to a localized physical resource block, or distributed physical resource blocks, for handling distributed transmission in which a distributed virtual resource block of the shared channel transmission is split in parts which are mapped to subunits of each of multiple distributed physical resource blocks; allocating a plurality of consecutive sub-carriers from each of a plurality of said distributed physical resource blocks to at least one user. selecting (30, 32) a plurality of physical resource blocks, each physical resource block comprising an equal predetermined number of consecutive sub-carriers during a predetermined time period; assigning (34, 38, 40, 44) the physical resource blocks as either localized physical resource blocks, for handling localized transmission in which each localized virtual resource block of a shared channel transmission to a certain user equipment is mapped one-to-one to a localized physical resource block, or distributed physical resource blocks, for handling distributed transmission in which a distributed virtual resource block of the shared channel transmission is split in parts which are mapped to subunits of each of multiple distributed physical resource blocks; allocating a plurality of consecutive sub-carriers from each of a plurality of said distributed physical resource blocks to at least one user.
A mineral fiber forming device comprising: - a centrifuge suitable for rotating about a rotation axis, the centrifuge comprising an annular wall pierced by a plurality of orifices, the axis of symmetry of the annular wall being the rotation axis, - a first annular inductor suitable for heating the top part of the annular wall, - a second annular inductor suitable for heating the bottom part of the annular wall, the heating of the annular wall by its top part and by its bottom part enabling a temperature gradient over the height of the centrifuge. - a centrifuge suitable for rotating about a rotation axis, the centrifuge comprising an annular wall pierced by a plurality of orifices, the axis of symmetry of the annular wall being the rotation axis, - a first annular inductor suitable for heating the top part of the annular wall, - a second annular inductor suitable for heating the bottom part of the annular wall,
Heat recovery device on a cooling tank such as an alcohol cooling tank in a method for distillation characterised in that it includes a container, the walls of which are covered with thermally insulating material, supplied from an intermittent hot water inlet coming from the tank; said container housing a plurality of coiled exchanger tubes (4, 5, 6), in communication by conduits (7, 8, 9, 10, 11, 12) in a closed circuit with a tank for the storage of hot water and supplying an external heating circuit (D, R) and for which the conduits are provided with circulators (14, 15, 16) controlled to convey the water heated in the tank.
A damper assembly (68; 142; 180; 220; 240; 260; 280; 300) for a bicycle wheel assembly, the damper assembly (68; 142; 180; 220; 240; 260; 280; 300) comprising: a first damper (122; 144; 182; 222; 244; 262; 286; 302) made of a deformable material, characterized in that the first damper (122; 144; 182; 222; 244; 262; 286; 302) is formed into a hollow conical body configured to be disposed about a hub assembly (26; 30) of the bicycle wheel assembly, the hollow conical body having: a first damper end (226; 248; 266; 290; 308), and a central opening configured to receive the hub assembly (26; 30), the first damper (122; 144; 182; 222; 244; 262; 286; 302) configured to contact and apply a first damping force against a spoke segment of at least one spoke of a plurality of spokes of the bicycle wheel assembly at the first damper end (226; 248; 266; 290; 308). a first damper (122; 144; 182; 222; 244; 262; 286; 302) made of a deformable material, characterized in that the first damper (122; 144; 182; 222; 244; 262; 286; 302) is formed into a hollow conical body configured to be disposed about a hub assembly (26; 30) of the bicycle wheel assembly, the hollow conical body having: a first damper end (226; 248; 266; 290; 308), and a central opening configured to receive the hub assembly (26; 30), a first damper end (226; 248; 266; 290; 308), and a central opening configured to receive the hub assembly (26; 30), the first damper (122; 144; 182; 222; 244; 262; 286; 302) configured to contact and apply a first damping force against a spoke segment of at least one spoke of a plurality of spokes of the bicycle wheel assembly at the first damper end (226; 248; 266; 290; 308).
Cosmetic or dermatological composition comprising, in a physiologically acceptable medium: a) at least one merocyanine corresponding to formula below and also the E/E- or E/Z- geometrical isomer forms thereof: in which A is -O- or -NH; R is a C 1 -C 22 alkyl group, a C 2 -C 22 alkenyl group, a C 2 -C 22 alkynyl group, a C 3 -C 22 cycloalkyl group or a C 3 -C 22 cycloalkenyl group, said groups possibly being interrupted with one or more O, and b) at least one oily phase comprising at least one amide of formula in which: R1 represents a linear or branched C1-C4 alkyl radical; a linear or branched C2-C4 alkenyl radical; R2 represents a hydrogen atom or a linear or branched C1-C6 alkyl group, preferably a linear or branched C1-C6 alkyl group; R3 represents a hydrogen atom or a linear or branched C1-C6 alkyl group; R4 represents a linear or branched C1-C10 alkyl radical, a linear or branched C2-C10 alkenyl radical or a sterol residue; - k is 0; - i is an integer from 0 to 2; - j is 1. a) at least one merocyanine corresponding to formula below and also the E/E- or E/Z- geometrical isomer forms thereof: in which A is -O- or -NH; R is a C 1 -C 22 alkyl group, a C 2 -C 22 alkenyl group, a C 2 -C 22 alkynyl group, a C 3 -C 22 cycloalkyl group or a C 3 -C 22 cycloalkenyl group, said groups possibly being interrupted with one or more O, and A is -O- or -NH; R is a C 1 -C 22 alkyl group, a C 2 -C 22 alkenyl group, a C 2 -C 22 alkynyl group, a C 3 -C 22 cycloalkyl group or a C 3 -C 22 cycloalkenyl group, said groups possibly being interrupted with one or more O, and b) at least one oily phase comprising at least one amide of formula in which: R1 represents a linear or branched C1-C4 alkyl radical; a linear or branched C2-C4 alkenyl radical; R2 represents a hydrogen atom or a linear or branched C1-C6 alkyl group, preferably a linear or branched C1-C6 alkyl group; R3 represents a hydrogen atom or a linear or branched C1-C6 alkyl group; R4 represents a linear or branched C1-C10 alkyl radical, a linear or branched C2-C10 alkenyl radical or a sterol residue; - k is 0; - i is an integer from 0 to 2; - j is 1. R1 represents a linear or branched C1-C4 alkyl radical; a linear or branched C2-C4 alkenyl radical; R2 represents a hydrogen atom or a linear or branched C1-C6 alkyl group, preferably a linear or branched C1-C6 alkyl group; R3 represents a hydrogen atom or a linear or branched C1-C6 alkyl group; R4 represents a linear or branched C1-C10 alkyl radical, a linear or branched C2-C10 alkenyl radical or a sterol residue; - k is 0; - i is an integer from 0 to 2; - j is 1. - k is 0; - i is an integer from 0 to 2; - j is 1.
Connection of a wooden board to one or more wooden stands via an assembly set consisting of a metal plate with through-holes and of a number of screws corresponding to the number of through-holes, characterized in that the metal plate is subdivided into two regions (3 and 4), of which the first region corresponds in area approximately to the end face of the wooden stand and is inserted into a milled recess, which is made in the end face of the wooden stand or stands and has the same thickness as the metal plate, and is screwed thereto, and the second region, which projects beyond the end face of the wooden stand, is screwed to the underside of the wooden board.
A method for degumming a triglyceride oil comprising: a. mixing an aqueous base solution with an acid-treated oil to form a pre-treated oil mixture comprising an oil phase and a water phase; b. passing the pre-treated oil mixture at a pre-determined inlet pressure through a first homogenization apparatus and a second homogenization apparatus to form a treated oil mixture, the first homogenization apparatus and the second homogenization apparatus positioned in series with one another and the first homogenization apparatus and the second homogenization apparatus each having at least three flow constrictions in series, wherein a pressure drop in the pre-treated oil mixture across each flow constriction in the first homogenization apparatus and the second homogenization apparatus is in the range of 25 to 50% of the upstream pressure of the pre-treated oil mixture before each flow constriction such that hydrodynamic cavitation in the pre-treated oil mixture is suppressed in the first homogenization apparatus and the second homogenization apparatus; c. separating the water phase from the oil phase to form a purified oil. a. mixing an aqueous base solution with an acid-treated oil to form a pre-treated oil mixture comprising an oil phase and a water phase; b. passing the pre-treated oil mixture at a pre-determined inlet pressure through a first homogenization apparatus and a second homogenization apparatus to form a treated oil mixture, the first homogenization apparatus and the second homogenization apparatus positioned in series with one another and the first homogenization apparatus and the second homogenization apparatus each having at least three flow constrictions in series, wherein a pressure drop in the pre-treated oil mixture across each flow constriction in the first homogenization apparatus and the second homogenization apparatus is in the range of 25 to 50% of the upstream pressure of the pre-treated oil mixture before each flow constriction such that hydrodynamic cavitation in the pre-treated oil mixture is suppressed in the first homogenization apparatus and the second homogenization apparatus; c. separating the water phase from the oil phase to form a purified oil.