mhurhangee/ep-ind-claims huggingface dataset:
Local coil for a magnetic resonance tomography scanner having an antenna device, wherein the antenna device has a conductor loop and a plurality of electronic function groups, wherein a function group is one of preamplifiers, baluns, mixers, diplexers, impedance matching networks, and safety circuits for protection of the antenna and/or patient, wherein the electronic function groups are arranged in a distributed manner spaced apart from one another and are electrically connected to one another by flexible conductor segments, wherein the electronic function groups are arranged along the extension of the conductor loop and/or the antenna device has a plurality of conductor loops and the electronic function groups are arranged on or between flexible conductor segments, the individual conductor loops connect to form an antenna matrix, characterised in that components of an electronic function group are arranged directly on a flexible conductor segment, wherein the components are not arranged on a circuit board and are connected by the circuit board to the flexible conductor segment, wherein the flexible conductor segment has a bracing in the region of the electronic function group, wherein the bracing has a stiffer carrier material in the flexible conductor segment and/or additional layers of a carrier material and/or a layer of the carrier material thicker in comparison to the adjacent flexible region. components of an electronic function group are arranged directly on a flexible conductor segment, wherein the components are not arranged on a circuit board and are connected by the circuit board to the flexible conductor segment, wherein the flexible conductor segment has a bracing in the region of the electronic function group, wherein the bracing has a stiffer carrier material in the flexible conductor segment and/or additional layers of a carrier material and/or a layer of the carrier material thicker in comparison to the adjacent flexible region.
Liquid-crystalline medium, characterised in that it contains - a polymerisable component containing one or more polymerisable compounds and - a liquid crystalline component containing at least one compound of the formula I and at least one compound of the formula IA in which R 0 denotes an alkyl or alkoxy radical having 1 to 15 C atoms, where, in addition, one or more CH 2 groups in these radicals may each be replaced, independently of one another, by -C≡C-, -CF 2 O-, -CH=CH-, -O-, -CO-O- or -O-CO- in such a way that O atoms are not linked directly to one another, and where, in addition, one or more H atoms may be replaced by halogen atoms, X 0 denotes F, CI, CN, SF 5, SCN, NCS, a halogenated alkyl radical, a halogenated alkenyl radical, a halogenated alkoxy radical or a halogenated alkenyloxy radical having up to 6 C atoms, and L 1-6 each, independently of one another, denote H or F. - a polymerisable component containing one or more polymerisable compounds and - a liquid crystalline component containing at least one compound of the formula I and at least one compound of the formula IA in which R 0 denotes an alkyl or alkoxy radical having 1 to 15 C atoms, where, in addition, one or more CH 2 groups in these radicals may each be replaced, independently of one another, by -C≡C-, -CF 2 O-, -CH=CH-, -O-, -CO-O- or -O-CO- in such a way that O atoms are not linked directly to one another, and where, in addition, one or more H atoms may be replaced by halogen atoms, X 0 denotes F, CI, CN, SF 5, SCN, NCS, a halogenated alkyl radical, a halogenated alkenyl radical, a halogenated alkoxy radical or a halogenated alkenyloxy radical having up to 6 C atoms, and L 1-6 each, independently of one another, denote H or F. R 0 denotes an alkyl or alkoxy radical having 1 to 15 C atoms, where, in addition, one or more CH 2 groups in these radicals may each be replaced, independently of one another, by -C≡C-, -CF 2 O-, -CH=CH-, -O-, -CO-O- or -O-CO- in such a way that O atoms are not linked directly to one another, and where, in addition, one or more H atoms may be replaced by halogen atoms, X 0 denotes F, CI, CN, SF 5, SCN, NCS, a halogenated alkyl radical, a halogenated alkenyl radical, a halogenated alkoxy radical or a halogenated alkenyloxy radical having up to 6 C atoms, and L 1-6 each, independently of one another, denote H or F.
A case assembly for a gas turbine engine, comprising: a case with a case boss, said case being an inner Mid-Turbine Frame case, wherein the case boss forms a sealed interface to the inner Mid-Turbine Frame case, said case boss including a peripheral wall that defines an inner diameter for receipt of a piston seal; a service line received at least partially through said case boss, wherein said service line includes a flange; and an inner capture plate to retain said flange; characterised in that: the case assembly further comprises a bushing mounted within said inner diameter to receive said piston seal. a case with a case boss, said case being an inner Mid-Turbine Frame case, wherein the case boss forms a sealed interface to the inner Mid-Turbine Frame case, said case boss including a peripheral wall that defines an inner diameter for receipt of a piston seal; a service line received at least partially through said case boss, wherein said service line includes a flange; and an inner capture plate to retain said flange; characterised in that: the case assembly further comprises a bushing mounted within said inner diameter to receive said piston seal.
A method for generating a deformable model for segmenting an anatomical structure in a medical image, the anatomical structure comprising a wall having a first surface layer and a second surface layer, the method comprising: - providing a first surface mesh for being applied to the first surface layer of the wall during a model-based segmentation; - providing a second surface mesh for being applied to the second surface layer of the wall during the model-based segmentation; - generating an intermediate layer mesh for being applied in-between the first surface layer and the second surface layer during the model-based segmentation, said generating comprising matching a mesh topology of at least part of the intermediate layer mesh to the mesh topology of an anatomically corresponding part of a selected one of both surface meshes, thereby establishing matching mesh topologies; said generating comprising duplicating the part of the selected surface mesh to obtain the part of the intermediate layer mesh; - generating model data defining the first surface mesh, the second surface mesh and the intermediate layer mesh, said generating model data comprising defining correspondences (380, 382) between original nodes of the selected surface mesh and duplicated nodes of the intermediate layer mesh, thereby establishing a plurality of node pairs; characterized in that the generating of the model data further comprises minimizing an energy function penalizing undesired mesh states, wherein the energy terms take into account: a) a deviation of edge lengths between the surface mesh and the intermediate layer mesh, b) a spatial deviation of the duplicated nodes from the normal of the original nodes, and c) a growth of intermediate layer mesh edges. - providing a first surface mesh for being applied to the first surface layer of the wall during a model-based segmentation; - providing a second surface mesh for being applied to the second surface layer of the wall during the model-based segmentation; - generating an intermediate layer mesh for being applied in-between the first surface layer and the second surface layer during the model-based segmentation, said generating comprising matching a mesh topology of at least part of the intermediate layer mesh to the mesh topology of an anatomically corresponding part of a selected one of both surface meshes, thereby establishing matching mesh topologies; said generating comprising duplicating the part of the selected surface mesh to obtain the part of the intermediate layer mesh; - generating model data defining the first surface mesh, the second surface mesh and the intermediate layer mesh, said generating model data comprising defining correspondences (380, 382) between original nodes of the selected surface mesh and duplicated nodes of the intermediate layer mesh, thereby establishing a plurality of node pairs; a) a deviation of edge lengths between the surface mesh and the intermediate layer mesh, b) a spatial deviation of the duplicated nodes from the normal of the original nodes, and c) a growth of intermediate layer mesh edges.
Method to convert insects or worms into nutrient streams, comprising the steps of: (a) squashing insects or worms thereby obtaining a pulp, wherein the insects or worms are thereby reduced in size, (b) subjecting the pulp to enzymatic hydrolysis obtaining thereby a hydrolysed mixture. (c) heating the hydrolysed mixture to a temperature of 70-100°C, and (d) subjecting the mixture to a physical separation step thereby obtaining a fat fraction, an aqueous proteinaceous fraction and a solid-containing fraction. (a) squashing insects or worms thereby obtaining a pulp, wherein the insects or worms are thereby reduced in size, (b) subjecting the pulp to enzymatic hydrolysis obtaining thereby a hydrolysed mixture. (c) heating the hydrolysed mixture to a temperature of 70-100°C, and (d) subjecting the mixture to a physical separation step thereby obtaining a fat fraction, an aqueous proteinaceous fraction and a solid-containing fraction.
An apparatus comprising: a register configured to store a coded entangled qubit state generated using a quantum stabilizer code; a measurement circuit (140, 200) configured to perform a redundant measurement of a set of syndrome values corresponding to the coded entangled qubit state, wherein the redundant measurement is performed based on a low-density parity-check, LDPC, error-correction code; and a decoder configured to apply the LDPC error-correction code to correct a measurement error in the set of syndrome values. a register configured to store a coded entangled qubit state generated using a quantum stabilizer code; a measurement circuit (140, 200) configured to perform a redundant measurement of a set of syndrome values corresponding to the coded entangled qubit state, wherein the redundant measurement is performed based on a low-density parity-check, LDPC, error-correction code; and a decoder configured to apply the LDPC error-correction code to correct a measurement error in the set of syndrome values.
Transmitting/receiving device which is configured to implement a method for scrambling the electronic signature of a signal transmitted by a radar, comprising the generation by the radar of at least one pulse, the method comprising a step of modulating, in the pulse, the polarisation of the signal transmitted, in accordance with two polarisations which are orthogonal or opposed, the modulation of the polarisation being carried out in accordance with a predetermined modulation code, characterised in that the device comprises: - a first receiving channel which is adapted to a first rectilinear polarisation which corresponds to a first polarisation component (Ex) of the polarisation of the signal transmitted; - a second receiving channel which is adapted to a second rectilinear polarisation which corresponds to a second polarisation component (Ey) of the polarisation of the signal transmitted; and - a correlator which is common to the first receiving channel and the second receiving channel and which is configured to carry out a filtering which is adapted to the modulation code. - a first receiving channel which is adapted to a first rectilinear polarisation which corresponds to a first polarisation component (Ex) of the polarisation of the signal transmitted; - a second receiving channel which is adapted to a second rectilinear polarisation which corresponds to a second polarisation component (Ey) of the polarisation of the signal transmitted; and - a correlator which is common to the first receiving channel and the second receiving channel and which is configured to carry out a filtering which is adapted to the modulation code.
A method in a switching node (18, 100) of a circuit-switched telecommunications network, the method comprising the steps of: receiving from a packet-switched telecommunications network a request (302, 501, 601) to establish a call towards a mobile terminal of the circuit-switched telecommunications network; sending a request message (304, 502, 602) to a location register (20, 200) for an instruction (505, 607) comprising one or more parameters for allowing the continuation of the establishment of the call to the mobile terminal; receiving the one or more parameters from the location register (20, 200); and using at least one of the one or more parameters to establish the call towards the mobile terminal, characterized by sending at least one of the one or more parameters to the packet-switched telecommunications network, the at least one or more parameters being related to the location of the mobile terminal. receiving from a packet-switched telecommunications network a request (302, 501, 601) to establish a call towards a mobile terminal of the circuit-switched telecommunications network; sending a request message (304, 502, 602) to a location register (20, 200) for an instruction (505, 607) comprising one or more parameters for allowing the continuation of the establishment of the call to the mobile terminal; receiving the one or more parameters from the location register (20, 200); and using at least one of the one or more parameters to establish the call towards the mobile terminal, characterized by sending at least one of the one or more parameters to the packet-switched telecommunications network, the at least one or more parameters being related to the location of the mobile terminal.
A double-sided fabric integrally knitted from a first face yarn and a second face yarn, the double-sided fabric comprising a knitted sack and a knitted fabric portion connected to the knitted sack, characterized in that: the knitted fabric portion consists of a plurality of loops knitted from the first face yarn together with the second face yarn, wherein each of the plurality of loops comprises both of the first face yarn and the second face yarn; the knitted sack comprises a front sack portion and a back sack portion divided from the knitted fabric portion, the back sack portion spaced apart from the front sack portion to define a space of the knitted sack between the front sack portion and the back sack portion, the front sack portion consists of a plurality of front loops knitted from the first face yarn of the knitted fabric portion, and the back sack portion consists of a plurality of back loops knitted from the second face yarn of the knitted fabric portion; and a cord material is inserted into the space of the knitted sack and extends back and forth between the front loops and the back loops, wherein: the cord material is folded and stacked between the front loops and the back loops, and isolated in the space of the knitted sack; when viewing from a first side of the double-sided fabric, the cord material is disposed behind the front loops and in front of the back loops; and when viewing from a second side of the double-sided fabric opposite to the first side, the cord material is disposed in front of the front loops and behind the back loops.
A method of predicting cluster numbers or cluster densities that will occur from solid phase amplification of nucleic acids comprising; providing a solid support having a plurality of capture primers immobilised thereon; providing template strands able to hybridise to at least some of said capture primers; labelling the template strands or extensions thereof, if said strands are not already labelled; detecting the signal from the labelled strands or extensions thereof to determine the number of single template strands present on the solid support; and analysing said detected signal to estimate the number of clusters or the cluster densities that will be obtained after cluster amplification of said template strands by correlating the number of single template strands present to the anticipated number or densities of clusters.
A buffering device, comprising a frame and an endless, drivable, flexible conveyor belt being supported by the frame, a supply station for supplying products to the conveyor belt, a discharge station for discharging products from the conveyor belt, a first reversing member for reversing the conveying direction of the conveyor belt which first reversing member is displaceable with respect to the frame, and a return guide (12, 13) which is provided with a second reversing member for reversing the conveying direction of the conveyor belt which second reversing member is displaceable with respect to the frame, wherein the buffering device is adapted such that under operating conditions the conveyor belt moves from the supply station via the first reversing member to the discharge station, after which the conveyor belt is guided back to the supply station via the return guide (12, 13, 16), wherein a portion of the conveyor belt extending from the supply station to the discharge station forms a buffer section of which the length varies upon displacing the first reversing member with respect to the frame and the remaining portion of the conveyor belt forms a compensation section for compensating a change of length of the buffer section during simultaneous displacement of the first and second reversing members (15, 16) with respect to the frame, wherein at least the first reversing member is provided with a buffer carriage (14, 30) with at least a guide for radially guiding the conveyor belt, which guide is fixed to the carriage, wherein the frame comprises two parallel support tracks extending in a transport plane and each having a front end and an opposite rear end, wherein at least the first reversing member is located at least partially between the support tracks as seen from above and along which it is displaceable, and wherein the buffering device is adapted such that under operating conditions the conveyor belt follows one of the support tracks from the front end thereof via the guide of the buffer carriage (14, 30) the other support track in opposite direction to the front end thereof, after which the conveyor belt is again guided back via the return guide (12, 13) to the front end of said one support track, characterized in that the conveyor belt is a first conveyor belt and the buffering device is provided with at least a second endless, drivable, flexible conveyor belt, which extends parallel to the first conveyor belt so as to form a common conveying surface and wherein the first reversing member is provided with a second guide for radially guiding the second conveyor belt which second guide is fixed to the buffer carriage and the second reversing member is provided with guides for radially guiding both conveyor belts which guides are fixed to a compensation carriage (14, 31).
An electronics assembly for an aircraft probe, characterised in that the electronics assembly is insertable into, and removable from the aircraft probe and configured to slide in and out of the aircraft probe, the electronics assembly comprising: a first pressure sensor (42a, 42b, 42c) positioned to be pneumatically connected with a first port (26, 28, 30) of the aircraft probe while the electronics assembly is inserted into the aircraft probe, wherein the first pressure sensor (42a, 42b, 42c) is configured to sense a first pressure; and an input/output interface configured to provide the first pressure to a data bus of an aircraft that includes the aircraft probe. a first pressure sensor (42a, 42b, 42c) positioned to be pneumatically connected with a first port (26, 28, 30) of the aircraft probe while the electronics assembly is inserted into the aircraft probe, wherein the first pressure sensor (42a, 42b, 42c) is configured to sense a first pressure; and an input/output interface configured to provide the first pressure to a data bus of an aircraft that includes the aircraft probe.
Metering system for metering a liquid, which metering system comprises: an electric motor for setting the desired dose by changing the rotational speed of the electric motor; an eccentric drive (52, 56), which can be driven by said electric motor, for a pump that has two pumping directions; a stationary ring; a pump ring made of an elastomeric material, which pump ring is rotationally fixed relative to the stationary ring; wherein the stationary ring is arranged relative to the pump ring and the eccentric drive (52, 56) such that a pump chamber is formed between the stationary ring and the pump ring, which pump chamber, when viewed in a section that extends perpendicularly to the rotational axis of the pump, extends in the circumferential direction and changes its shape when the electric motor rotates in order to pump the liquid to be metered through the pump chamber, a stationary seal being provided in said pump chamber between the relevant suction connector (124; 122) and the relevant discharge connector (122; 124); wherein the pump ring has a recess in the region between the relevant suction connector (124; 122) and the relevant discharge connector (122; 124), through which recess a holding part extends, which holding part presses a portion of the pump ring that is located in said region outwards against the stationary ring and thereby creates a continuous seal in the pump chamber, and wherein the holding part is guided through at least two recesses in a stationary system (151, 152) of the pump and thereby prevents the pump ring from rotating relative to said stationary part during operation. an electric motor for setting the desired dose by changing the rotational speed of the electric motor; an eccentric drive (52, 56), which can be driven by said electric motor, for a pump that has two pumping directions; a stationary ring; a pump ring made of an elastomeric material, which pump ring is rotationally fixed relative to the stationary ring; wherein the stationary ring is arranged relative to the pump ring and the eccentric drive (52, 56) such that a pump chamber is formed between the stationary ring and the pump ring, which pump chamber, when viewed in a section that extends perpendicularly to the rotational axis of the pump, extends in the circumferential direction and changes its shape when the electric motor rotates in order to pump the liquid to be metered through the pump chamber, a stationary seal being provided in said pump chamber between the relevant suction connector (124; 122) and the relevant discharge connector (122; 124); wherein the pump ring has a recess in the region between the relevant suction connector (124; 122) and the relevant discharge connector (122; 124), through which recess a holding part extends, which holding part presses a portion of the pump ring that is located in said region outwards against the stationary ring and thereby creates a continuous seal in the pump chamber, and wherein the holding part is guided through at least two recesses in a stationary system (151, 152) of the pump and thereby prevents the pump ring from rotating relative to said stationary part during operation.