mhurhangee/ep-ind-claims huggingface dataset:
A method for configuring a search space, applied to a terminal device, wherein the method comprises: receiving a configuration signaling sent by a network device, wherein the configuration signaling is used for configuring at least one first search space for cross-carrier scheduling a second cell by a first cell, and the second cell is a self-scheduling cell; and detecting downlink control information in the at least one first search space, characterized in that the configuration signaling is further used for releasing at least one third search space, and the at least one third search space is used for cross-carrier scheduling the second cell by the first cell, or the at least one third search space is used for the second cell to schedule the second cell, wherein the at least one third search space belongs to a first releasing space group. receiving a configuration signaling sent by a network device, wherein the configuration signaling is used for configuring at least one first search space for cross-carrier scheduling a second cell by a first cell, and the second cell is a self-scheduling cell; and detecting downlink control information in the at least one first search space, characterized in that the configuration signaling is further used for releasing at least one third search space, and the at least one third search space is used for cross-carrier scheduling the second cell by the first cell, or the at least one third search space is used for the second cell to schedule the second cell, wherein the at least one third search space belongs to a first releasing space group.
A combustor having wake air injection, comprising: a fuel nozzle; a first vessel formed to define a combustion zone; a second vessel disposed about the first vessel so as to form a first space in the annulus between the first and second vessels (30, 40), the first space forming a flow path along which a first fluid flows in a reverse flow pattern including a first axial direction at a radial location defined radially outwardly of the fuel nozzle, an inward radial direction axially forward of the fuel nozzle and a second axial direction, which is opposite the first axial direction, at a radial location defined to be substantially radially aligned with the fuel nozzle; at least one vane disposed in the first space and configured to inject fuel into the flow of the first fluid; at least one obstruction disposed in the first space upstream of the at least one vane and configured to form a wake in the flow of the first fluid; and at least one injector configured to inject a second fluid from a second space into the first space with an angle of injection of between 20-80° relative to a centerline of the combustor, the injectors being positioned downstream from the obstruction relative to the flow of the first fluid through the first space. a fuel nozzle; a first vessel formed to define a combustion zone; a second vessel disposed about the first vessel so as to form a first space in the annulus between the first and second vessels (30, 40), the first space forming a flow path along which a first fluid flows in a reverse flow pattern including a first axial direction at a radial location defined radially outwardly of the fuel nozzle, an inward radial direction axially forward of the fuel nozzle and a second axial direction, which is opposite the first axial direction, at a radial location defined to be substantially radially aligned with the fuel nozzle; at least one vane disposed in the first space and configured to inject fuel into the flow of the first fluid; at least one obstruction disposed in the first space upstream of the at least one vane and configured to form a wake in the flow of the first fluid; and at least one injector configured to inject a second fluid from a second space into the first space with an angle of injection of between 20-80° relative to a centerline of the combustor, the injectors being positioned downstream from the obstruction relative to the flow of the first fluid through the first space.
A distributed avionics system (100, 500) having a plurality of computer nodes arranged to execute a plurality of partitions/applications (P1, P2, P3, P4, P5, P6), said distributed avionics system comprising reconfiguration means arranged to reconfigure the distributed avionics system upon detection of failure in at least one of the computer nodes, wherein - each partition/application is associated to a application/partition availability level, and in that the reconfiguration means are arranged to reconfigure the distributed avionics system based on the partition/application availability levels of the partition/applications (P1, P2, P3, P4, P5, P6); and characterized in that - each computer node is assigned to at least one unique role and in that each role comprises a subset of the partitions/applications (P1, P2, P3, P4, P5, P6); and - each role is associated to a role availability level defining a maximum allowable partition/application availability level to be executed in that role, wherein the availability levels indicate a criticality of the role, and wherein the reconfiguration means are arranged to assign the subset of partitions/applications, of the role associated to the computer node in which failure has been detected, to one computer node presently associated to the role having the lowest availability level. - each partition/application is associated to a application/partition availability level, and in that the reconfiguration means are arranged to reconfigure the distributed avionics system based on the partition/application availability levels of the partition/applications (P1, P2, P3, P4, P5, P6); and characterized in that - each computer node is assigned to at least one unique role and in that each role comprises a subset of the partitions/applications (P1, P2, P3, P4, P5, P6); and - each role is associated to a role availability level defining a maximum allowable partition/application availability level to be executed in that role, wherein the availability levels indicate a criticality of the role, and
An imaging system comprising at least one camera, a background element and a pair of mirrors (2a, 2b), where the surfaces of the mirrors in the pair are angled from each other at an angle α and the mirrors (2a, 2b) are arranged with a respective mirror surface edge to edge with each other, where the imaging system is intended for receiving a sample along a main axis extending between the mirrors, where the mirrors and the camera are so arranged that the camera views the sample from three different angles in a single image, the camera is directed towards the mirror pair (2a, 2b) and sees through reflection in both mirrors the background element in all three views, characterized in that the background element comprises a surface directed towards the mirror pair, wherein said background element is formed as a cylinder portion with a cylinder axis deviating from the main axis.
Dispenser head for a beverage cask which has a valve head with a spring-loaded valve disc, comprising a housing, a connection element (8.1, 8.7) for fastening the housing to the valve head of the beverage cask, a propellant gas inlet, configured on the housing, for connecting a propellant gas line, a ram which is mounted movably in the housing and contains a riser duct (11.5) and which, by pressing into the valve head, opens the spring-loaded valve disc, a liquid outlet (8.4) for connecting a beverage line and an actuating mechanism for actuating the ram, wherein the actuating mechanism is configured as a rotational mechanism which has a spiral gearing and a hand wheel connected to the ram and to the spiral gearing, characterised in that the liquid outlet (8.4) is arranged on the housing below the hand wheel, the ram having a cross passage (11.6) which runs into the riser duct (11.5) and which, in an upper position of the ram, is arranged such that it is sealed and offset with respect to the liquid outlet (8.4) and which, in a lower position of the ram in which the ram opens the spring-loaded valve disc, is arranged such that it overlaps the liquid outlet (8.4).
A method of treating a solid substrate comprising the following steps: a) bringing the solid substrate into contact with a liquid metal, confined inside an enclosure; b) propagation of an ultrasonic wave, called a power wave, emitted by a power ultrasound generating device in the liquid metal, the ultrasonic power wave propagating though the liquid metal before reaching the surface of the solid substrate, in such a way that at said surface of the substrate the power density of the ultrasonic power wave is greater than a cavitation threshold of the liquid metal, the frequency of the ultrasonic power wave being between 40 kHz and 250 kHz; c) following the propagation of the ultrasonic power wave, obtaining cavitation bubbles in the liquid metal, the cavitation bubbles reaching the surface of the solid substrate, the interaction of the cavitation bubbles with the surface of the solid substrate increasing the wettability of the latter by the liquid metal and in which the ultrasonic power wave can in particular propagate from the power generator, and pass through a so-called interface surface extending into contact with the liquid metal, the method comprising the formation of cavitation bubbles inside a cone, called a hyper-cavitation cone, in which the density of the cavitation bubbles is higher than outside the cone, the hyper-cavitation cone extending within the liquid metal from the interface surface, the method being such that in step c) the solid substrate is arranged outside the hyper-cavitation cone. a) bringing the solid substrate into contact with a liquid metal, confined inside an enclosure; b) propagation of an ultrasonic wave, called a power wave, emitted by a power ultrasound generating device in the liquid metal, the ultrasonic power wave propagating though the liquid metal before reaching the surface of the solid substrate, in such a way that at said surface of the substrate the power density of the ultrasonic power wave is greater than a cavitation threshold of the liquid metal, the frequency of the ultrasonic power wave being between 40 kHz and 250 kHz; c) following the propagation of the ultrasonic power wave, obtaining cavitation bubbles in the liquid metal, the cavitation bubbles reaching the surface of the solid substrate, the interaction of the cavitation bubbles with the surface of the solid substrate increasing the wettability of the latter by the liquid metal and in which the ultrasonic power wave can in particular propagate from the power generator, and pass through a so-called interface surface extending into contact with the liquid metal, the method comprising the formation of cavitation bubbles inside a cone, called a hyper-cavitation cone, in which the density of the cavitation bubbles is higher than outside the cone, the hyper-cavitation cone extending within the liquid metal from the interface surface, the method being such that in step c) the solid substrate is arranged outside the hyper-cavitation cone.
Multipath receiver comprising: a reorder queue configured to queue data packets received over multiple paths, a reorder queue controller configured to reorder the data packets in the reorder queue according to a reorder criterion, the reorder queue controller is configured to allow Multi-Access Protocol Data Unit, MA PDU, Sessions based on Access Traffic Steering, Switching, and Splitting, ATSSS, wherein the reorder queue controller is configured to choose to activate a reordering of the data packets, wherein the reorder queue controller is configured to negotiate the activation of the reordering of the data packets with the peers of the MA PDU Session based on an ATSSS use case, wherein in case reordering is activated, the data packets are queued in a reorder queue, wherein the reorder criterion is based on a sequence numbering of the data packets of a MA PDU Session based on the ATSSS use case. a reorder queue configured to queue data packets received over multiple paths, a reorder queue controller configured to reorder the data packets in the reorder queue according to a reorder criterion, the reorder queue controller is configured to allow Multi-Access Protocol Data Unit, MA PDU, Sessions based on Access Traffic Steering, Switching, and Splitting, ATSSS, wherein the reorder queue controller is configured to choose to activate a reordering of the data packets, wherein the reorder queue controller is configured to negotiate the activation of the reordering of the data packets with the peers of the MA PDU Session based on an ATSSS use case, wherein in case reordering is activated, the data packets are queued in a reorder queue, wherein the reorder criterion is based on a sequence numbering of the data packets of a MA PDU Session based on the ATSSS use case.
A process for the production of leather, wherein tanned animal hides are treated in step with an aqueous liquor which comprises (a) at least one copolymer obtainable by copolymerization of at least one ethylenically unsaturated C 4 -C 8 -dicarboxylic acid or at least one derivative of an ethylenically unsaturated C 4 -C 8 -dicarboxylic acid and at least one C 8 -C 100 -α-olefin and, optionally hydrolysis and/or at least partial neutralization, (b) at least one paraffin which is liquid at room temperature, (c) at least one synthetic nonionic emulsifier, the aqueous liquor being free of silicones. (a) at least one copolymer obtainable by copolymerization of at least one ethylenically unsaturated C 4 -C 8 -dicarboxylic acid or at least one derivative of an ethylenically unsaturated C 4 -C 8 -dicarboxylic acid and at least one C 8 -C 100 -α-olefin and, optionally hydrolysis and/or at least partial neutralization, (b) at least one paraffin which is liquid at room temperature, (c) at least one synthetic nonionic emulsifier, the aqueous liquor being free of silicones.
A polymer composition, comprising: a polymer resin; and a flame retardant package dispersed within the polymer resin, wherein the flame retardant package includes an additive, the additive comprising: a polyoxometalate ionic liquid, wherein the PIL includes organic cations that produce an acid upon heating; and a synergist carrier, wherein the synergist carrier is zeolite 4A, wherein the PIL is formed from an ionic liquid produced from a reaction between at least one of ammonium, imidazolium, guanidinium, pyridium, morpholinium, pyridazinium, 1,2,4-triazolium, triazine, sulfonium, phosphazenium, or phosphonium and a phosphorous-based, boron-based, or sulfur-based acid or anion. a polymer resin; and a flame retardant package dispersed within the polymer resin, wherein the flame retardant package includes an additive, the additive comprising: a polyoxometalate ionic liquid, wherein the PIL includes organic cations that produce an acid upon heating; and a synergist carrier, wherein the synergist carrier is zeolite 4A, wherein the PIL is formed from an ionic liquid produced from a reaction between at least one of ammonium, imidazolium, guanidinium, pyridium, morpholinium, pyridazinium, 1,2,4-triazolium, triazine, sulfonium, phosphazenium, or phosphonium and a phosphorous-based, boron-based, or sulfur-based acid or anion. a polyoxometalate ionic liquid, wherein the PIL includes organic cations that produce an acid upon heating; and a synergist carrier, wherein the synergist carrier is zeolite 4A, wherein the PIL is formed from an ionic liquid produced from a reaction between at least one of ammonium, imidazolium, guanidinium, pyridium, morpholinium, pyridazinium, 1,2,4-triazolium, triazine, sulfonium, phosphazenium, or phosphonium and a phosphorous-based, boron-based, or sulfur-based acid or anion.
A method for manufacturing a decorative sheet for decorative panels comprising the steps of: a) providing a first printed substrate having a printed color patch having multiple printed color spots; b) subjecting the first printed substrate to at least a predetermined operation that cause a color shift of said color spots; c) determining a first color coordinate set for said color spot after performing step b); d) determining a first ICC profile using said first set of color coordinate set; e) visualizing a first master image on a display device using said first ICC profile; f) performing an image processing operation on said first master image to obtain a second master image during said visualization, said image processing operation being s performed by an operator; g) printing said second master image on a second substrate to obtain the decorative layer. a) providing a first printed substrate having a printed color patch having multiple printed color spots; b) subjecting the first printed substrate to at least a predetermined operation that cause a color shift of said color spots; c) determining a first color coordinate set for said color spot after performing step b); d) determining a first ICC profile using said first set of color coordinate set; e) visualizing a first master image on a display device using said first ICC profile; f) performing an image processing operation on said first master image to obtain a second master image during said visualization, said image processing operation being s performed by an operator; g) printing said second master image on a second substrate to obtain the decorative layer.
An electric driving device comprising: an electric motor and a control device disposed on an axial line of a rotor shaft of the electric motor and controlling driving of the electric motor, wherein the control device includes: semiconductor switching devices (15 and 16) forming a three-phase bridge circuit that controls a current of the electric motor; capacitors suppressing a ripple component of a current flowing to the electric motor; a coil reducing noises generated during a switching action of the semiconductor switching devices (15 and 16); a power circuit portion including the semiconductor switching devices (15 and 16), the capacitors, and the coil; a heat sink releasing heat generated from the power circuit portion; and a control board on which is mounted a microcomputer that generates a drive signal to drive the semiconductor switching devices (15 and 16), wherein the semiconductor switching devices (15 and 16) and the capacitors are provided in pairs for respective arms (A, B, and C) of the three-phase bridge circuit and disposed concentrically with the rotor shaft; and electrical conducting plates electrically connect the arms (A, B, and C) and the capacitors, characterized in that the respective electrical conducting plates are disposed along the respective arms (A, B, and C) while a positive wiring and a negative wiring of a DC power supply are aligned parallel to each other, and the electrical conducting plates are formed in a ring shape and disposed in such a manner that the positive wiring and the negative wiring are disposed concentrically with the rotor shaft. semiconductor switching devices (15 and 16) forming a three-phase bridge circuit that controls a current of the electric motor; capacitors suppressing a ripple component of a current flowing to the electric motor; a coil reducing noises generated during a switching action of the semiconductor switching devices (15 and 16); a power circuit portion including the semiconductor switching devices (15 and 16), the capacitors, and the coil; a heat sink releasing heat generated from the power circuit portion; and a control board on which is mounted a microcomputer that generates a drive signal to drive the semiconductor switching devices (15 and 16), wherein the semiconductor switching devices (15 and 16) and the capacitors are provided in pairs for respective arms (A, B, and C) of the three-phase bridge circuit and disposed concentrically with the rotor shaft; and electrical conducting plates electrically connect the arms (A, B, and C) and the capacitors, characterized in that the respective electrical conducting plates are disposed along the respective arms (A, B, and C) while a positive wiring and a negative wiring of a DC power supply are aligned parallel to each other, and the electrical conducting plates are formed in a ring shape and disposed in such a manner that the positive wiring and the negative wiring are disposed concentrically with the rotor shaft.
A system comprising a cannula (26, 158) having a lumen, and a guidewire, characterized in that the system is for increasing blood flow between a chamber in a heart of a patient and a first location in the circulatory system of the patient, the system further comprising a blood pump having an inlet and an outlet, the outlet being adapted for connection to the first location In the circulatory system of the patient, the cannula (26, 158) having a proximal end portion configured to coupled to the inlet of the blood pump, and a distal end portion configured for insertion into the chamber of the heart, and an insertion device configured to be received within the lumen of the cannula, the insertion device Including a lumen (204, 206) extending at least partially therethrough for receiving the guide wire so that the Insertion device can be directed along the guide wire, the insertion device further including a compressible member configured to expand in a generally radially outward direction when compressed in an axial direction, wherein the compressible member is movable from an initial state in which it has a radial dimension smaller than the lumen of the cannula to a compressed state in which it has a radial dimension larger than the lumen of the cannula to releasably secure the insertion device to the cannula.
A method for joining, assembling, at least two parts (1, 2, 21, 22) made of silicon carbide-based materials by non-reactive brazing, wherein the parts (1, 2, 21, 22) are contacted with a non-reactive brazing composition (3, 26), the assembly formed by the parts (1, 2, 21, 22) and the brazing composition (3, 26) is heated to a brazing temperature sufficient to melt the brazing composition (3, 26) totally or at least partly, and the parts (1, 2, 21, 22) and the brazing composition (3, 26) are cooled so that, after solidification of the brazing composition, a moderately refractory joint is formed; characterized in that the non-reactive brazing composition (3, 26) is a binary alloy consisting, in atomic percentages, of 60% to 66% silicon and 34% to 40% nickel.
A liner comprising: a plurality of individual projectile cells; and a web of joining material between the projectile cells, holding the plurality of projectile cells in a monolithic structure; wherein the liner is cylindrical; and wherein each of the plurality of individual projectile cells is formed of a first metal and the web of joining material is a metal alloy of the first metal and a second metal. a plurality of individual projectile cells; and a web of joining material between the projectile cells, holding the plurality of projectile cells in a monolithic structure; wherein the liner is cylindrical; and wherein each of the plurality of individual projectile cells is formed of a first metal and the web of joining material is a metal alloy of the first metal and a second metal.