mhurhangee/ep-ind-claims huggingface dataset:
A printing assembly, wherein the printing assembly has at least one frame, which has at least two side walls, between which a transport path provided for a transport of printing material at least partially extends and wherein at least one transport direction is defined by the transport path provided for the transport of printing material and wherein the printing assembly has at least two crossmembers spaced apart from each other in the transport direction, which each extend from one of the side walls to another of the side walls and wherein the printing assembly has at least one supporting body which can be moved relative to the frame in at least one parking direction by means of at least one parking drive, said supporting body extending at least in the transverse direction between the side walls and wherein at least two printing heads are arranged on the at least one supporting body and can be moved jointly with the at least one supporting body, wherein in each case between two adjacent crossmembers of the at least two crossmembers in the transport direction in each case one printing head chamber lies, in which in each case at least one printing head is arranged and/or can be arranged and wherein each of the at least two crossmembers has at least one first crossbeam and at least one second crossbeam spaced apart therefrom, which jointly bound at least one interior of the respective crossmember at least partially in and against the transport direction and that at least one component of a gas transport device and/or at least one additional device (247; 263; 601; 602; 603; 604; 607; 608) for supplying at least one printing head with energy and/or operating media and/or printing fluid and/or data and/or at least a gas and/or at least one inner additional device (247; 263; 601; 602; 603; 604; 607; 608) for cleaning and/or maintaining and/or covering at least one printing head is arranged in the at least one interior in each case and wherein at least one spacer is arranged between the respective at least one first crossbeam and the respective at least one second crossbeam and wherein the at least one spacer has a distance to each of the at least two side walls which corresponds to at least 20% of a working width of the printing assembly.
An explosive device (10; 60; 70; 80; 90; 100; 120) comprising: - a sheet of material (11; 61; 71; 81, 85; 91; 121) provided with at least one hole; wherein said at least one hole (12; 62; 72; 82; 92; 110; 116) forms an opening in a first side of said sheet of material (11; 61; 71; 81, 85; 91; 121); - an explosive material (13; 63; 73; 83; 93; 117); wherein said at least one hole (12; 62; 72; 82; 92; 110; 116) is at least partially filled with said explosive material (13; 63; 73; 83; 93; 117); and - at least one igniting stimulus (16, 17; 23; 66; 74; 87, 88; 97, 98; 112, 113; 118, 119, 126-129) configured to ignite said explosive material (13; 63; 73; 83; 93; 117) when activated, characterized by - conductive surfaces (14, 15; 64, 65; 76, 77; 95, 96; 107, 108; 122-125) on said first side of said sheet of material (11; 61; 71; 81, 85; 91; 121); wherein said at least one igniting stimulus (16, 17; 23; 66; 74; 87, 88; 97, 98; 112, 113; 118, 119, 126-129) is arranged on said first side connected to said conductive surfaces (14, 15; 64, 65; 76, 77; 95, 96; 107, 108; 122-125). - a sheet of material (11; 61; 71; 81, 85; 91; 121) provided with at least one hole; wherein said at least one hole (12; 62; 72; 82; 92; 110; 116) forms an opening in a first side of said sheet of material (11; 61; 71; 81, 85; 91; 121); - an explosive material (13; 63; 73; 83; 93; 117); wherein said at least one hole (12; 62; 72; 82; 92; 110; 116) is at least partially filled with said explosive material (13; 63; 73; 83; 93; 117); and - at least one igniting stimulus (16, 17; 23; 66; 74; 87, 88; 97, 98; 112, 113; 118, 119, 126-129) configured to ignite said explosive material (13; 63; 73; 83; 93; 117) when activated, - conductive surfaces (14, 15; 64, 65; 76, 77; 95, 96; 107, 108; 122-125) on said first side of said sheet of material (11; 61; 71; 81, 85; 91; 121);
An end pressure plate for at least one of an electrolyser stack and an electrolyser module comprising a load transfer plate for maintaining even pressure over the faces of a plurality of structural plates, and a backing plate for supporting load transferred from said load transfer plate, wherein either one face of said load transfer plate is flat and is in contact with an opposing face of the adjacent of said plurality of structural plates (10a-d); and, the opposite face of said load transfer plate includes a convex domed surface in contact with an opposing face of said backing plate; or both faces of said load transfer plate are flat and one of said faces of said load transfer plate is in contact with an opposing face of the adjacent of said plurality of structural plates; the opposite face of said load transfer plate is in contact with an opposing face of said backing plate; and, said opposing face of said backing plate includes a convex domed surface (4, 5, 6).
A light control member comprising: a first laminate which includes a substrate and an alignment layer; a second laminate which includes a substrate and an alignment layer and is disposed with respect to the first laminate so that their alignment layers face each other; a liquid crystal layer which is disposed between the first laminate and the second laminate and of which alignment is controlled by the driving of an electrode provided in at least one of the first laminate and the second laminate; and a plurality of bead spacers which are disposed in the liquid crystal layer, wherein at least one alignment layer of the alignment layer of the first laminate and the alignment layer of the second laminate is provided with a plurality of projections which protrude toward the liquid crystal layer, wherein at least a part of the bead spacers is held by the projections provided by the one alignment layer, and wherein a ratio of a number S2 of the aggregated bead spacers aggregated in two or more and four or less with respect to a total number S1 of the plurality of bead spacers disposed in the liquid crystal layer is 20% or more, wherein the total number S1 of bead spacers is the sum of the number of non-aggregated bead spacers and the number of the aggregations. a first laminate which includes a substrate and an alignment layer; a second laminate which includes a substrate and an alignment layer and is disposed with respect to the first laminate so that their alignment layers face each other; a liquid crystal layer which is disposed between the first laminate and the second laminate and of which alignment is controlled by the driving of an electrode provided in at least one of the first laminate and the second laminate; and a plurality of bead spacers which are disposed in the liquid crystal layer, wherein at least one alignment layer of the alignment layer of the first laminate and the alignment layer of the second laminate is provided with a plurality of projections which protrude toward the liquid crystal layer, wherein at least a part of the bead spacers is held by the projections provided by the one alignment layer, and wherein a ratio of a number S2 of the aggregated bead spacers aggregated in two or more and four or less with respect to a total number S1 of the plurality of bead spacers disposed in the liquid crystal layer is 20% or more, wherein the total number S1 of bead spacers is the sum of the number of non-aggregated bead spacers and the number of the aggregations.
A hydraulic system (1A-1E) comprising a rotational shaft, a hydraulic rotor supported by the rotational shaft so as to be incapable of relative rotation, an output adjuster that varies a volume of the hydraulic rotor, a control shaft that tilts the output adjuster in accordance with rotation around an axis, a drive motor that produces rotational power for operating the control shaft around the axis, a drive shaft disposed on a reference axis that is the same axis as the axis of the control shaft and operably driven around the axis by the drive motor, a deceleration mechanism that decelerates rotary power operably input from the drive shaft and outputs the decelerated rotary power toward the control shaft, and a housing that accommodates the hydraulic rotor, the output adjuster, and the deceleration mechanism, the hydraulic system (1A-1E) being characterized in that, the deceleration mechanism has a hypocycloid-type deceleration mechanism disposed on the reference axis, wherein the housing includes a hydraulic case that accommodates the hydraulic rotor and the output adjuster, and a unit case (150, 400, 650) that accommodates the deceleration mechanism and the drive motor and is removably connected to the hydraulic case; the hydraulic case has a control shaft bearing hole that opens an end face of the control shaft outward; and the unit case (150, 400, 650) is connected to the hydraulic case to cover the control shaft bearing hole, with an output member of the hypocycloid-type deceleration mechanism being connected to the control shaft so as to be incapable of relative rotation around the reference axis.
Method for separating gases containing helium, characterized in that it is carried out in an apparatus which has a feed stream separation stage, a retentate separation stage and a permeate separation stage, as well as at least one compressor and/or at least one, preferably one or two, vacuum pump(s), the feed stream separation stage separates a feed stream consisting of helium and at least one other component into a first permeate stream enriched with regard to helium compared to the feed stream, and a first retentate stream depleted with regard to helium compared to the feed stream, the retentate separation stage separates the first retentate stream into a second permeate stream enriched with regard to helium compared to the first retentate stream, and a second retentate stream depleted with regard to helium compared to the first retentate stream, the permeate separation stage separates the first permeate stream into a third retentate stream depleted with regard to helium compared to the first permeate stream, and a third permeate stream enriched with regard to helium compared to the first permeate stream, the third permeate stream is removed as product or processed further and optionally the second retentate stream is removed as a first further product or processed further or discarded, the second permeate stream and the third retentate stream are fed to the feed stream, the first permeate stream is not subjected to a recompression, the control of the gas volume recycled with the second permeate stream and the third retentate stream to the feed stream is adjusted such that, in total, less than 50% by volume, preferably 5 to 40% by volume, very particularly preferably 5 to 30% by volume and especially preferably 10 to 25% by volume, of the volume of the crude gas stream are recycled, and the helium concentration after the first recycling of the second permeate stream and of the third retentate stream in the feed stream is increased, preferably by at least 2%, particularly preferably by at least 3%, particularly preferably by 4 to 10% and very particularly preferably by 5 to 10%, in each case compared to the concentration in the crude gas stream, and the concentration of helium in the third permeate stream is greater than 50% by volume.
A method of moving an aircraft undercarriage that is movable between a retracted position and a deployed position, the method comprising: • using a rotary electromechanical type drive actuator coupled to a portion of the undercarriage in order to raise it from the deployed position to the retracted position; • disengaging the drive actuator during a descent of the undercarriage from the retracted position to the deployed position and using a hydraulic linear shock absorber coupled to a portion of the undercarriage in order to regulate the rate of descent and/or in order to absorb shock on arrival of the undercarriage in the deployed position; and • neutralizing the shock absorber while raising the undercarriage. • using a rotary electromechanical type drive actuator coupled to a portion of the undercarriage in order to raise it from the deployed position to the retracted position; • disengaging the drive actuator during a descent of the undercarriage from the retracted position to the deployed position and using a hydraulic linear shock absorber coupled to a portion of the undercarriage in order to regulate the rate of descent and/or in order to absorb shock on arrival of the undercarriage in the deployed position; and • neutralizing the shock absorber while raising the undercarriage.
Three-phase transformer adapted to be connected to a twelve-phase rectifier including two full-wave three-phase rectifiers (3,4) connected in parallel or in series, comprising: - a main magnetic core comprising three columns (51, 52, 53) connected magnetically in parallel at their ends by two yokes (54, 55), and on each of which are wound: - a pair of primary windings (11, 14; 12, 15; 13, 16) connected in parallel, - two secondary windings, three of the secondary windings wound on separate columns being Delta connected to terminals of the transformer adapted to be connected to a first full wave three-phase rectifier, the other three secondary windings being connected in star configuration to terminals of the transformer adapted to be connected to the second full wave three-phase rectifier, - an auxiliary core comprising three columns (61, 62, 63) connected magnetically at their ends by two field closure yokes (64, 65), one of said pairs of primary windings (11, 14; 12, 15; 13, 16) being wound on each of the columns, and comprising a median magnetic portion connecting the midpoints of each column (61, 62, 63) located between two primary windings of the same pair (11, 14; 12, 15; 13, 16). - a main magnetic core comprising three columns (51, 52, 53) connected magnetically in parallel at their ends by two yokes (54, 55), and on each of which are wound: - a pair of primary windings (11, 14; 12, 15; 13, 16) connected in parallel, - two secondary windings, three of the secondary windings wound on separate columns being Delta connected to terminals of the transformer adapted to be connected to a first full wave three-phase rectifier, the other three secondary windings being connected in star configuration to terminals of the transformer adapted to be connected to the second full wave three-phase rectifier, - a pair of primary windings (11, 14; 12, 15; 13, 16) connected in parallel, - two secondary windings, - an auxiliary core comprising three columns (61, 62, 63) connected magnetically at their ends by two field closure yokes (64, 65), one of said pairs of primary windings (11, 14; 12, 15; 13, 16) being wound on each of the columns, and comprising a median magnetic portion connecting the midpoints of each column (61, 62, 63) located between two primary windings of the same pair (11, 14; 12, 15; 13, 16).
A method for scheduling multi-flow transmission, comprising: receiving, by a terminal device, media access control, MAC, layer configuration parameters of at least two MAC entities, wherein the MAC layer configuration parameters of each MAC entity of the at least two MAC entities comprise a set of mapping, the set of mapping comprises a first mapping and a second mapping, the MAC layer configuration parameters of each of the at least two MAC entities comprise a MAC layer-related parameter, and a first MAC entity of the at least two MAC entities maps to a macro cell and a second MAC entity of the at least two MAC entities maps to a low power node, LPN, cell; and executing, according to the MAC layer configuration parameters of the at least two MAC entities, by the terminal device, MAC layer functions corresponding to each MAC entity of the at least two MAC entities, wherein the first mapping is a mapping between a logic channel and each MAC entity, or a mapping between a radio bearer, RB, and each MAC entity; the second mapping is a mapping between each MAC entity and one or more cells or a mapping between each MAC entity and one or more physical entities; and the MAC layer-related parameter comprises at least one of the following items: a discontinuous reception, DRX, configuration parameter, a semi-persistent schedule, SPS, configuration parameter, and hybrid automatic repeat request, HARQ, retransmission times. receiving, by a terminal device, media access control, MAC, layer configuration parameters of at least two MAC entities, wherein the MAC layer configuration parameters of each MAC entity of the at least two MAC entities comprise a set of mapping, the set of mapping comprises a first mapping and a second mapping, the MAC layer configuration parameters of each of the at least two MAC entities comprise a MAC layer-related parameter, and a first MAC entity of the at least two MAC entities maps to a macro cell and a second MAC entity of the at least two MAC entities maps to a low power node, LPN, cell; and executing, according to the MAC layer configuration parameters of the at least two MAC entities, by the terminal device, MAC layer functions corresponding to each MAC entity of the at least two MAC entities, wherein the first mapping is a mapping between a logic channel and each MAC entity, or a mapping between a radio bearer, RB, and each MAC entity; the second mapping is a mapping between each MAC entity and one or more cells or a mapping between each MAC entity and one or more physical entities; and the MAC layer-related parameter comprises at least one of the following items: a discontinuous reception, DRX, configuration parameter, a semi-persistent schedule, SPS, configuration parameter, and hybrid automatic repeat request, HARQ, retransmission times.
A method for measuring and determining a pulse arrival time value of a user using a sensor device comprising a photoplethysmographic multichannel sensor formed from a plurality of PPG sensor channels and being adapted to measure a set of PPG signals, each PPG signal being measured by one of the PPG sensor channels when the multichannel PPG sensor is in contact with the user; comprising: measuring said set of PPG signals; extracting a plurality of features from each of the measured PPG signals of the set of measured PPG signals; characterized in that the method further comprises selecting a subset of measured PPG signals from the set of measured PPG signals based on the plurality of extracted features; and processing the selected subset of measured PPG signals to determine the PAT value. measuring said set of PPG signals; extracting a plurality of features from each of the measured PPG signals of the set of measured PPG signals; characterized in that the method further comprises selecting a subset of measured PPG signals from the set of measured PPG signals based on the plurality of extracted features; and processing the selected subset of measured PPG signals to determine the PAT value.
A method performed by a Packet Forwarding Control Protocol, PFCP, node for providing an enhanced PFCP association procedure for session restoration, comprising: deleting (106a; 106b) PFCP sessions in the PFCP node that are associated with one or more failed PFCP entities in the same PFCP node or with a failed PFCP path; and sending (108a; 108b), to a PFCP peer node, a node level message to request that the PFCP peer node delete a corresponding one or more PFCP sessions of the PFCP peer node that are associated with the failed PFCP entity or with the failed PFCP path, wherein the node level message comprises an indication of the corresponding one or more PFCP sessions. deleting (106a; 106b) PFCP sessions in the PFCP node that are associated with one or more failed PFCP entities in the same PFCP node or with a failed PFCP path; and sending (108a; 108b), to a PFCP peer node, a node level message to request that the PFCP peer node delete a corresponding one or more PFCP sessions of the PFCP peer node that are associated with the failed PFCP entity or with the failed PFCP path, wherein the node level message comprises an indication of the corresponding one or more PFCP sessions.
A delivery assembly for a machine for preparing liquid products by means of cartridges that have a substantially cup-shaped body that houses an amount of at least one substance capable of forming a liquid product via water and/or steam, the delivery assembly having a substantially horizontal axis and including: - an injector device, capable to introduce into a cartridge water and/or steam under pressure; - an infusion chamber facing the injector device and capable to receive one said cartridge; - an actuation system, capable to cause displacements of the infusion chamber between a spaced position and a close position with respect to the injector device, the delivery assembly also comprising a loading arrangement that includes an inlet passage and retention means, wherein the inlet passage is capable of enabling insertion of a cartridge into the delivery assembly and the retention means are capable of maintaining the cartridge in a position substantially coaxial to the infusion chamber and to the injector device, wherein the retention means are switchable between a retention condition and a release condition of the cartridge by means of said displacements of the infusion chamber with respect to the injector device, wherein the delivery assembly further comprises ejector means (34, 56), which are functionally distinct from said retention means and capable to push the cartridge towards the outside of the infusion chamber in function of the displacement of the infusion chamber towards its spaced position with respect to the injector device, the delivery assembly being charcaterized in that it also comprises coupling means borne by the infusion chamber, the coupling means being capable of assuming a condition of engagement and a condition of disengagement with respect to a cartridge in the course of the displacement of the infusion chamber towards said close position and towards said spaced position, respectively. - an injector device, capable to introduce into a cartridge water and/or steam under pressure; - an infusion chamber facing the injector device and capable to receive one said cartridge; - an actuation system, capable to cause displacements of the infusion chamber between a spaced position and a close position with respect to the injector device,