mhurhangee/ep-ind-claims huggingface dataset:
A method for configuring the temporal position of DeModulation Reference Symbols, hereafter referred to as DMRS, in sidelink transmissions of User Equipments, UEs, in a cellular communications network, the method performed at a User Equipment, UE, and comprising the steps of selecting a DMRS temporal position configuration from a set of predefined DMRS temporal position configurations stored in at least one preconfigured table, transmitting a Sidelink Control Information, SCI, message to a second UE including an indication of the selected DMRS temporal position configuration, and transmitting data from the UE comprising DMRS in the temporal positions indicated by the configuration, characterised in that the data is transmitted in a plurality of aggregated mini-slots and the DMRS temporal position configuration applies across the aggregated mini-slots, and wherein one of the at least one preconfigured table comprises options for a sub-sampling factor, controlling the DMRS density in the frequency domain, for DMRS signals in a transmission. selecting a DMRS temporal position configuration from a set of predefined DMRS temporal position configurations stored in at least one preconfigured table, transmitting a Sidelink Control Information, SCI, message to a second UE including an indication of the selected DMRS temporal position configuration, and transmitting data from the UE comprising DMRS in the temporal positions indicated by the configuration, characterised in that the data is transmitted in a plurality of aggregated mini-slots and the DMRS temporal position configuration applies across the aggregated mini-slots, and wherein one of the at least one preconfigured table comprises options for a sub-sampling factor, controlling the DMRS density in the frequency domain, for DMRS signals in a transmission.
A compound of formula (Ia) wherein: R 2 is C 1-4 -alkyl, which is optionally substituted with one hydroxy substituent, or is phenyl-C 1-2 -alkyl; R 3 is hydroxy-C 1-6 -alkyl, C 3-7 -cycloalkyl-C 1-3 -alkyl or phenyl-C 1-3 -alkyl; and R 4 is hydrogen, C 1-3 -alkyl or C 3-7 -cycloalkyl-C 1-3 -alkyl. R 2 is C 1-4 -alkyl, which is optionally substituted with one hydroxy substituent, or is phenyl-C 1-2 -alkyl; R 3 is hydroxy-C 1-6 -alkyl, C 3-7 -cycloalkyl-C 1-3 -alkyl or phenyl-C 1-3 -alkyl; and R 4 is hydrogen, C 1-3 -alkyl or C 3-7 -cycloalkyl-C 1-3 -alkyl.
A method of producing an abrasive tip for a turbine blade, comprising: producing or obtaining a metal powder that is mixed with an abrasive ceramic powder; producing or obtaining a metallic mold that is in the shape of an airfoil, wherein the metallic mold comprises a hollow interior portion; sealing the metal and ceramic powder mixture within the hollow interior portion of the metallic mold under vacuum; subjecting the sealed mold to a hot isostatic pressing process, whereby the hot isostatic pressing process compacts and binds the metal and ceramic powder mixture together into a solid article in the shape of the airfoil; slicing the solid article into a plurality of airfoil-shaped slices; and bonding one slice of the plurality of airfoil-shaped slices to a tip portion of a turbine blade. producing or obtaining a metal powder that is mixed with an abrasive ceramic powder; producing or obtaining a metallic mold that is in the shape of an airfoil, wherein the metallic mold comprises a hollow interior portion; sealing the metal and ceramic powder mixture within the hollow interior portion of the metallic mold under vacuum; subjecting the sealed mold to a hot isostatic pressing process, whereby the hot isostatic pressing process compacts and binds the metal and ceramic powder mixture together into a solid article in the shape of the airfoil; slicing the solid article into a plurality of airfoil-shaped slices; and bonding one slice of the plurality of airfoil-shaped slices to a tip portion of a turbine blade.
A method for capturing an image of a scene using an imaging device comprising a processor, wherein the imaging device is moved by a user, the method comprising: determining, by the processor, based on an initial position of the imaging device, a coordinate system with an origin in a three-dimensional, 3D, space of the scene; generating, by the processor, based on the coordinate system and the origin, a set of first reference points in the 3D space; generating, by the processor, a set of second reference points, wherein each second reference point corresponds to one of the first reference points, wherein a second reference point corresponds to a first reference point if the first reference point, the second reference point and the origin are collinear; generating, by the processor, a third reference point corresponding to an optical center of the imaging device; and capturing an image, in response to the third reference point, a respective second reference point and its corresponding first reference point being collinear; the method characterised in that the set of the first reference points includes a first subset of the first reference points and a second subset of the first reference points; wherein the first subset of the first reference points are in a first plane; and wherein the second subset of the first reference points are in a second plane. determining, by the processor, based on an initial position of the imaging device, a coordinate system with an origin in a three-dimensional, 3D, space of the scene; generating, by the processor, based on the coordinate system and the origin, a set of first reference points in the 3D space; generating, by the processor, a set of second reference points, wherein each second reference point corresponds to one of the first reference points, wherein a second reference point corresponds to a first reference point if the first reference point, the second reference point and the origin are collinear; generating, by the processor, a third reference point corresponding to an optical center of the imaging device; and capturing an image, in response to the third reference point, a respective second reference point and its corresponding first reference point being collinear; the method characterised in that the set of the first reference points includes a first subset of the first reference points and a second subset of the first reference points; wherein the first subset of the first reference points are in a first plane; and wherein the second subset of the first reference points are in a second plane.
A computer-implemented method comprising: detecting a loss of connectivity to a network node; determining whether the network node is a controller that has lost network connectivity or an edge network device that has lost network connectivity; performing one of a first process or a second process to obtain a health report of the network node, based on whether the network node is the controller or the edge network device, wherein the first process includes: identifying a plurality of additional network controllers, and obtaining the health report from the plurality of additional network controllers, and wherein the second process includes: identifying a best available edge network device, and obtaining the health report from the best available edge network device; and analyzing (100, S322) the health report to determine root cause of the loss of connectivity. detecting a loss of connectivity to a network node; determining whether the network node is a controller that has lost network connectivity or an edge network device that has lost network connectivity; performing one of a first process or a second process to obtain a health report of the network node, based on whether the network node is the controller or the edge network device, wherein the first process includes: identifying a plurality of additional network controllers, and obtaining the health report from the plurality of additional network controllers, and identifying a plurality of additional network controllers, and obtaining the health report from the plurality of additional network controllers, and wherein the second process includes: identifying a best available edge network device, and obtaining the health report from the best available edge network device; and analyzing (100, S322) the health report to determine root cause of the loss of connectivity. identifying a best available edge network device, and obtaining the health report from the best available edge network device; and analyzing (100, S322) the health report to determine root cause of the loss of connectivity.
A prosthetic heart valve delivery catheter having integrated embolic protection, said catheter comprising: a catheter shaft having a distal portion; a self-expanding prosthetic valve disposed on the distal portion of the catheter shaft; and an embolic filter disposed on the distal portion of the catheter shaft at a location proximal of the prosthetic valve, said embolic filter being configured to self-expand from a collapsed configuration to a deployed configuration wherein an outer periphery of the filter is configured to contact a wall of a patient's aorta downstream of a patient's aortic valve when embolic filter is in its deployed configuration; a first sheath configured to constrain the prosthetic valve; and a second sheath configured to constrain the embolic filter, wherein the embolic filter comprises a filter structure having a narrow end coupled to the shaft and an open end located distally of the narrow end, and wherein the second sheath is configured to be retracted to allow the embolic filter to expand and the first sheath is configured then to be retracted to deploy the self-expanding prosthetic valve. a catheter shaft having a distal portion; a self-expanding prosthetic valve disposed on the distal portion of the catheter shaft; and an embolic filter disposed on the distal portion of the catheter shaft at a location proximal of the prosthetic valve, said embolic filter being configured to self-expand from a collapsed configuration to a deployed configuration wherein an outer periphery of the filter is configured to contact a wall of a patient's aorta downstream of a patient's aortic valve when embolic filter is in its deployed configuration; a first sheath configured to constrain the prosthetic valve; and a second sheath configured to constrain the embolic filter, wherein the embolic filter comprises a filter structure having a narrow end coupled to the shaft and an open end located distally of the narrow end, and wherein the second sheath is configured to be retracted to allow the embolic filter to expand and the first sheath is configured then to be retracted to deploy the self-expanding prosthetic valve.
A compound of formula I: or a pharmaceutically acceptable salt thereof, wherein, independently for each occurrence, Z is -O-, -N - or -N(alkyl)-; Ris Yis-CH 2 -, -C =C -, -C≡C-, -C(=O)-, -O-, -N -, -N(alkyl)-, -C(=O)O-, -CC(=O)N -,-C(=O)N(alkyl)-, -OC(=O)O-, -N C(=O)-, -N(alkyl)C(=O)-, arylene, or heteroarylene; m is 0-10; X is -O-, -CH 2 -, -N - or -N(alkyl)-; and n is 0-10; provided the sum ofm and n is less than or equal to 10. or a pharmaceutically acceptable salt thereof, wherein, independently for each occurrence, Z is -O-, -N - or -N(alkyl)-; Ris Yis-CH 2 -, -C =C -, -C≡C-, -C(=O)-, -O-, -N -, -N(alkyl)-, -C(=O)O-, -CC(=O)N -,-C(=O)N(alkyl)-, -OC(=O)O-, -N C(=O)-, -N(alkyl)C(=O)-, arylene, or heteroarylene; m is 0-10; X is -O-, -CH 2 -, -N - or -N(alkyl)-; and n is 0-10; provided the sum ofm and n is less than or equal to 10.
A biopsy needle (1, 101) for use with a biopsy gun, the biopsy needle (1, 101) comprising a stylet (2, 102) extending along an axis A - A between a proximal stylet end (3, 103) and a distal stylet end (4, 104), the biopsy needle (1, 101) further comprising a cannula (10, 110) extending along the axis A - A between a proximal cannula end (11, 111) and a distal cannula end (12, 112) at least partly enclosing the stylet (2, 102), wherein the stylet (2, 102) and the cannula (10, 110) are rotatable relative to each other around the axis A - A between - a locked position, wherein relative movement between the stylet (2, 102) and the cannula (10, 110) along the axis A - A is prevented and - an unlocked position, wherein relative movement between the stylet (2, 102) and the cannula (10, 110) along the axis A - A is enabled, wherein a stylet coupling part (20, 120) is arranged at the proximal end (3, 103) of the stylet (2, 102) and a cannula coupling part (30, 130) is arranged at the proximal end (11, 111) of the cannula (10, 110), wherein the cannula coupling part (30, 130) is formed as a tubular coupling member having a tubular compartment (33, 133) for at least partly receiving the stylet coupling part (20, 120), wherein the tubular compartment (33, 133) is formed with a track (34, 134) which engages with a protrusion (23, 123) formed on the stylet coupling part (20, 120), wherein the track (34, 134) is made up of at least a first (35, 135) and a second (36, 136) leg, the first leg (35, 135) extending circumferentially around the axis A - A, and the second leg (36, 136) extending longitudinally along the axis A - A, and characterized in that a coupling arrangement is provided which allows the protrusion (23, 123) to be moved between the first leg (35, 135) and the second leg (36, 136) via plastic deformation of at least one of the stylet coupling part (20, 120) or the cannula coupling part (30, 130). - a locked position, wherein relative movement between the stylet (2, 102) and the cannula (10, 110) along the axis A - A is prevented and - an unlocked position, wherein relative movement between the stylet (2, 102) and the cannula (10, 110) along the axis A - A is enabled,
A communication method of a wireless power transmitter performing communication with at least one wireless power receiver through a plurality of slots, the method comprising: allocating any one of the plurality of slots to any one of the at least one wireless power receiver, wherein allocated slots are used for control information, CI, of the any one wireless power receiver, and the plurality of slots are time slots; providing at least one of the plurality of slots to the any one wireless power receiver as locked slots subsequent to the allocation, wherein the locked slots are slots in which the any one wireless power receiver uses exclusively; receiving information associated with a configuration phase and information associated with a negotiation phase from the any one wireless power receiver within the locked slots; characterised by: suspending the provision of the locked slots when the reception of information associated with the configuration phase and information associated with the negotiation phase is completed. allocating any one of the plurality of slots to any one of the at least one wireless power receiver, wherein allocated slots are used for control information, CI, of the any one wireless power receiver, and the plurality of slots are time slots; providing at least one of the plurality of slots to the any one wireless power receiver as locked slots subsequent to the allocation, wherein the locked slots are slots in which the any one wireless power receiver uses exclusively; receiving information associated with a configuration phase and information associated with a negotiation phase from the any one wireless power receiver within the locked slots; characterised by: suspending the provision of the locked slots when the reception of information associated with the configuration phase and information associated with the negotiation phase is completed.
A device for controlled dispensing of capsules containing beverage ingredients, the device comprising: receiving means designed to be selectively connectable to a packaging comprising a plurality of capsules to be dispensed by the device, and outlet means, preferably a discharge outlet for dispensing at least one of the plurality of capsules received by the receiving means, and barrier means, preferably a distribution area, arranged within a capsule transport path from the receiving means to the outlet means and designed for preventing transport and/or ingress of at least one of water vapour and oxygen gas from the outlet to the receiving means the barrier means being designed to individually discharge a capsule from the packaging under a controlled atmospheric environment, the barrier means being designed for controlling an atmospheric environment within at least a portion of the barrier means; characterized in that the device further comprises atmospheric control means designed for adjusting an atmospheric environment within at least a portion of the barrier means, the atmospheric control means being designed for flushing at least a portion of the barrier means with inert gas, preferably nitrogen, such as to remove any oxygen therefrom. receiving means designed to be selectively connectable to a packaging comprising a plurality of capsules to be dispensed by the device, and outlet means, preferably a discharge outlet for dispensing at least one of the plurality of capsules received by the receiving means, and barrier means, preferably a distribution area, arranged within a capsule transport path from the receiving means to the outlet means and designed for preventing transport and/or ingress of at least one of water vapour and oxygen gas from the outlet to the receiving means the barrier means being designed to individually discharge a capsule from the packaging under a controlled atmospheric environment, the barrier means being designed for controlling an atmospheric environment within at least a portion of the barrier means; characterized in that the device further comprises atmospheric control means designed for adjusting an atmospheric environment within at least a portion of the barrier means, the atmospheric control means being designed for flushing at least a portion of the barrier means with inert gas, preferably nitrogen, such as to remove any oxygen therefrom.
Composition, comprising - an organic molecule for emitting light, which has a ΔE(S 1 -T 1) value between the lowest excited singlet state (S 1) and the triplet state (T 1) below it of less than 3000 cm -1 and - an atom or a molecule for reducing the intersystem crossing time constant of the organic molecule to less than 300 ms, wherein the organic molecule comprises a structure of formula V wherein D1 to D8 are independently from each other H, Br, I and/or groups, which represent a donor D; the donor groups may be the same or different; at least one donor group is present; wherein adjacent Di, Dj and Dk from D1 to D8 are optionally conjugated aromatic or heteroaromatic rings, optionally comprising donor function; A1 to A8 are independently from each other H, Br, I and/or groups, which represent an acceptor A; wherein adjacent Ai, Aj and Ak from A1 to A8 are optionally conjugated aromatic or heteroaromatic rings, optionally comprising acceptor function; wherein the acceptor groups may be the same or different; and at least one acceptor group is present; and wherein Br and/or I is optionally bound to the organic molecule of formula V via an alkyl group (with C = 1 or 2), wherein the additional atom or molecule used for reducing the intersystem crossing time constant of the organic emitter molecule is selected from the group consisting of krypton and xenon noble gases, bromine-comprising substances, iodine-comprising substances, metal atoms, metal nanoparticles, metal ions, Gd-complexes and lead complexes. - an organic molecule for emitting light, which has a ΔE(S 1 -T 1) value between the lowest excited singlet state (S 1) and the triplet state (T 1) below it of less than 3000 cm -1 and - an atom or a molecule for reducing the intersystem crossing time constant of the organic molecule to less than 300 ms, D1 to D8 are independently from each other H, Br, I and/or groups, which represent a donor D; the donor groups may be the same or different; at least one donor group is present; wherein adjacent Di, Dj and Dk from D1 to D8 are optionally conjugated aromatic or heteroaromatic rings, optionally comprising donor function; A1 to A8 are independently from each other H, Br, I and/or groups, which represent an acceptor A; wherein adjacent Ai, Aj and Ak from A1 to A8 are optionally conjugated aromatic or heteroaromatic rings, optionally comprising acceptor function; wherein the acceptor groups may be the same or different; and at least one acceptor group is present; and wherein Br and/or I is optionally bound to the organic molecule of formula V via an alkyl group (with C = 1 or 2), wherein the additional atom or molecule used for reducing the intersystem crossing time constant of the organic emitter molecule is selected from the group consisting of krypton and xenon noble gases, bromine-comprising substances, iodine-comprising substances, metal atoms, metal nanoparticles, metal ions, Gd-complexes and lead complexes.
A method for manufacturing a bonded wafer, comprising: implanting at least one gas ion selected from a hydrogen ion and a rare gas ion into a bond wafer from a surface of the bond wafer to form an ion implantation layer; bonding the surface from which the ion is implanted into the bond wafer and a surface of a base wafer directly or through an insulator film; and delaminating a part of the bond wafer along the ion implantation layer by a heat treatment to form a bonded wafer having a thin film on the base wafer, wherein the heat treatment is performed at 400°C or lower to delaminate a part of the bond wafer along the ion implantation layer; the method further comprising measuring thicknesses of the bond wafer and the base wafer and selecting a combination of the bond wafer and the base wafer such that a difference between the thicknesses of both the wafers is 5 μm or more before bonding the bond wafer and the base wafer. implanting at least one gas ion selected from a hydrogen ion and a rare gas ion into a bond wafer from a surface of the bond wafer to form an ion implantation layer; bonding the surface from which the ion is implanted into the bond wafer and a surface of a base wafer directly or through an insulator film; and delaminating a part of the bond wafer along the ion implantation layer by a heat treatment to form a bonded wafer having a thin film on the base wafer, wherein the heat treatment is performed at 400°C or lower to delaminate a part of the bond wafer along the ion implantation layer; the method further comprising measuring thicknesses of the bond wafer and the base wafer and selecting a combination of the bond wafer and the base wafer such that a difference between the thicknesses of both the wafers is 5 μm or more before bonding the bond wafer and the base wafer.
A polylactic acid stereocomplex composition comprising a PLA blend containing poly (D-lactic acid) (PDLA), poly (L-lactic acid) (PLLA) and a nucleating agent, wherein the nucleating agent is an aryl amide derivative having the general formula wherein R 1 is a cycloaliphatic group having 3-8 carbon atoms, and wherein m is 2.
Heat engine with a first heat exchanger, implemented as a heating means, with a second heat exchanger, implemented as a cooling means, with a turbine, disposed between the first and the second heat exchanger, and a duct system implemented to comprise a gaseous working medium and to form a circulatory system, which duct system connects the components (120, 130, 140, 190, 200) with one another such that they are fluidically conductive, characterized in that the working medium is gaseous and that in the installation position the first heat exchanger, the turbine and the second heat exchanger follow sequentially, wherein the heat exchangers (120, 140, 200) are isobaric heat exchangers such that the energy supply as well as the energy removal take place isobarically.