mhurhangee/patent-ind-claim-en huggingface dataset:
A method performed by a child integrated access backhaul, IAB, node , the method comprising: receiving a first signalling indicating one or multiple power values for a downlink reception from a parent IAB node , each power value being associated with a spatial domain filter, wherein the power values associated with one or multiple spatial domain filters are configured by radio resource control, RRC, signalling or medium access control, MAC, control element, CE, signalling, or any combination thereof; and determining a power value for the downlink reception from the parent IAB node , wherein the power value is a power offset that indicates a power level to be reduced, or an absolute transmitting power level, or an absolute receiving power level, and wherein the power value for physical downlink shared channel, PDSCH, scheduled by a downlink control information, DCI, is determined by a transmission configuration information, TCI, state in the DCI or a default TCI state or a default TCI state set, and the TCI state is used to determine the spatial domain filter. receiving a first signalling indicating one or multiple power values for a downlink reception from a parent IAB node , each power value being associated with a spatial domain filter, wherein the power values associated with one or multiple spatial domain filters are configured by radio resource control, RRC, signalling or medium access control, MAC, control element, CE, signalling, or any combination thereof; and determining a power value for the downlink reception from the parent IAB node , wherein the power value is a power offset that indicates a power level to be reduced, or an absolute transmitting power level, or an absolute receiving power level, and wherein the power value for physical downlink shared channel, PDSCH, scheduled by a downlink control information, DCI, is determined by a transmission configuration information, TCI, state in the DCI or a default TCI state or a default TCI state set, and the TCI state is used to determine the spatial domain filter.
A method for operating a gas sampling probe , in which a gas to be analyzed is removed from a process space in the region of a front end of a gas sampling tube and is conducted through the gas sampling tube as far as a rear end and in the process is cooled in that cooling air is conducted between the gas sampling tube and at least one outer casing enclosing the gas sampling tube, wherein the cooling air is fed and discharged at the rear end of the gas sampling tube and the temperature of the gas to be analyzed is higher in the region of the front end of the gas sampling tube than the temperature of the fed cooling air, and the gas sampling probe emits outward, characterized in that the temperature of the fed cooling air is higher than the temperature of the discharged cooling air.
Ventilation unit for a cold chamber, having a tubular main body , wherein the main body comprises, on the inlet side, an end , which has an inlet aperture and, on the outlet side, an end , which has an outlet aperture , wherein the main body is formed tapered in such a manner that the inlet aperture comprises a larger surface than the outlet aperture , wherein the inlet aperture is arranged in a first end face plane (E1) and the outlet aperture is arranged in a second end face plane (E2), wherein the first end face plane (E1) and the second end face plane (E2) are arranged substantially parallel to and offset from each other, and wherein at least one mechanical valve is arranged in the main body , characterized in that the main body comprises a heating element, wherein the mechanical valve is implemented such that, when a specified difference in pressure between the end on the inlet side and end on the outlet side is exceeded, the mechanical valve is opened by means of a vacuum induced negative pressure, whereby air is nevertheless prevented from flowing from the end on the outlet side to the end on the inlet side .
A pulley assembly comprising first and second spaced plates and a sheave carried for rotation about an axis normal to the plates, there being at least one aperture formed through each plate in a direction parallel to the sheave axis (S), the plates having a closed condition in which the apertures of the plates are coaxial with one another and the plates are in contact in the vicinity of the apertures to form a rope passage that extends between the plates adjacent to the sheave, which rope passage has an upper end at upper edges of the plates and a lower end at lower edges of the plates characterised in that the plates are asymmetrical whereby the rope passage has an upper part that extends to the upper end, and at the region of the upper end, the thickness of the plates is greater than elsewhere, whereby the rope passage is of lesser size than parts of the rope passage below that upper part, and at the lower end, the plates are flared to provide a lower part that is enlarged with respect to other parts of the rope passage.
A method for generating customized dynamic video, implemented by one or more processors operatively coupled to a non-transitory computer readable storage device, on which are stored modules of instruction code that when executed cause the one or more processors to perform said method comprising the steps of: a. receiving a request to generate a customized dynamic video; b. partitioning said customized dynamic video's timeline, using a predefined partition scheme, into a series of chunk descriptors, each defined by an interval of the timeline and corresponding to a video chunk of the customized dynamic video; c. for each chunk descriptor, constructing an identifier based on the combination of a set of parameters that represent visual, temporal and other characteristics of the video chunk, and associating said identifier to the chunk descriptor; d. for each chunk descriptor, querying a cache of previously rendered and encoded video chunks for a video chunk indexed by the identifier matching that of the chunk descriptor; e. in the case that a video chunk whose identifier matches the queried identifier is found, retrieving said video chunk from the cache; f. otherwise, rendering and encoding the video chunk, as specified by the request, for the chunk descriptor's timeline interval, and saving said video chunk in the cache, indexed by the identifier; g. merging the video chunks to create the customized dynamic video wherein the identifier is a hash value generated for the chunk, said hash is composed from one or more hash values, each of which represents some sub-component of the configuration representing the configuration sub-components, composed from values found in the high-level movie timeline description including visual and sonic configuration of the movie throughout time, the values found in the scene descriptions include instructions for building the timeline or an object-based description of the timeline a. receiving a request to generate a customized dynamic video; b. partitioning said customized dynamic video's timeline, using a predefined partition scheme, into a series of chunk descriptors, each defined by an interval of the timeline and corresponding to a video chunk of the customized dynamic video; c. for each chunk descriptor, constructing an identifier based on the combination of a set of parameters that represent visual, temporal and other characteristics of the video chunk, and associating said identifier to the chunk descriptor; d. for each chunk descriptor, querying a cache of previously rendered and encoded video chunks for a video chunk indexed by the identifier matching that of the chunk descriptor; e. in the case that a video chunk whose identifier matches the queried identifier is found, retrieving said video chunk from the cache; f. otherwise, rendering and encoding the video chunk, as specified by the request, for the chunk descriptor's timeline interval, and saving said video chunk in the cache, indexed by the identifier; g. merging the video chunks to create the customized dynamic video
A device for aeration of and separation of carbon dioxide from a fluid, said device comprising at least two screen gears (101 comprising several screen windows in the form of openings, wherein the area of a screen window is larger on one side of the screen gear than on the other side of the screen gear and wherein the at least two screen gears are separated by a distance of 10-250 mm.
A composition for application to keratinous surfaces in the form of a mascara, a brow filler or a hair filler, the composition comprising particulates encapsulated in a first coating comprising a cationically-charged material, and a cosmetically acceptable carrier, wherein the cationically-charged material comprises iron oxide, and wherein the particulates are in the form of fibers.
A uniflow scavenging two-cycle engine that includes an exhaust port formed on one end side of a cylinder in which a piston is reciprocating and a scavenging port formed on the other end side of the cylinder, and that switches between at least two operation modes of a low compression ratio mode and a high compression ratio mode in which top dead center and bottom dead center of the piston is positioned to be closer to the exhaust port side than in the low compression ratio mode, wherein the scavenging port has: a swirling guide portion that guides scavenging gas from an outside to an inside of the cylinder in a direction inclined with respect to a radial direction of the cylinder, and a center guide portion that is provided to be closer to the other end side of the cylinder than the swirling guide portion and guides the scavenging gas further toward the center side of the cylinder than the swirling guide portion, and wherein at least a part of the center guide portion faces the piston in a case where the piston is positioned at bottom dead center during the high compression ratio mode, and the center guide portion and the piston do not face each other or an area of facing the piston is smaller than that during the high compression ratio mode in a case where the piston is positioned at bottom dead center during the low compression ratio mode. a swirling guide portion that guides scavenging gas from an outside to an inside of the cylinder in a direction inclined with respect to a radial direction of the cylinder, and a center guide portion that is provided to be closer to the other end side of the cylinder than the swirling guide portion and guides the scavenging gas further toward the center side of the cylinder than the swirling guide portion, and wherein at least a part of the center guide portion faces the piston in a case where the piston is positioned at bottom dead center during the high compression ratio mode, and the center guide portion and the piston do not face each other or an area of facing the piston is smaller than that during the high compression ratio mode in a case where the piston is positioned at bottom dead center during the low compression ratio mode.
An image bearing member for electrophotography, the image bearing member comprising a surface layer, wherein the surface layer comprises a polymerization-cured product of a radical polymerizable composition containing a perfluoropolyether compound having two or more radical polymerizable functional groups; the perfluoropolyether compound having the radical polymerizable functional groups is represented by the formula (B) l -A-CF 2 O(CF 2 CF 2 O) m (CF 2 O) n CF 2 -A-(B) l in which A denotes a divalent or higher valent organic group, B denotes a radical polymerizable functional group, 1 independently denotes an integer of 1 or more, m denotes an integer of 0 or more, n denotes an integer of 0 or more, and m + n ≥ 1; the ratio F N /RP N of the average number of fluorine atoms F N to the average number of radical polymerizable functional groups RP N in the perfluoropolyether compound having radical polymerizable functional groups is 2.0 to 20.0; F N is determined in accordance with the method disclosed in the description from a ratio between an integrated value for fluorine atoms bonding to a carbon adjacent to the organic group A and an integrated value for the other fluorine atoms derived from the perfluoropolyether compound in 19 F-NMR of the perfluoropolyether compound having the radical polymerizable functional groups; and RP N is determined in accordance with the method disclosed in the description from a ratio between an integrated value of the chemical shift of hydrogen atoms bonding to carbon atoms forming a carbon-carbon double bond in radical polymerizable functional groups and an integrated value of the chemical shift of methylene groups each adjacent to an end of the perfluoropolyether chain in 1 H-NMR of the perfluoropolyether compound having the radical polymerizable functional groups, characterized in that the radical polymerizable composition further contains a metal oxide fine particle to whose surface a portion derived from a silane coupling agent having a radical polymerizable functional group is chemically bonded.
A wideband buffer circuit comprising: first and second transistors (306-1, 306-2) deployed as a voltage buffer and connected to first and second input terminals; first and second parallel resistor-capacitor pairs (308-1, 308-2)_connected to the first and second transistors; first and second cross-coupled transistors (310-1, 310-2) connected to the first and second parallel resistor-capacitor pairs and connected to first and second output terminals; and first and second current sources (312-1, 312-2) connected to the first and second cross-coupled transistors and a fixed voltage, wherein the first transistor, the first parallel resistor-capacitor pair, the first cross-coupled transistor and the first current source are connected in series and wherein the second transistor, the second parallel resistor-capacitor pair, the second cross-coupled transistor and the second current source are connected in series. first and second transistors (306-1, 306-2) deployed as a voltage buffer and connected to first and second input terminals; first and second parallel resistor-capacitor pairs (308-1, 308-2)_connected to the first and second transistors; first and second cross-coupled transistors (310-1, 310-2) connected to the first and second parallel resistor-capacitor pairs and connected to first and second output terminals; and first and second current sources (312-1, 312-2) connected to the first and second cross-coupled transistors and a fixed voltage, wherein the first transistor, the first parallel resistor-capacitor pair, the first cross-coupled transistor and the first current source are connected in series and wherein the second transistor, the second parallel resistor-capacitor pair, the second cross-coupled transistor and the second current source are connected in series.
An apparatus of removing water by phase-changing water contained in a gaseous material to a frost phase, comprising: a gas inflow unit which is equipped with a first cooling unit which phase-changes the water in inflow gas which includes water at one side of the main body ; a main body which collects the frost generated in the gas inflow unit and provides a space for moving the gas from which moisture is removed; a discharging unit which discharges the gas from which the moisture is removed and is connected to the main body ; and a frost discharging unit which communicates with the main body to discharge frost collected in the space, characterized in that the gas inflow unit further includes a heating unit configured to adjust the gas which contains water to 60°C to 150°C, wherein the first cooling unit is configured to adjust the gas which has passed through the heating unit to be -10°C or lower, further characterized in that the cooling unit comprises a tapered portion at the side of the first cooling unit that is connected to the main body , wherein in the tapered portion an inner diameter gradually reduces or increases in the direction towards the main body . a gas inflow unit which is equipped with a first cooling unit which phase-changes the water in inflow gas which includes water at one side of the main body ; a main body which collects the frost generated in the gas inflow unit and provides a space for moving the gas from which moisture is removed; a discharging unit which discharges the gas from which the moisture is removed and is connected to the main body ; and a frost discharging unit which communicates with the main body to discharge frost collected in the space, characterized in that the gas inflow unit further includes a heating unit configured to adjust the gas which contains water to 60°C to 150°C, wherein the first cooling unit is configured to adjust the gas which has passed through the heating unit to be -10°C or lower, further characterized in that the cooling unit comprises a tapered portion at the side of the first cooling unit that is connected to the main body , wherein in the tapered portion an inner diameter gradually reduces or increases in the direction towards the main body .
A stent-graft comprising a graft of a tubular shape and multiple elastic rings intermittently arranged in an axial direction of the tubular shape spanning across both end-parts of the graft , and housed into a delivery sheath , with each of the elastic rings being transformed into a saddle-shape, and the graft being folded in accordance with the transformation of the elastic rings , wherein an auxiliary elastic wire for an end-part of the graft is furthermore provided, wherein the rigidity of the auxiliary elastic wire is lower than that of the elastic ring and the auxiliary elastic wire is connected, directly or through the graft , only to the muliple elastic rings that are arranged at the respective end-part of the graft .
Artificial Descemet construct for mechanotransductive differentiation of biological cells into de novo corneal endothelial tissue, characterized in that the construct is formed from a dome-shaped base body with a honeycomb structure formed in the concave side of the base body .
Thermal flowmeter designed to determine and/or monitor the mass flow (Φ M ) and/or flow velocity (v D ) of a medium capable of flowing through a pipe with at least three sensor elements and an electronics unit , wherein each of the at least three sensor elements - is at least partially and/or temporarily in thermal contact with the medium , and - comprises a heatable temperature sensor , and wherein said electronics unit is designed to - heat each of the three sensor elements with a heating power (P1, P2, P3), - measure their temperature (T1, T2, T3), and - simultaneously heat at least two of the at least three sensor elements , - continuously determine the mass flow (Φ M ) and/or the flow velocity (v D ) of the medium , and, at the same time, - provide information on the state (D1, D2, D3) of at least one of the at least three sensor elements and, in the event that a malfunction and/or the formation of buildup occurs at at least one of the at least three sensor elements , to correct the measured value for the mass flow (Φ M ) and/or flow velocity (v D ) and/or to generate and output a message on the state of the at least one sensor element . - is at least partially and/or temporarily in thermal contact with the medium , and - comprises a heatable temperature sensor , and wherein said electronics unit is designed to - heat each of the three sensor elements with a heating power (P1, P2, P3), - measure their temperature (T1, T2, T3), and - simultaneously heat at least two of the at least three sensor elements , - continuously determine the mass flow (Φ M ) and/or the flow velocity (v D ) of the medium , and, at the same time, - provide information on the state (D1, D2, D3) of at least one of the at least three sensor elements and, in the event that a malfunction and/or the formation of buildup occurs at at least one of the at least three sensor elements , to correct the measured value for the mass flow (Φ M ) and/or flow velocity (v D ) and/or to generate and output a message on the state of the at least one sensor element .
Method of making a composite pipe, comprising the steps of: a) providing one or more sources of composite tape , the composite tape being formed of reinforcing fibres embedded in a thermoplastic matrix; b) helically winding the composite tape(s) around a cylinder under the application of heat to form a pipe comprising fused, concentric layers of adjacently positioned, helically-wound composite tape ; characterized by c) scanning a region where edges of wound composite tape are expected to be, to generate scanning information; d) controlling the gap between further adjacent windings by: a. using the scanning information to determine wound composite tape edge position(s); and b. using the determined wound composite tape edge position(s) to adjust the winding process during winding to minimize the gap between further adjacent windings; e) repeating steps c) and d), wherein a winding applicator is provided in the form of a rotating ring , wherein the pipe is conveyed through the rotating ring , wherein one or more tape head(s) are disposed on the rotating ring , and wherein the tape head or each tape head helically winds composite tape(s) around the cylinder as the pipe is conveyed through the rotating ring , wherein the step of adjusting the winding process during winding comprises altering the rate of rotation of the rotating ring and/or changing the rate at which the pipe is conveyed through the rotating ring . a) providing one or more sources of composite tape , the composite tape being formed of reinforcing fibres embedded in a thermoplastic matrix; b) helically winding the composite tape(s) around a cylinder under the application of heat to form a pipe comprising fused, concentric layers of adjacently positioned, helically-wound composite tape ; characterized by c) scanning a region where edges of wound composite tape are expected to be, to generate scanning information; d) controlling the gap between further adjacent windings by: a. using the scanning information to determine wound composite tape edge position(s); and b. using the determined wound composite tape edge position(s) to adjust the winding process during winding to minimize the gap between further adjacent windings; a. using the scanning information to determine wound composite tape edge position(s); and b. using the determined wound composite tape edge position(s) to adjust the winding process during winding to minimize the gap between further adjacent windings; e) repeating steps c) and d),