mhurhangee/patent-ind-claim-en huggingface dataset:
A method for video coding, comprising: encoding received pictures into coded pictures, the coded pictures being divided into slices comprising an integer number of coding units, encoding a syntax structure for providing at least one of a reference picture list 0 for P and B slices and a reference picture list 1 for B slices, wherein the at least one of the reference picture list 0 and the reference picture list 1 contains idle reference pictures marked as used for reference that are to be unused for reference for a current slice but are still to be kept marked as used for reference, characterised in that the method further comprises marking pictures which are not in any of the reference picture list 0 and the reference picture list 1 as unused for reference, encoding into the bitstream a first maximum reference index (num_ref_idx_l0_active_minus1) for the reference picture list 0 for decoding the current slice, wherein the idle reference pictures in the reference picture list 0 have a reference index greater than the first maximum reference index (num_ref_idx_l0_active_minus1) for the reference picture list 0; and encoding a current slice using one or more reference pictures from the reference picture list 0 or the reference picture list 1, but not from the idle reference pictures. encoding received pictures into coded pictures, the coded pictures being divided into slices comprising an integer number of coding units, encoding a syntax structure for providing at least one of a reference picture list 0 for P and B slices and a reference picture list 1 for B slices, wherein the at least one of the reference picture list 0 and the reference picture list 1 contains idle reference pictures marked as used for reference that are to be unused for reference for a current slice but are still to be kept marked as used for reference, characterised in that the method further comprises marking pictures which are not in any of the reference picture list 0 and the reference picture list 1 as unused for reference, encoding into the bitstream a first maximum reference index (num_ref_idx_l0_active_minus1) for the reference picture list 0 for decoding the current slice, wherein the idle reference pictures in the reference picture list 0 have a reference index greater than the first maximum reference index (num_ref_idx_l0_active_minus1) for the reference picture list 0; and encoding a current slice using one or more reference pictures from the reference picture list 0 or the reference picture list 1, but not from the idle reference pictures.
A thermal barrier coating over a substrate, the thermal barrier coating comprising a multiphase composite and/or a multilayer coating comprised of one phase providing a low thermal conductivity and one other phase providing durability, - wherein the low thermal conductivity phase comprises a rare earth zirconate having 5 mol % to 80 mol % (RE 2 O 3 ), with the rare earth selected from Y, La, Ce, Pr, Nd, Pm, Sm, Eu, Gd, Tb, Dy, Ho, Er, Tm, Yb, Lu, and Sc, - wherein the durability phase comprises a rare earth aluminate and has a weight fraction between 0.5 wt. % and 95 wt. %, - wherein the rare earth aluminate is in the perovskite phase (REAIO 3 ), or garnet phase (RE 3 AI 5 O 12 ), or monoclinic phase (RE 4 AI 2 O 9 ), or magnetoplumbite phase, with the rare earth selected from Y, La, Ce, Pr, Nd, Pm, Sm, Eu, Gd, Tb, Dy, Ho, Er, Tm, Yb, Lu, Sc, and - wherein the rare earth aluminate is thermodynamically stable with the low thermal conductivity phase at temperatures of at least 1200 °C. - wherein the low thermal conductivity phase comprises a rare earth zirconate having 5 mol % to 80 mol % (RE 2 O 3 ), with the rare earth selected from Y, La, Ce, Pr, Nd, Pm, Sm, Eu, Gd, Tb, Dy, Ho, Er, Tm, Yb, Lu, and Sc, - wherein the durability phase comprises a rare earth aluminate and has a weight fraction between 0.5 wt. % and 95 wt. %, - wherein the rare earth aluminate is in the perovskite phase (REAIO 3 ), or garnet phase (RE 3 AI 5 O 12 ), or monoclinic phase (RE 4 AI 2 O 9 ), or magnetoplumbite phase, with the rare earth selected from Y, La, Ce, Pr, Nd, Pm, Sm, Eu, Gd, Tb, Dy, Ho, Er, Tm, Yb, Lu, Sc, and - wherein the rare earth aluminate is thermodynamically stable with the low thermal conductivity phase at temperatures of at least 1200 °C.
A valve comprising: a body with an interior surface defining a passageway , the body configured to be positioned in-line with a flow of respiratory gases; one or more ports through the body to provide fluid communication between the passageway and the environment, the one or more ports disposed around at least part of a circumference of the body; and at least one internal member attached to the body at two or more discontinuous attachment positions on the internal member , the attachment positions being generally at the same location along the length of the valve as the one or more ports, the internal member being an elongate ribbon; wherein when the gas flow pressure is below a certain threshold, the internal member is in a neutral configuration and curves away from the interior surface , forming folds in the internal member ; wherein the at least one internal member is in an open configuration that allows gas to pass from the passageway to the environment when the gas pressure in the valve is at or below a threshold pressure, the at least one internal member being biased radially inward away from the interior surface ; and wherein the at least one internal member is in a closed configuration that occludes the one or more ports when a gas pressure in the valve is above a threshold pressure, the at least one internal member moving radially outward toward the interior surface to occlude the one or more ports. a body with an interior surface defining a passageway , the body configured to be positioned in-line with a flow of respiratory gases; one or more ports through the body to provide fluid communication between the passageway and the environment, the one or more ports disposed around at least part of a circumference of the body; and at least one internal member attached to the body at two or more discontinuous attachment positions on the internal member , the attachment positions being generally at the same location along the length of the valve as the one or more ports, the internal member being an elongate ribbon; wherein when the gas flow pressure is below a certain threshold, the internal member is in a neutral configuration and curves away from the interior surface , forming folds in the internal member ; wherein the at least one internal member is in an open configuration that allows gas to pass from the passageway to the environment when the gas pressure in the valve is at or below a threshold pressure, the at least one internal member being biased radially inward away from the interior surface ; and wherein the at least one internal member is in a closed configuration that occludes the one or more ports when a gas pressure in the valve is above a threshold pressure, the at least one internal member moving radially outward toward the interior surface to occlude the one or more ports.
An accumulating conveyor , comprising a first helical track and a second helical track including coincident centrelines, a first S-shaped bridge and a second S-shaped bridge , each having a first bend in one direction and a second bend in opposite direction as seen from above, a first set of auxiliary guides and a second set of auxiliary guides and an endless conveyor belt which is drivable in a direction of conveyance (X), wherein the conveyor belt is guidable by said first and second helical tracks , bridges and sets of auxiliary guides such that under operating conditions the conveyor belt successively follows the first helical track from a lower end thereof in upward direction to a location below an upper end thereof, the first bridge to a location at the second helical track below an upper end thereof, the second helical track in downward direction to a lower end thereof, the first set of auxiliary guides to the upper end of the second helical track , the second helical track in downward direction, the second bridge to the first helical track , the first helical track in upward direction to the upper end thereof, and the second set of auxiliary guides to the lower end of the first helical track , wherein the bridges are at least partly located at a common inner side of the first and second helical tracks and synchronously movable along the first and second helical tracks for varying the effective lengths of the conveyor belt between the lower ends of the first and second helical tracks via the first bridge , on the one hand, and between the upper ends of the first and second helical tracks via the second bridge , on the other hand, characterized in that at least portions of the first and second bends of at least one of the first and second bridges bank to their insides.
A tensioning frame for tensioning a printing screen, the tensioning frame being planar and comprising a plurality of elongate beams which extend around the periphery of the tensioning frame to define the tensioning frame, each beam comprising: an engagement side arranged such that the engagement side of each beam is co-planar and orientated parallel to the plane of the tensioning frame, a beam body , an elongate channel formed within the beam body which extends parallel to the length of the beam and has an opening at the engagement side, an engagement body located within the channel carrying an engagement surface for engaging with a printing screen in use, the engagement surface being movable with respect to the beam body along a range of travel in a plane normal to the length of the beam , and an actuator operatively connected to the engagement body for moving the engagement body , and hence engagement surface , relative to the beam body , characterized in that at least one beam comprises at least one strut which spans the elongate channel, so that the engagement surface projects outwardly of the beam from the opening of the elongate channel and beyond the strut , during at least part of the engagement surface's range of travel. an engagement side arranged such that the engagement side of each beam is co-planar and orientated parallel to the plane of the tensioning frame, a beam body , an elongate channel formed within the beam body which extends parallel to the length of the beam and has an opening at the engagement side, an engagement body located within the channel carrying an engagement surface for engaging with a printing screen in use, the engagement surface being movable with respect to the beam body along a range of travel in a plane normal to the length of the beam , and an actuator operatively connected to the engagement body for moving the engagement body , and hence engagement surface , relative to the beam body , characterized in that at least one beam comprises at least one strut which spans the elongate channel, so that the engagement surface projects outwardly of the beam from the opening of the elongate channel and beyond the strut , during at least part of the engagement surface's range of travel.
Towing device for an agricultural working vehicle, comprising a coupling member which is embodied as a ball head coupling and disposed so as to be displaceable in a longitudinal direction in a guide element on a holding element embodied as a plate, wherein the coupling member for displacement is connected to an actuator , characterized in that the guide element is a design embodiment of an attachment block in which the towing device is integrated, wherein the attachment block has a groove for guiding the holding element , said groove being configured to be U-shaped and encompassing the holding element , configured in the manner of a plate, on the end sides that laterally protrude outwards.
An additively manufactured heat exchanger configured to transfer heat between a first fluid and a second fluid, the heat exchanger comprising: an alternating plurality of hot layers and a plurality of cold layers , wherein each of the plurality of hot layers provides a flow path through the heat exchanger for the first fluid and is separated from each other of the plurality of hot layers by one of the plurality of cold layers and each of the plurality of cold layers provides a flow path through the heat exchanger for the second fluid, wherein: each of the plurality of hot layers comprises a plurality of hot flow assemblies , each of the plurality of hot flow assemblies comprising: an inner channel configured to port flow of the first fluid, wherein the inner channel includes an inner channel wall ; and a barrier channel coaxially exterior to the inner channel located between the inner channel wall and a barrier channel wall , wherein the barrier channel is configured to prevent mixing of the first fluid and the second fluid when one of the inner channel wall and the barrier channel wall ruptures and characterized in that that the heat exchanger is an additively manufactured heat exchanger and the barrier channel contains unprocessed build powder provided by an additive manufacturing process. an alternating plurality of hot layers and a plurality of cold layers , wherein each of the plurality of hot layers provides a flow path through the heat exchanger for the first fluid and is separated from each other of the plurality of hot layers by one of the plurality of cold layers and each of the plurality of cold layers provides a flow path through the heat exchanger for the second fluid, wherein: each of the plurality of hot layers comprises a plurality of hot flow assemblies , each of the plurality of hot flow assemblies comprising: an inner channel configured to port flow of the first fluid, wherein the inner channel includes an inner channel wall ; and a barrier channel coaxially exterior to the inner channel located between the inner channel wall and a barrier channel wall , wherein the barrier channel is configured to prevent mixing of the first fluid and the second fluid when one of the inner channel wall and the barrier channel wall ruptures and characterized in that that the heat exchanger is an additively manufactured heat exchanger and the barrier channel contains unprocessed build powder provided by an additive manufacturing process. an inner channel configured to port flow of the first fluid, wherein the inner channel includes an inner channel wall ; and a barrier channel coaxially exterior to the inner channel located between the inner channel wall and a barrier channel wall , wherein the barrier channel is configured to prevent mixing of the first fluid and the second fluid when one of the inner channel wall and the barrier channel wall ruptures and characterized in that that the heat exchanger is an additively manufactured heat exchanger and the barrier channel contains unprocessed build powder provided by an additive manufacturing process.
An apparatus for intravascular pressure measurement, comprising: an elongate body including a proximal portion and a distal portion , the body defining a lumen extending from a proximal end to a distal end of the body, the lumen sized and shaped to allow the passage of a guidewire therethrough, the body including an annular wall extending from the lumen to an outer surface of the body; a first pressure sensor disposed within the wall of the distal portion of the body; and a centering assembly disposed adjacent the pressure sensor, the centering assembly having a first collapsed position and a second expanded position adapted to engage a vessel wall to center the pressure sensor within the vessel, characterized in that : the centering assembly comprises positioning wires configured to engage the vessel wall, the positioning wires extending through and anchored in distal ends of elongated channels defined in the outer surface of the elongate body and further extending through and slidable within tubular lumens of the annular wall . an elongate body including a proximal portion and a distal portion , the body defining a lumen extending from a proximal end to a distal end of the body, the lumen sized and shaped to allow the passage of a guidewire therethrough, the body including an annular wall extending from the lumen to an outer surface of the body; a first pressure sensor disposed within the wall of the distal portion of the body; and a centering assembly disposed adjacent the pressure sensor, the centering assembly having a first collapsed position and a second expanded position adapted to engage a vessel wall to center the pressure sensor within the vessel, characterized in that : the centering assembly comprises positioning wires configured to engage the vessel wall, the positioning wires extending through and anchored in distal ends of elongated channels defined in the outer surface of the elongate body and further extending through and slidable within tubular lumens of the annular wall .
An apparatus comprising a first slave device (140A..140C), the first slave device (140A..140C) comprising: a first receiver to receive a clock signal from a multi-drop interconnect; a second receiver to receive a data signal from the multi-drop interconnect; a peer-to-peer, P2P, control circuit to issue a P2P communication request to a bus master of the multi-drop interconnect to request authorization to send a P2P transaction to at least one second slave device (140A..140C) coupled to the multi-drop interconnect; a first transmitter to transmit the P2P transaction to the at least one second slave device (140A..140C) when the bus master grants the authorization for the P2P transaction; and a second transmitter to output the clock signal to the multi-drop interconnect during the P2P transaction. a first receiver to receive a clock signal from a multi-drop interconnect; a second receiver to receive a data signal from the multi-drop interconnect; a peer-to-peer, P2P, control circuit to issue a P2P communication request to a bus master of the multi-drop interconnect to request authorization to send a P2P transaction to at least one second slave device (140A..140C) coupled to the multi-drop interconnect; a first transmitter to transmit the P2P transaction to the at least one second slave device (140A..140C) when the bus master grants the authorization for the P2P transaction; and a second transmitter to output the clock signal to the multi-drop interconnect during the P2P transaction.
A method for generating attention pointers, comprising: displaying, in a display of a mobile device, a virtual screen within a field of view, FOV , of a user; characterized by updating, by the processor, one or more virtual screens within or outside the FOV of the user, when the user selects an update button on the virtual screen within the field of view of the user; in response to a change in a virtual screen outside the FOV due to the update, triggering generation by the processor of one or more attention pointers within the FOV of the user for directing user attention to the change in the virtual screen outside the FOV; and displaying, by the processor, on a virtual screen within the FOV to the user, the one or more attention pointers wherein the one or more attention pointers are dynamically configured to interact with the user in response to detections based on a movement of the user. displaying, in a display of a mobile device, a virtual screen within a field of view, FOV , of a user; characterized by updating, by the processor, one or more virtual screens within or outside the FOV of the user, when the user selects an update button on the virtual screen within the field of view of the user; in response to a change in a virtual screen outside the FOV due to the update, triggering generation by the processor of one or more attention pointers within the FOV of the user for directing user attention to the change in the virtual screen outside the FOV; and displaying, by the processor, on a virtual screen within the FOV to the user, the one or more attention pointers wherein the one or more attention pointers are dynamically configured to interact with the user in response to detections based on a movement of the user.
A method for improving hybrid automatic repeat request, in the following also referred to as HARQ, feedback in a wireless communication system where multiple ACK/NACK responses generated according to different processing intervals are derived to be transmitted over a same uplink subframe, the method comprising: receiving, by a user equipment, in the following also referred to as UE, a signal of configuration of a processing interval between receiving a downlink data with a 1 millisecond TTI and transmitting a corresponding acknowledgement/ negative acknowledgement, in the following also referred to as ACK/NACK, response ; receiving, by the UE, the downlink data with the 1 millisecond TTI at a downlink subframe ; and transmitting, by the UE, the ACK/NACK response of the downlink data on a first resource with a 1 millisecond TTI at an uplink subframe with subframe index #n, wherein the first resource is determined based on a first offset value if the processing interval is equal to 3 milliseconds and the downlink subframe is with subframe index #n-3, and the first resource is determined based on a second offset value if the processing interval is equal to 4 milliseconds and the downlink subframe is with subframe index #n-4, wherein the first resource derived from the first offset value and the first resource derived from the second offset value are in different non-overlapping frequency resources; wherein the first offset value is the sum of resource set sizes of those previous downlink subframes for which the multiple ACK/NACK responses are derived to be transmitted over the same uplink subframe. receiving, by a user equipment, in the following also referred to as UE, a signal of configuration of a processing interval between receiving a downlink data with a 1 millisecond TTI and transmitting a corresponding acknowledgement/ negative acknowledgement, in the following also referred to as ACK/NACK, response ; receiving, by the UE, the downlink data with the 1 millisecond TTI at a downlink subframe ; and transmitting, by the UE, the ACK/NACK response of the downlink data on a first resource with a 1 millisecond TTI at an uplink subframe with subframe index #n, wherein the first resource is determined based on a first offset value if the processing interval is equal to 3 milliseconds and the downlink subframe is with subframe index #n-3, and the first resource is determined based on a second offset value if the processing interval is equal to 4 milliseconds and the downlink subframe is with subframe index #n-4, wherein the first resource derived from the first offset value and the first resource derived from the second offset value are in different non-overlapping frequency resources; wherein the first offset value is the sum of resource set sizes of those previous downlink subframes for which the multiple ACK/NACK responses are derived to be transmitted over the same uplink subframe.