mhurhangee/ep-ind-claims huggingface dataset:
An organic light emitting device comprising: a substrate (603, 740) with an outer surface; an internal extraction layer (610, 701, 790) that is sufficiently thick to form an optically-thick film and disposed between the substrate and a transparent first electrode (602,730), the transparent first electrode having a first index of refraction; a second electrode (604, 710); an organic emissive layer (601, 720) disposed between the transparent first electrode and the second electrode, the organic emissive layer having a second index of refraction; wherein the internal extraction layer comprises multiple materials, wherein the internal extraction layer includes: a layer of a first material having an index of refraction at least 0.01 greater than the second index of refraction, and at least 0.05 greater than the first index of refraction, and different to an index of refraction of the substrate, and a layer of a second material having an index of refraction different than the index of refraction of the first material and different to the index of refraction of the substrate, and a non-planar interface between the layer of the first material and a layer of material adjacent to the first material, and wherein in configurations in which the internal extraction layer does not include the substrate material, the second material of the internal extraction layer has an index of refraction that is greater than an index of refraction of the substrate and less than the first index of refraction. a substrate (603, 740) with an outer surface; an internal extraction layer (610, 701, 790) that is sufficiently thick to form an optically-thick film and disposed between the substrate and a transparent first electrode (602,730), the transparent first electrode having a first index of refraction; a second electrode (604, 710); an organic emissive layer (601, 720) disposed between the transparent first electrode and the second electrode, the organic emissive layer having a second index of refraction; wherein the internal extraction layer comprises multiple materials, wherein the internal extraction layer includes: a layer of a first material having an index of refraction at least 0.01 greater than the second index of refraction, and at least 0.05 greater than the first index of refraction, and different to an index of refraction of the substrate, and a layer of a second material having an index of refraction different than the index of refraction of the first material and different to the index of refraction of the substrate, and a non-planar interface between the layer of the first material and a layer of material adjacent to the first material, and wherein in configurations in which the internal extraction layer does not include the substrate material, the second material of the internal extraction layer has an index of refraction that is greater than an index of refraction of the substrate and less than the first index of refraction.
A multivalent meditope tethering entity comprising two or more meditopes coupled using a linker, a multivalent scaffold, a chemical scaffold, a biotin-streptavidin, or an IgG Fc domain, wherein the two or more meditopes are antibody binding peptides selected from CQFDLSTRRLKC (SEQ ID NO:1), or CQYNLSSRALKC (SEQ ID NO:2).
A foldable vase for postal delivery, comprising a sheet of waterproof paper provided with folds arranged to form the vase, wherein the sheet has a generally square outer periphery with zones defined thereon by fold lines to define: a square base located at the centre of the sheet, side faces of the vase forming with the base, the shape of a cross and extending to the outer periphery, wherein a ratio of a height dimension of the side faces to their width at the base is between 1.5:1 and 3:1; corner regions, formed between adjacent side faces and the periphery of the sheet, the corner regions each being bisected by a diagonal fold line (L1, L2) extending from a corner of the base to the outer periphery, whereby on folding the side faces upwards from the base, the corner regions can fold at the diagonal fold line to form outwardly protruding wings, wherein a first wing (31a, 31c) can fold flat against the side face of the vase and a second wing (31b, 31d) can fold over the first wing and engage therewith to form the vase, wherein the sheet further comprises a central fold line bisecting the base and two opposite side faces whereby on folding the vase at the central fold the vase can collapse to a flattened form suitable for postal delivery, characterized in that the first wing (31a, 31c) comprises a slit into which an end of the second wing may be tucked upon folding the sheet. a square base located at the centre of the sheet, side faces of the vase forming with the base, the shape of a cross and extending to the outer periphery, wherein a ratio of a height dimension of the side faces to their width at the base is between 1.5:1 and 3:1; corner regions, formed between adjacent side faces and the periphery of the sheet, the corner regions each being bisected by a diagonal fold line (L1, L2) extending from a corner of the base to the outer periphery, whereby on folding the side faces upwards from the base, the corner regions can fold at the diagonal fold line to form outwardly protruding wings, wherein a first wing (31a, 31c) can fold flat against the side face of the vase and a second wing (31b, 31d) can fold over the first wing and engage therewith to form the vase, wherein the sheet further comprises a central fold line bisecting the base and two opposite side faces whereby on folding the vase at the central fold the vase can collapse to a flattened form suitable for postal delivery, characterized in that the first wing (31a, 31c) comprises a slit into which an end of the second wing may be tucked upon folding the sheet.
An ophthalmic visualization system, comprising: a first imaging device configured to acquire first images of a surgical field; a computing device in communication with the first imaging device and configured to determine a tip of a surgical tool in the surgical field based on the first images; a second imaging device in communication with the computing device, wherein the second imaging device includes optical zoom components and is configured to acquire images of the tip of the surgical tool; and a first display device in communication with the computing device and a surgical microscope configured to image the surgical field, wherein the first display device is configured to provide a graphical overlay onto at least a portion of a field of view of the surgical microscope, and wherein the graphical overlay includes a magnified image of the tip of the surgical tool an area around the location of the surgical tool, wherein the computing device is further configured to cause the second imaging device to maneuver focus on the location of the tip of the surgical tool as the surgical tool is moved in the surgical field. a first imaging device configured to acquire first images of a surgical field; a computing device in communication with the first imaging device and configured to determine a tip of a surgical tool in the surgical field based on the first images; a second imaging device in communication with the computing device, wherein the second imaging device includes optical zoom components and is configured to acquire images of the tip of the surgical tool; and a first display device in communication with the computing device and a surgical microscope configured to image the surgical field, wherein the first display device is configured to provide a graphical overlay onto at least a portion of a field of view of the surgical microscope, and wherein the graphical overlay includes a magnified image of the tip of the surgical tool an area around the location of the surgical tool, wherein the computing device is further configured to cause the second imaging device to maneuver focus on the location of the tip of the surgical tool as the surgical tool is moved in the surgical field.
An elongated mattress core for a mattress structure, the mattress core comprising: at least one coiled spring layer; and an underlying support layer comprising a viscoelastic foam, wherein the coiled spring layer is in direct contact with the viscoelastic foam; characterized in that the mattress core further comprises: an uppermost layer comprising a microgel infused phase change material having a planar top surface and a convoluted surface, wherein the convoluted surface faces downwards toward the coiled spring layer. at least one coiled spring layer; and an underlying support layer comprising a viscoelastic foam, wherein the coiled spring layer is in direct contact with the viscoelastic foam; characterized in that the mattress core further comprises: an uppermost layer comprising a microgel infused phase change material having a planar top surface and a convoluted surface, wherein the convoluted surface faces downwards toward the coiled spring layer.
An antiviral vinyl-chloride-based resin composition comprising: 100 parts by weight of a poly(vinyl chloride)-based resin obtained by mixing 20-70 parts by weight of a vinyl-chloride-based resin for paste having a particle diameter of 0.02-20.0 μm with 80-30 parts by weight of a suspension vinyl-chloride-based resin having a particle diameter of 50-200 μm, the total amount of said two vinyl-chloride-based resins being equal to 100 parts by weight, said suspension vinyl-chloride-based resin being obtained by a suspension polymerization method and having a porous indefinite shape; and 0.5-10.0 parts by weight of a sulfonic-acid-based surfactant. 100 parts by weight of a poly(vinyl chloride)-based resin obtained by mixing 20-70 parts by weight of a vinyl-chloride-based resin for paste having a particle diameter of 0.02-20.0 μm with 80-30 parts by weight of a suspension vinyl-chloride-based resin having a particle diameter of 50-200 μm, the total amount of said two vinyl-chloride-based resins being equal to 100 parts by weight, said suspension vinyl-chloride-based resin being obtained by a suspension polymerization method and having a porous indefinite shape; and 0.5-10.0 parts by weight of a sulfonic-acid-based surfactant.
Method for operating a converter, wherein the converter comprises a plurality of bridge branches having one or more switching cells connected in series, wherein each bridge branch connects one of a plurality of inputs to one of a plurality of outputs of the converter, having the following steps: - each of the switching cells is monitored in order to determine a fault; - if a fault is identified in one of the switching cells, one of the triggering elements for short-circuiting switching cell connections is triggered if the fault identified in the switching cell is not followed by identification of a fault in a further one of the switching cells, within a predetermined period of time, wherein the identification of the fault in the one switching cell is communicated to a central monitoring device, wherein a timer in the central monitoring device is started, wherein a check is carried out in the central monitoring device in order to determine whether occurrence of a fault in a further one of the switching cells is communicated before the expiry of a predetermined period of time, wherein the central monitoring device triggers the relevant triggering element of the one switching cell if a fault in a further switching cell is not communicated during the predetermined period of time. - each of the switching cells is monitored in order to determine a fault; - if a fault is identified in one of the switching cells, one of the triggering elements for short-circuiting switching cell connections is triggered if the fault identified in the switching cell is not followed by identification of a fault in a further one of the switching cells, within a predetermined period of time, wherein the identification of the fault in the one switching cell is communicated to a central monitoring device, wherein a timer in the central monitoring device is started, wherein a check is carried out in the central monitoring device in order to determine whether occurrence of a fault in a further one of the switching cells is communicated before the expiry of a predetermined period of time, wherein the central monitoring device triggers the relevant triggering element of the one switching cell if a fault in a further switching cell is not communicated during the predetermined period of time.
Printing machine for printing on a web, the machine comprising a first roll and a second roll between which the web forms a loop, characterized in that a single-curve cup with suction openings and/or blower openings is disposed between the first roll and the second roll to pneumatically guide the loop without contact and equidistantly relative to a major part of the length of curvature of the cup.
A molded reservoir support structure coupling, comprising: an anchor (34, 36) carried by the molded reservoir and having a side wall with at least one first flange (80, 82, 84); a support structure formed separately from the anchor (34, 36) and having at least one second flange (44, 46, 48); and characterized by the at least one first flange (80, 82, 84) projecting generally laterally from the side wall of the anchor (34, 36); the at least one second flange (44, 46, 48) projecting generally laterally from the support structure and adapted to be overlapped by the at least one first flange (80, 82, 84) to inhibit longitudinal separation of the anchor (34, 36) and the support structure; wherein the at least one first flange (80, 82, 84), the at least one second flange (44, 46, 48), or both, have a generally helically-extending portion that facilitates lapping therebetween. an anchor (34, 36) carried by the molded reservoir and having a side wall with at least one first flange (80, 82, 84); a support structure formed separately from the anchor (34, 36) and having at least one second flange (44, 46, 48); and characterized by the at least one first flange (80, 82, 84) projecting generally laterally from the side wall of the anchor (34, 36); the at least one second flange (44, 46, 48) projecting generally laterally from the support structure and adapted to be overlapped by the at least one first flange (80, 82, 84) to inhibit longitudinal separation of the anchor (34, 36) and the support structure; wherein the at least one first flange (80, 82, 84), the at least one second flange (44, 46, 48), or both, have a generally helically-extending portion that facilitates lapping therebetween.
Method for automatically setting a directionality of light emitted by a headlamp in a motor vehicle situated on a road, having the steps of: - emitting a light beam towards the front in the vehicle longitudinal direction onto the road at a predetermined angle (δ) with respect to a vehicle height axis by way of a light unit such that the light beam is reflected at the road, - receiving the reflected light beam and determining a segment incline (γ) of an upcoming road section of the road with respect to an instantaneous road section on which the motor vehicle is situated in dependence on the received light beam, and characterized by - emitting at least two further light beams (11, 12) onto the road by way of an optical device and receiving the respective light beams (11, 12) that have been reflected at the road, and - setting the directionality of the light emitted by the headlamp in dependence on the segment incline (γ), wherein the segment incline is also determined taking into account an evaluation of the received further light beams (11, 12), in particular in dependence on a current location (φ) of the motor vehicle with respect to the road, said location having been ascertained during said evaluation of the received further light beams (11, 12), wherein the light unit is integrated in the optical device, which is arranged at an underside of the motor vehicle, in particular at an underside of a front bumper of the motor vehicle. - emitting a light beam towards the front in the vehicle longitudinal direction onto the road at a predetermined angle (δ) with respect to a vehicle height axis by way of a light unit such that the light beam is reflected at the road, - receiving the reflected light beam and determining a segment incline (γ) of an upcoming road section of the road with respect to an instantaneous road section on which the motor vehicle is situated in dependence on the received light beam, and - emitting at least two further light beams (11, 12) onto the road by way of an optical device and receiving the respective light beams (11, 12) that have been reflected at the road, and - setting the directionality of the light emitted by the headlamp in dependence on the segment incline (γ), wherein the segment incline is also determined taking into account an evaluation of the received further light beams (11, 12), in particular in dependence on a current location (φ) of the motor vehicle with respect to the road, said location having been ascertained during said evaluation of the received further light beams (11, 12),
A device for determining position information, the device comprising: a detector that is configured to detect a position of the device; and a processor that is configured to determine the position information based on a primary position indication from the detector and a secondary position indication from a secondary detector that is distinct from the detector, the processor determining the position information by aligning the primary position indication with the secondary position indication based on identifying a pattern of the primary position indication that corresponds with a pattern of the secondary position indication, wherein the secondary detector is moveable relative to the detector, wherein the processor is further configured to: determine a location of the secondary detector relative to the detector and to use the determined location of the secondary detector when determining the position information, update the determined location of the secondary detector based on the secondary position indication, and monitor the secondary position indication, characterized in that the processor is further configured to determine if a movement pattern of the secondary position indication corresponds to repeated movement of the secondary detector relative to the detector, and exclude the secondary position indication from determining the position information if repeated movement of the secondary detector exceeds a threshold. a detector that is configured to detect a position of the device; and a processor that is configured to determine the position information based on a primary position indication from the detector and a secondary position indication from a secondary detector that is distinct from the detector, the processor determining the position information by aligning the primary position indication with the secondary position indication based on identifying a pattern of the primary position indication that corresponds with a pattern of the secondary position indication, determine a location of the secondary detector relative to the detector and to use the determined location of the secondary detector when determining the position information, update the determined location of the secondary detector based on the secondary position indication, and monitor the secondary position indication, characterized in that the processor is further configured to determine if a movement pattern of the secondary position indication corresponds to repeated movement of the secondary detector relative to the detector, and exclude the secondary position indication from determining the position information if repeated movement of the secondary detector exceeds a threshold.
A method for a User Equipment-to-User Equipment, in the following also referred to as UE-to-UE, Relay, comprising: the UE-to-UE Relay receives a first PC5-Radio Resource Control, in the following also referred to as RRC, message from a first UE to establish a first Sidelink, in the following also referred to as SL, Data Radio Bearer, in the following also referred to as DRB, for a PC5 Quality of Service, in the following also referred to as QoS, flow, wherein the first SL DRB is used for data transmission from the first UE to the UE-to-UE Relay; the UE-to-UE Relay transmits a first RRC message to a network node to request sidelink resource for the PC5 QoS flow in response to reception of the first PC5-RRC message, wherein the first RRC message includes a destination identity of a second UE; and the UE-to-UE Relay receives a second RRC message from the network node, wherein the second RRC message includes a configuration of a second SL DRB for the PC5 QoS flow, wherein the second SL DRB is used for data transmission from the UE-to-UE Relay to the second UE, wherein the first UE and the second UE communicate with each other via the UE-to-UE Relay. the UE-to-UE Relay receives a first PC5-Radio Resource Control, in the following also referred to as RRC, message from a first UE to establish a first Sidelink, in the following also referred to as SL, Data Radio Bearer, in the following also referred to as DRB, for a PC5 Quality of Service, in the following also referred to as QoS, flow, wherein the first SL DRB is used for data transmission from the first UE to the UE-to-UE Relay; the UE-to-UE Relay transmits a first RRC message to a network node to request sidelink resource for the PC5 QoS flow in response to reception of the first PC5-RRC message, wherein the first RRC message includes a destination identity of a second UE; and the UE-to-UE Relay receives a second RRC message from the network node, wherein the second RRC message includes a configuration of a second SL DRB for the PC5 QoS flow, wherein the second SL DRB is used for data transmission from the UE-to-UE Relay to the second UE, wherein the first UE and the second UE communicate with each other via the UE-to-UE Relay.
A receiver, comprising an oscillation circuit (201, 202), a power processor, a sampling control module, and an auxiliary power supply module, wherein the oscillation circuit (201, 202) is configured to receive first energy sent by a transmitter, wherein the first energy is pulse energy; characterized in that, Z the sampling control module is configured to: collect a first voltage value output by the oscillation circuit (201, 202) based on the first energy, and when the first voltage value is less than a startup voltage value of the power processor, control the auxiliary power supply module to supply power to the power processor, so that the power processor is started; and the power processor is configured to send a power transfer instruction to the transmitter, instructing the transmitter to stop sending the first energy and to send second energy based on the power transfer instruction, wherein the second energy is not pulse energy, and the second energy is used to provide electric energy for a load in the receiver the oscillation circuit (201, 202) is configured to receive first energy sent by a transmitter, wherein the first energy is pulse energy; characterized in that, Z the sampling control module is configured to: collect a first voltage value output by the oscillation circuit (201, 202) based on the first energy, and when the first voltage value is less than a startup voltage value of the power processor, control the auxiliary power supply module to supply power to the power processor, so that the power processor is started; and the power processor is configured to send a power transfer instruction to the transmitter, instructing the transmitter to stop sending the first energy and to send second energy based on the power transfer instruction, wherein the second energy is not pulse energy, and the second energy is used to provide electric energy for a load in the receiver