mhurhangee/patent-ind-claim-en huggingface dataset:
An all-weather, remote camera system comprising: a camera housing comprising a lens cover ; a pan/tilt base for moving a camera to a pre-defined location, wherein the camera housing is engaged to the pan/tilt base , a camera comprising a camera body and a lens , the camera being enclosed by the camera housing , wherein the camera is configured to capture an image, the lens having a mechanically controlled zoom capability; a camera mount sled on which the camera body is mounted; a zoom control assembly for moving the camera body of the camera during a zoom operation, the zoom control assembly comprising a track rail guide assembly configured to allow the camera body to move within the camera housing during a zoom operation while the lens of the camera remains fixed in close proximity to the lens cover on the camera housing, wherein the camera mount sled is connected to the track rail guide assembly by a linear carriage ; a storage device to store the image; a device server configured to instruct the camera to capture the image and to issue an instruction to zoom; and network connectors configured to send and receive signals from and to a network. a camera housing comprising a lens cover ; a pan/tilt base for moving a camera to a pre-defined location, wherein the camera housing is engaged to the pan/tilt base , a camera comprising a camera body and a lens , the camera being enclosed by the camera housing , wherein the camera is configured to capture an image, the lens having a mechanically controlled zoom capability; a camera mount sled on which the camera body is mounted; a zoom control assembly for moving the camera body of the camera during a zoom operation, the zoom control assembly comprising a track rail guide assembly configured to allow the camera body to move within the camera housing during a zoom operation while the lens of the camera remains fixed in close proximity to the lens cover on the camera housing, wherein the camera mount sled is connected to the track rail guide assembly by a linear carriage ; a storage device to store the image; a device server configured to instruct the camera to capture the image and to issue an instruction to zoom; and network connectors configured to send and receive signals from and to a network.
An oncolytic virus, characterized in that the genome of the oncolytic virus contains the following exogenous elements: a first expression cassette containing a first promoter and a first interfering RNA expression sequence; a target sequence; and a second expression cassette, wherein the first interfering RNA expression sequence is used to express a first interfering RNA binding to the target sequence; the first interfering RNA expression sequence is driven by the first promoter so as to express the first interfering RNA in first cells; the target sequence is located at a 5' or 3' non-coding region of an essential gene required for replication of the oncolytic virus; the second expression cassette contains a second promoter and an inhibitory component expression sequence, wherein the inhibitory component expression sequence is used to express inhibitory components, the inhibitory components are used to express an interfering RNA for interfering with gene expression of an enzyme selected from any one of Dicer, Drosha, and Argonaute; and the inhibitory component expression sequence is driven by the second promoter so as to express the inhibitory components in second cells, rather than in the first cells; the first and the second cells are different cell types, the second cells are tumor cells of a mammal and the first cells are non-tumor cells of the mammal, wherein the first promoter is a constitutive promoter, and the second promoter is a human tumor-specific promoter. a first expression cassette containing a first promoter and a first interfering RNA expression sequence; a target sequence; and a second expression cassette, wherein the first interfering RNA expression sequence is used to express a first interfering RNA binding to the target sequence; the first interfering RNA expression sequence is driven by the first promoter so as to express the first interfering RNA in first cells; the target sequence is located at a 5' or 3' non-coding region of an essential gene required for replication of the oncolytic virus; the second expression cassette contains a second promoter and an inhibitory component expression sequence, wherein the inhibitory component expression sequence is used to express inhibitory components, the inhibitory components are used to express an interfering RNA for interfering with gene expression of an enzyme selected from any one of Dicer, Drosha, and Argonaute; and the inhibitory component expression sequence is driven by the second promoter so as to express the inhibitory components in second cells, rather than in the first cells; the first and the second cells are different cell types, the second cells are tumor cells of a mammal and the first cells are non-tumor cells of the mammal, wherein the first promoter is a constitutive promoter, and the second promoter is a human tumor-specific promoter.
A gate system , comprising: a first fixed support structure comprising a plurality of fixed rails defining respective passageways ; and a gate configured to move relative to the fixed support structure between an open position and a closed position, wherein the gate comprises: a plurality of gate rails configured to slide within the respective passageways as the gate moves between the open position and the closed position, the plurality of gate rails collectively spanning a plane that forms a general shape of the gate ; and one or more compressible sheets coupled to the plurality of gate rails , wherein the one or more compressible sheets are configured to move from a compressed position to an expanded position as the gate moves from the open position to the closed position, the gate system comprising a plurality of biasing members , wherein each biasing member of the plurality of biasing members is configured to bias the gate toward the open position by exerting an axial force on a first end of a respective gate rail of the plurality of gate rails , wherein each of the plurality of biasing members is included in a respective one of the passageways . a first fixed support structure comprising a plurality of fixed rails defining respective passageways ; and a gate configured to move relative to the fixed support structure between an open position and a closed position, wherein the gate comprises: a plurality of gate rails configured to slide within the respective passageways as the gate moves between the open position and the closed position, the plurality of gate rails collectively spanning a plane that forms a general shape of the gate ; and one or more compressible sheets coupled to the plurality of gate rails , wherein the one or more compressible sheets are configured to move from a compressed position to an expanded position as the gate moves from the open position to the closed position, a plurality of gate rails configured to slide within the respective passageways as the gate moves between the open position and the closed position, the plurality of gate rails collectively spanning a plane that forms a general shape of the gate ; and one or more compressible sheets coupled to the plurality of gate rails , wherein the one or more compressible sheets are configured to move from a compressed position to an expanded position as the gate moves from the open position to the closed position, the gate system comprising a plurality of biasing members , wherein each biasing member of the plurality of biasing members is configured to bias the gate toward the open position by exerting an axial force on a first end of a respective gate rail of the plurality of gate rails , wherein each of the plurality of biasing members is included in a respective one of the passageways .
A catheter for monitoring a vena cava dimension, comprising: an elongate catheter body having proximal and distal ends, the distal end configured for placement within a patient's vena cava; a distal end region comprising an anchor element configured and dimensioned to engage a wall of the vena cava to maintain the position of the distal end region with respect to the vena cava wall; and at least one detection element configured to detect vena cava diameter at a monitoring location disposed in the distal end region of said catheter body when the anchor element is engaging the wall of the vena cava to maintain the position of the distal end region with respect to the vena cava wall; wherein said distal end region is configured to position the at least one detection element with respect to the vena cava wall; and wherein the anchor element is positioned at a longitudinal distance from the at least one detection element sufficient to isolate the at least one detection element from distortions of the vena cava wall caused by the anchor element engaging the wall of the vena cava. an elongate catheter body having proximal and distal ends, the distal end configured for placement within a patient's vena cava; a distal end region comprising an anchor element configured and dimensioned to engage a wall of the vena cava to maintain the position of the distal end region with respect to the vena cava wall; and at least one detection element configured to detect vena cava diameter at a monitoring location disposed in the distal end region of said catheter body when the anchor element is engaging the wall of the vena cava to maintain the position of the distal end region with respect to the vena cava wall; wherein said distal end region is configured to position the at least one detection element with respect to the vena cava wall; and wherein the anchor element is positioned at a longitudinal distance from the at least one detection element sufficient to isolate the at least one detection element from distortions of the vena cava wall caused by the anchor element engaging the wall of the vena cava.
A method of wireless communication, comprising: transmitting, by a first communication node, a first reference signal that includes an interference status information about remote interference between the first communication node and a second communication node, wherein the first reference signal is transmitted in preconfigured time periods, wherein the first reference signal is transmitted at multiple occasions in each of the preconfigured time periods, wherein transmissions of the first reference signal in the multiple occasions carry an ID information that is a same ID information in each of the multiple occasions, wherein the interference status information includes an acknowledgement, ACK, that indicates that no interference exists, and wherein each occasion of the multiple occasions corresponds to a periodicity of transition between uplink and downlink communications of the first communication node; and communicating the ID information associated with the first communication node using the first reference signal. transmitting, by a first communication node, a first reference signal that includes an interference status information about remote interference between the first communication node and a second communication node, wherein the first reference signal is transmitted in preconfigured time periods, wherein the first reference signal is transmitted at multiple occasions in each of the preconfigured time periods, wherein transmissions of the first reference signal in the multiple occasions carry an ID information that is a same ID information in each of the multiple occasions, wherein the interference status information includes an acknowledgement, ACK, that indicates that no interference exists, and wherein each occasion of the multiple occasions corresponds to a periodicity of transition between uplink and downlink communications of the first communication node; and wherein the first reference signal is transmitted in preconfigured time periods, wherein the first reference signal is transmitted at multiple occasions in each of the preconfigured time periods, wherein transmissions of the first reference signal in the multiple occasions carry an ID information that is a same ID information in each of the multiple occasions, wherein the interference status information includes an acknowledgement, ACK, that indicates that no interference exists, and wherein each occasion of the multiple occasions corresponds to a periodicity of transition between uplink and downlink communications of the first communication node; and communicating the ID information associated with the first communication node using the first reference signal.
A neural network processor integrated circuit device for performing neural network calculations for an artificial neural network having one or more network layers, wherein the neural network processor integrated circuit device comprises: a plurality of computation circuits , each computation circuit including computing elements , associated dedicated memory elements , and related layer control logic configured to be dynamically mapped to sets of memory elements in accordance with a number of computations required in a network layer; wherein said plurality of computation circuits are aggregated in multiple levels to form a hierarchy; wherein higher levels in said hierarchy are generally more complex and include a smaller number of instantiations than lower levels; and at least one chip-to-chip interface circuit operative to enable communications between and interconnect said neural network processor integrated circuit device to one or more additional neural network processor integrated circuit devices via one or more input and output ports in each neural network processor integrated circuit device. a plurality of computation circuits , each computation circuit including computing elements , associated dedicated memory elements , and related layer control logic configured to be dynamically mapped to sets of memory elements in accordance with a number of computations required in a network layer; wherein said plurality of computation circuits are aggregated in multiple levels to form a hierarchy; wherein higher levels in said hierarchy are generally more complex and include a smaller number of instantiations than lower levels; and at least one chip-to-chip interface circuit operative to enable communications between and interconnect said neural network processor integrated circuit device to one or more additional neural network processor integrated circuit devices via one or more input and output ports in each neural network processor integrated circuit device.
An electrochemical stack, comprising: a lithium metal (Li) negative electrode, a positive electrode, a lithium-stuffed garnet electrolyte separator, and a bonding layer; wherein the lithium-stuffed garnet electrolyte separator is in direct contact with the Li metal negative electrode; wherein the bonding layer directly contacts, and is positioned between, the lithium-stuffed garnet electrolyte separator and the positive electrode; wherein the bonding layer comprises a lithium salt, a polymer, and a solvent; wherein the bonding layer is characterized by a thickness of 1 nm to 5 μm, or has a thickness of 6 μm, or 7 μm, or 8 μm, or 9 μm, or 10 μm; and wherein the polymer in the bonding layer is selected from the group consisting of polyacrylonitrile (PAN), polypropylene, polyethylene oxide (PEO), polymethyl methacrylate (PMMA), polyvinyl chloride (PVC), polyvinyl pyrrolidone (PVP), polyethylene oxide poly(allyl glycidyl ether) PEO-AGE, polyethylene oxide 2-methoxyethoxy)ethyl glycidyl ether (PEO-MEEGE), polyethylene oxide 2-methoxyethoxy)ethyl glycidyl poly(allyl glycidyl ether) (PEO-MEEGE-AGE), polysiloxane, polyvinylidene fluoride (PVDF), polyvinylidene fluoride hexafluoropropylene (PVDF-HFP), ethylene propylene (EPR), nitrile rubber (NPR), styrene-butadiene-rubber (SBR), polybutadiene polymer, polybutadiene rubber (PB), polyisobutadiene rubber (PIB), polyisoprene rubber (PI), polychloroprene rubber (CR), acrylonitrile-butadiene rubber (NBR), polyethyl acrylate (PEA), polyvinylidene fluoride (PVDF), and polyethylene. a lithium metal (Li) negative electrode, a positive electrode, a lithium-stuffed garnet electrolyte separator, and a bonding layer; wherein the lithium-stuffed garnet electrolyte separator is in direct contact with the Li metal negative electrode; wherein the bonding layer directly contacts, and is positioned between, the lithium-stuffed garnet electrolyte separator and the positive electrode; wherein the bonding layer comprises a lithium salt, a polymer, and a solvent; wherein the bonding layer is characterized by a thickness of 1 nm to 5 μm, or has a thickness of 6 μm, or 7 μm, or 8 μm, or 9 μm, or 10 μm; and wherein the polymer in the bonding layer is selected from the group consisting of polyacrylonitrile (PAN), polypropylene, polyethylene oxide (PEO), polymethyl methacrylate (PMMA), polyvinyl chloride (PVC), polyvinyl pyrrolidone (PVP), polyethylene oxide poly(allyl glycidyl ether) PEO-AGE, polyethylene oxide 2-methoxyethoxy)ethyl glycidyl ether (PEO-MEEGE), polyethylene oxide 2-methoxyethoxy)ethyl glycidyl poly(allyl glycidyl ether) (PEO-MEEGE-AGE), polysiloxane, polyvinylidene fluoride (PVDF), polyvinylidene fluoride hexafluoropropylene (PVDF-HFP), ethylene propylene (EPR), nitrile rubber (NPR), styrene-butadiene-rubber (SBR), polybutadiene polymer, polybutadiene rubber (PB), polyisobutadiene rubber (PIB), polyisoprene rubber (PI), polychloroprene rubber (CR), acrylonitrile-butadiene rubber (NBR), polyethyl acrylate (PEA), polyvinylidene fluoride (PVDF), and polyethylene.
A gases humidifier comprising: a gases inlet and an outlet , a removable humidification chamber cartridge with a heater source adapted to vaporize fluid, wherein the heater source is a heating element integrated in or forming part of the humidification chamber cartridge ; and a metering arrangement adapted to connect to and transfer fluid from a fluid supply to the humidification chamber cartridge , a main housing comprising a base portion and an upright portion , wherein the humidification chamber cartridge is slidably locatable within the base portion , and wherein the base portion comprises power pins (137a to 137d) for connection to the humidification chamber cartridge . a gases inlet and an outlet , a removable humidification chamber cartridge with a heater source adapted to vaporize fluid, wherein the heater source is a heating element integrated in or forming part of the humidification chamber cartridge ; and a metering arrangement adapted to connect to and transfer fluid from a fluid supply to the humidification chamber cartridge , a main housing comprising a base portion and an upright portion , wherein the humidification chamber cartridge is slidably locatable within the base portion , and wherein the base portion comprises power pins (137a to 137d) for connection to the humidification chamber cartridge .
An optical fiber comprising: a first core portion including a core portion of a Graded Index Fiber, GI, structure having a maximum refractive index and capable of transmitting a first light; and a second core portion including a core portion of a Step Index Fiber, SI, structure having a refractive index formed on an outer periphery of the first core portion and capable of transmitting a second light different from the first light; wherein the second core portion is formed around the outer periphery of the first core portion , a center of the second core portion is positioned in a region of the first core portion , the refractive index of the second core portion is larger than the maximum refractive index of the first core portion , and a third cladding portion having a refractive index is formed on the outer periphery of the second core portion , wherein the refractive index of the third cladding portion is smaller than the refractive index of the second core portion , characterized in that the refractive index of the third cladding portion is larger than the maximum refractive index of the first core portion , wherein a fractional index difference between the refractive index of the second core portion and the maximum refractive index of the first core portion is 0.0559 or more. a first core portion including a core portion of a Graded Index Fiber, GI, structure having a maximum refractive index and capable of transmitting a first light; and a second core portion including a core portion of a Step Index Fiber, SI, structure having a refractive index formed on an outer periphery of the first core portion and capable of transmitting a second light different from the first light; wherein the second core portion is formed around the outer periphery of the first core portion , a center of the second core portion is positioned in a region of the first core portion , the refractive index of the second core portion is larger than the maximum refractive index of the first core portion , and a third cladding portion having a refractive index is formed on the outer periphery of the second core portion , wherein the refractive index of the third cladding portion is smaller than the refractive index of the second core portion , characterized in that the refractive index of the third cladding portion is larger than the maximum refractive index of the first core portion , wherein a fractional index difference between the refractive index of the second core portion and the maximum refractive index of the first core portion is 0.0559 or more.
An electric motor having a rotor shaft and a first and second bearing, wherein the rotor shaft has a first rotor shaft part and a second rotor shaft part, wherein the first rotor shaft part is rotatably mounted via the first bearing , wherein the region covered in an axial direction by the first rotor shaft part overlaps with the region covered in an axial direction by the second bearing , wherein the second rotor shaft part is rotatably mounted via the second bearing , wherein a bellows is connected at its first axial end-region to the first rotor shaft part, in particular connected by welding, wherein the bellows is connected at its second axial end-region to the second rotor shaft part, in particular connected by welding, wherein the region covered in an axial direction by the first rotor shaft part overlaps with the region covered in an axial direction by the second rotor shaft part , wherein between first and second rotor shaft part there is arranged a ring part , wherein the ring part is a sealing ring, in particular an O-ring, in particular made of rubber or a plastics material, in particular polymer, in particular wherein the first rotor shaft part is formed in one-piece, therefore as one-part, in particular wherein the second rotor shaft part is formed in one piece, therefore as one-part. wherein the rotor shaft has a first rotor shaft part and a second rotor shaft part, wherein the first rotor shaft part is rotatably mounted via the first bearing , wherein the region covered in an axial direction by the first rotor shaft part overlaps with the region covered in an axial direction by the second bearing , wherein the second rotor shaft part is rotatably mounted via the second bearing , wherein a bellows is connected at its first axial end-region to the first rotor shaft part, in particular connected by welding, wherein the bellows is connected at its second axial end-region to the second rotor shaft part, in particular connected by welding, wherein the region covered in an axial direction by the first rotor shaft part overlaps with the region covered in an axial direction by the second rotor shaft part , wherein between first and second rotor shaft part there is arranged a ring part , wherein the ring part is a sealing ring, in particular an O-ring, in particular made of rubber or a plastics material, in particular polymer, in particular wherein the first rotor shaft part is formed in one-piece, therefore as one-part, in particular wherein the second rotor shaft part is formed in one piece, therefore as one-part.