mhurhangee/ep-ind-claims huggingface dataset:
A support band for at least partially surrounding native leaflets of a heart valve to facilitate the securing of a prosthetic device in the valve annulus by frictionally engaging the native leaflets between the support band and the prosthetic valve, the support band comprising: an elongate support member (1014; 1130) having a proximal end and a distal end (1022; 1134); and a locking member (1016; 1132) coupled to the proximal end of the support member (1014; 1130), the locking member (1014; 1130) having a receiving area and a securing member, wherein the securing member is configured to restrict proximal movement of the distal end (1022; 1134) of the support member (1014; 1130) relative to the locking member (1016; 1132) when the distal end (1022; 1134) of the support member (1014; 1130) is advanced into the receiving area, characterized in that the support member (1014; 1130) comprises a lumen extending along its length to receive a guidewire (1000; 1024) therethrough. an elongate support member (1014; 1130) having a proximal end and a distal end (1022; 1134); and a locking member (1016; 1132) coupled to the proximal end of the support member (1014; 1130), the locking member (1014; 1130) having a receiving area and a securing member, wherein the securing member is configured to restrict proximal movement of the distal end (1022; 1134) of the support member (1014; 1130) relative to the locking member (1016; 1132) when the distal end (1022; 1134) of the support member (1014; 1130) is advanced into the receiving area, characterized in that the support member (1014; 1130) comprises a lumen extending along its length to receive a guidewire (1000; 1024) therethrough.
A dispenser for dispensing a filter component, comprising, a housing defining an exit orifice and; a rod at least partially disposed within the housing, the rod having a first end face, wherein the rod is movable between: a retracted position in which the first end face of the rod is fully disposed within the housing and in which the rod is unable to move further rearwards, and an extended position in which the first end face of the rod is disposed outside the housing and wherein when the rod is moved between the retracted position and the extended position, the first end face of the rod passes through the exit orifice; and wherein the dispenser further comprises a loading zone for accommodating only one single filter component when the rod is in the retracted position, the loading zone being disposed between the exit orifice and the first end face of the rod when the rod is in the retracted position. a housing defining an exit orifice and; a rod at least partially disposed within the housing, the rod having a first end face, wherein the rod is movable between: a retracted position in which the first end face of the rod is fully disposed within the housing and in which the rod is unable to move further rearwards, and an extended position in which the first end face of the rod is disposed outside the housing and a retracted position in which the first end face of the rod is fully disposed within the housing and in which the rod is unable to move further rearwards, and an extended position in which the first end face of the rod is disposed outside the housing and wherein when the rod is moved between the retracted position and the extended position, the first end face of the rod passes through the exit orifice; and wherein the dispenser further comprises a loading zone for accommodating only one single filter component when the rod is in the retracted position, the loading zone being disposed between the exit orifice and the first end face of the rod when the rod is in the retracted position.
A pharmaceutical composition comprising a bone-targeted therapeutic agent able to release a drug payload from a bone surface, for use in a method to generate fixed, non-antagonistic molar ratios of drugs in and around the bone environment for desired periods of time, the method comprising administering the pharmaceutical composition to a subject having a bone-related disease in combination with a second therapeutic agent; wherein the bone-targeted therapeutic agent is a conjugate of gemcitabine-to-ibandronate and the second therapeutic agent is docetaxel. for use in a method to generate fixed, non-antagonistic molar ratios of drugs in and around the bone environment for desired periods of time, the method comprising administering the pharmaceutical composition to a subject having a bone-related disease in combination with a second therapeutic agent; wherein the bone-targeted therapeutic agent is a conjugate of gemcitabine-to-ibandronate and the second therapeutic agent is docetaxel.
Wall element for a noise protection wall, wherein the wall element has a body and at least one outer side, wherein the body has a support towards the at least one outer side, wherein at least one solar panel is arranged on the support and is connected to the body, wherein the solar panel is inclined relative to a vertical in the direction of an upper side of the wall element, wherein the body on the at least one outer side has at least one sound absorption surface which can be reached directly by incoming sound, characterized in that the sound absorption surface is inclined at least in some sections relative to the vertical and/or relative to a longitudinal direction of the wall element, wherein the area of the sound absorption surface is at least equal to the area of an elevation view of the wall element.
A rotary support joint assembly for coupling a surgical end effector to an elongate shaft assembly of a surgical instrument, the rotary support joint assembly comprising: a cylindrically-shaped connector portion on the surgical end effector; a first annular race in the perimeter of the connector portion; a socket on the elongate shaft sized to receive the cylindrically-shaped connector portion therein such that the cylindrically-shaped connector portion may freely rotate relative to the socket; a second annular race in an inner wall of the socket and configured for substantial registration with the first annular race when the cylindrically-shaped connector portion is received within the socket; a window in the socket in communication with the second annular race; a ring-like bearing member including a free end (736, 737) that is insertable through the window into the first and second registered annular races. a cylindrically-shaped connector portion on the surgical end effector; a first annular race in the perimeter of the connector portion; a socket on the elongate shaft sized to receive the cylindrically-shaped connector portion therein such that the cylindrically-shaped connector portion may freely rotate relative to the socket; a second annular race in an inner wall of the socket and configured for substantial registration with the first annular race when the cylindrically-shaped connector portion is received within the socket; a window in the socket in communication with the second annular race; a ring-like bearing member including a free end (736, 737) that is insertable through the window into the first and second registered annular races.
A backup power supply method for an electric vehicle drive system, the method comprising: converting, by a high voltage isolation power supply, a voltage on a high voltage direct current bus of an electric vehicle into a backup input voltage; powering a drive circuit in the electric vehicle drive system with the backup input voltage, wherein the drive circuit is configured to amplify a drive signal from a controller of the electric vehicle drive system and output the amplified drive signal to an inverter of the electric vehicle to control the inverter to operate, and an output terminal of the high voltage isolation power supply is connected to a power supply terminal of the drive circuit; determining, by a high-low voltage power supply switching circuitry, whether a low voltage battery in the electric vehicle drive system has power supply abnormity; and determining, by the high-low voltage power supply switching circuitry, the backup input voltage to be an input voltage of a low voltage power supply circuit in the electric vehicle drive system, in a case that the low voltage battery has power supply abnormity. converting, by a high voltage isolation power supply, a voltage on a high voltage direct current bus of an electric vehicle into a backup input voltage; powering a drive circuit in the electric vehicle drive system with the backup input voltage, wherein the drive circuit is configured to amplify a drive signal from a controller of the electric vehicle drive system and output the amplified drive signal to an inverter of the electric vehicle to control the inverter to operate, and an output terminal of the high voltage isolation power supply is connected to a power supply terminal of the drive circuit; determining, by a high-low voltage power supply switching circuitry, whether a low voltage battery in the electric vehicle drive system has power supply abnormity; and determining, by the high-low voltage power supply switching circuitry, the backup input voltage to be an input voltage of a low voltage power supply circuit in the electric vehicle drive system, in a case that the low voltage battery has power supply abnormity.
A TOR kinase inhibitor for use in a method for treating a cancer, comprising administering an effective amount of the TOR kinase inhibitor in combination with an effective amount of a second active agent to a patient having a cancer, wherein the second active agent is a receptor tyrosine kinase inhibitor, a phosphoinositide 3-kinase pathway inhibitor, a serine/threonine-protein kinase and mitogen-activated protein kinase/extracellular signal-regulated protein kinase kinase pathway inhibitor, or a Bruton's tyrosine kinase inhibitor, wherein the TOR kinase inhibitor is 1-ethyl-7-(2-methyl-6-(4H-1,2,4-triazol-3-yl)pyridine-3-yl)-3,4-dihydropyrazino[2,3-b]pyrazin-2 -one or a pharmaceutically acceptable salt, stereoisomer, or tautomer thereof, wherein the receptor tyrosine kinase inhibitor is XL184, Crizotinib, GSK1904529A, BMS-754807, AST-1306, or Lapatinib; the phosphoinositide 3-kinase pathway inhibitor is AT7867, BX-912, CX-4945, GDC-0941 or MK-2206; the serine/threonine-protein kinase and mitogen-activated protein kinase/extracellular signal-regulated protein kinase kinase pathway inhibitor is AS703026, or PD0325901; and the Bruton's tyrosine kinase inhibitor is PCI-32765.
A spray mechanism, comprising: a drive assembly; and a spray member, the spray member is provided with at least one spray hole that can face a dish rack; the spray mechanism comprises a water supply assembly configured to supply spray water to the spray member; wherein the spray member is connected to the drive assembly and movable relative to the dish rack; characterized in that, the water supply assembly comprises a movable pipe that can be arranged in an inner tub, wherein the movable pipe is provided with a water inlet in communication with an external water source and a water outlet in communication with the spray member, and a distance between the water inlet and the water outlet of the movable pipe changes along with movement of the spray member; the water supply assembly further comprises a fixed pipe that can be fixed inside the inner tub, the fixed pipe being in communication with the water inlet of the movable pipe, and the water outlet of the movable pipe moves in a direction close to or away from the fixed pipe along with the spray member; the movable pipe comprises a first branch pipe, a second branch pipe and an articulation member, the first branch pipe being connected between the articulation member and the fixed pipe, the second branch pipe being connected between the articulation member and the spray member, and the first branch pipe and the second branch pipe being in communication through the articulation member and rotating relative to each other. a drive assembly; and a spray member, the spray member is provided with at least one spray hole that can face a dish rack; the spray mechanism comprises a water supply assembly configured to supply spray water to the spray member; wherein the spray member is connected to the drive assembly and movable relative to the dish rack; characterized in that, the water supply assembly comprises a movable pipe that can be arranged in an inner tub, wherein the movable pipe is provided with a water inlet in communication with an external water source and a water outlet in communication with the spray member, and a distance between the water inlet and the water outlet of the movable pipe changes along with movement of the spray member; the water supply assembly further comprises a fixed pipe that can be fixed inside the inner tub, the fixed pipe being in communication with the water inlet of the movable pipe, and the water outlet of the movable pipe moves in a direction close to or away from the fixed pipe along with the spray member; the movable pipe comprises a first branch pipe, a second branch pipe and an articulation member, the first branch pipe being connected between the articulation member and the fixed pipe, the second branch pipe being connected between the articulation member and the spray member, and the first branch pipe and the second branch pipe being in communication through the articulation member and rotating relative to each other.
An exhaust hood comprising: a hood main body provided with a canopy including an upper surface and a lower surface having an inlet, and an exhaustion portion connected to the canopy and having an exhaustion passage; a nozzle unit disposed at a front side of the hood main body, and provided with a curved shape portion, and a nozzle disposed at an upper side of the curved shape portion along a circumferential direction of the curved shape portion for horizontally discharging air toward a front region of the curved shape portion; a flow plate disposed at a lower side of the curved shape portion to guide an air flow downwardly up to the lower side of the curved shape portion, the flow plate provided with a plate portion extending in the width direction of the curved shape portion, and spaced downwardly from the lower side of the curved shape portion and a connection portion formed at both sides of the plate portion, respectively, and mounted at both sides of the curved shape portion, respectively; an air supply passage for inducing air to the nozzle; an air supply fan for blowing air to the air supply passage; and an air supply motor for driving the air supply fan, whereas a partition wall is connected to the air supply passage, and provided with a suction hole for inducing air sucked through the inlet to the air supply fan. a hood main body provided with a canopy including an upper surface and a lower surface having an inlet, and an exhaustion portion connected to the canopy and having an exhaustion passage; a nozzle unit disposed at a front side of the hood main body, and provided with a curved shape portion, and a nozzle disposed at an upper side of the curved shape portion along a circumferential direction of the curved shape portion for horizontally discharging air toward a front region of the curved shape portion; a flow plate disposed at a lower side of the curved shape portion to guide an air flow downwardly up to the lower side of the curved shape portion, the flow plate provided with a plate portion extending in the width direction of the curved shape portion, and spaced downwardly from the lower side of the curved shape portion and a connection portion formed at both sides of the plate portion, respectively, and mounted at both sides of the curved shape portion, respectively; an air supply passage for inducing air to the nozzle; an air supply fan for blowing air to the air supply passage; and an air supply motor for driving the air supply fan, whereas a partition wall is connected to the air supply passage, and provided with a suction hole for inducing air sucked through the inlet to the air supply fan.
A device comprising a flux analyser and an apparatus for calibrating said flux analyser, wherein said flux analyser measures the change of O2, CO2, or both as a function of time, wherein said apparatus for calibrating the flux analyzer comprises: a first frame (102, 202) comprising a plurality of wells (114, 214), each well having a well opening at its bottom; a second frame connected or integrally formed with the first frame (102, 202) wherein the second frame defines a chamber (139, 239) and an inlet port to the chamber (139, 239), and the second frame has at least one chamber opening, wherein the chamber opening at least partially overlaps the well openings; and a selectively permeable membrane (106, 206) between the first (102, 202) and second frames that separates the well openings from the chamber opening, wherein the selectively permeable membrane (106, 206) is permeable to O2, CO2, or both, and impermeable to water. a first frame (102, 202) comprising a plurality of wells (114, 214), each well having a well opening at its bottom; a second frame connected or integrally formed with the first frame (102, 202) wherein the second frame defines a chamber (139, 239) and an inlet port to the chamber (139, 239), and the second frame has at least one chamber opening, wherein the chamber opening at least partially overlaps the well openings; and a selectively permeable membrane (106, 206) between the first (102, 202) and second frames that separates the well openings from the chamber opening, wherein the selectively permeable membrane (106, 206) is permeable to O2, CO2, or both, and impermeable to water.
A special effects system comprising: a ground controller; an unmanned aerial vehicle (18a - 18g); communications circuitry (34, 36) of the unmanned aerial vehicle (18a - 18g) configured to transmit signals to and receive signals from the ground controller; a vehicle controller of the unmanned aerial vehicle (18a - 18g) configured to execute a flight plan; at least one special effects module (70a - 70d) of the unmanned aerial vehicle (18a - 18g); a special effects module controller of the at least one special effects module (70a - 70d), the special effects module controller configured to instruct the special effects module (70a - 70d) to activate the special effect in response to an activation signal from the ground controller; and a special effects material disposed within the at least one special effects module (70a - 70d), and wherein the special effects module controller is configured to cause the special effects material to be released in response to the activation signal from the ground controller. a ground controller; an unmanned aerial vehicle (18a - 18g); communications circuitry (34, 36) of the unmanned aerial vehicle (18a - 18g) configured to transmit signals to and receive signals from the ground controller; a vehicle controller of the unmanned aerial vehicle (18a - 18g) configured to execute a flight plan; at least one special effects module (70a - 70d) of the unmanned aerial vehicle (18a - 18g); a special effects module controller of the at least one special effects module (70a - 70d), the special effects module controller configured to instruct the special effects module (70a - 70d) to activate the special effect in response to an activation signal from the ground controller; and a special effects material disposed within the at least one special effects module (70a - 70d), and wherein the special effects module controller is configured to cause the special effects material to be released in response to the activation signal from the ground controller.
A computer implemented method for determining a placement of at least one circuit for a reconfigurable logic device, the method comprising: obtaining information related to the at least one circuit, wherein the at least one circuit comprises a plurality of blocks and a plurality of connections between the plurality of blocks, and wherein the plurality of blocks comprise a plurality of logic blocks and a plurality of input/output blocks; calculating a circuit graph based on the information related to the at least one circuit, wherein the circuit graph comprises a plurality of nodes and a plurality of edges, wherein the plurality of nodes represent at least a subset of the plurality of blocks of the at least one circuit and wherein the plurality of edges represent at least a subset of the plurality of connections between the plurality of blocks of the at least one circuit; determining a force-directed layout of the circuit graph, wherein the force-directed layout is based on attractive forces based on the plurality of connections between the plurality of blocks and based on repulsive forces between the plurality of blocks; and determining a placement of the plurality of logic blocks onto a plurality of available logic cells of the reconfigurable logic device based on the force-directed layout of the circuit graph; and determining a placement of the plurality of input/output blocks onto a plurality of available input/output cells, wherein the determining of the placement of the plurality of input/output blocks is based on the force-directed layout of the circuit graph and based on the placement of the plurality of logic blocks. obtaining information related to the at least one circuit, wherein the at least one circuit comprises a plurality of blocks and a plurality of connections between the plurality of blocks, and wherein the plurality of blocks comprise a plurality of logic blocks and a plurality of input/output blocks; calculating a circuit graph based on the information related to the at least one circuit, wherein the circuit graph comprises a plurality of nodes and a plurality of edges, wherein the plurality of nodes represent at least a subset of the plurality of blocks of the at least one circuit and wherein the plurality of edges represent at least a subset of the plurality of connections between the plurality of blocks of the at least one circuit; determining a force-directed layout of the circuit graph, wherein the force-directed layout is based on attractive forces based on the plurality of connections between the plurality of blocks and based on repulsive forces between the plurality of blocks; and determining a placement of the plurality of logic blocks onto a plurality of available logic cells of the reconfigurable logic device based on the force-directed layout of the circuit graph; and determining a placement of the plurality of input/output blocks onto a plurality of available input/output cells, wherein the determining of the placement of the plurality of input/output blocks is based on the force-directed layout of the circuit graph and based on the placement of the plurality of logic blocks.
A casting for an open drip-proof rotating electrical machine, the casting comprising: a plurality of fins having a wedge shape, the fins arranged longitudinally in an interleaved way along a casting internal surface, the fins being in contact with a stator in a stator central region, the fins forming ducts where an air outflow will pass, characterized in that the fins comprise continuous contact fins, medium length contact fins and short length contact fins. a plurality of fins having a wedge shape, the fins arranged longitudinally in an interleaved way along a casting internal surface, the fins being in contact with a stator in a stator central region, the fins forming ducts where an air outflow will pass, characterized in that the fins comprise continuous contact fins, medium length contact fins and short length contact fins.