mhurhangee/ep-ind-claims huggingface dataset:
An apparatus, comprising: a memory; and a controller configured to: receive power through a wireless connection from a host device having a memory and a memory access device, wherein an amount of the power received from the host device depends on a distance between the host device and the apparatus; and provide the power and power availability information to the memory of the apparatus, wherein the power availability information is determined based at least on a maximum current level the controller can provide to the memory and the present current consumption of the memory and the amount of time before the voltage supply the controller provides to the memory reaches a particular threshold level in case the memory continues to operate at its present operating condition; wherein the memory of the apparatus is configured to determine whether to continue to operate at its present operating condition based, at least in part, on the power availability information. a memory; and a controller configured to: receive power through a wireless connection from a host device having a memory and a memory access device, wherein an amount of the power received from the host device depends on a distance between the host device and the apparatus; and provide the power and power availability information to the memory of the apparatus, wherein the power availability information is determined based at least on a maximum current level the controller can provide to the memory and the present current consumption of the memory and the amount of time before the voltage supply the controller provides to the memory reaches a particular threshold level in case the memory continues to operate at its present operating condition; receive power through a wireless connection from a host device having a memory and a memory access device, wherein an amount of the power received from the host device depends on a distance between the host device and the apparatus; and provide the power and power availability information to the memory of the apparatus, wherein the power availability information is determined based at least on a maximum current level the controller can provide to the memory and the present current consumption of the memory and the amount of time before the voltage supply the controller provides to the memory reaches a particular threshold level in case the memory continues to operate at its present operating condition; wherein the memory of the apparatus is configured to determine whether to continue to operate at its present operating condition based, at least in part, on the power availability information.
Coating chamber for performing a vacuum-assisted coating process, in particular PVD or CVD or arc coating chamber or a hybrid coating chamber with a heat shield (3, 31, 32, 33), which is arranged on a temperature-controllable chamber wall of the coating chamber and is intended for adjusting an exchange of a predeterminable amount of thermal radiation between the heat shield (3, 31, 32, 33) and the temperature-controllable chamber wall, characterized in that the heat shield (3, 31, 32, 33) comprises at least one exchangeable radiating shield, which is directly adjacent to an inner side of the chamber wall, and a first radiation surface of the radiating shield, that is directed towards the chamber wall, has a first predeterminable heat exchange coefficient (ε D1) and a second radiation surface of the radiating shield being directed away from the chamber wall has a second predeterminable heat exchange coefficient (ε D2), wherein the first heat exchange coefficient (ε D1) is greater than the second heat exchange coefficient (ε D2), wherein the radiating shield comprises an assembly area and can be fixed to a holding device of a shield holder at the chamber wall in the assembly area.
An apparatus (530; 630) for performing cardiac valve repairs, comprising: a handle (535; 635); an actuator operably coupled to the handle (535; 635); a pusher device (537; 637) defining a lumen; a puncture member (541; 641) coupled to the actuator and at least partially disposed within the lumen of the pusher device (537; 637); and an artificial chordae (542; 642) and a distal anchor (540; 640), the distal anchor (540; 640) disposed at a distal end portion of the artificial chordae (542; 642), the distal anchor (540; 640) disposed in a delivery configuration, the artificial chordae (542; 642) extending through a lumen of the puncture member (541; 641), characterized in that the artificial chordae (542; 642) has a proximal end portion coupled to the handle (541; 641) and the actuator is configured to be actuated such that the puncture member (541; 641) is moved distally a preset distance, and the pusher device (537; 637) is moved distally such that the distal anchor (540; 640) is (a) moved distal to a distal end (547; 647) of the puncture member (541; 641), and (b) moved from the delivery configuration to a deployed configuration. a handle (535; 635); an actuator operably coupled to the handle (535; 635); a pusher device (537; 637) defining a lumen; a puncture member (541; 641) coupled to the actuator and at least partially disposed within the lumen of the pusher device (537; 637); and an artificial chordae (542; 642) and a distal anchor (540; 640), the distal anchor (540; 640) disposed at a distal end portion of the artificial chordae (542; 642), the distal anchor (540; 640) disposed in a delivery configuration, the artificial chordae (542; 642) extending through a lumen of the puncture member (541; 641), characterized in that the artificial chordae (542; 642) has a proximal end portion coupled to the handle (541; 641) and the actuator is configured to be actuated such that the puncture member (541; 641) is moved distally a preset distance, and the pusher device (537; 637) is moved distally such that the distal anchor (540; 640) is (a) moved distal to a distal end (547; 647) of the puncture member (541; 641), and (b) moved from the delivery configuration to a deployed configuration.
A human C3 protein (SEQ ID NO 1) or an active fragment thereof modified to form a stable C3 convertase, with one amino acid replacement at position 1518 selected from the group consisting of: N, Q, H, S, T, or β-hydroxy-norvaline, wherein the position of the amino acid residue is based on the human Pro-C3 protein numbering.
A method for providing a fast-cure protective barrier coating to interior surfaces of lead based water service pipes to reduce lead levels leaching from water service pipes, comprising the steps of: providing water service pipes formed from lead having internal diameters from at least 12 mm; providing the water service pipes with ends having fittings where the pipe ends within the fittings are exposed to drinking water passing through the water service pipes; providing a 2-part thermoset resin with a base resin and a base-curing agent in which the curing agent incorporates the use of amine adducts where the adducts are phenol free and plasticiser free; coating interior surfaces of the water service pipes exposed to drinking water with a leak sealant barrier coating of the 2-part thermoset resin in a single pass run coating operation; and curing the 2-part thermoset resin in at least 1 to 4 hours to return the water service pipes to service, wherein the cured 2-part thermoset resin on the inside surfaces of the water pipes reduces lead levels leaching into the drinking water from the water service pipes to less than 10 μg/L (10 ppb). providing water service pipes formed from lead having internal diameters from at least 12 mm; providing the water service pipes with ends having fittings where the pipe ends within the fittings are exposed to drinking water passing through the water service pipes; providing a 2-part thermoset resin with a base resin and a base-curing agent in which the curing agent incorporates the use of amine adducts where the adducts are phenol free and plasticiser free; coating interior surfaces of the water service pipes exposed to drinking water with a leak sealant barrier coating of the 2-part thermoset resin in a single pass run coating operation; and curing the 2-part thermoset resin in at least 1 to 4 hours to return the water service pipes to service, wherein the cured 2-part thermoset resin on the inside surfaces of the water pipes reduces lead levels leaching into the drinking water from the water service pipes to less than 10 μg/L (10 ppb).
A luminaire for illuminating a road, the luminaire having a side-to-side direction (x) corresponding to the road width direction in use, and an end-to-end direction (y) corresponding to the road length direction in use, the luminaire comprising: a light source; a reflector arrangement having opposite sides and opposite ends, and defining a light entrance window at the top to which light is supplied by the light source and a larger light exit window at the bottom; and an optical plate over the light exit window, the optical plate comprises an array of elongate prisms which each extend in the side-to-side direction (x), each prism of the optical plate has an upright side and has an upper face of which a vertical makes a prism angle (γ) to a vertical to the optical plate, wherein the prism angle (γ) increases from a central prism for an inner section of the optical plate extending outwardly from the center, and the prism angle (γ) decreases for the outer section of the optical plate extending outwardly to the outer edge, and wherein each prism faces the light source with its upper face. a light source; a reflector arrangement having opposite sides and opposite ends, and defining a light entrance window at the top to which light is supplied by the light source and a larger light exit window at the bottom; and an optical plate over the light exit window, the optical plate comprises an array of elongate prisms which each extend in the side-to-side direction (x), each prism of the optical plate has an upright side and has an upper face of which a vertical makes a prism angle (γ) to a vertical to the optical plate, wherein the prism angle (γ) increases from a central prism for an inner section of the optical plate extending outwardly from the center, and the prism angle (γ) decreases for the outer section of the optical plate extending outwardly to the outer edge, and wherein each prism faces the light source with its upper face.
A method in a network entity (11, 12) of obtaining one or more performance metrics in a system for conveying web content from a server node to a terminal node along one or more network nodes, the method comprising the steps of: - inspecting a data flow transmitting said web content toward the terminal node and extracting web content records therefrom; - correlating said extracted web content records to at least one web session; - associating said extracted web content records to a performance of one or more of the server node, the terminal node, and the one or more network nodes, whereby said extracted web content records indicates information on when it was received and/or transmitted by the one or more of the server node, the terminal node, and the one or more network nodes; - calculating the one or more performance metrics from the correlated and associated web content records for at least one web session and one or more of said nodes; and - identifying a cause of low performance based on the calculated one or more performance metrics. - inspecting a data flow transmitting said web content toward the terminal node and extracting web content records therefrom; - correlating said extracted web content records to at least one web session; - associating said extracted web content records to a performance of one or more of the server node, the terminal node, and the one or more network nodes, whereby said extracted web content records indicates information on when it was received and/or transmitted by the one or more of the server node, the terminal node, and the one or more network nodes; - calculating the one or more performance metrics from the correlated and associated web content records for at least one web session and one or more of said nodes; and - identifying a cause of low performance based on the calculated one or more performance metrics.
A biomimetic tactile sensor system comprising: a biomimetic tactile sensor comprising: a sensor assembly including: a rigid core having a surface; an elastic covering attached to the rigid core and substantially surrounding the surface; a multiplicity of electrodes on the surface of the rigid core; and a deformable material between the electrodes and the elastic covering; and a pressure transducer in contact with the deformable material configured to sense vibrations of the elastic covering as it slides over a contacting surface and that propagate through the deformable material to the pressure transducer; and analysis logic configured to control movement of a prosthetic hand or robotic manipulator that is attached to the biomimetic tactile sensor based on information from the sensor assembly and the pressure transducer in a manner similar to the movement of a human fingertip; wherein the pressure transducer includes dermal ridges on the exterior of the elastic covering and is configured to sense low amplitude, high frequency vibration of the dermal ridges caused by haptic exploration of a textured surface. a biomimetic tactile sensor comprising: a sensor assembly including: a rigid core having a surface; an elastic covering attached to the rigid core and substantially surrounding the surface; a multiplicity of electrodes on the surface of the rigid core; and a deformable material between the electrodes and the elastic covering; and a pressure transducer in contact with the deformable material configured to sense vibrations of the elastic covering as it slides over a contacting surface and that propagate through the deformable material to the pressure transducer; and a sensor assembly including: a rigid core having a surface; an elastic covering attached to the rigid core and substantially surrounding the surface; a multiplicity of electrodes on the surface of the rigid core; and a deformable material between the electrodes and the elastic covering; and a rigid core having a surface; an elastic covering attached to the rigid core and substantially surrounding the surface; a multiplicity of electrodes on the surface of the rigid core; and a deformable material between the electrodes and the elastic covering; and a pressure transducer in contact with the deformable material configured to sense vibrations of the elastic covering as it slides over a contacting surface and that propagate through the deformable material to the pressure transducer; and analysis logic configured to control movement of a prosthetic hand or robotic manipulator that is attached to the biomimetic tactile sensor based on information from the sensor assembly and the pressure transducer in a manner similar to the movement of a human fingertip;
A method implemented in a wireless device, comprising: - transmitting a transport message to a 3GPP Access and Mobility Management Function, AMF, wherein the transport message comprises a session management, SM, message, to be forwarded by the AMF to a 3GPP Session Management Function, SMF; and - receiving a status message transmitted by the AMF, wherein the status message comprises at least a portion of the transport message, an indication of non-delivery of the session management, SM, message, and a cause of failure to deliver the session management, SM, message to the SMF, wherein the portion of the transport message comprises the session management, SM, message, and wherein the indication of non-delivery is an indication of non-delivery of the session management, SM, message by the AMF to the SMF. - transmitting a transport message to a 3GPP Access and Mobility Management Function, AMF, wherein the transport message comprises a session management, SM, message, to be forwarded by the AMF to a 3GPP Session Management Function, SMF; and - receiving a status message transmitted by the AMF, wherein the status message comprises at least a portion of the transport message, an indication of non-delivery of the session management, SM, message, and a cause of failure to deliver the session management, SM, message to the SMF,
A safety system for dealing with a severe accident of a nuclear power plant, wherein the safety system comprises at least one in-reactor water injection system for injecting water into a reactor pressure vessel; and each in-reactor water injection system comprises a multi-stage accumulator, and a first water injection pipeline connected to a cold pipe of a primary loop system; an interior space of the multi-stage accumulator comprises a gas-phase space, a first-stage water injection space, and a second-stage water injection space distributed from top to bottom in sequence; the multi-stage accumulator is provided with a first flow pipeline and a second flow pipeline having a pipe diameter less than that of the first flow pipeline, the first flow pipeline communicates the first-stage water injection space with the first water injection pipeline, and the second flow pipeline communicates the second-stage water injection space with the first water injection pipeline, wherein the safety system further comprises at least one outer-reactor cooling water injection system for injecting water into a pit; and each outer-reactor cooling water injection system comprises a high-level water injection tank disposed above the reactor pressure vessel, and a second water injection pipeline connected between the high-level water injection tank and the pit. each in-reactor water injection system comprises a multi-stage accumulator, and a first water injection pipeline connected to a cold pipe of a primary loop system; an interior space of the multi-stage accumulator comprises a gas-phase space, a first-stage water injection space, and a second-stage water injection space distributed from top to bottom in sequence; the multi-stage accumulator is provided with a first flow pipeline and a second flow pipeline having a pipe diameter less than that of the first flow pipeline, the first flow pipeline communicates the first-stage water injection space with the first water injection pipeline, and the second flow pipeline communicates the second-stage water injection space with the first water injection pipeline, wherein the safety system further comprises at least one outer-reactor cooling water injection system for injecting water into a pit; and each outer-reactor cooling water injection system comprises a high-level water injection tank disposed above the reactor pressure vessel, and a second water injection pipeline connected between the high-level water injection tank and the pit.
A Nectin-4-binding protein conjugated to a camptothecin analogue for use in the treatment of a cancer in an individual, wherein the Nectin-4-binding protein conjugated to a camptothecin analogue is an immunoconjugate represented by Formula: Ab-(X-) Formula wherein, Ab is an antibody that specifically binds to a human Nectin-4 polypeptide; X is a linker molecule which connects Ab and Z, wherein X comprises a moiety that is cleavable under physiological conditions, optionally under intracellular conditions, optionally a protease-cleavable di-, tri-, tetra- or penta-peptide, optionally wherein X further comprises a self-eliminating spacer positioned between the protease-cleavable peptide and Z; and Z is an exatecan molecule, and wherein the cancer has relapsed and/or has progressed following treatment with a Nectin-4-binding agent conjugated to an auristatin. Ab is an antibody that specifically binds to a human Nectin-4 polypeptide; X is a linker molecule which connects Ab and Z, wherein X comprises a moiety that is cleavable under physiological conditions, optionally under intracellular conditions, optionally a protease-cleavable di-, tri-, tetra- or penta-peptide, optionally wherein X further comprises a self-eliminating spacer positioned between the protease-cleavable peptide and Z; and Z is an exatecan molecule, and wherein the cancer has relapsed and/or has progressed following treatment with a Nectin-4-binding agent conjugated to an auristatin.
An energy delivery device, comprising: a catheter shaft (230, 1213); and an ablation assembly (700, 900, 952, 1110, 1200) coupled to the catheter shaft and including an expandable device (712, 1111, 1200) movable from a collapsed state to a deployed state, an electrode assembly (710, 912, 1110) comprising a conduit member (731, 910, 1113), and a plurality of electrodes (715, 912, 960, 1220), each of the electrodes being disposed along the conduit member, and wherein the electrodes are circumferentially and longitudinally offset from one another about and along a longitudinal axis of the ablation assembly when the expandable device is in the deployed state, the plurality of electrodes being configured to deliver energy to a plurality of target regions of an airway that are spaced apart from one another with respect to the longitudinal axis of the ablation assembly when the expandable device is in the deployed state, and wherein the ablation assembly is configured to form lesions which are spaced apart from surface tissue of the airway, wherein the conduit member is fluidly coupleable to a coolant source, and when coupled, each electrode is cooled by coolant moving through the conduit member during energy delivery, wherein when the expandable device is in the deployed state, the conduit member winds at least partially about the expandable device, and the electrodes (715, 912, 960, 1220) are positioned against the surface tissue of the airway to deliver energy to the target regions. a catheter shaft (230, 1213); and an ablation assembly (700, 900, 952, 1110, 1200) coupled to the catheter shaft and including an expandable device (712, 1111, 1200) movable from a collapsed state to a deployed state, an electrode assembly (710, 912, 1110) comprising a conduit member (731, 910, 1113), and a plurality of electrodes (715, 912, 960, 1220), each of the electrodes being disposed along the conduit member, and wherein the electrodes are circumferentially and longitudinally offset from one another about and along a longitudinal axis of the ablation assembly when the expandable device is in the deployed state, the plurality of electrodes being configured to deliver energy to a plurality of target regions of an airway that are spaced apart from one another with respect to the longitudinal axis of the ablation assembly when the expandable device is in the deployed state, and wherein the ablation assembly is configured to form lesions which are spaced apart from surface tissue of the airway, wherein the conduit member is fluidly coupleable to a coolant source, and when coupled, each electrode is cooled by coolant moving through the conduit member during energy delivery, wherein when the expandable device is in the deployed state, the conduit member winds at least partially about the expandable device, and the electrodes (715, 912, 960, 1220) are positioned against the surface tissue of the airway to deliver energy to the target regions.