mhurhangee/ep-ind-claims huggingface dataset:
A medical procedure system comprising: a first probe configured for insertion into a chamber of a heart of a living subject, and comprising a first electrode configured to apply a sequence of pacing pulses at a position in the chamber; a second probe comprising a second electrode configured to sense an electrical activation signal responsively to electrical activations induced by capture of the pacing pulses in a myocardium of the chamber over time; a display; and processing circuitry configured to: track a location of the second electrode; evaluate a successful acquisition by the second electrode of the induced electrical activations responsively to the electrical activation signal, the successful acquisition being indicative of a successful capture of the pacing pulses by the myocardium; compute a capture grade responsively to the evaluation of the successful acquisition of the induced electrical activations, the capture grade being indicative of a count of the induced electrical activations which were evaluated as being successfully acquired; and render the capture grade to the display with a representation of the second probe, the representation of the second probe being rendered responsively to the tracked location. a first probe configured for insertion into a chamber of a heart of a living subject, and comprising a first electrode configured to apply a sequence of pacing pulses at a position in the chamber; a second probe comprising a second electrode configured to sense an electrical activation signal responsively to electrical activations induced by capture of the pacing pulses in a myocardium of the chamber over time; a display; and processing circuitry configured to: track a location of the second electrode; evaluate a successful acquisition by the second electrode of the induced electrical activations responsively to the electrical activation signal, the successful acquisition being indicative of a successful capture of the pacing pulses by the myocardium; compute a capture grade responsively to the evaluation of the successful acquisition of the induced electrical activations, the capture grade being indicative of a count of the induced electrical activations which were evaluated as being successfully acquired; and render the capture grade to the display with a representation of the second probe, the representation of the second probe being rendered responsively to the tracked location. track a location of the second electrode; evaluate a successful acquisition by the second electrode of the induced electrical activations responsively to the electrical activation signal, the successful acquisition being indicative of a successful capture of the pacing pulses by the myocardium; compute a capture grade responsively to the evaluation of the successful acquisition of the induced electrical activations, the capture grade being indicative of a count of the induced electrical activations which were evaluated as being successfully acquired; and render the capture grade to the display with a representation of the second probe, the representation of the second probe being rendered responsively to the tracked location.
Engine having a bypass duct and a device for bleeding compressor air in the engine, with the device being provided with at least one actuator and at least one closing element linked to the actuator for closing or partially closing the bypass duct via which compressor air can be bled off, wherein the closing element is designed to be successively moved into the bypass duct, with the airflow passing through the bypass duct being settable by the position of the closing element, characterized in that - an air guiding device (13, 16) linked to the closing element is provided and has air guiding surfaces which adjoin the closing element downstream, with the spatial alignment of the air guiding surfaces being adjusted depending on the position of the closing element. - an air guiding device (13, 16) linked to the closing element is provided and has air guiding surfaces which adjoin the closing element downstream, with the spatial alignment of the air guiding surfaces being adjusted depending on the position of the closing element.
A monoclonal antibody which binds EGFR extracellular domain and comprises heavy chain CDR1, CDR2, and CDR3 sequences of SYAIS, IIPIFGAANP, and MGRGKV, respectively, and light chain CDR1, CDR2, and CDR3 sequences of QSVLYSPNNKNYLA, WASTR and QQYYGSP, respectively.
Process for polymerisation by means of heat treatment of esters of unsaturated fatty acids, alone or in admixture with polyterpenes, characterised in that there are added to the reaction mixture from 1 to 6% by weight of the mixture of one or more compounds chosen from glycerol, polyglycerol, sorbitol, monoethanolamine MEA and vitamins C and E.
System for triggering an avalanche or the like, having a tube (1, 4) which can be closed on one side, a propellant charge and a projectile charge which can be brought into the region of an avalanche slope and detonated therein, wherein the ejection charge can be arranged in the tube (1, 4) and the propellant charge can be arranged in the tube (1, 4) between the ejection charge and the closable side of the tube (1, 4), by means of which the ejection charge can be conveyed from the tube (1, 4) into the avalanche slope, and wherein the projectile charge has at least one explosive charge, at least one detonator cap which can ignite the explosive charge, at least one ignition mechanism and a traction element, wherein the detonator cap and the ignition mechanism are connected to one another, in particular via an ignition cord, and wherein the traction element is operatively connected to the ignition mechanism, characterized in that the traction element projects laterally beyond the circumference of the projectile charge in the region of the stop, in that the traction element has at least two opposing stop elements which can be moved, preferably displaced, pivoted or rotatable, from a first position within the circumference of the projectile charge into a second position outside the circumference of the projectile charge, in that a restoring element is assigned to each stop element, wherein the force of the restoring element acting on the restoring element causes the associated stop element to move into the second position outside the circumference of the projectile charge without external force action, and that each stop element can be stopped against at least one stop provided on the tube for this purpose, wherein the ignition mechanism can be actuated with the traction element by the stop.
A process for curing a coating on a substrate comprising a) depositing a liquid coating composition on the substrate, b) coalescing the coating composition on the substrate to form the coating, c) exposing the coating to a temperature of 20-70°C to cure the coating via a crosslinking reaction wherein the coating composition comprises i a polyuretdione prepared from a polyisocyanate, ii a polyol, and iii an amine catalyst; wherein the catalyst contains the group -N=C-N-, is aprotic, has a pKa greater than 20 and upon addition to the liquid coating composition causes a phase-change of the coating composition from liquid to solid at 25°C and 1atm. within one week. a) depositing a liquid coating composition on the substrate, b) coalescing the coating composition on the substrate to form the coating, c) exposing the coating to a temperature of 20-70°C to cure the coating via a crosslinking reaction i a polyuretdione prepared from a polyisocyanate, ii a polyol, and iii an amine catalyst;
A wind turbine component, the wind turbine component comprising a laminate of layers with an outer side and an inner side, wherein the outer side faces an exterior of the wind turbine component and the inner side faces an interior of the wind turbine component, the laminate of layers being configured to reflect a radar wave impinging the outer side of the laminate of layers, wherein a reflection loss of the reflected radar wave is below a threshold at a frequency, characterised in that the laminate of layers further comprises: an attenuating layer comprising a reinforcing fiber fabric and a polymer matrix, wherein the reinforcing fiber fabric comprises a plurality of reinforcing fibers onto which radar absorbing particles are attached, the plurality of reinforcing fibers being reinforcing fiberglass or reinforcing carbon fibers, wherein the reinforcing fibers are intertwined to form the reinforcing fiber fabric, wherein the radar absorbing particles form a conformal coating around each reinforcing fiber of the plurality of reinforcing fibers; a reflective layer arranged on the inner side of the attenuating layer, the reflective layer being configured to reflect a transmitted portion of the radar wave, the transmitted portion of the radar wave being a portion of the radar wave that has passed through the attenuating layer. an attenuating layer comprising a reinforcing fiber fabric and a polymer matrix, wherein the reinforcing fiber fabric comprises a plurality of reinforcing fibers onto which radar absorbing particles are attached, the plurality of reinforcing fibers being reinforcing fiberglass or reinforcing carbon fibers, wherein the reinforcing fibers are intertwined to form the reinforcing fiber fabric, wherein the radar absorbing particles form a conformal coating around each reinforcing fiber of the plurality of reinforcing fibers; a reflective layer arranged on the inner side of the attenuating layer, the reflective layer being configured to reflect a transmitted portion of the radar wave, the transmitted portion of the radar wave being a portion of the radar wave that has passed through the attenuating layer.
Membrane of a membrane valve or a membrane pump, wherein the membrane valve or the membrane pump has a housing, comprising a first component, consisting of a membrane, which can be provided in the housing, wherein the membrane is fastenable in a valve or pump housing and can be moved by an actuator, by which the valve may be opened or closed or the pump action can be achieved, wherein a part of the membrane can protrude out of the housing as a lobe, and a second component, consisting of a data memory, characterized in that the data memory is arranged in the membrane in such a way that it is connected so it can be pressed out, wherein the part of the membrane which protrudes out of the housing consists of a single layer of elastomer material, wherein the data memory is embedded in the layer and completely enclosed by the membrane, for which, with a completely enclosed data memory, predetermined breaking points are provided in the elastomer of the membrane in such a way that the data memory can be removed from the elastomer without tools.
A method for feeding electrical power (P S) into an electrical supply network by means of at least a first and a second wind farm, comprising the steps: - Provision of a first electrical wind farm output (P P1) by the first wind farm for feeding into the electrical supply network, - Provision of a second electrical wind farm output (P P2) by the second wind farm for feeding into the electrical supply network, - Generation of a total power output (P S) from at least the first and second wind farm output (P P1, P P2) and feeding in of the total power output (P S) into the electrical supply network, wherein - a central control unit for controlling the total power fed in controls the provision of at least the first and second wind farm output (P P1, P P2), wherein - the wind farm output (P P1; P P2) and the total power output are active power, characterized in that the central control unit controls the feed into the electrical supply network as a function of a grid sensitivity of the supply network with reference to a feed point, wherein the grid sensitivity NS is defined in dependence of a change in a fed-in active power and a resulting change in a line voltage of the electrical supply network using the formula: NS = Δ U / ΔP where ΔP describes the change in the fed-in active power P and ΔU describes the resulting change in the line voltage U, or the grid sensitivity NS is defined in dependence of a change in a grid frequency of the electrical supply network resulting from a change in an fed-in active power using the formula NS = Δ f / ΔP where ΔP describes the change in the fed-in active power P and Δf describes the resulting change of the grid frequency f. - Provision of a first electrical wind farm output (P P1) by the first wind farm for feeding into the electrical supply network, - Provision of a second electrical wind farm output (P P2) by the second wind farm for feeding into the electrical supply network, - Generation of a total power output (P S) from at least the first and second wind farm output (P P1, P P2) and feeding in of the total power output (P S) into the electrical supply network, wherein - a central control unit for controlling the total power fed in controls the provision of at least the first and second wind farm output (P P1, P P2), wherein - the wind farm output (P P1; P P2) and the total power output are active power,
A stroke detection system comprising: a sensor device configured to obtain physiological data from a patient, wherein the sensor device comprises a housing carrying a plurality of electrodes, wherein the housing is configured to be subcutaneously implanted above shoulders of the patient, and the physiological data comprises electrical brain activity data and electrical heart activity data of the patient sensed via the plurality of electrodes; and processing circuitry enclosed by the housing and configured to: analyze the physiological data; and based on the analysis, provide a patient stroke indicator. a sensor device configured to obtain physiological data from a patient, wherein the sensor device comprises a housing carrying a plurality of electrodes, wherein the housing is configured to be subcutaneously implanted above shoulders of the patient, and the physiological data comprises electrical brain activity data and electrical heart activity data of the patient sensed via the plurality of electrodes; and processing circuitry enclosed by the housing and configured to: analyze the physiological data; and based on the analysis, provide a patient stroke indicator. analyze the physiological data; and based on the analysis, provide a patient stroke indicator.
A composition for glass, based on the total weight of the composition for glass, on an oxide basis, consisting of 45-64wt% SiO 2, 16-26wt% Al 2 O 3, 0.1-2wt% MgO, 10-17wt% Na 2 O, 0.5-15wt% P 2 O 5, and 0.01-2wt% TiO 2.
A system for sensing water status in soil comprising: an Averaging Porous Medium for sampling average water status of the soil over a spatial area, said APM having an area of at least 0.025 m 2 and a hydraulic conductivity that is higher than the hydraulic conductivity of the soil within a matric head range of 0 to -500 cm H 2 O, a water status sensor (104, 450) that is coupled to the APM, characterised in said APM comprising a first APM coupled to a second APM, wherein a hydraulic conductivity is higher for said first APM when wet than said second APM when wet. an Averaging Porous Medium for sampling average water status of the soil over a spatial area, said APM having an area of at least 0.025 m 2 and a hydraulic conductivity that is higher than the hydraulic conductivity of the soil within a matric head range of 0 to -500 cm H 2 O, a water status sensor (104, 450) that is coupled to the APM, characterised in said APM comprising a first APM coupled to a second APM, wherein a hydraulic conductivity is higher for said first APM when wet than said second APM when wet.
A cooling system comprising: an immersion case configured to house: an immersion cooling liquid, and an electronic component configured to be submerged in the immersion cooling liquid; and a bladder configurable between an expanded state and a contracted state and positioned such that: the bladder is at least partially submerged in presence of the immersion cooling liquid in the immersion case, when the bladder is in the expanded state, the immersion cooling liquid is at a first level in the immersion case and the electronic component is fully submerged in the immersion cooling liquid, and when the bladder is in the contracted state, the immersion cooling liquid is at a second level in the immersion case, the second level being lower than the first level; a controller connected to the bladder for modulating the bladder between the expanded state and the contracted state to modulate a fluid level of the immersion cooling liquid in the immersion case; and a rack system configured to receive the immersion case; characterized in that: the controller is configured to modulate the bladder to the contracted state when at least one of the rack system, having received the immersion case, and the immersion case is displaced. an immersion case configured to house: an immersion cooling liquid, and an electronic component configured to be submerged in the immersion cooling liquid; and an immersion cooling liquid, and an electronic component configured to be submerged in the immersion cooling liquid; and a bladder configurable between an expanded state and a contracted state and positioned such that: the bladder is at least partially submerged in presence of the immersion cooling liquid in the immersion case, when the bladder is in the expanded state, the immersion cooling liquid is at a first level in the immersion case and the electronic component is fully submerged in the immersion cooling liquid, and when the bladder is in the contracted state, the immersion cooling liquid is at a second level in the immersion case, the second level being lower than the first level; the bladder is at least partially submerged in presence of the immersion cooling liquid in the immersion case, when the bladder is in the expanded state, the immersion cooling liquid is at a first level in the immersion case and the electronic component is fully submerged in the immersion cooling liquid, and when the bladder is in the contracted state, the immersion cooling liquid is at a second level in the immersion case, the second level being lower than the first level; a controller connected to the bladder for modulating the bladder between the expanded state and the contracted state to modulate a fluid level of the immersion cooling liquid in the immersion case; and a rack system configured to receive the immersion case; characterized in that: the controller is configured to modulate the bladder to the contracted state when at least one of the rack system, having received the immersion case, and the immersion case is displaced.
A method of manufacturing a wavelength-converting pixel array structure, which method comprises the steps of - forming an array of photoresist blocks, wherein the photoresist blocks are separated by gaps, and wherein the position of a photoresist block corresponds to the position of a light-emitting diode in a light-emitting diode array; - filling the gaps around each photoresist block with a filler material to form a grid; - removing the photoresist blocks to expose an array of cavities in the grid; and - filling each cavity defined by the walls of the grid with a wavelength-converting material to form wavelength-converting pixels of the wavelength-converting pixel array structure characterised in that the wavelength-converting pixel array structure is prepared in a recess formed in a wafer; and the step of filling the gaps around the photoresist blocks comprises a step of dispensing liquid precursor filler material into the recess. - forming an array of photoresist blocks, wherein the photoresist blocks are separated by gaps, and wherein the position of a photoresist block corresponds to the position of a light-emitting diode in a light-emitting diode array; - filling the gaps around each photoresist block with a filler material to form a grid; - removing the photoresist blocks to expose an array of cavities in the grid; and - filling each cavity defined by the walls of the grid with a wavelength-converting material to form wavelength-converting pixels of the wavelength-converting pixel array structure characterised in that the wavelength-converting pixel array structure is prepared in a recess formed in a wafer; and the step of filling the gaps around the photoresist blocks comprises a step of dispensing liquid precursor filler material into the recess. the wavelength-converting pixel array structure is prepared in a recess formed in a wafer; and the step of filling the gaps around the photoresist blocks comprises a step of dispensing liquid precursor filler material into the recess.
A manifold assembly for a surgical gas delivery system comprising: a) a manifold body including an inlet port for receiving gas from an outlet side of a compressor and an outlet port for recirculating gas to an inlet side of the compressor; b) a bypass valve communicating with the inlet port and the outlet port of the manifold body, wherein the bypass valve includes an electro-mechanical valve actuator for dynamically controlling the flow of gas through the bypass valve; c) an air ventilation valve operatively associated with the inlet side of the compressor, upstream from the bypass valve, wherein the air ventilation valve includes an electro-mechanical valve actuator for dynamically controlling the ingress of air from atmosphere; d) a smoke evacuation valve operatively associated with the outlet side of the compressor, upstream from the bypass valve, wherein the smoke evacuation valve includes an electro-mechanical valve actuator for dynamically controlling the egress of gas from the manifold assembly when the gas delivery system is operating in a smoke evacuation mode; and e) a gas fill valve operatively associated with the outlet side of the compressor, upstream from the bypass valve, wherein the gas fill valve includes an electro-mechanical valve actuator for dynamically controlling the receipt of gas from a source of surgical gas. a) a manifold body including an inlet port for receiving gas from an outlet side of a compressor and an outlet port for recirculating gas to an inlet side of the compressor; b) a bypass valve communicating with the inlet port and the outlet port of the manifold body, wherein the bypass valve includes an electro-mechanical valve actuator for dynamically controlling the flow of gas through the bypass valve; c) an air ventilation valve operatively associated with the inlet side of the compressor, upstream from the bypass valve, wherein the air ventilation valve includes an electro-mechanical valve actuator for dynamically controlling the ingress of air from atmosphere; d) a smoke evacuation valve operatively associated with the outlet side of the compressor, upstream from the bypass valve, wherein the smoke evacuation valve includes an electro-mechanical valve actuator for dynamically controlling the egress of gas from the manifold assembly when the gas delivery system is operating in a smoke evacuation mode; and e) a gas fill valve operatively associated with the outlet side of the compressor, upstream from the bypass valve, wherein the gas fill valve includes an electro-mechanical valve actuator for dynamically controlling the receipt of gas from a source of surgical gas.