mhurhangee/ep-ind-claims huggingface dataset:
A system for monitoring a wound dressing, comprising: the wound dressing; an appurtenance of a size and shape that substantially conforms with the surface of the wound dressing, the appurtenance comprising one or more sensors for measuring changes in a fluid associated with a wound as sensor data and at least one transmitter for transmitting the sensor data; and a local unit including a receiver for receiving the sensor data from the least one transmitter, at least one processor operably attached to the receiver, and at least one communication unit operably attached to the processor, characterized by: the appurtenance is distinct from and physically attachable to the wound dressing, wherein the appurtenance includes one or more projections configured to be positioned into the wound dressing and configured to sample a fluid associated with a wound, the one or more projections configured to project from the appurtenance and to pierce into the wound dressing, wherein the appurtenance further comprises: a processor operably attached to the one or more sensors and the at least one transmitter. the wound dressing; an appurtenance of a size and shape that substantially conforms with the surface of the wound dressing, the appurtenance comprising one or more sensors for measuring changes in a fluid associated with a wound as sensor data and at least one transmitter for transmitting the sensor data; and a local unit including a receiver for receiving the sensor data from the least one transmitter, at least one processor operably attached to the receiver, and at least one communication unit operably attached to the processor, characterized by: the appurtenance is distinct from and physically attachable to the wound dressing, wherein the appurtenance includes one or more projections configured to be positioned into the wound dressing and configured to sample a fluid associated with a wound, the one or more projections configured to project from the appurtenance and to pierce into the wound dressing, wherein the appurtenance further comprises: a processor operably attached to the one or more sensors and the at least one transmitter. the appurtenance is distinct from and physically attachable to the wound dressing, wherein the appurtenance includes one or more projections configured to be positioned into the wound dressing and configured to sample a fluid associated with a wound, the one or more projections configured to project from the appurtenance and to pierce into the wound dressing, wherein the appurtenance further comprises: a processor operably attached to the one or more sensors and the at least one transmitter.
A control interface for a robotic platform for vitreoretinal surgery comprising a haptic device equipped with an articulated chain having a free end, characterised in that it comprises a guiding device comprising: - a stationary surface, - a guiding means mounted on the stationary surface by a ball joint, - a rod mounted on said guiding means by a sliding connection with an axis corresponding to that of the rod, said rod comprising a first end mounted stationary on the free end of the haptic device and a second end on which a gripping member is intended to be mounted. - a stationary surface, - a guiding means mounted on the stationary surface by a ball joint, - a rod mounted on said guiding means by a sliding connection with an axis corresponding to that of the rod, said rod comprising a first end mounted stationary on the free end of the haptic device and a second end on which a gripping member is intended to be mounted.
An electric supercharging device that supercharges intake air for an internal combustion engine of a vehicle by rotating a compressor through the drive of an electric motor, the electric supercharging device comprising: acceleration means for accelerating a rotation of the electric supercharging device and transmitting the rotation of the electric motor to the compressor, wherein the acceleration means includes a variable displacement hydraulic pump that is connected to the electric motor, is driven by the electric motor, and is capable of adjusting a displacement volume, a variable displacement hydraulic motor that is connected to the compressor, is driven by hydraulic oil supplied from the hydraulic pump, and is capable of adjusting a displacement volume, and a rotation speed adjusting unit that makes a ratio of the displacement volume of the hydraulic pump to the displacement volume of the hydraulic motor higher than 1 by controlling the hydraulic pump and the hydraulic motor and makes a rotation speed of the hydraulic motor higher than a rotation speed of the electric motor, and wherein the rotation speed adjusting unit is adapted to increase the rotation speed of the compressor by increasing the acceleration ratio of the acceleration means without the electric motor stepping out at the time of the acceleration of a vehicle. acceleration means for accelerating a rotation of the electric supercharging device and transmitting the rotation of the electric motor to the compressor, wherein the acceleration means includes a variable displacement hydraulic pump that is connected to the electric motor, is driven by the electric motor, and is capable of adjusting a displacement volume, a variable displacement hydraulic motor that is connected to the compressor, is driven by hydraulic oil supplied from the hydraulic pump, and is capable of adjusting a displacement volume, and a rotation speed adjusting unit that makes a ratio of the displacement volume of the hydraulic pump to the displacement volume of the hydraulic motor higher than 1 by controlling the hydraulic pump and the hydraulic motor and makes a rotation speed of the hydraulic motor higher than a rotation speed of the electric motor, and wherein the rotation speed adjusting unit is adapted to increase the rotation speed of the compressor by increasing the acceleration ratio of the acceleration means without the electric motor stepping out at the time of the acceleration of a vehicle.
A method of controlling and configuring an architecture of an avionics system comprising at least one CPU computer (1, 2) and at least one FPGA calculation circuit (3, 4) hosting avionics functions or avionics models and communicating via a digital bus, said method being dedicated to optimising the execution of the processing of test functions, in particular on test benches, characterised in that it consists of, if necessary, reconfiguring said architecture in accordance with the following steps: - a) using a set of execution rules for the processes executed on the FPGA calculation circuit(s) (3, 4) and the CPU computer(s) (1, 2), - b) monitoring pertinent parameters relating to the general state of the avionics system as a function of the execution rules, - c) generating an alert when a parameter does not comply with the execution rules, - d) verifying the alert generated, - e) validating or invalidating the alert thus generated and verified, - f) dynamically and automatically reconfiguring the architecture of the avionics system in the event of the alert being validated, said reconfiguration consisting of causing at least one avionics function or avionics model to migrate from a CPU computer (1, 2) or FPGA calculation circuit (3, 4) to another CPU computer (1, 2) or another FPGA calculation circuit (3, 4), - g) or reverting to step a) in the event of the alert being invalidated. - a) using a set of execution rules for the processes executed on the FPGA calculation circuit(s) (3, 4) and the CPU computer(s) (1, 2), - b) monitoring pertinent parameters relating to the general state of the avionics system as a function of the execution rules, - c) generating an alert when a parameter does not comply with the execution rules, - d) verifying the alert generated, - e) validating or invalidating the alert thus generated and verified, - f) dynamically and automatically reconfiguring the architecture of the avionics system in the event of the alert being validated, said reconfiguration consisting of causing at least one avionics function or avionics model to migrate from a CPU computer (1, 2) or FPGA calculation circuit (3, 4) to another CPU computer (1, 2) or another FPGA calculation circuit (3, 4), - g) or reverting to step a) in the event of the alert being invalidated.
A fertilizer particle for fertigation comprising a core and a continuous coating wherein the core comprises inorganic nutrient salts and the continuous coating is a single layer and comprises 97 to 99% w/w of a mineral oil, 1 to 3% w/w primary alkylamines and 0.1 to 1.0% w/w of water-insoluble particles and represents 0.05 to 0.25% w/w of the particle.
A process for preparing a fluoropolymer in an aqueous reaction medium comprising: a) charging a reactor with water, from 0.001 to 2.0 weight percent on total monomer of at least one polycaprolactone polymer or salt thereof, and at least one fluoromonomer, to form an aqueous emulsion, b) bringing the reactor to a temperature from 20 to 160°C and to a pressure from 280 to 20,000 KPa, under stirring, c) adding at least one radical initiator to start and maintain the polymerization reaction, d) regulating the reactor pressure from 280 to 20,000 KPa by controlling the feed of gaseous monomer to the reactor, e) upon completion of the polymerization reaction, bringing the reactor to ambient temperature and venting the residual unreacted monomer to atmospheric pressure, and f) recovering the aqueous reaction medium containing the fluoropolymer as a latex. a) charging a reactor with water, from 0.001 to 2.0 weight percent on total monomer of at least one polycaprolactone polymer or salt thereof, and at least one fluoromonomer, to form an aqueous emulsion, b) bringing the reactor to a temperature from 20 to 160°C and to a pressure from 280 to 20,000 KPa, under stirring, c) adding at least one radical initiator to start and maintain the polymerization reaction, d) regulating the reactor pressure from 280 to 20,000 KPa by controlling the feed of gaseous monomer to the reactor, e) upon completion of the polymerization reaction, bringing the reactor to ambient temperature and venting the residual unreacted monomer to atmospheric pressure, and f) recovering the aqueous reaction medium containing the fluoropolymer as a latex.
A variable flowrate cooling system, comprising: a closed freshwater loop coupled to a first side of a heat exchanger; a once through seawater loop coupled to a second side of the heat exchanger and including a pump arrangement (16, 18) for circulating seawater through the seawater loop; and a controller arrangement (28, 30) operatively connected to the pump arrangement (16, 18), wherein the controller arrangement (28, 30) is configured to monitor an actual temperature in the freshwater loop and to adjust a speed of the pump arrangement (16, 18) based on the monitored temperature in order to achieve a desired temperature in the freshwater loop; wherein the pump arrangement (16, 18) comprises first and second pumps (16, 18), characterised in that the controller arrangement (28, 30) comprises first and second controllers (28, 30) associated with the first and second pumps (16, 18), respectively; wherein the first and second controllers (28, 30) are operatively coupled to communicate operational information there between; and wherein in response to a determination that one of the first and second controllers (28, 30) has ceased to operate properly, the other of the first and second controllers (28, 30) is configured to be reassigned the duties of the one of the first or second controller (28, 30). a closed freshwater loop coupled to a first side of a heat exchanger; a once through seawater loop coupled to a second side of the heat exchanger and including a pump arrangement (16, 18) for circulating seawater through the seawater loop; and a controller arrangement (28, 30) operatively connected to the pump arrangement (16, 18), wherein the controller arrangement (28, 30) is configured to monitor an actual temperature in the freshwater loop and to adjust a speed of the pump arrangement (16, 18) based on the monitored temperature in order to achieve a desired temperature in the freshwater loop; wherein the pump arrangement (16, 18) comprises first and second pumps (16, 18), characterised in that the controller arrangement (28, 30) comprises first and second controllers (28, 30) associated with the first and second pumps (16, 18), respectively; wherein the first and second controllers (28, 30) are operatively coupled to communicate operational information there between; and wherein in response to a determination that one of the first and second controllers (28, 30) has ceased to operate properly, the other of the first and second controllers (28, 30) is configured to be reassigned the duties of the one of the first or second controller (28, 30).
An electronic vapour inhaler (10, 60) comprising: a housing having a proximal end and a distal end; a mouthpiece at the proximal end of the housing; a chamber for receiving a capsule having a shell containing a flavour-release medium and an induction heatable element; and an induction heating arrangement at the distal end of the housing and arranged to inductively heat the induction heatable element positioned in the chamber and thereby heat the flavour-release medium, wherein the chamber is positioned at the distal end of the housing and the induction heating arrangement comprises an induction coil which extends around the chamber. a housing having a proximal end and a distal end; a mouthpiece at the proximal end of the housing; a chamber for receiving a capsule having a shell containing a flavour-release medium and an induction heatable element; and an induction heating arrangement at the distal end of the housing and arranged to inductively heat the induction heatable element positioned in the chamber and thereby heat the flavour-release medium, wherein the chamber is positioned at the distal end of the housing and the induction heating arrangement comprises an induction coil which extends around the chamber.
Device for stabilising the running behaviour of a furniture part movable in a furniture carcass, the device comprising at least one gear which meshes with at least one rack likewise forming a part of the device during the inward and outward movement of the furniture part, wherein the rack has a threading region for threading the gear, in which threading region there is at least one tooth movable in the longitudinal direction of the rack relative to the rest of the rack, characterised in that the movable tooth is mounted on the rest of the rack via a joint.
External corner element of a reservation formwork frame or frame portion comprising a first seat for receiving a first reservation formwork element, extending along a first longitudinal axis X-X' and comprising a connection end and a free end, a second seat for receiving a second reservation formwork element, extending along a second longitudinal axis Y-Y' and comprising a connection end and a free end, said first seat and said second seat being connected by a hinge formed by said connection ends, and forming a bend delimiting an interior space E, whose angle is adjustable and inside which said reservation formwork elements (3, 4) are positioned, said first seat and said second seat each comprising at least one upper wall (14a, 14b), each arranged adjacent to a side wall (15a, 15b), said upper walls (14a, 14b) having a substantially L-shaped longitudinal section in the plane X-Y
A method performed by a computing device for controlling a home network system associated with a plurality of Wi-Fi communicating devices, the method comprising: analyzing data associated with the plurality of Wi-Fi communicating devices, the data collected from the plurality of Wi-Fi communicating devices; providing individual recommendations for each of the plurality of Wi-Fi communicating devices for improving performance of the home network system according to the analyzed data; defining hierarchies for the individual recommendations for each of the plurality of Wi-Fi communication devices; correlating the individual recommendations into groups; aggregating the individual recommendations from the groups to generate unified recommendations for improving the home network system; and providing the unified recommendations to a user of the home network system or to one or more of: a user broadband network, a diagnostic system, a Local Area Network device, a performance optimization system, or a home network controller. analyzing data associated with the plurality of Wi-Fi communicating devices, the data collected from the plurality of Wi-Fi communicating devices; providing individual recommendations for each of the plurality of Wi-Fi communicating devices for improving performance of the home network system according to the analyzed data; defining hierarchies for the individual recommendations for each of the plurality of Wi-Fi communication devices; correlating the individual recommendations into groups; aggregating the individual recommendations from the groups to generate unified recommendations for improving the home network system; and providing the unified recommendations to a user of the home network system or to one or more of: a user broadband network, a diagnostic system, a Local Area Network device, a performance optimization system, or a home network controller.
An imaging and pulse detection pixel (10, 400) comprising: an optical detection device connected directly to a first (131, 432) and second transistor only; a pulse detection circuit that operates on a first signal for detection of a pulse, the first signal being read out from the first transistor (131, 432) and an imaging circuit that operates on a second signal for generation of an image the second signal being read out from the second transistor, wherein a terminal of the optical detection device is directly connected to only a gate terminal (199, 499) of the first transistor (131, 432) and a non-gate terminal of the second transistor; wherein the optical detection device and the first and second transistors are included in a portion of the imaging and pulse detection pixel that is shared by the pulse detection circuit and the imaging circuit; and wherein the first and second signals are provided to a remaining portion of the pulse detection circuit and imaging circuit, respectively, wherein the remaining portions of the imaging circuit and the pulse detection circuit are not included in the shared portion. an optical detection device connected directly to a first (131, 432) and second transistor only; a pulse detection circuit that operates on a first signal for detection of a pulse, the first signal being read out from the first transistor (131, 432) and an imaging circuit that operates on a second signal for generation of an image the second signal being read out from the second transistor, wherein a terminal of the optical detection device is directly connected to only a gate terminal (199, 499) of the first transistor (131, 432) and a non-gate terminal of the second transistor; wherein the optical detection device and the first and second transistors are included in a portion of the imaging and pulse detection pixel that is shared by the pulse detection circuit and the imaging circuit; and wherein the first and second signals are provided to a remaining portion of the pulse detection circuit and imaging circuit, respectively, wherein the remaining portions of the imaging circuit and the pulse detection circuit are not included in the shared portion.
An injection device for delivering a therapeutic agent to a patient, the injection device comprising: a body having a patient face and a port face opposite the patient face, the port face having an introducer port including an introducer channel and an injection port including an injection channel, the injection channel defining an injection axis; a delivery tube for subcutaneous delivery of the therapeutic agent to the patient, the delivery tube projecting from and being generally perpendicular to the patient face, the delivery tube defining an introducer axis and being in fluid communication with the introducer port; a patch attached to the patient face and operable to adhesively attach to the patient; and an injection adapter assembly connectable to the injection port, the injection adapter assembly being operable to receive a needleless pen injector; characterized in further including a pop-up indicator disposed in the introducer channel (332, 632), the pop-up indicator having a normal state when pressure in the introducer channel (332, 632) is normal and an alarm state when pressure in the introducer channel (332, 632) exceeds a predetermined value. a body having a patient face and a port face opposite the patient face, the port face having an introducer port including an introducer channel and an injection port including an injection channel, the injection channel defining an injection axis; a delivery tube for subcutaneous delivery of the therapeutic agent to the patient, the delivery tube projecting from and being generally perpendicular to the patient face, the delivery tube defining an introducer axis and being in fluid communication with the introducer port; a patch attached to the patient face and operable to adhesively attach to the patient; and an injection adapter assembly connectable to the injection port, the injection adapter assembly being operable to receive a needleless pen injector; characterized in further including a pop-up indicator disposed in the introducer channel (332, 632), the pop-up indicator having a normal state when pressure in the introducer channel (332, 632) is normal and an alarm state when pressure in the introducer channel (332, 632) exceeds a predetermined value.
An oxygen breathing device (1a, 2a, 3a, 100), in particular for providing oxygen to passenger or crew of an aircraft, the device comprising: - an oxygen source, wherein oxygen is stored, in particular in chemically bound form or compressed form, - an oxygen guiding device (40a-c) for guiding oxygen from the oxygen source to a person, - an integrated transmitter comprising a. a sender adapted for wireless communication with another receiver and b. a receiver adapted for wireless communication with another sender, characterized in that the sender and the receiver of said integrated transmitter are adapted to receive and send at least a decompression signal signalising the need to activate an oxygen supply from said oxygen source via said oxygen guiding device (40a, 40b, 40c), and wherein the transmitter is connected to said oxygen source to activate the oxygen supply via said oxygen guiding device (40a, 40b, 40c) upon receipt of such decompression signal, and wherein said oxygen breathing device (1a, 2a, 3a, 100) further comprises a control unit adapted to automatically detect a presence of another transmitter and to establish wireless connection between said integrated transmitter and said other transmitter. - an oxygen source, wherein oxygen is stored, in particular in chemically bound form or compressed form, - an oxygen guiding device (40a-c) for guiding oxygen from the oxygen source to a person, - an integrated transmitter comprising a. a sender adapted for wireless communication with another receiver and b. a receiver adapted for wireless communication with another sender, a. a sender adapted for wireless communication with another receiver and b. a receiver adapted for wireless communication with another sender,
A pharmaceutical composition for use in treating a disease associated with misfolded and/or aggregated amyloid protein, comprising a pharmaceutically acceptable carrier and either a polypeptide or a fusion protein comprising the polypeptide fused to a protein domain with which it is not normally associated; wherein the polypeptide binds amyloid and comprises at least one wild type gene 3 protein (g3p), amyloid binding fragment of wild type g3p, mutant or variant g3p, or amyloid binding fragment of mutant or variant g3p; and wherein the composition does not comprise bacteriophage.