mhurhangee/ep-ind-claims huggingface dataset:
A method for automatic sleep test analysis, the method comprising: continuously monitoring, using a pulse oximeter, oxygen saturation values of a patient; continuously monitoring, using a capnograph, exhaled carbon dioxide values of the patient; and computing and outputting a continuous integrated sleep score based on a sequential analysis of the oxygen saturation values and the exhaled CO2 values, wherein the continuous integrated sleep score is indicative of the patient's breathing-related sleep quality during at least a portion of the sleep test; further comprising detecting multiple events indicative of ineffective breathing exhibited in one or more of the oxygen saturation values and the CO2 values; and computing a weighting function for the detected events, wherein each event is assigned a suitable weight; wherein the suitable weight for each event is based on applying an integrative function to the oxygen saturation values and CO2 values over a duration of each event, wherein the integrative function comprises the following parameters: the oxygen saturation values and CO2 values over the duration of the event; baseline oxygen saturation and CO2 values measured prior to the event; and the duration of the event. continuously monitoring, using a pulse oximeter, oxygen saturation values of a patient; continuously monitoring, using a capnograph, exhaled carbon dioxide values of the patient; and computing and outputting a continuous integrated sleep score based on a sequential analysis of the oxygen saturation values and the exhaled CO2 values, wherein the continuous integrated sleep score is indicative of the patient's breathing-related sleep quality during at least a portion of the sleep test; further comprising detecting multiple events indicative of ineffective breathing exhibited in one or more of the oxygen saturation values and the CO2 values; and computing a weighting function for the detected events, wherein each event is assigned a suitable weight; wherein the suitable weight for each event is based on applying an integrative function to the oxygen saturation values and CO2 values over a duration of each event, wherein the integrative function comprises the following parameters: the oxygen saturation values and CO2 values over the duration of the event; baseline oxygen saturation and CO2 values measured prior to the event; and the duration of the event. wherein the suitable weight for each event is based on applying an integrative function to the oxygen saturation values and CO2 values over a duration of each event, wherein the integrative function comprises the following parameters: the oxygen saturation values and CO2 values over the duration of the event; baseline oxygen saturation and CO2 values measured prior to the event; and the duration of the event. the oxygen saturation values and CO2 values over the duration of the event; baseline oxygen saturation and CO2 values measured prior to the event; and the duration of the event.
Treatment unit for containers, in particular for UV post-treatment of directly printed containers, comprising: - an irradiation tunnel having a transport means for the containers and having lamps arranged along the transport means for UV irradiation of the containers; and - an entry-side screening tunnel and an exit-side screening tunnel, which each connect to the irradiation tunnel and have an inlet direction that deviates from a transport direction (9, 10) in the connection region (11, 12) to the irradiation tunnel and an outlet direction for the containers, a transport means (24, 25) having a curved transport path (24a, 25a) for the containers being formed in each of the screening tunnels (7, 8), characterised in that the transport means (24, 25) is a curved conveyor belt that is directly connected to the irradiation tunnel or extends through said tunnel, the inlet direction and the outlet direction extending at an angular offset of 45° to the transport direction (9, 10) in the respective connection regions (11, 12). - an irradiation tunnel having a transport means for the containers and having lamps arranged along the transport means for UV irradiation of the containers; and - an entry-side screening tunnel and an exit-side screening tunnel, which each connect to the irradiation tunnel and have an inlet direction that deviates from a transport direction (9, 10) in the connection region (11, 12) to the irradiation tunnel and an outlet direction for the containers, a transport means (24, 25) having a curved transport path (24a, 25a) for the containers being formed in each of the screening tunnels (7, 8),
A method by a radio access network, RAN, node for providing network offloading in a wireless long-term evolution, LTE, communication, the method comprising: obtaining an Access Technology Selection Policy, ATSP, including a plurality of network selection criteria threshold values from at least one of an Access Network Discovery and Selection Function, ANDSF, and Mobile Management Entity, MME; modifying at least one network selection criteria threshold value included in the ATSP based on radio characteristic of the RAN node, load condition of the RAN node and a type of service being requested by the UE; sending the at least one modified network selection criteria threshold value to the user equipment, UE; and providing a validity time for the at least one network selection criteria threshold value to the UE. obtaining an Access Technology Selection Policy, ATSP, including a plurality of network selection criteria threshold values from at least one of an Access Network Discovery and Selection Function, ANDSF, and Mobile Management Entity, MME; modifying at least one network selection criteria threshold value included in the ATSP based on radio characteristic of the RAN node, load condition of the RAN node and a type of service being requested by the UE; sending the at least one modified network selection criteria threshold value to the user equipment, UE; and providing a validity time for the at least one network selection criteria threshold value to the UE.
An active suspension system configured to support a vehicle seat relative to a floor of a vehicle, the active suspension system comprising: a first non-back-drivable actuator; and a second non-back-drivable actuator, wherein the first non-back-drivable actuator and the second non-back-drivable actuator are configured to be operated cooperatively to control both roll and heave of the vehicle seat. a first non-back-drivable actuator; and a second non-back-drivable actuator, wherein the first non-back-drivable actuator and the second non-back-drivable actuator are configured to be operated cooperatively to control both roll and heave of the vehicle seat.
A fault handling method for storage architectures including storage mirrors (120, 130, 140, 150, 220, 230, 240, 250, 620, 630, 640) for maintaining data consistency, whereby information stored on one mirror is duplicated on the other mirrors, comprising: receiving an I/O error indication during an attempted application write; performing an error type detection process by checking the I/O status including determining if an error is a storage media error or a storage connectivity error and analyzing if the error includes a subset or all of a plurality of mirrors (620, 630, 640); performing a consistency maintenance if the error is a connectivity error, whereby the mirrors are synchronized using read-write-back operations; performing a detachment determination process to establish an appropriate detachment scenario, wherein said appropriate detachment scenario includes: detaching all but one of a plurality of mirrors if all of said mirrors have encountered storage media errors; and not detaching any of said mirrors if all of said mirrors have encountered storage connectivity errors; and returning an application write with a failure based upon the detachment determination process. receiving an I/O error indication during an attempted application write; performing an error type detection process by checking the I/O status including determining if an error is a storage media error or a storage connectivity error and analyzing if the error includes a subset or all of a plurality of mirrors (620, 630, 640); performing a consistency maintenance if the error is a connectivity error, whereby the mirrors are synchronized using read-write-back operations; performing a detachment determination process to establish an appropriate detachment scenario, wherein said appropriate detachment scenario includes: detaching all but one of a plurality of mirrors if all of said mirrors have encountered storage media errors; and not detaching any of said mirrors if all of said mirrors have encountered storage connectivity errors; and detaching all but one of a plurality of mirrors if all of said mirrors have encountered storage media errors; and not detaching any of said mirrors if all of said mirrors have encountered storage connectivity errors; and returning an application write with a failure based upon the detachment determination process.
A method for wireless local area network configuration of a home device, (102, 103), the method being performed by a terminal,, the method comprising obtaining authentication information of a first wireless local area network, wherein the authentication information of the first wireless local area network comprises a service set identifier SSID and an access password of the first wireless local area network; configuring on the terminal device the SSID of the first wireless local area network as a hidden SSID, wherein the first wireless local area network is established by an access point; and sending, to the home device, at least one first probe request frame, wherein the first probe request frame carries the authentication information of the first wireless local area network, and wherein the first probe request frame further comprises a feature code, wherein the feature code is used by the home device to identify the terminal device such that when the feature code included in the first probe request frame is different from a preset feature code, the home device discards the first probe request frame; and wherein the method further comprises: encrypting the authentication information using a public key of the home device, wherein the public key is marked on the home device and the public key of the home device is unique. obtaining authentication information of a first wireless local area network, wherein the authentication information of the first wireless local area network comprises a service set identifier SSID and an access password of the first wireless local area network; configuring on the terminal device the SSID of the first wireless local area network as a hidden SSID, wherein the first wireless local area network is established by an access point; and sending, to the home device, at least one first probe request frame, wherein the first probe request frame carries the authentication information of the first wireless local area network, and wherein the first probe request frame further comprises a feature code, wherein the feature code is used by the home device to identify the terminal device such that when the feature code included in the first probe request frame is different from a preset feature code, the home device discards the first probe request frame; and wherein the method further comprises: encrypting the authentication information using a public key of the home device, wherein the public key is marked on the home device and the public key of the home device is unique.
A steam turbine comprising a set of stationary blades, the set of stationary blades coupled to an outer ring wherein at least one of said stationary blades comprises: a suction side and an opposite pressure side; and a plurality of ejection channels defined in said at least one stationary blade, each of said plurality of ejection channels extends through an outer surface of said pressure side, each of said plurality of ejection channels coupled in flow communication to a blade inlet aperture, wherein said at least one stationary blade extends radially inwardly from a first end to a second end and defines a span therebetween, characterized in that said at least one stationary blade further comprises: a radially outer portion that extends radially inward from said first end to a first intermediate end; and a radially inner portion that extends radially outward from said second end to a second intermediate end, said second intermediate end coupled to said first intermediate end, wherein said plurality of ejection channels is defined solely in said radially outer portion, wherein the radially inner and outer portions (92, 94) are separate, distinct elements. a suction side and an opposite pressure side; and a plurality of ejection channels defined in said at least one stationary blade, each of said plurality of ejection channels extends through an outer surface of said pressure side, each of said plurality of ejection channels coupled in flow communication to a blade inlet aperture, wherein said at least one stationary blade extends radially inwardly from a first end to a second end and defines a span therebetween, a radially outer portion that extends radially inward from said first end to a first intermediate end; and a radially inner portion that extends radially outward from said second end to a second intermediate end, said second intermediate end coupled to said first intermediate end, wherein said plurality of ejection channels is defined solely in said radially outer portion, wherein the radially inner and outer portions (92, 94) are separate, distinct elements.
An ionizer for use in an air conditioner comprising: a circuit to generate high voltage; a circuit case to surround the circuit; an electrode disposed perpendicular to the flow direction of air outside of the circuit case and caused to discharge electricity by the high voltage generated by the circuit to ionize molecules in air; and an electrode cover disposed at a portion around the electrode; an electrode support tube protruding from the circuit case to support the electrode; wherein the electrode cover is disposed around the electrode support tube, and characterized in that: the electrode cover has a shape of a semicircular tube that surrounds half of a circumference of the electrode support tube and the electrode, and the electrode cover is disposed at a side of the electrode toward which air flows such that a portion of the electrode facing in the direction in which air flows is open to an outside to generate ions. a circuit to generate high voltage; a circuit case to surround the circuit; an electrode disposed perpendicular to the flow direction of air outside of the circuit case and caused to discharge electricity by the high voltage generated by the circuit to ionize molecules in air; and an electrode cover disposed at a portion around the electrode; an electrode support tube protruding from the circuit case to support the electrode; wherein the electrode cover is disposed around the electrode support tube, and characterized in that: the electrode cover has a shape of a semicircular tube that surrounds half of a circumference of the electrode support tube and the electrode, and the electrode cover is disposed at a side of the electrode toward which air flows such that a portion of the electrode facing in the direction in which air flows is open to an outside to generate ions. the electrode cover has a shape of a semicircular tube that surrounds half of a circumference of the electrode support tube and the electrode, and the electrode cover is disposed at a side of the electrode toward which air flows such that a portion of the electrode facing in the direction in which air flows is open to an outside to generate ions.
A method for a single-fault-tolerant determination of an isolation resistance of a photovoltaic system comprising an inverter and a solar generator connected thereto, wherein the isolation resistance is determined as a function of a test voltage drop in a resistor network, wherein the resistor network is connected to a variable voltage source by way of a first terminal, to a first pole of the solar generator by way of a second terminal and to a ground terminal of the inverter via an isolation relay by way of a third terminal, wherein a capacitor is disposed between the ground terminal and the first pole of the solar generator, characterized in that the method comprises the following steps in arbitrary order: - applying by way of the variable voltage source a first DC voltage value to the first terminal when the isolation relay is closed (step 21), - applying by way of the variable voltage source a second DC voltage value to the first terminal when the isolation relay is closed (step 22), - generating an AC voltage at the first terminal with the aid of the variable voltage source when the isolation relay is closed (step 23), and - generating the AC voltage at the first terminal with the aid of the variable voltage source when the isolation relay is open (step 24), wherein the function of the isolation relay is tested by comparing the amplitude of the test voltage between steps 23 and 24. - applying by way of the variable voltage source a first DC voltage value to the first terminal when the isolation relay is closed (step 21), - applying by way of the variable voltage source a second DC voltage value to the first terminal when the isolation relay is closed (step 22), - generating an AC voltage at the first terminal with the aid of the variable voltage source when the isolation relay is closed (step 23), and - generating the AC voltage at the first terminal with the aid of the variable voltage source when the isolation relay is open (step 24), wherein the function of the isolation relay is tested by comparing the amplitude of the test voltage between steps 23 and 24.
A continuous process for making a milled solid in liquid dispersion comprising the steps of: forming a pre-mill mixture of pre-mix, milling media, and previously milled dispersion; milling the pre-mill mixture to form a milled mixture of milling media and milled dispersion; separating a portion of the milled dispersion, which is substantially free of milling media, from the milled mixture, wherein the separation percentage is 0.01% to 45%; and recycling the un-separated mixture by adding additional pre-mix to form pre-mill mixture to create a continuous milling process; wherein the pre-mix comprises liquid and a solid; wherein the milling media is polymeric and has a density difference between the milling media and dispersion of less than 0.5 g/ml; preferably wherein the median particle size of the milling media is less than 500 microns; preferably wherein the milled solid of the milled solid dispersion in a liquid medium is a pigment. forming a pre-mill mixture of pre-mix, milling media, and previously milled dispersion; milling the pre-mill mixture to form a milled mixture of milling media and milled dispersion; separating a portion of the milled dispersion, which is substantially free of milling media, from the milled mixture, wherein the separation percentage is 0.01% to 45%; and recycling the un-separated mixture by adding additional pre-mix to form pre-mill mixture to create a continuous milling process; wherein the pre-mix comprises liquid and a solid; wherein the milling media is polymeric and has a density difference between the milling media and dispersion of less than 0.5 g/ml; preferably wherein the median particle size of the milling media is less than 500 microns; preferably wherein the milled solid of the milled solid dispersion in a liquid medium is a pigment.
A bioresorbable haemostatic porous foam sponge for adhering to a wound, the sponge having a tissue-contacting surface divided into a plurality of closely-spaced tissue contacting elements, wherein the sponge is manufactured from collagen, starch, gelatin or hyaluronic acid.
Urethane aminoacrylate-acrylate characterized in that it comprises at least two urethane functions bonded to an aminoacrylate group, the latter bearing one or more acrylate groups, preferably at least 2 and more preferentially at least 3 acrylate groups, and in that it is derived from the reaction of a) a hydroxylated aminoacrylate bearing one or more acrylate groups with b) a polyisocyanate, the hydroxyl groups being in excess relative to the isocyanate groups of the polyisocyanate b), with - said aminoacrylate a) being produced by the addition of a1) an amino alcohol bearing a hydroxyl group and a secondary amine group and optionally bearing both a secondary and a tertiary amine group, to a2) at least one multifunctional acrylate having an acrylate functionality or number-average acrylate functionality fa2 ranging from 2 to 6 per mole, with a2) being in stoichiometric excess of acrylate groups relative to the secondary amine groups -NH of said amino alcohol a1), with a ratio r1 of groups r1 = acrylate / NH > 1, in particular of at least 1.2, more particularly of at least 1.5 and even more particularly of at least 2, - the ratio r2 of groups r2 = OH / NCO > 1 and up to 1.4, in particular ranging from 1.05 to 1.4 and preferably from 1.05 to 1.2, - said urethane aminoacrylate-acrylate containing a content t Aa of aminoacrylate groups, expressed in milliequivalents per gram (mEq/g), of said urethane aminoacrylate-acrylate ranging from 0.3 to 6.0, preferably from 0.4 to 5.0 and more preferentially from 0.6 to 4.0. - said aminoacrylate a) being produced by the addition of a1) an amino alcohol bearing a hydroxyl group and a secondary amine group and optionally bearing both a secondary and a tertiary amine group, to a2) at least one multifunctional acrylate having an acrylate functionality or number-average acrylate functionality fa2 ranging from 2 to 6 per mole, with a2) being in stoichiometric excess of acrylate groups relative to the secondary amine groups -NH of said amino alcohol a1), with a ratio r1 of groups r1 = acrylate / NH > 1, in particular of at least 1.2, more particularly of at least 1.5 and even more particularly of at least 2, - the ratio r2 of groups r2 = OH / NCO > 1 and up to 1.4, in particular ranging from 1.05 to 1.4 and preferably from 1.05 to 1.2, - said urethane aminoacrylate-acrylate containing a content t Aa of aminoacrylate groups, expressed in milliequivalents per gram (mEq/g), of said urethane aminoacrylate-acrylate ranging from 0.3 to 6.0, preferably from 0.4 to 5.0 and more preferentially from 0.6 to 4.0.