mhurhangee/ep-ind-claims huggingface dataset:
A universal sequencer for an ejection seat of an aircraft, the universal sequencer being programmed with specific timing sequences for multiple ejection seat models and aircraft models, and comprising: a sequencer connector defining a plurality of pin receptacles; a controller electrically coupled to the sequencer connector; and a tangible, non-transitory memory configured to communicate with the controller, wherein a plurality of ejection timetables is stored in the tangible, non-transitory memory and can be accessed by the controller, with each ejection timetable of the plurality of ejection timetables being associated with a particular model of ejection seat and/or a particular model of aircraft, and wherein the tangible, non-transitory memory has instructions stored thereon that, in response to execution by the controller and when the universal sequencer is installed on the particular model of ejection seat and/or the particular model of aircraft, cause the controller to perform operations comprising: determining, by the controller, the particular model of ejection seat within which the universal sequencer is installed and/or the particular model of aircraft in which the ejection seat having the universal sequencer installed therein is located; and determining, by the controller, which ejection timetable of the plurality of ejection timetables to employ based on the determination of in which particular model of ejection seat the universal sequencer is installed and/or based on the determination of in which particular model of aircraft the ejection seat having the universal sequencer installed therein is located. a sequencer connector defining a plurality of pin receptacles; a controller electrically coupled to the sequencer connector; and a tangible, non-transitory memory configured to communicate with the controller, wherein a plurality of ejection timetables is stored in the tangible, non-transitory memory and can be accessed by the controller, with each ejection timetable of the plurality of ejection timetables being associated with a particular model of ejection seat and/or a particular model of aircraft, and wherein the tangible, non-transitory memory has instructions stored thereon that, in response to execution by the controller and when the universal sequencer is installed on the particular model of ejection seat and/or the particular model of aircraft, cause the controller to perform operations comprising: determining, by the controller, the particular model of ejection seat within which the universal sequencer is installed and/or the particular model of aircraft in which the ejection seat having the universal sequencer installed therein is located; and determining, by the controller, which ejection timetable of the plurality of ejection timetables to employ based on the determination of in which particular model of ejection seat the universal sequencer is installed and/or based on the determination of in which particular model of aircraft the ejection seat having the universal sequencer installed therein is located.
Actuation device for a movable part of a motor vehicle, particularly an outer door handle, with a movable carrier, which is movable by a drive between a first position in which the carrier is retracted within the vehicle and a second position in which the carrier extends from the motor vehicle, wherein at the carrier a camera is arranged for image capturing of an outer area of the motor vehicle, the drive comprises a lever mechanism with at least such a power intake element which can reliably receive a force acting on the carrier from the outer area such that in its second position the carrier serves as a manual actuation element for the movable part.
A flextensional transducer (1, 101) comprising at least one inner elongate driver member (2, 102, 202, 302, 402, 502), contained within and mechanically coupled to an inner flextensional housing shell (3, 103, 203, 303, 403, 503) which is itself nested within an outer flextensional housing shell (8, 108, 208, 308, 408, 508); the inner shell comprising a pair of contact portions (4, 104, 204, 304, 404, 504) and a pair of transmission portions (11, 111, 211, 311, 411, 511), the contact portions being located so that they are in mechanical contact with opposite ends of the at least one inner driver member, and the transmission portions being located on opposite sides of the inner housing shell between the contact portions; wherein shoulder portions (17, 117, 217, 317, 417,517) are arranged to connect between the contact portions and the transmission portions; and the outer housing shell being arranged so that the transmission portions of the inner housing shell act as bridging members between the said inner and outer housing shells, flexure of the outer flextensional housing shell being driven, on actuation of the transducer, by movement of the said bridging members, or vice versa, wherein, in use, movement of the transmission portions of the inner housing shell is amplified compared to the change in length of the inner driver member, characterised in that the transmission portions of the inner housing shell extend as blocks laterally from the surface of the inner housing shell to provide the said bridging members.
A supply and demand control device for controlling power supply and demand between a power system and a customer, the supply and demand control device comprising: a first communication unit configured to communicate, via a communication network (101, 202), with an electrical device which belongs to the customer and consumes power from the power system; and a control unit configured to obtain a first frequency of the power system, and start observation control if the obtained first frequency falls below a lower limit of a predetermined permissible frequency range, characterized in that in the observation control, the control unit is configured to determine start time for reducing power consumption of the electrical device via the first communication unit, based on a rate of change in frequency obtained after the observation control is started, obtain a second frequency of the power system during an observation duration which is a duration from start of the observation control to the determined start time and start reducing the power consumption at the start time if the obtained second frequency does not return to within the predetermined permissible frequency range within said observation duration. a first communication unit configured to communicate, via a communication network (101, 202), with an electrical device which belongs to the customer and consumes power from the power system; and a control unit configured to obtain a first frequency of the power system, and start observation control if the obtained first frequency falls below a lower limit of a predetermined permissible frequency range, characterized in that in the observation control, the control unit is configured to determine start time for reducing power consumption of the electrical device via the first communication unit, based on a rate of change in frequency obtained after the observation control is started, obtain a second frequency of the power system during an observation duration which is a duration from start of the observation control to the determined start time and start reducing the power consumption at the start time if the obtained second frequency does not return to within the predetermined permissible frequency range within said observation duration. determine start time for reducing power consumption of the electrical device via the first communication unit, based on a rate of change in frequency obtained after the observation control is started, obtain a second frequency of the power system during an observation duration which is a duration from start of the observation control to the determined start time and start reducing the power consumption at the start time if the obtained second frequency does not return to within the predetermined permissible frequency range within said observation duration.
An antitumor effect potentiator for use in a method of potentiating one or more other antitumor agents, comprising, as an active ingredient, an imidazooxazine compound represented by Formula, or a pharmaceutically acceptable salt thereof, wherein A, B, C, and D represent C-R 1a, C-R 1b, C-R 1c, and C-R 1d, respectively, or one or two of A, B, C, and D represent an N atom; at least two of R 1a, R 1b, R 1c, and R 1d represent hydrogen, and the other(s) represent(s) halogen; cyano; C 1-6 alkyl that may have hydroxyl group(s) as substituent(s); C 1-6 alkoxy; carbonyl having, as a substituent, hydroxyl, amino, optionally substituted mono- or di-(C 1-6 alkyl)amino, or mono- or di-(C 1-6 alkoxy)amino; or an unsaturated heterocyclic group; R 2 represents phenyl, pyridyl, or thienyl; R 3 represents hydrogen, methyl, ethyl, or cyclopropyl; and R 4 represents hydrogen or hydroxy. wherein A, B, C, and D represent C-R 1a, C-R 1b, C-R 1c, and C-R 1d, respectively, or one or two of A, B, C, and D represent an N atom; at least two of R 1a, R 1b, R 1c, and R 1d represent hydrogen, and the other(s) represent(s) halogen; cyano; C 1-6 alkyl that may have hydroxyl group(s) as substituent(s); C 1-6 alkoxy; carbonyl having, as a substituent, hydroxyl, amino, optionally substituted mono- or di-(C 1-6 alkyl)amino, or mono- or di-(C 1-6 alkoxy)amino; or an unsaturated heterocyclic group; R 2 represents phenyl, pyridyl, or thienyl; R 3 represents hydrogen, methyl, ethyl, or cyclopropyl; and R 4 represents hydrogen or hydroxy.
A burning stop apparatus comprising: a detector that is configured to detect a gas component generated by burning occurring in an electronic device (41 to 48) immersed in a coolant stored in a liquid immersion tank; a first pipe that is configured to introduce the gas component in the liquid immersion tank to the detector; a second pipe that is configured to return the gas component introduced to the detector into the liquid immersion tank; a breaker that is configured to cut off supply of power to the electronic device (41 to 48) when a detection value of the detector is higher than a preset first threshold value for concentration of the gas component; a lid provided to the liquid immersion tank; and a lid locking mechanism that is configured to keep the lid from being opened when it is determined based on the detection value of the detector that burning is occurring in the electronic device (41 to 48) inside the liquid immersion tank. a detector that is configured to detect a gas component generated by burning occurring in an electronic device (41 to 48) immersed in a coolant stored in a liquid immersion tank; a first pipe that is configured to introduce the gas component in the liquid immersion tank to the detector; a second pipe that is configured to return the gas component introduced to the detector into the liquid immersion tank; a breaker that is configured to cut off supply of power to the electronic device (41 to 48) when a detection value of the detector is higher than a preset first threshold value for concentration of the gas component; a lid provided to the liquid immersion tank; and a lid locking mechanism that is configured to keep the lid from being opened when it is determined based on the detection value of the detector that burning is occurring in the electronic device (41 to 48) inside the liquid immersion tank.
A method for Dynamic Network Steering in a mobile network, the mobile network comprising a User Equipment, UE, a Mobile Network Scoring System, MNSS, an entitlement server, and an Over The Air, OTA, server, wherein the UE comprises an application module, the method comprising the steps of: a) forwarding, from the UE to the application module, a UE location update via an Operating System Application Programming Interface, OS API, and waking up the application module; b) initiating, by the application module, an entitlement request towards the entitlement server to identify a customer with a customer ID; c) forwarding, by the entitlement server, the customer ID to the MNSS; d) requesting, from the application module to the UE, for the Mobile Country Code - Mobile Network Code, MCC-MNC, and a current Geo Position via OS API and forwarding this information to the MNSS; e) checking (5,6), at the MNSS, by looking into a topology map and comparing Key Performance Indicators, KPI's, if at the current Geo Position there is available a better network, based on the compared KPI's, than the network being currently used, wherein if no better network is available, no action is needed, wherein if a better network is available: f) sending, by the MNSS, a request for Steering of Roaming Refresh, SoRR, to the OTA server and sending, by the MNSS, information about a provider, of the founded better network available, to the application module; g) generating, at the OTA server, a SoRR message and sending it to the UE, to change to the better network identified. a) forwarding, from the UE to the application module, a UE location update via an Operating System Application Programming Interface, OS API, and waking up the application module; b) initiating, by the application module, an entitlement request towards the entitlement server to identify a customer with a customer ID; c) forwarding, by the entitlement server, the customer ID to the MNSS; d) requesting, from the application module to the UE, for the Mobile Country Code - Mobile Network Code, MCC-MNC, and a current Geo Position via OS API and forwarding this information to the MNSS; e) checking (5,6), at the MNSS, by looking into a topology map and comparing Key Performance Indicators, KPI's, if at the current Geo Position there is available a better network, based on the compared KPI's, than the network being currently used, wherein if no better network is available, no action is needed, wherein if a better network is available: f) sending, by the MNSS, a request for Steering of Roaming Refresh, SoRR, to the OTA server and sending, by the MNSS, information about a provider, of the founded better network available, to the application module; g) generating, at the OTA server, a SoRR message and sending it to the UE, to change to the better network identified.
A protecting film comprising: a base layer; an anti-static layer on one surface of the base layer; and an adhesive layer on the other surface of the base layer, characterized in that the adhesive layer comprises an anti-static agent in which a polyelectrolyte including ethylene glycol or ethylene oxide and an ion-type conductive functional group comprising a fluorine-based conductive functional group are coordinate covalently bonded, wherein the adhesive layer has a surface resistance of 10 11 Ω/□(ohms per square) or less, a peel-off static of 1 kv or less, an adhesiveness from 29.4 mN/25mm to 88.2 mN/25mm (= 3 gf/25mm to 9 gf/25 mm), and a tackiness from 33.32mN to 46.06mN (= 34gf to 47gf), and wherein the light transmittance of the protecting film is 88.5% or more, and the haze of the protecting film is 5.5% or less. a base layer; an anti-static layer on one surface of the base layer; and an adhesive layer on the other surface of the base layer, characterized in that the adhesive layer comprises an anti-static agent in which a polyelectrolyte including ethylene glycol or ethylene oxide and an ion-type conductive functional group comprising a fluorine-based conductive functional group are coordinate covalently bonded, wherein the adhesive layer has a surface resistance of 10 11 Ω/□(ohms per square) or less, a peel-off static of 1 kv or less, an adhesiveness from 29.4 mN/25mm to 88.2 mN/25mm (= 3 gf/25mm to 9 gf/25 mm), and a tackiness from 33.32mN to 46.06mN (= 34gf to 47gf), and wherein the light transmittance of the protecting film is 88.5% or more, and the haze of the protecting film is 5.5% or less.
An electronic calculating device (100; 200) arranged to perform obfuscated arithmetic in a commutative ring Z M; Z n x / M x defined by a combined modulus (M; M ( x)) in a residue number system, the residue number system being defined for a series of moduli ( m 1,m 2,...,m N), each modulus defining a commutative ring (; Z n x / m 1 x) such that for each modulus ( m i) of the series there exists an associated base element ( u i) satisfying the condition that each ring element ( x j) modulo the modulus ( m j) may be expressed as an integer-list (( a j, b j)) such that the ring elements equal a linear combination of powers of the base element ( x j = u i a j - u i b j), wherein each power has an exponent determined by an integer in the integer-list, the calculating device comprising - an operand storage arranged to store one or more operands (101, 106) modulo the combined modulus as one or more series of ring elements modulo the moduli, each ring element of a series being associated with a corresponding modulus of the series of moduli, wherein at least one ring element of the series is encoded as an integer-list, - a calculation unit (130;230) arranged to add and/or multiply a first and second operand of the operand storage according to the residue number system. - an operand storage arranged to store one or more operands (101, 106) modulo the combined modulus as one or more series of ring elements modulo the moduli, each ring element of a series being associated with a corresponding modulus of the series of moduli, wherein at least one ring element of the series is encoded as an integer-list, - a calculation unit (130;230) arranged to add and/or multiply a first and second operand of the operand storage according to the residue number system.
A method for measuring total protein in a flowing whole blood sample in a channel, the method comprising: performing refractometry on a substantially cell free layer of the flowing whole blood sample in the channel; and measuring a total protein content of the whole blood sample based on a refractive index of the substantially cell free layer, wherein the performing the refractometry on the flowing whole blood sample in the channel comprises directing a refractometer at the substantially cell free layer of the flowing whole blood sample adjacent a boundary wall of the channel and determining the refractive index of the substantially cell free layer; wherein determining the refractive index comprises: sensing an intensity of refracted light for each of a plurality of pixel locations across a surface of the sample to generate an angular spectrum image of the sample; and determining a boundary location along the angular spectrum image as an indicator of the refractive index. performing refractometry on a substantially cell free layer of the flowing whole blood sample in the channel; and measuring a total protein content of the whole blood sample based on a refractive index of the substantially cell free layer, wherein the performing the refractometry on the flowing whole blood sample in the channel comprises directing a refractometer at the substantially cell free layer of the flowing whole blood sample adjacent a boundary wall of the channel and determining the refractive index of the substantially cell free layer; wherein determining the refractive index comprises: sensing an intensity of refracted light for each of a plurality of pixel locations across a surface of the sample to generate an angular spectrum image of the sample; and determining a boundary location along the angular spectrum image as an indicator of the refractive index. sensing an intensity of refracted light for each of a plurality of pixel locations across a surface of the sample to generate an angular spectrum image of the sample; and determining a boundary location along the angular spectrum image as an indicator of the refractive index.
A process of producing a middle ear mucosa-like cell sheet, comprising: a) physically detaching a nasal mucosa epithelium tissue layer from a surface of collected human inferior turbinate mucosa, human middle turbinate mucosa, or human mucosa in paranasal sinus, b) explanting the nasal mucosa epithelium tissue layer on a cell culture substrate to proliferate human nasal epithelium cells from the nasal mucosa epithelium tissue; c) culturing the human nasal epithelium cells on said cell culture substrate which has a porous membrane, wherein the porous membrane is coated with a polymer whose hydration force changes within a temperature range of 0 to 80°C, wherein the human nasal epithelium cells are cultured within a temperature range where the hydration force of the polymer is weak; and d) changing the temperature to a temperature at which the hydration force is strong to detach the cultured middle ear mucosa-like cells while retaining the form of a sheet. a) physically detaching a nasal mucosa epithelium tissue layer from a surface of collected human inferior turbinate mucosa, human middle turbinate mucosa, or human mucosa in paranasal sinus, b) explanting the nasal mucosa epithelium tissue layer on a cell culture substrate to proliferate human nasal epithelium cells from the nasal mucosa epithelium tissue; c) culturing the human nasal epithelium cells on said cell culture substrate which has a porous membrane, wherein the porous membrane is coated with a polymer whose hydration force changes within a temperature range of 0 to 80°C, wherein the human nasal epithelium cells are cultured within a temperature range where the hydration force of the polymer is weak; and d) changing the temperature to a temperature at which the hydration force is strong to detach the cultured middle ear mucosa-like cells while retaining the form of a sheet.