mhurhangee/ep-ind-claims huggingface dataset:
A medicated module attachable to a drug delivery device containing primary reservoir with a first medicament, said medicated module comprising: a connecting body configured for attachment to said drug delivery device; a proximal first needle fixed within said module; a distal second needle fixed within said module; and a bypass component moveable between a first and a second position; a needle guard operatively coupled to said module; a biasing element positioned to bias said needle guard; a secondary reservoir containing at least one dose of a second medicament and configured for fluid communication with said first needle and said second needle, characterized in that said bypass component defines a cavity that retains said secondary reservoir, wherein said bypass component is in said first position configured to allow the first medicament from said drug delivery device to bypass said secondary reservoir and exit said second needle which is in fluid engagement with said first needle, and wherein said bypass component provides in said second position a fluid connection between said first needle, said secondary reservoir and said second needle. a connecting body configured for attachment to said drug delivery device; a proximal first needle fixed within said module; a distal second needle fixed within said module; and a bypass component moveable between a first and a second position; a needle guard operatively coupled to said module; a biasing element positioned to bias said needle guard; a secondary reservoir containing at least one dose of a second medicament and configured for fluid communication with said first needle and said second needle, characterized in that said bypass component defines a cavity that retains said secondary reservoir, wherein said bypass component is in said first position configured to allow the first medicament from said drug delivery device to bypass said secondary reservoir and exit said second needle which is in fluid engagement with said first needle, and wherein said bypass component provides in said second position a fluid connection between said first needle, said secondary reservoir and said second needle.
A high-strength cold-rolled steel sheet comprising, in terms of percent by mass, a composition of C: 0.05 to 0.3%, Si: 0.6 to 3.0%, Mn: 1.0 to 3.0%, P: 0.1% or less, S: 0.05% or less, Al: 0.01 to 1%, N: 0.01% or less, optionally at least one of Cr: 0.01 to 1%, Mo: 0.01 to 1%, Ni: 0.01 to 1%, and Cu: 0.01 to 1%, optionally at least one of Ti: 0.001 to 0.1%, Nb: 0.001 to 0.1%, and V: 0.001 to 0.1%, and optionally B: 0.0003 to 0.005%, and the balance being Fe and unavoidable impurities, wherein a coverage ratio of reduced iron on a steel sheet surface, as determined by using a scanning electron microscope and observing the reflected image, is 40% or more, and wherein the reduced iron is formed by the reduction of iron oxides containing (Fe,Mn) 2 SiO 4.
An information processing apparatus comprising: input means configured to receive an input of a setting by a user, wherein the setting indicates whether characteristics acquisition processing is to be executed based on sheet-fed information to be acquired, and wherein the characteristics acquisition processing is processing for acquiring characteristics corresponding to density of an image to be recorded by recording means; a memory (20a,306) configured to store the input setting; acquisition means for acquiring the sheet-fed information indicating that feeding means has fed a recording medium to a predetermined sheet feeding position; and determination means for determining execution of the characteristics acquisition processing in a case where the sheet-fed information is acquired and the stored setting indicates that the characteristics acquisition processing is to be executed. input means configured to receive an input of a setting by a user, wherein the setting indicates whether characteristics acquisition processing is to be executed based on sheet-fed information to be acquired, and wherein the characteristics acquisition processing is processing for acquiring characteristics corresponding to density of an image to be recorded by recording means; a memory (20a,306) configured to store the input setting; acquisition means for acquiring the sheet-fed information indicating that feeding means has fed a recording medium to a predetermined sheet feeding position; and determination means for determining execution of the characteristics acquisition processing in a case where the sheet-fed information is acquired and the stored setting indicates that the characteristics acquisition processing is to be executed.
A nozzle bar for treating fibres with water jets, including an elongately extending upper part, in which an elongately configured pressure chamber is placed, wherein the pressure chamber includes an end side with an opening for supplying water and an opposite closed end side, and wherein a pressure distribution chamber, which extends parallel to the pressure chamber, is placed in the upper part, and wherein several throughflow bores are placed distributed along the length of the upper part in the intermediate walling between the pressure chamber and the pressure distribution chamber, through which bores water is guidable from the pressure chamber into the pressure distribution chamber, and wherein an impact body is disposed in the pressure distribution chamber, which body is configured rod-shaped and extends centred in the pressure distribution chamber longitudinally through the latter, an elongately extending lower part, which is disposed in a liquid-tight manner at the upper part, and wherein a nozzle strip with bores for the water discharge is accommodated in or at the lower part, and wherein a slot, which extends between the pressure distribution chamber and the nozzle strip for charging the nozzle strip with water, is placed in the upper part, characterized in that a surrounding annular gap with a gap width of 5 mm to 8 mm is formed between the outside of the impact body and the inside of the pressure distribution chamber, wherein the impact body has a diameter of 20 mm to 30 mm.
System for warning a driver of a vehicle of an event in the surroundings of the vehicle, comprising: a detection system (31; 32; 33) which is able to detect an event occurring in the surroundings of the vehicle; a warning device (40; 50) intended to be worn by the driver and connected to the detection system (31; 32; 33); the warning device (40; 50) being arranged to transmit a warning signal to the driver when an event is detected by the detection system (31; 32; 33); characterized in that the warning device (40; 50) comprises means (70; 90) arranged to be mounted, reversibly, on an object worn by the driver. a detection system (31; 32; 33) which is able to detect an event occurring in the surroundings of the vehicle; a warning device (40; 50) intended to be worn by the driver and connected to the detection system (31; 32; 33); the warning device (40; 50) being arranged to transmit a warning signal to the driver when an event is detected by the detection system (31; 32; 33); characterized in that the warning device (40; 50) comprises means (70; 90) arranged to be mounted, reversibly, on an object worn by the driver.
A compound selected from 5-(fluoromethyl)piperidine-3,4-diol, 5-(chloromethyl)piperidine-3,4-diol or a pharmaceutically acceptable salt or solvate thereof, or any combination of two or more thereof for use in preventing and/or treating a lysosomal storage disorder in a patient at risk of developing or diagnosed with the same.
Footboard for an aircraft, the footboard comprising a support assembly provided with a vertical body carrying a tread, characterised in that said support assembly is portable, the footboard including: - at least two fastening pegs fastenable to a fuselage of an aircraft, said body comprising one fastening orifice per peg, said body being carried by said pegs when the body is directed manually towards a fuselage in order to cause each peg to penetrate into a fastening orifice, - at least one locking system carried by said body for automatically locking the position of at least one peg in a fastening orifice, - a manual unlocking means connected to the locking system to enable the body and the pegs to be separated manually. - at least two fastening pegs fastenable to a fuselage of an aircraft, said body comprising one fastening orifice per peg, said body being carried by said pegs when the body is directed manually towards a fuselage in order to cause each peg to penetrate into a fastening orifice, - at least one locking system carried by said body for automatically locking the position of at least one peg in a fastening orifice, - a manual unlocking means connected to the locking system to enable the body and the pegs to be separated manually.
A heating-system control method of controlling heating devices each of which is provided in a different one of rooms to heat the room by radiating heat generated by a heat supply source, the heating-system control method being characterized in comprising: the following steps: obtaining, from the heat supply source, a heat radiation reduction instruction to reduce heat radiation of the heating devices during a heat radiation reduction period from a heat radiation reduction start time to a heat radiation reduction end time; predicting a change in a room temperature which is to occur during the heat radiation reduction period, for each of the rooms; determining, based on the change in the room temperature predicted in the predicting, step a pre-shutoff accumulated temperature that allows the room temperature of the room to reach a predetermined target temperature at the heat radiation reduction end time, the pre-shutoff accumulated temperature being the room temperature of the room at the heat radiation reduction start time; and causing each of the heating devices (i) to radiate heat in order for the room temperature of the room to reach the pre-shutoff accumulated temperature determined for the room in the determining, step during a pre-shutoff heat accumulation period from when the heat radiation reduction instruction is obtained to the heat radiation reduction start time and (ii) to stop heat radiation at the heat radiation reduction start time. obtaining, from the heat supply source, a heat radiation reduction instruction to reduce heat radiation of the heating devices during a heat radiation reduction period from a heat radiation reduction start time to a heat radiation reduction end time; predicting a change in a room temperature which is to occur during the heat radiation reduction period, for each of the rooms; determining, based on the change in the room temperature predicted in the predicting, step a pre-shutoff accumulated temperature that allows the room temperature of the room to reach a predetermined target temperature at the heat radiation reduction end time, the pre-shutoff accumulated temperature being the room temperature of the room at the heat radiation reduction start time; and causing each of the heating devices (i) to radiate heat in order for the room temperature of the room to reach the pre-shutoff accumulated temperature determined for the room in the determining, step during a pre-shutoff heat accumulation period from when the heat radiation reduction instruction is obtained to the heat radiation reduction start time and (ii) to stop heat radiation at the heat radiation reduction start time.
A device for making a dilute aqueous solution of peroxomonosulphuric acid, comprising a) a conduit for an aqueous stream, b) a mixing tube located inside said conduit, having a static mixer inside the mixing tube, an outlet open to said conduit and an inlet, c) a sulphuric acid supply tube connected to the inlet of said mixing tube and d) a hydrogen peroxide supply tube, arranged inside the sulphuric acid supply tube and having an outlet for hydrogen peroxide at the inlet of said mixing tube. a) a conduit for an aqueous stream, b) a mixing tube located inside said conduit, having a static mixer inside the mixing tube, an outlet open to said conduit and an inlet, c) a sulphuric acid supply tube connected to the inlet of said mixing tube and d) a hydrogen peroxide supply tube, arranged inside the sulphuric acid supply tube and having an outlet for hydrogen peroxide at the inlet of said mixing tube.
A method, comprising: transmitting from a first mesh point at least one multicast or broadcast frame; characterized by transitioning the first mesh point to a lower power mode of operation after expiration of a specified post groupcast time measured from a last multicast or broadcast frame that was transmitted by the first mesh point after expiration of an awake window, or when the awake window expires, whichever occurs later. transmitting from a first mesh point at least one multicast or broadcast frame; characterized by transitioning the first mesh point to a lower power mode of operation after expiration of a specified post groupcast time measured from a last multicast or broadcast frame that was transmitted by the first mesh point after expiration of an awake window, or when the awake window expires, whichever occurs later.
A method for checking capacity for a multimedia session, the method being performed in a multimedia delivery service node of a multimedia network, and comprising the steps of: receiving, by the multimedia delivery service node, a capacity request for a multimedia session, the capacity request comprising a desired bandwidth, a requested Quality of Service Class Identifier, QCI, a requested time window and a desired location in terms of at least one service area, each service area being served by a plurality of radio base stations, wherein the capacity request further comprises a list of cell identifiers which are a subset of all cell identifiers sets of the at least one service area, the list of cell identifiers providing more detail with regard to the desired location; checking, by the multimedia delivery service node, whether there is sufficient capacity in each service area for the desired bandwidth and desired QCI during the desired time window of the request by reading available capacity in an aggregated capacity database, the aggregated capacity database comprising available bandwidth capacity on a service area level and by reading available radio capacity on a radio resource level in a resource capacity database; and sending, by the multimedia delivery service node, a response based on whether there is sufficient capacity or not. receiving, by the multimedia delivery service node, a capacity request for a multimedia session, the capacity request comprising a desired bandwidth, a requested Quality of Service Class Identifier, QCI, a requested time window and a desired location in terms of at least one service area, each service area being served by a plurality of radio base stations, wherein the capacity request further comprises a list of cell identifiers which are a subset of all cell identifiers sets of the at least one service area, the list of cell identifiers providing more detail with regard to the desired location; checking, by the multimedia delivery service node, whether there is sufficient capacity in each service area for the desired bandwidth and desired QCI during the desired time window of the request by reading available capacity in an aggregated capacity database, the aggregated capacity database comprising available bandwidth capacity on a service area level and by reading available radio capacity on a radio resource level in a resource capacity database; and sending, by the multimedia delivery service node, a response based on whether there is sufficient capacity or not.
A three-dimensional printing device for printing a three-dimensional printed object by curing a resin material so as to successively deposit layers of resin each having a predetermined cross-sectional shape, the three-dimensional printing device comprising: a base; a holder disposed above the base; a printing head fixed on the holder and including a nozzle configured to discharge the resin material; a stage disposed below the printing head and movably supported on the base, the stage being configured to hold the resin material discharged from the nozzle; a stage moving mechanism configured to move the stage with five or more degrees of freedom; the three-dimensional printing device being characterized in that the stage moving mechanism comprises: first to sixth guide portions configured to move up and down respectively; first to sixth actuators configured to move up and down the first to sixth guide portions, respectively; and first to sixth rods each of which includes a first end portion connected to the stage via a first universal joint therebetween and a second end portion connected to an associated one of the first to sixth guide portions via a second universal joint therebetween; wherein the stage moving mechanism moves the stage with six degrees of freedom. a base; a holder disposed above the base; a printing head fixed on the holder and including a nozzle configured to discharge the resin material; a stage disposed below the printing head and movably supported on the base, the stage being configured to hold the resin material discharged from the nozzle; a stage moving mechanism configured to move the stage with five or more degrees of freedom; the three-dimensional printing device being characterized in that the stage moving mechanism comprises: first to sixth guide portions configured to move up and down respectively; first to sixth actuators configured to move up and down the first to sixth guide portions, respectively; and first to sixth rods each of which includes a first end portion connected to the stage via a first universal joint therebetween and a second end portion connected to an associated one of the first to sixth guide portions via a second universal joint therebetween; wherein the stage moving mechanism moves the stage with six degrees of freedom. first to sixth guide portions configured to move up and down respectively; first to sixth actuators configured to move up and down the first to sixth guide portions, respectively; and first to sixth rods each of which includes a first end portion connected to the stage via a first universal joint therebetween and a second end portion connected to an associated one of the first to sixth guide portions via a second universal joint therebetween; wherein the stage moving mechanism moves the stage with six degrees of freedom.
A clad steel plate comprising: 0.05 to 0.10% by mass of C; 0.10 to 0.30% by mass of Si; 1.30 to 1.70% by mass of Mn; 0.015% or less by mass of P; 0.005% or less of mass of S; 0.10 to 0.60% by mass of Ni; 0.10 to 0.45% by mass of Cr; 0.05 to 0.40% by mass of Cu; 0.05 to 0.40% by mass of Mo; 0.02 to 0.06% by mass of V; 0.03 to 0.10% by mass of Nb; 0.005 to 0.025% by mass of Ti; 0.020 to 0.050% by mass of Al; 0.0010 to 0.0040% by mass of Ca; and 0.0030 to 0.0100% by mass of N with the remainder including Fe and inevitable impurities and in which the content of Ni, Cr, Cu and Mo satisfies the equation 0.90% ≤ (Ni + Cr + Cu + Mo) ≤ 1.20%, wherein a microstructure of the base metal comprises a martensite structure.
An electromagnetic wave sensor for determining a hydration status of a body tissue in vivo, comprising - an electromagnetic wave transmitter unit configured to emit electromagnetic wave signal in a frequency range between 1 GHz and 100 GHz, - a waveguide unit coupled to the electromagnetic wave transmitter unit, the waveguide unit being adapted to be arranged next to the body tissue such that a fringe field of the electromagnetic wave signal guided by the waveguide unit penetrates the body tissue; - an electromagnetic wave receiver unit coupled to the waveguide unit and configured to receive the electromagnetic wave signal modified by the body tissue in dependence of the hydration status of the body tissue; and - a processor unit adapted to determine the hydration status on the basis of a frequency analysis of a transfer function between the electromagnetic wave transmitter unit and the electromagnetic wave receiver unit. - an electromagnetic wave transmitter unit configured to emit electromagnetic wave signal in a frequency range between 1 GHz and 100 GHz, - a waveguide unit coupled to the electromagnetic wave transmitter unit, the waveguide unit being adapted to be arranged next to the body tissue such that a fringe field of the electromagnetic wave signal guided by the waveguide unit penetrates the body tissue; - an electromagnetic wave receiver unit coupled to the waveguide unit and configured to receive the electromagnetic wave signal modified by the body tissue in dependence of the hydration status of the body tissue; and - a processor unit adapted to determine the hydration status on the basis of a frequency analysis of a transfer function between the electromagnetic wave transmitter unit and the electromagnetic wave receiver unit.
A method (200, 400) performed by an aggressor Base Station, BS, for facilitating Interference Cancellation, IC, at a User Equipment, UE, the method characterized by: predefining (S210, S410) one or more sets of transmission parameters, where one or more of the transmission parameters in the one or more sets are constrained to take values from respective reduced sets of values out of the values available for the respective one or more transmission parameters, each set of the one or more sets of transmission parameters being identifiable by a unique indication; and configuring (S220, S430) a transmission of the BS, which is to interfere downlink transmissions to the UE from a serving BS of the UE, by using one of the predefined one or more sets of transmission parameters. transmitting (S230, S450) the unique indication indicating the used one of the predefined one or more sets of transmission parameters directly to the UE or indirectly to the UE via the serving BS of the UE. predefining (S210, S410) one or more sets of transmission parameters, where one or more of the transmission parameters in the one or more sets are constrained to take values from respective reduced sets of values out of the values available for the respective one or more transmission parameters, each set of the one or more sets of transmission parameters being identifiable by a unique indication; and configuring (S220, S430) a transmission of the BS, which is to interfere downlink transmissions to the UE from a serving BS of the UE, by using one of the predefined one or more sets of transmission parameters. transmitting (S230, S450) the unique indication indicating the used one of the predefined one or more sets of transmission parameters directly to the UE or indirectly to the UE via the serving BS of the UE.
Hydraulic control comprising a pressure switch for supplying hydraulic medium discharged by at least one pump connected with a drive into a supply line, wherein the pressure switch is arranged between the supply line and a return and is pilot pressure controlled at respective blocking sides and opening sides (26, 23) in a direction to a respective switching position either for supplying hydraulic medium into the supply line or for reliefing the supply line into the return, wherein the pressure switch is a 2/2-seat valve having a closing member and a stationary seat, and wherein in an inlet line connected with the pump a pressure switch-function aperture is arranged, upstream of the pressure switch-function aperture a pilot line is branching of to the blocking side of the pressure switch, and the closure member is actuable at the opening side by pilot pressure tapped from the supply line and by an adjustment spring, and the blocking side is actuable by pilot pressure from the pilot line, characterized in that at least one chamber is associated to the closure member at the blocking side, being filled with hydraulic medium from the pilot line within a time duration which either is predetermined or selectable.