mhurhangee/ep-ind-claims huggingface dataset:
Device for dosing and dry nebulization of nebulizable material, comprising: - a nebulization channel, which has a first attachment piece and a second attachment piece, - a respirator attachment piece or an attachment piece to a device adapted for administration to spontaneously ventilating patient, connected to the second attachment piece, - a source of compressed carrier gas connected to the first attachment piece via a valve for sending a carrier gas pressure pulse into the nebulization channel, - a reservoir containing the nebulizable material which is located between the first attachment piece and second attachment piece, and above the nebulization channel, and - a capillary in the nebulization channel, through which capillary the carrier gas flows into the nebulization channel when the valve is opened, wherein an outlet of the capillary is arranged in the nebulization channel in an area under a connection between the reservoir and the nebulization channel, characterized in that the reservoir is open only towards the nebulization channel, wherein the reservoir is connected to the nebulization channel such that it is gas-tight with respect to the environment, and that, when the valve is closed, the device is adapted for a pressure compensation by gas flowing back via the second attachment piece through the nebulization channel into the reservoir. - a nebulization channel, which has a first attachment piece and a second attachment piece, - a respirator attachment piece or an attachment piece to a device adapted for administration to spontaneously ventilating patient, connected to the second attachment piece, - a source of compressed carrier gas connected to the first attachment piece via a valve for sending a carrier gas pressure pulse into the nebulization channel, - a reservoir containing the nebulizable material which is located between the first attachment piece and second attachment piece, and above the nebulization channel, and - a capillary in the nebulization channel, through which capillary the carrier gas flows into the nebulization channel when the valve is opened, wherein an outlet of the capillary is arranged in the nebulization channel in an area under a connection between the reservoir and the nebulization channel,
A satellite transmission and reception device with high multipath attenuation, said device being intended to receive and process radio frequency signals originating from an uplink, then to transmit the processed signals on a downlink towards ground-based users, characterised in that it comprises, for reception, a power splitter comprising two outputs respectively connected to two independent frequency converters (20, 30) and two input demultiplexers (51, 52), which are respectively connected to the output of the two corresponding frequency converters (20, 30), each frequency converter (20, 30) being controlled by a dedicated local oscillator (22, 32), said two local oscillators (22, 32) operating at the same frequency, said two input demultiplexers (51, 52) comprising channel filters operating in different frequency sub-bands (F1, F2, F3, F4), distinct and spaced apart from each other in terms of frequency, two adjacent frequency sub-bands (F1, F2) (F3, F4) being filtered by two channel filters belonging to different input demultiplexers (52, 51).
A method to detect process temperature anomalies associated with conditions leading to an increased likelihood of decomposition of a mixture of 100 to 60 weight % of one or more C 2-8 alpha olefins and 0 to 40 weight % of one or more compounds selected from the group consisting of vinyl acetate; C 3-6 ethylenically unsaturated carboxylic acids and C 1-4 alkyl esters thereof in the presence of one or more initiators selected from the group consisting of oxygen, hydrogen peroxide, organic peroxides, persulfates, perborates, percarbonates, and organic azo compounds at pressures from 80 to 310 MPa and temperatures from 130 to 350°C in a tubular reactor having n thermocouples along the length of the reactor where n is a whole number between 100 and 350 comprising: i) starting or moving the reactor to a set of operating conditions to produce a desired product and after it has reached on line steady state conditions taking sufficient temperature readings over a period of time of not less than thirty seconds and not more than 5 minutes through the thermocouples to establish the mean temperature, standard deviation, and moving range for each thermocouple for that given time period; ii) analyzing the next sequential segment of temperature process data covering not less than 30 seconds and not more than 5 minutes that were acquired at a frequency of not less than 10 Hertz to determine if, for a given thermocouple, there is a) a temperature excursion between 3δ and 6δ above the established mean temperature and b) the moving range exceeds a predetermined threshold; and (iii) if both conditions (a) and (b) are not met across two or more thermocouples, the mean temperature and standard deviation values are recalculated using the current segment of data. i) starting or moving the reactor to a set of operating conditions to produce a desired product and after it has reached on line steady state conditions taking sufficient temperature readings over a period of time of not less than thirty seconds and not more than 5 minutes through the thermocouples to establish the mean temperature, standard deviation, and moving range for each thermocouple for that given time period; ii) analyzing the next sequential segment of temperature process data covering not less than 30 seconds and not more than 5 minutes that were acquired at a frequency of not less than 10 Hertz to determine if, for a given thermocouple, there is a) a temperature excursion between 3δ and 6δ above the established mean temperature and b) the moving range exceeds a predetermined threshold; and (iii) if both conditions (a) and (b) are not met across two or more thermocouples, the mean temperature and standard deviation values are recalculated using the current segment of data.
A method of wireless communication, comprising: receiving, at a mobile device (116, 122, 250, 302, 600, 700, 900), a standard offload policy via an access network discover and selection function, ANDSF, from a core network to indicate a priority for offloading data to a wireless local area network, WLAN, associated with the mobile device (116, 122, 250, 301, 600, 700, 900); the method being characterised by receiving, at the mobile device (116, 122, 250, 302, 600, 700, 900), a dynamic indication from a wireless wide area network, WWAN, access point (110, 210, 601, 701, 901) that changes the standard offload policy received from the core network; suspending application of the standard network offload policy at the mobile device (116, 122, 250, 302, 600, 700, 900) based on the dynamic indication received from the WWAN access point (110, 210, 601, 701, 901); and transmitting data to a second WLAN in response to the dynamic indication from the WWAN access point (110, 210, 601, 701, 901). receiving, at a mobile device (116, 122, 250, 302, 600, 700, 900), a standard offload policy via an access network discover and selection function, ANDSF, from a core network to indicate a priority for offloading data to a wireless local area network, WLAN, associated with the mobile device (116, 122, 250, 301, 600, 700, 900); the method being characterised by receiving, at the mobile device (116, 122, 250, 302, 600, 700, 900), a dynamic indication from a wireless wide area network, WWAN, access point (110, 210, 601, 701, 901) that changes the standard offload policy received from the core network; suspending application of the standard network offload policy at the mobile device (116, 122, 250, 302, 600, 700, 900) based on the dynamic indication received from the WWAN access point (110, 210, 601, 701, 901); and transmitting data to a second WLAN in response to the dynamic indication from the WWAN access point (110, 210, 601, 701, 901).
Disconnector for switchgear, having a first contact position, in which an electrical contact is provided between a main terminal and a first terminal, and a second contact position, in which an electrical contact is provided between the main terminal and a second terminal, the disconnector comprising: - a connector body which is moveable in a first direction between the first and second position and provided with an end portion which is extendable in a direction substantially perpendicular to the first direction for providing a contact force between the end portion and the first, second or main terminal (1, 9, 6), - a first operating mechanism which is arranged to move the connector body between the first and second position, and - a second operating mechanism which is arranged to extend the end portion of the connector body when the disconnector is in either the first or second contact position, characterised in that the end portion of the connector body is provided with a conical inside surface and the second operating mechanism comprises a first shaft provided with a first conically shaped end body positioned inside the conical inside surface of the end portion of the connector body. - a connector body which is moveable in a first direction between the first and second position and provided with an end portion which is extendable in a direction substantially perpendicular to the first direction for providing a contact force between the end portion and the first, second or main terminal (1, 9, 6), - a first operating mechanism which is arranged to move the connector body between the first and second position, and - a second operating mechanism which is arranged to extend the end portion of the connector body when the disconnector is in either the first or second contact position, characterised in that the end portion of the connector body is provided with a conical inside surface and the second operating mechanism comprises a first shaft provided with a first conically shaped end body positioned inside the conical inside surface of the end portion of the connector body.
Process for preparing dimethyl ether by catalytic dehydration of methanol and work-up of the dehydration product by distillation, wherein the catalytic dehydration is carried out in at least two reaction stages connected in series, of which at least the first reaction stage is operated adiabatically and cooling of the reaction product is carried out at least between the first reaction stage and the second reaction stage, characterized in that three adiabatically operated reaction stages connected in series are provided, liquid methanol is added to the reaction mixture as cooling medium between the first and second reaction stages and in that, between the second and third reaction stages, the cooling of the reaction mixtures is effected by means of a heat exchanger through which vapor of the methanol used for the dehydration is conveyed as cooling medium.
A liquid propellant rocket engine comprising: a main turbo-pump having a main pump having an outlet fluidly coupled with a supply line; and a boost turbo-pump having a housing; a rotor; an axial boost pump including a first portion of the housing and a first portion the rotor; and an axial turbine including a second portion of the housing and a second portion of the rotor, wherein the turbine has turbine blades attached to the second portion of the rotor, wherein the turbine has an inlet fluidly coupled with the supply line, characterised in that the turbine has a plurality of circumferentially disposed feed lines defined by the second portion of the housing and not the first portion of the housing, wherein the circumferentially disposed feed lines are fluidly coupled between the inlet and the turbine blades, wherein the circumferentially disposed feed lines have an acute angle turn. a main turbo-pump having a main pump having an outlet fluidly coupled with a supply line; and a boost turbo-pump having a housing; a rotor; an axial boost pump including a first portion of the housing and a first portion the rotor; and an axial turbine including a second portion of the housing and a second portion of the rotor, wherein the turbine has turbine blades attached to the second portion of the rotor, wherein the turbine has an inlet fluidly coupled with the supply line, characterised in that the turbine has a plurality of circumferentially disposed feed lines defined by the second portion of the housing and not the first portion of the housing, wherein the circumferentially disposed feed lines are fluidly coupled between the inlet and the turbine blades, wherein the circumferentially disposed feed lines have an acute angle turn. a housing; a rotor; an axial boost pump including a first portion of the housing and a first portion the rotor; and an axial turbine including a second portion of the housing and a second portion of the rotor, wherein the turbine has turbine blades attached to the second portion of the rotor, wherein the turbine has an inlet fluidly coupled with the supply line, characterised in that the turbine has a plurality of circumferentially disposed feed lines defined by the second portion of the housing and not the first portion of the housing, wherein the circumferentially disposed feed lines are fluidly coupled between the inlet and the turbine blades, wherein the circumferentially disposed feed lines have an acute angle turn.
Method for coupling/uncoupling a guided vehicle unit A2 to/from a guided vehicle unit A1 while said guided vehicle units A1 and A2 are operating and moving on a track according to a predefined itinerary, the guided vehicle unit A1 being located ahead the guided vehicle unit A2, each guided vehicle unit comprising an on-board signaling system and a rolling stock system, the method comprising: - a reception by at least one of the guided vehicle units of a command for coupling/uncoupling the guided vehicles units A1 and A2; - checking coupling/uncoupling conditions by means of at least one of the on-board signaling systems; - locating, by means of at least one of the on-board signaling systems, a coupling/uncoupling track section (31, 32) on the itinerary of the guided vehicle units A1 and A2, wherein the coupling/uncoupling track section (31, 32) is a track section fulfilling criteria defined for ensuring safe coupling/uncoupling operation, wherein the on-board signaling system is configured for determining whether the track section fulfills said criteria; - if a coupling/uncoupling track section has been located and the coupling/uncoupling conditions are fulfilled, then automatically performing the coupling/uncoupling of the guided vehicle units A1 and A2 when the guided vehicle units A1 and A2 enter said coupling/uncoupling track section (31, 32), otherwise moving the coupled/uncoupled guided vehicles units A1 and A2 according to said itinerary until a coupling/uncoupling track section (31, 32) is located or a station (S1, S2, S3) reached, characterized in that said criteria comprise a non-braking criterion defined for the whole length of the coupling/uncoupling track section for the guided vehicle units, said non-braking criterion ensuring that there is no braking need for the guided vehicle units when moving over the length of the track section when considering the track section topology and infrastructure. - a reception by at least one of the guided vehicle units of a command for coupling/uncoupling the guided vehicles units A1 and A2; - checking coupling/uncoupling conditions by means of at least one of the on-board signaling systems; - locating, by means of at least one of the on-board signaling systems, a coupling/uncoupling track section (31, 32) on the itinerary of the guided vehicle units A1 and A2, wherein the coupling/uncoupling track section (31, 32) is a track section fulfilling criteria defined for ensuring safe coupling/uncoupling operation, wherein the on-board signaling system is configured for determining whether the track section fulfills said criteria; - if a coupling/uncoupling track section has been located and the coupling/uncoupling conditions are fulfilled, then automatically performing the coupling/uncoupling of the guided vehicle units A1 and A2 when the guided vehicle units A1 and A2 enter said coupling/uncoupling track section (31, 32), otherwise moving the coupled/uncoupled guided vehicles units A1 and A2 according to said itinerary until a coupling/uncoupling track section (31, 32)
A zipper equipped bag comprising: a zipper comprising a base part of a male member in which a male projection is provided and a base part of a female member in which a female projection is provided, wherein the male projection and the female projection are interlockable with each other, and enabling said bag to be resealed and unsealed, wherein a tearing guide strip is provided along the longitudinal direction of the base part of the male or female member (21a, 21b) and integrated with the male or female member (2a, 2b), characterized in that the base part of one of the male or female member has an extended part that extends in a width direction beyond the base part of the other of the male or female member in a state when the male projection and the female projection are interlocked with each other, the base part of the male member is bounded with the same inner surface of the bag as the base part of the female member is bounded with, the tearing guide strip is positioned on a base part of the male or female member which does not extend beyond the other base part, and a thickened part is provided on the base part of the male or female member (21a, 21b) which does not extend and provided close to the tearing guide strip. a zipper comprising a base part of a male member in which a male projection is provided and a base part of a female member in which a female projection is provided, wherein the male projection and the female projection are interlockable with each other, and enabling said bag to be resealed and unsealed, wherein a tearing guide strip is provided along the longitudinal direction of the base part of the male or female member (21a, 21b) and integrated with the male or female member (2a, 2b), characterized in that the base part of one of the male or female member has an extended part that extends in a width direction beyond the base part of the other of the male or female member in a state when the male projection and the female projection are interlocked with each other, the base part of the male member is bounded with the same inner surface of the bag as the base part of the female member is bounded with, the tearing guide strip is positioned on a base part of the male or female member which does not extend beyond the other base part, and a thickened part is provided on the base part of the male or female member (21a, 21b) which does not extend and provided close to the tearing guide strip.
Method for distributing a particulate composition, preferably a particulate composition comprising beneficial arthropods, said method comprising: (i) providing in a reservoir particulate material comprising particles to be distributed in a target area, which reservoir is provided with a number of exits for the particles; (ii) providing a gas displacer suitable for generating a forced gas flow in a blow direction; (iii) generating with the gas displacer a forced gas flow in the blow direction; (iv) directing the particles from the exits in the forced gas flow, such that they are carried along in the blow direction; wherein a plurality of channels is provided positioned, relative to the gas displacer, in the blow direction, each channel comprising an inlet, an outlet and a hollow body connecting the inlet and outlet, wherein the inlets are designed such that at least a part of the forced gas flow generated in the blow direction flows through the channels and the outlets are designed to direct the gas outflows in substantially the same direction, such that the cores of the gas outflows are at least substantially parallel, and the particles are directed from the exits in the forced gas flow after the forced gas flow has passed through the channels. (i) providing in a reservoir particulate material comprising particles to be distributed in a target area, which reservoir is provided with a number of exits for the particles; (ii) providing a gas displacer suitable for generating a forced gas flow in a blow direction; (iii) generating with the gas displacer a forced gas flow in the blow direction; (iv) directing the particles from the exits in the forced gas flow, such that they are carried along in the blow direction;
An electrolysis cell for chlor-alkali electrolysis, comprising an anode chamber accommodating an anode and for accommodating an electrolytic solution, wherein the anode chamber comprises a circulation structure for improving circulation of the electrolytic solution and at least one baffle plate for improving horizontal homogeneity with regard to the concentration of chemical molecules, the density or the temperature within the electrolytic solution, wherein the circulation structure and the at least one baffle plate are different structures, wherein the anode and the circulation structure extend along a height section of the anode chamber, wherein the circulation structure divides the anode chamber into an upflow section and a downflow section, wherein the at least one baffle plate is arranged horizontally or with a slope smaller than 45° compared to a horizontal line, wherein the at least one baffle plate is arranged such that a stream from at least one inlet of the anode chamber collides with the baffle plate, wherein the at least one baffle plate is arranged such that a stream of electrolytic solution from the circulation structure collides with the baffle plate. wherein the anode chamber comprises a circulation structure for improving circulation of the electrolytic solution and at least one baffle plate for improving horizontal homogeneity with regard to the concentration of chemical molecules, the density or the temperature within the electrolytic solution, wherein the circulation structure and the at least one baffle plate are different structures, wherein the anode and the circulation structure extend along a height section of the anode chamber, wherein the circulation structure divides the anode chamber into an upflow section and a downflow section, wherein the at least one baffle plate is arranged horizontally or with a slope smaller than 45° compared to a horizontal line, wherein the at least one baffle plate is arranged such that a stream from at least one inlet of the anode chamber collides with the baffle plate, wherein the at least one baffle plate is arranged such that a stream of electrolytic solution from the circulation structure collides with the baffle plate.