mhurhangee/ep-ind-claims huggingface dataset:
Method for the automatic starting of a twin-engine aircraft, the aircraft comprising a first and a second engine (2, 3) each having a high-pressure stage comprising at least one rotor, the starting method comprising the automatic starting of a first and then of a second engine, the starting of the first engine consisting in implementing a starting cycle that takes place in four successive phases, these being: • a starting phase in which at least one rotor of the high-pressure stage of the first engine is spun up via a compressed-air-generating source; • a holding phase in which the rotational speed of the at least one rotor of the first engine is held at a speed that is substantially constant and less than a nominal value for a predetermined duration; • an ignition phase in which combustion of an air-fuel mixture is initiated in the first engine; and • a run-up phase in which the rotational speed of the at least one rotor of the first engine is increased until it reaches the nominal value, the method being one characterized in that, concomitantly with the starting cycle for the first engine, at least one rotor of the high-pressure stage of the second engine is spun up for a predetermined duration, using the compressed-air-generating source, to a speed that is substantially constant and less than the nominal value, and characterized in that once the run-up phase of the starting cycle for the first engine is complete, the second engine is started, the starting of the second engine consisting in implementing a starting cycle that takes place in three successive phases, these being: • a starting phase (P1') in which at least one rotor of the high-pressure stage of the second engine is spun up via a compressed-air-generating source; • an ignition phase (P3') in which combustion of an air-fuel mixture is initiated in the second engine; and • a run-up phase (P4') in which the rotational speed of the at least one rotor of the second engine is increased until it reaches the nominal value. • a starting phase in which at least one rotor of the high-pressure stage of the first engine is spun up via a compressed-air-generating source; • a holding phase in which the rotational speed of the at least one rotor of the first engine is held at a speed that is substantially constant and less than a nominal value for a predetermined duration; • an ignition phase in which combustion of an air-fuel mixture is initiated in the first engine; and • a run-up phase in which the rotational speed of the at least one rotor of the first engine is increased until it reaches the nominal value, • a starting phase (P1') in which at least one rotor of the high-pressure stage of the second engine is spun up via a compressed-air-generating source; • an ignition phase (P3') in which combustion of an air-fuel mixture is initiated in the second engine; and • a run-up phase (P4') in which the rotational speed of the at least one rotor of the second engine is increased until it reaches the nominal value.
A retention assembly (100,300,500) for a patient interface device, the patient interface device comprising a cushion member structured to engage a face of a patient, the retention assembly (100,300,500) comprising: a retention member (110,310,510) structured to be coupled to and hold the cushion member; a headgear member (120,320) having a strap member; a first interconnect member (130,330) structured to be removably coupled to the retention member (110,310,510); and a second interconnect member (160,360) structured to be removably coupled to an end of the strap member, the second interconnect member (160,360) being removably coupled to the first interconnect member (130,330) in order to couple the headgear member (120,320) to the retention member (110,310,510) wherein the first interconnect member (130,330) comprises a first body (132,332) having an aperture; wherein the second interconnect member (160,360) comprises a second body and a post extending therefrom; and wherein the post is structured to extend into the aperture in order to allow the second interconnect member (160,360) to be removably coupled to the first interconnect member (130,330), characterized in that the retention member (110,310,510) has a branch member having a thru hole extending through a distal end of the branch member; and wherein the first body (132,332) is structured to be received through the thru hole and held by the distal end of the branch member, wherein the first body comprises a first blocking portion and a second blocking portion; wherein the branch member has a first side portion and a second side portion each facing away from one another in opposing directions; wherein the first blocking portion is structured to engage the first side portion in order to prevent the first interconnect member (130,330) from being pulled through the thru hole; and wherein the second blocking portion is structured to engage the second side portion in order to prevent the first interconnect member (130,330) from being pulled through the thru hole. a retention member (110,310,510) structured to be coupled to and hold the cushion member; a headgear member (120,320) having a strap member; a first interconnect member (130,330) structured to be removably coupled to the retention member (110,310,510); and a second interconnect member (160,360) structured to be removably coupled to an end of the strap member, the second interconnect member (160,360) being removably coupled to the first interconnect member (130,330) in order to couple the headgear member (120,320) to the retention member (110,310,510)
Tissue stent for allowing passage of a fluid, the tissue stent being suited for implantation into the body of a mammal, the tissue stent comprising: • a body (MESH) forming said passage from an entry side towards an exit side when implanted, • an energy harvesting and storage portion, • an inductivity (L 1), characterized in that the tissues stent also comprises • at least two sensing portions (S 1, S 2), whereby a first sensing portion (S 1) is arranged near the entry side and whereby a second sensing portion (S 2) is arranged near the exit side, the first sensing portion (S 1) and second sensing portion (S 2) being pressure sensors (S pressure), • a wireless sending portion for sending information indicative of the functional conditions of the passage, • whereby the at least two sensing portions (S 1, S 2) and the wireless sending portion are energized via the energy harvesting and storage section, • whereby the inductivity (L 1) is temporarily connected to the energy harvesting and storage portion allowing for energy harvesting, and whereby the inductivity (L 1) when not connected to the energy harvesting and storage portion is temporarily connected to the wireless sending portion allowing for sending information. • a body (MESH) forming said passage from an entry side towards an exit side when implanted, • an energy harvesting and storage portion, • an inductivity (L 1), characterized in that the tissues stent also comprises • at least two sensing portions (S 1, S 2), whereby a first sensing portion (S 1) is arranged near the entry side and whereby a second sensing portion (S 2) is arranged near the exit side, the first sensing portion (S 1) and second sensing portion (S 2) being pressure sensors (S pressure), • a wireless sending portion for sending information indicative of the functional conditions of the passage, • whereby the at least two sensing portions (S 1, S 2) and the wireless sending portion are energized via the energy harvesting and storage section, • whereby the inductivity (L 1) is temporarily connected to the energy harvesting and storage portion allowing for energy harvesting, and whereby the inductivity (L 1) when not connected to the energy harvesting and storage portion is temporarily connected to the wireless sending portion allowing for sending information.
Device for emptying and/or ventilating casks, cans or the like, wherein a combination of a rotary joint and a stopcock is provided, characterised in that the rotary joint is directly connected or provided with the stopcock, wherein provided on the first side of the rotary joint is an external thread for screwing into cask openings, preferably standard cask openings, or that provided on the first side of the rotary joint is an internal thread for screwing on can stub pipes, preferably standard can stub pipes, or that provided on the first side of the rotary joint is a spreading device capable of engaging in a container opening and that provided on the second side of the rotary joint is a connection, particularly a connecting thread, for the stopcock constructed as an outlet cock and/or ventilating cock, wherein the rotary joint is of tubular construction and the first side and second side of the rotary joint are capable of rotation relative to one another along a common longitudinal axis.
Coolant circuit device with a charge-air cooler, a cooler, a coolant circulating pump and a valve, wherein with the coolant circulating pump a coolant can be pumped from the cooler to the charge-air cooler and back, wherein the valve has a first outlet connection for connecting to the cooler and a second output connection for bypassing the cooler, so that with the valve a coolant mixing ratio of a coolant is variable for the temperature setting of an air temperature in the charge-air cooler, wherein the coolant mixing ratio represents the ratio of the coolant volumetric flow that flows through the cooler to the overall circulating coolant volumetric flow, and wherein a valve bypass, connected parallel to the valve, is provided, forming a direct connection between the charge-air cooler and the cooler and providing a minimum coolant mixing ratio of greater than zero, characterized in that the charge-air cooler is - arranged in such a way that the entire circulating coolant volumetric flow flows through it.
A method for performing a hand-over of a terminal in a wireless environment comprises: selecting, by a mobility management entity, MME, a first serving gateway, SGW, among a plurality of SGWs and a first packet data network gateway, PGW, among a plurality of PGWs, wherein the first SGW connects to the first PGW to setup a first session; requesting, by the MME, the terminal to establish a first communication channel between the terminal and the first PGW and assigning an internet protocol, IP, address to the terminal; when the terminal is about to move out of an area being served by the first SGW, selecting a second SGW among the plurality of SGWs; when a second PGW among the plurality of PGWs is closer to the second SGW than the first PGW, connecting the second SGW to the second PGW to setup a new session; requesting, by the MME, the terminal to establish a second communication channel between the terminal and the second PGW and maintaining the IP address assigned to the terminal previously; requesting, by the MME, the terminal to reconfigure routing for the IP address assigned to the terminal previously through the second PGW; and requesting, by the MME, the terminal to terminate the first communication channel between the terminal and the first PGW. selecting, by a mobility management entity, MME, a first serving gateway, SGW, among a plurality of SGWs and a first packet data network gateway, PGW, among a plurality of PGWs, wherein the first SGW connects to the first PGW to setup a first session; requesting, by the MME, the terminal to establish a first communication channel between the terminal and the first PGW and assigning an internet protocol, IP, address to the terminal; when the terminal is about to move out of an area being served by the first SGW, selecting a second SGW among the plurality of SGWs; when a second PGW among the plurality of PGWs is closer to the second SGW than the first PGW, connecting the second SGW to the second PGW to setup a new session; requesting, by the MME, the terminal to establish a second communication channel between the terminal and the second PGW and maintaining the IP address assigned to the terminal previously; requesting, by the MME, the terminal to reconfigure routing for the IP address assigned to the terminal previously through the second PGW; and requesting, by the MME, the terminal to terminate the first communication channel between the terminal and the first PGW.
An object comprising: a first communication interface unit configured to communicate with a first apparatus; a second communication interface unit configured to communicate with a second apparatus; and a control unit configured to perform control to transmit second information based on first information received from the first apparatus via the first communication interface unit to the second apparatus via the second communication interface unit, and, in a case that communication with the first apparatus via the first communication interface unit ends, perform control to transmit, to the second apparatus, request information for requesting deletion of the second information transmitted to the second apparatus. a first communication interface unit configured to communicate with a first apparatus; a second communication interface unit configured to communicate with a second apparatus; and a control unit configured to perform control to transmit second information based on first information received from the first apparatus via the first communication interface unit to the second apparatus via the second communication interface unit, and, in a case that communication with the first apparatus via the first communication interface unit ends, perform control to transmit, to the second apparatus, request information for requesting deletion of the second information transmitted to the second apparatus. perform control to transmit second information based on first information received from the first apparatus via the first communication interface unit to the second apparatus via the second communication interface unit, and, in a case that communication with the first apparatus via the first communication interface unit ends, perform control to transmit, to the second apparatus, request information for requesting deletion of the second information transmitted to the second apparatus.
Method for automatically determining information representing the quality of sleep of a living being, without contact with said living being, on the basis of a set of data streams (F 1, F 2, F 3... F N) relating to said living being, the data streams coming from at least two sensors (C 1, C 2, C 3...C M), at least one of the sensors being a video camera which films said living being and provides a stream corresponding to a physiological parameter of said living being, which is established by photo plethysmography, the method consisting in - establishing measurement streams from said data streams; - decomposing the stream established by photoplethysmography into regions of interest and establishing a sum, which is weighted according to a pulsatility measured for each region, of the photoplethysmography signals established for each region; - combining the measurement streams to provide said information, while taking into account an estimate of the quality of the data streams. - establishing measurement streams from said data streams; - decomposing the stream established by photoplethysmography into regions of interest and establishing a sum, which is weighted according to a pulsatility measured for each region, of the photoplethysmography signals established for each region; - combining the measurement streams to provide said information, while taking into account an estimate of the quality of the data streams.
An apparatus for controlling braking of a vehicle having a plurality of brake-packs, the apparatus comprising a controller configured to: receive a first plurality of input values having a first scatter value, wherein each input value relates to a different one of the plurality of brake-packs; calculate an adjustment factor for each brake-pack based on the received first plurality of input values; output a control signal to cause each brake-pack of the plurality of brake-packs to be applied at a pressure based on the adjustment factor calculated for that brake-pack; and receive a second plurality of input values having a second scatter value; wherein the adjustment factors are calculated such that the second scatter value is less than or equal to the first scatter value; wherein the controller is operable in a first mode in which each input value is a value of a first parameter, and in a second mode in which each input value is a value of a second, different, parameter, and wherein the apparatus is configured to operate the controller in either the first mode or the second mode based on a current state of the vehicle; wherein the apparatus is configured to operate the controller in the first mode if a predefined first mode criterion is met, and to operate the controller in the second mode if a predefined second mode criterion is met; and characterised in that the predefined first mode criterion comprises a minimum ground speed of the vehicle, and is defined such that it is met when a ground speed of the vehicle is greater than the minimum ground speed. receive a first plurality of input values having a first scatter value, wherein each input value relates to a different one of the plurality of brake-packs; calculate an adjustment factor for each brake-pack based on the received first plurality of input values; output a control signal to cause each brake-pack of the plurality of brake-packs to be applied at a pressure based on the adjustment factor calculated for that brake-pack; and receive a second plurality of input values having a second scatter value; wherein the adjustment factors are calculated such that the second scatter value is less than or equal to the first scatter value; wherein the controller is operable in a first mode in which each input value is a value of a first parameter, and in a second mode in which each input value is a value of a second, different, parameter, and wherein the apparatus is configured to operate the controller in either the first mode or the second mode based on a current state of the vehicle; wherein the apparatus is configured to operate the controller in the first mode if a predefined first mode criterion is met, and to operate the controller in the second mode if a predefined second mode criterion is met; and characterised in that the predefined first mode criterion comprises a minimum ground speed of the vehicle, and is defined such that it is met when a ground speed of the vehicle is greater than the minimum ground speed.
Power tool, in particular reciprocating saw, having an output spindle that moves back and forth and a drive motor, which are coupled to one another via a transmission, wherein a longitudinal side of the output spindle and a longitudinal side of the drive motor extend along side one another such that the drive motor is arranged next to the output spindle, characterized in that the output spindle is mounted in a front plain bearing arranged above the drive motor and a plain bearing arranged in a housing, wherein the front plain bearing is supported via a spring.
A trolley (1, 1') having a wheel frame, wherein the wheel frame is equipped with upwardly-extending uprights which bear a pushing arrangement, and wherein the wheel frame has a deposit region for goods, luggage and the like, furthermore deposit region and uprights run into joint pieces, wherein each joint piece has a securing region (6.4) for bearing an upright and another securing region (6.5) for bearing the deposit region, wherein the joint piece is multi-part, wherein the joint piece is formed from at least two component parts, wherein the joint piece is formed from an outer component part (6.1) and a middle component part (6.2") or else from two outer component parts (6.1, 6.3) and a middle component part (6.2, 6.2'), wherein the component parts (6.1, 6.2, 6.2', 6.2", 6.3) are put into one another, wherein the outer component part (6.1) is arranged on the middle component part (6.2, 6.2', 6.2") in a horizontal manner to the greatest possible extent and engages the middle component part (6.2, 6.2', 6.2") and forms a securing region (6.5) for the deposit region, and wherein the outer component parts (6.1, 6.3) are equipped with teeth which engage the middle component part (6.2, 6.2', 6.2").
Slipform to produce a hollow concrete body of a load-bearing structure, in particular a wind turbine tower, characterised in that a leading inside and outside slipform-shell is provided, forming a ring-shaped space for producing a wall layer of bulk concrete between the slipform-shells, and a trailing slipform in the sliding direction, which is associated with the inside and/or the outside of the slipform and is radially spaced from the associated preceding slipform, for applying an outer wall layer to the inside wall.
A display apparatus and erasing device system, whereby the erasing device is configured to erase an image displayed on the display apparatus, the erasing device comprising: a housing; a generator (350, 360) configured to generate an electromagnetic field so that the electromagnetic field is emitted from each of a plurality of portions of a tip (321, 323) of the housing; and a controller configured to control the generator to generate the electromagnetic field when the tip touches a surface of the display apparatus so that the display apparatus detecting the electromagnetic field erases an image within a preset image deletion region with a predetermined area based on a position on the surface touched by the tip, wherein the generator is configured to adjust output of the electromagnetic field from each portion of the tip based on whether each portion of the tip touches the surface, wherein the display apparatus is configured to determine the portion of the tip touching the surface of the display apparatus based on the electromagnetic field output from the erasing device and to adjust the area of the image deletion region based on the determined portion of the tip touching the surface. a housing; a generator (350, 360) configured to generate an electromagnetic field so that the electromagnetic field is emitted from each of a plurality of portions of a tip (321, 323) of the housing; and a controller configured to control the generator to generate the electromagnetic field when the tip touches a surface of the display apparatus so that the display apparatus detecting the electromagnetic field erases an image within a preset image deletion region with a predetermined area based on a position on the surface touched by the tip, wherein the generator is configured to adjust output of the electromagnetic field from each portion of the tip based on whether each portion of the tip touches the surface, wherein the display apparatus is configured to determine the portion of the tip touching the surface of the display apparatus based on the electromagnetic field output from the erasing device and to adjust the area of the image deletion region based on the determined portion of the tip touching the surface.