mhurhangee/ep-ind-claims huggingface dataset:
A method of controlling an aircraft during takeoff comprising: sensing a rotation command; sensing rotational response of the aircraft to the rotation command; sensing position of an elevator (1, 19); and when the sensed rotational response is inadequate and the sensed elevator position is at or near maximum, using at least one processor to automatically move a pitch trimming control surface from an initial takeoff position to assist the aircraft in pitching up for rotation; and characterized in that the processor automatically moves the pitch trimming control surface during the takeoff rotation when all the following conditions are satisfied: a. the aircraft is on the ground; b. the elevator or longitudinal inceptor control is close to its maximum allowable position without adequate pitch rate response from the aircraft for a predetermined time; c. thrust lever angles are at takeoff/go-around, TOGA, position; and d. calibrated airspeed is above a certain airspeed; and/or wherein the processor ceases moving the trimming control surface when any of the following conditions are satisfied: e. the elevator (1, 19) returns to a value closer to neutral; f. thrust lever angles are reduced to idle position indicating the pilot has aborted the takeoff; g. the movement duration becomes larger than a predefined maximum. sensing a rotation command; sensing rotational response of the aircraft to the rotation command; sensing position of an elevator (1, 19); and when the sensed rotational response is inadequate and the sensed elevator position is at or near maximum, using at least one processor to automatically move a pitch trimming control surface from an initial takeoff position to assist the aircraft in pitching up for rotation; and characterized in that the processor automatically moves the pitch trimming control surface during the takeoff rotation when all the following conditions are satisfied: a. the aircraft is on the ground; b. the elevator or longitudinal inceptor control is close to its maximum allowable position without adequate pitch rate response from the aircraft for a predetermined time; c. thrust lever angles are at takeoff/go-around, TOGA, position; and d. calibrated airspeed is above a certain airspeed; and/or a. the aircraft is on the ground; b. the elevator or longitudinal inceptor control is close to its maximum allowable position without adequate pitch rate response from the aircraft for a predetermined time; c. thrust lever angles are at takeoff/go-around, TOGA, position; and d. calibrated airspeed is above a certain airspeed; and/or wherein the processor ceases moving the trimming control surface when any of the following conditions are satisfied: e. the elevator (1, 19) returns to a value closer to neutral; f. thrust lever angles are reduced to idle position indicating the pilot has aborted the takeoff; g. the movement duration becomes larger than a predefined maximum. e. the elevator (1, 19) returns to a value closer to neutral; f. thrust lever angles are reduced to idle position indicating the pilot has aborted the takeoff; g. the movement duration becomes larger than a predefined maximum.
An image processing device comprising: a fluorescence-image generating unit configured to image fluorescence generated at a subject irradiated with excitation light and generate a fluorescence image; a return-light-image generating unit configured to image return light returned from the subject irradiated with illumination light and generate a return-light image; a color converting unit configured to convert the return-light image generated by the return-light-image generating unit to a plurality of color signals constituting a color space; a color-signal correcting unit configured to correct the plurality of color signals converted by the color converting unit using at least one color signal among the plurality of color signals and the fluorescence image generated by the fluorescence-image generating unit; a corrected-image generating unit configured to generate a corrected image from the plurality of color signals corrected by the color-signal correcting unit; and an image combining unit configured to combine the fluorescence image generated by the fluorescence-image generating unit and the corrected image generated by the corrected-image generating unit. a fluorescence-image generating unit configured to image fluorescence generated at a subject irradiated with excitation light and generate a fluorescence image; a return-light-image generating unit configured to image return light returned from the subject irradiated with illumination light and generate a return-light image; a color converting unit configured to convert the return-light image generated by the return-light-image generating unit to a plurality of color signals constituting a color space; a color-signal correcting unit configured to correct the plurality of color signals converted by the color converting unit using at least one color signal among the plurality of color signals and the fluorescence image generated by the fluorescence-image generating unit; a corrected-image generating unit configured to generate a corrected image from the plurality of color signals corrected by the color-signal correcting unit; and an image combining unit configured to combine the fluorescence image generated by the fluorescence-image generating unit and the corrected image generated by the corrected-image generating unit.
A method of configuring a communication terminal for controlling a central control unit or a home automation device belonging to a home automation installation (Su), the method being implemented by the communication terminal, an initial configuration of the communication terminal comprising at least one container application (APPC), the method, implemented by the communication terminal, comprising the following steps: - reception of an interface application and/or parameterization data from said interface application, downloaded from the central control unit or from an external storage unit; - adaptation of the configuration of the communication terminal, the adaptation step comprising an installation of the interface application downloaded onto the communication terminal and/or a parameterization of an interface application, present on the communication terminal before the reception step, in order to make the interface application compatible with a predetermined version (Vx) of a functional software of the central control unit. - reception of an interface application and/or parameterization data from said interface application, downloaded from the central control unit or from an external storage unit; - adaptation of the configuration of the communication terminal, the adaptation step comprising an installation of the interface application downloaded onto the communication terminal and/or a parameterization of an interface application, present on the communication terminal before the reception step, in order to make the interface application compatible with a predetermined version (Vx) of a functional software of the central control unit.
A refrigerated storage unit comprising:- a refrigeration chamber; a refrigeration part for cooling air inside the refrigeration chamber; a guidance passage for receiving cold air from the refrigeration part; a blower part for sending the cold air cooled by the refrigeration part through the guidance passage into the refrigeration chamber; an in-chamber temperature detection part for detecting a temperature inside the refrigeration chamber; a content temperature detection part for detecting a temperature of a content provided inside the refrigeration chamber; and a control part for controlling driving of the blower part based on a result detected by at least one of the in-chamber temperature detection part and the content temperature detection part; characterized in that the blower part includes:- a first blower part for blowing cold air toward a lower side in a vertical direction; and a plurality of second blower parts arranged around the first blower part and for blowing cold air toward a horizontal direction so as to hit the cold air blown from the first blower part, wherein the guidance passage is formed by a plate at the ceiling inside the refrigeration chamber; and wherein the first blower part and the plurality of second blower parts are provided in the plate. a refrigeration chamber; a refrigeration part for cooling air inside the refrigeration chamber; a guidance passage for receiving cold air from the refrigeration part; a blower part for sending the cold air cooled by the refrigeration part through the guidance passage into the refrigeration chamber; an in-chamber temperature detection part for detecting a temperature inside the refrigeration chamber; a content temperature detection part for detecting a temperature of a content provided inside the refrigeration chamber; and a control part for controlling driving of the blower part based on a result detected by at least one of the in-chamber temperature detection part and the content temperature detection part; characterized in that the blower part includes:- a first blower part for blowing cold air toward a lower side in a vertical direction; and a plurality of second blower parts arranged around the first blower part and for blowing cold air toward a horizontal direction so as to hit the cold air blown from the first blower part, wherein the guidance passage is formed by a plate at the ceiling inside the refrigeration chamber; and wherein the first blower part and the plurality of second blower parts are provided in the plate. a first blower part for blowing cold air toward a lower side in a vertical direction; and a plurality of second blower parts arranged around the first blower part and for blowing cold air toward a horizontal direction so as to hit the cold air blown from the first blower part, wherein the guidance passage is formed by a plate at the ceiling inside the refrigeration chamber; and wherein the first blower part and the plurality of second blower parts are provided in the plate.
An aqueous solution in which a reducing agent with a thiol group is absent, the aqueous solution comprising a polypeptide, the polypeptide comprising a variant of T7 RNA polymerase (T7 variant), the T7 variant having the properties of (i) DNA-dependent RNA polymerase activity, and (ii) a different composition of amino acids compared to the 883-amino acid T7 RNA polymerase polypeptide of SEQ ID NO:2 (wild-type reference), wherein at a position selected from 510 and 530 of the T7 variant, numbered from the N-terminus of the wild-type reference, a Cysteine residue is present, wherein the T7 variant comprises one or more amino acid substitution(s) of which one (or the first) is at position 723 where Serine substitutes for the Cysteine residue (Cys723Ser), and wherein in the aqueous solution homomultimer formation of the T7 variant as a result of one or more intermolecular disulfide bond(s) is absent.
A method of wireless communication by a first wireless device, comprising: determining spatial directions of a plurality of wireless devices including a second wireless device and at least one other wireless device; selecting a sweeping pattern of the first wireless device indicating one or more angular regions for receiving signals from the second wireless device based on the determined spatial directions; transmitting, to the second wireless device, information including the sweeping pattern of the first wireless device and at least one time slot during which the first wireless device will listen to transmissions from the second wireless device; performing, based on the determined spatial directions and the transmitted information, a beam sweep for receiving one or more request to send, RTS, messages, wherein performing the beam sweep comprises listening for an RTS message based on the selected sweeping pattern during the at least one time slot; determining that the RTS message for a data transmission is received from the second wireless device at a first spatial direction of the determined spatial directions, wherein the RTS message includes a duration field; setting a network allocation vector, NAV, based on the duration field in the RTS message, wherein the CTS message is beamformed to the second wireless device after the NAV has expired; and transmitting a clear to send, CTS, message to authorize the data transmission from the second wireless device. determining spatial directions of a plurality of wireless devices including a second wireless device and at least one other wireless device; selecting a sweeping pattern of the first wireless device indicating one or more angular regions for receiving signals from the second wireless device based on the determined spatial directions; transmitting, to the second wireless device, information including the sweeping pattern of the first wireless device and at least one time slot during which the first wireless device will listen to transmissions from the second wireless device; performing, based on the determined spatial directions and the transmitted information, a beam sweep for receiving one or more request to send, RTS, messages, wherein performing the beam sweep comprises listening for an RTS message based on the selected sweeping pattern during the at least one time slot; determining that the RTS message for a data transmission is received from the second wireless device at a first spatial direction of the determined spatial directions, wherein the RTS message includes a duration field; setting a network allocation vector, NAV, based on the duration field in the RTS message, wherein the CTS message is beamformed to the second wireless device after the NAV has expired; and transmitting a clear to send, CTS, message to authorize the data transmission from the second wireless device.
A method for industrially preparing frozen or refrigerated fried eggs from whole, fresh eggs, the method comprising: - breaking whole, fresh eggs into a support impregnated with edible fat; - introducing the support carrying the broken whole fresh eggs into an oven comprising ventilation means; - heating the oven until the inner part of the yolk of the broken whole fresh eggs is at a temperature within the range of 65 to 73 oC; - taking said support carrying the eggs out of the oven, wherein said eggs are fried eggs; - cooling the fried eggs for reducing their residual heat in order to prevent the inner part of the yolk from exceeding 73oC; - freezing or refrigerating the cooled fried eggs. - breaking whole, fresh eggs into a support impregnated with edible fat; - introducing the support carrying the broken whole fresh eggs into an oven comprising ventilation means; - heating the oven until the inner part of the yolk of the broken whole fresh eggs is at a temperature within the range of 65 to 73 oC; - taking said support carrying the eggs out of the oven, wherein said eggs are fried eggs; - cooling the fried eggs for reducing their residual heat in order to prevent the inner part of the yolk from exceeding 73oC; - freezing or refrigerating the cooled fried eggs.
Instrument panel for a motor vehicle, a. comprising a plurality of air outlets directed toward an interior of the motor vehicle, b. and comprising at least one light outlet for projecting an optical display onto a windshield of the motor vehicle, c. the air outlets together with the at least one light outlet forming a continuous, optically homogeneous outflow belt, characterized in that the air outlets are designed as air vents. a. comprising a plurality of air outlets directed toward an interior of the motor vehicle, b. and comprising at least one light outlet for projecting an optical display onto a windshield of the motor vehicle, c. the air outlets together with the at least one light outlet forming a continuous, optically homogeneous outflow belt, characterized in that the air outlets are designed as air vents.
A method of operation of a network node implementing a second network function in a core network of a cellular communications system, comprising: receiving (508; 608; 700), at a main service of the second network function, a request from a first network function for a desired service via Hypertext Transfer Protocol / Representational State Transfer, HTTP/REST, signaling, the request comprising information that identifies one or more delegate endpoints of the first network function that expose one or more delegate services, respectively, of the first network function for providing the desired service using one or more different communication styles; and initiating (530-532; 616 and 620 or 616 and 634; 702-706) the desired service using a selected delegate endpoint from the one or more delegate endpoints identified by the information comprised in the request. receiving (508; 608; 700), at a main service of the second network function, a request from a first network function for a desired service via Hypertext Transfer Protocol / Representational State Transfer, HTTP/REST, signaling, the request comprising information that identifies one or more delegate endpoints of the first network function that expose one or more delegate services, respectively, of the first network function for providing the desired service using one or more different communication styles; and initiating (530-532; 616 and 620 or 616 and 634; 702-706) the desired service using a selected delegate endpoint from the one or more delegate endpoints identified by the information comprised in the request.
A dust collector comprising: a first dust storing unit (210, 310) formed in a hollow cylindrical shape between an inner circumferential surface of a first dust container (211, 311) and an outer circumferential surface of a second dust container (221, 321) located in the first dust container (211, 311), and configured to collect dust firstly-separated from air by a first cyclone (205, 305); a second dust storing unit (220, 320) disposed to be surrounded by the first dust storing unit (210, 310), and configured to collect fine dust secondly-separated from the air by second cyclones, located above the first cyclone (205, 305), into a space formed by the second dust container (221, 321); at least one compression device (240, 340) that is at least partly rotatably, and configured to reciprocately rotate in the first dust storing unit (210, 310) and/or the second dust storing unit (220, 320); and a lower cover part (230, 330) coupled to the first dust container (211, 311) to form a bottom surface of the first dust storing unit (210, 310) and the second dust storing unit (220, 320), and configured to simultaneously open the first dust storing unit (210, 310) and the second dust storing unit (220, 320), such that the dust and the fine dust are simultaneously discharged, wherein a first compression device (240, 340) is configured to reciprocately rotate along the outer circumferential surface of the second dust container (221, 321) to compress the dust collected in the first dust storing unit (210, 310). a first dust storing unit (210, 310) formed in a hollow cylindrical shape between an inner circumferential surface of a first dust container (211, 311) and an outer circumferential surface of a second dust container (221, 321) located in the first dust container (211, 311), and configured to collect dust firstly-separated from air by a first cyclone (205, 305); a second dust storing unit (220, 320) disposed to be surrounded by the first dust storing unit (210, 310), and configured to collect fine dust secondly-separated from the air by second cyclones, located above the first cyclone (205, 305), into a space formed by the second dust container (221, 321); at least one compression device (240, 340) that is at least partly rotatably, and configured to reciprocately rotate in the first dust storing unit (210, 310) and/or the second dust storing unit (220, 320); and a lower cover part (230, 330) coupled to the first dust container (211, 311) to form a bottom surface of the first dust storing unit (210, 310) and the second dust storing unit (220, 320), and configured to simultaneously open the first dust storing unit (210, 310) and the second dust storing unit (220, 320), such that the dust and the fine dust are simultaneously discharged, wherein a first compression device (240, 340) is configured to reciprocately rotate along the outer circumferential surface of the second dust container (221, 321) to compress the dust collected in the first dust storing unit (210, 310).
A heterophasic polypropylene composition comprising 30-60 wt% of a propylene homopolymer fraction, 30-60 wt% of a propylene random copolymer fraction, wherein the comonomer is ethylene or an α-olefin with 4 to 8 carbon atoms and the comonomer content of said random copolymer fraction is between 0.5 and 3.5 wt%, 2-15 wt% of an elastomeric ethylene-α-olefin copolymer fraction, wherein the comonomer is an α-olefin with 3 to 8 carbon atoms and the ethylene content of said elastomeric ethylene-α-olefin copolymer fraction is between 20 and 60 wt%, 3-20 wt% of an ethylene homo- or copolymer fraction having a density between 905 and 920 kg/m 3, and 0.001 to 1.0 wt% of an α-nucleating agent, wherein the xylene soluble fraction XCS of the heterophasic polypropylene composition is not more than 14.5 wt% and the tensile modulus of the heterophasic polypropylene composition is at least 1200 MPa. 30-60 wt% of a propylene homopolymer fraction, 30-60 wt% of a propylene random copolymer fraction, wherein the comonomer is ethylene or an α-olefin with 4 to 8 carbon atoms and the comonomer content of said random copolymer fraction is between 0.5 and 3.5 wt%, 2-15 wt% of an elastomeric ethylene-α-olefin copolymer fraction, wherein the comonomer is an α-olefin with 3 to 8 carbon atoms and the ethylene content of said elastomeric ethylene-α-olefin copolymer fraction is between 20 and 60 wt%, 3-20 wt% of an ethylene homo- or copolymer fraction having a density between 905 and 920 kg/m 3, and 0.001 to 1.0 wt% of an α-nucleating agent,