mhurhangee/ep-ind-claims huggingface dataset:
A cascade thrust reverser for a turbojet engine intended to form at least one portion of a downstream section of a nacelle accommodating a turbojet engine, the thrust reverser including: - a front frame which is adapted to be mounted downstream of a fan casing and which supports thrust reverser cascades, - an O-type thrust reverser movable body which has a generally cylindrical shape about a longitudinal central axis and which comprises an inner wall adapted to delimit a cold air flow path with an inner structure which surrounds the turbojet engine, and an outer cowl, the thrust reverser movable body being slidably mounted along the longitudinal central axis between a direct jet position in which the outer cowl covers the thrust reverser cascades, and a thrust reversal position in which the outer cowl uncovers the thrust reverser cascades, and - a cradle which is designed to link an upper portion of the thrust reverser movable body on a suspension pylon of the nacelle in order to ensure sliding of the thrust reverser movable body, characterized in that the thrust reverser movable body comprises a first half-portion and a second half-portion each being generally semi-cylindrical and linked to one another in a lower portion of said movable body, by a first removable link device, each of the first half-portion and the second half-portion of said movable body being pivotally mounted about a longitudinal pivot axis, between a closed position and a butterfly-like open position for removing the turbojet engine, via the cradle. - a front frame which is adapted to be mounted downstream of a fan casing and which supports thrust reverser cascades, - an O-type thrust reverser movable body which has a generally cylindrical shape about a longitudinal central axis and which comprises an inner wall adapted to delimit a cold air flow path with an inner structure which surrounds the turbojet engine, and an outer cowl, the thrust reverser movable body being slidably mounted along the longitudinal central axis between a direct jet position in which the outer cowl covers the thrust reverser cascades, and a thrust reversal position in which the outer cowl uncovers the thrust reverser cascades, and - a cradle which is designed to link an upper portion of the thrust reverser movable body on a suspension pylon of the nacelle in order to ensure sliding of the thrust reverser movable body,
Application system (1, 17; 21, 27) for two-component materials, comprising a moisture-reactive composition accommodated in a first packaging unit, a curing agent component accommodated in a second packaging unit, and a dynamic mixer (17; 27) designed to be inserted into an applicator and to be driven by the latter, characterized in that the first packaging unit is a tubular pouch and the second packaging unit is a rigid-walled cartridge.
A smoking article (2, 32, 34, 36, 38) comprising: a combustible heat source (4, 40) having a front end and a rear end; an aerosol-forming substrate downstream of the rear end of the combustible heat source; an outer wrapper circumscribing the aerosol-forming substrate and at least a rear portion of the combustible heat source; one or more airflow pathways along which air may be drawn through the smoking article for inhalation by a user; one or more air inlets downstream of a rear face of the combustible heat source for drawing air into the one or more airflow pathways, wherein the one or more air inlets comprise one or more third air inlets downstream of the aerosol-forming substrate for drawing air into the one or more airflow pathways; and an airflow directing element downstream of the aerosol-forming substrate, wherein the one or more third air inlets are provided between a downstream end of the aerosol-forming substrate and a downstream end of the airflow directing element, wherein the combustible heat source is isolated from the one or more airflow pathways such that, in use, air drawn through the smoking article along the one or more airflow pathways does not directly contact the combustible heat source. a combustible heat source (4, 40) having a front end and a rear end; an aerosol-forming substrate downstream of the rear end of the combustible heat source; an outer wrapper circumscribing the aerosol-forming substrate and at least a rear portion of the combustible heat source; one or more airflow pathways along which air may be drawn through the smoking article for inhalation by a user; one or more air inlets downstream of a rear face of the combustible heat source for drawing air into the one or more airflow pathways, wherein the one or more air inlets comprise one or more third air inlets downstream of the aerosol-forming substrate for drawing air into the one or more airflow pathways; and an airflow directing element downstream of the aerosol-forming substrate, wherein the one or more third air inlets are provided between a downstream end of the aerosol-forming substrate and a downstream end of the airflow directing element, wherein the combustible heat source is isolated from the one or more airflow pathways such that, in use, air drawn through the smoking article along the one or more airflow pathways does not directly contact the combustible heat source.
A drive belt connecting device designed for the tension-resistant connection of flat drive belt end sections (93, 94), each comprising two belt flat sides (91, 92), of which at least a first belt flat side has a belt surface profile, comprising a multi-part connecting body with a longitudinal dimension in the belt tension direction and having connecting parts (1, 2, 3) in an overlapping arrangement, said connecting body having a connecting chamber to accommodate the flat drive belt end sections (93, 94) for connection, wherein the connecting parts (1, 2, 3) can be fixed to each other for tension-resistant connection of the drive belt end sections (93, 94) and are equipped with profiled connecting surfaces (201, 301) to provide connecting arrangements for positive-locking engagement into the belt surface profiles, characterised in that the connecting chamber to accommodate the drive belt end sections (93, 94) in an overlapping arrangement is arranged along a connecting line extending in the longitudinal dimension of the connecting body, wherein a first outer connecting part and a second outer connecting part bound the connecting chamber and comprise an associated first outer connecting surface and a second outer connecting surface, which, on the one hand, can be placed onto the one drive belt end section and, on the other hand, onto the other drive belt end section in a connecting arrangement, and wherein an inner connecting part with a first inner connecting surface and an opposing second inner connecting surface is arranged inside the connecting chamber, which, on the one hand, can be placed onto the one drive belt end section and, on the other hand, onto the other drive belt end section in a connecting arrangement, wherein the first outer connecting surface and the first inner connecting surface, on the one hand, and the second outer connecting surface and the second inner connecting surface, on the other hand, are opposite each other, that furthermore a fastening means is provided to fasten the first outer connecting part and the second outer connecting part to each other at a limited fixed distance between the first outer connecting surface and the second outer connecting surface, and that an inner connecting means is provided to connect the inner connecting part to at least one of the two outer connecting parts (1, 2) for connection that is secure in the belt tension direction.
An apparatus for providing a pressure gradient between a first opening and a second opening, said apparatus comprising: a conduit (108, 1388) comprising a first end having a first flange (110, 1322) around a first opening, a second end having a second flange (112, 1324) around a second opening, and a body between the first end and the second end having a third opening (600, 602, 604, 606) in molecular flow communication with the first opening and the second opening, where the first opening has a first cross-sectional area and the second opening has a second cross-sectional area; a pumping unit in molecular flow communication with the third opening (600, 602, 604, 606); and characterized in that the apparatus comprises a first throttle for controlling the pressure gradient, said first throttle consisting of a first sealing disc having: a first surface providing sealing contact with the first flange; a second surface facing opposite the first surface; and an opening extending between the first surface and the second surface and having a cross-sectional area that is less than the first cross-sectional area; wherein the disc opening is aligned with the first and second opening. a conduit (108, 1388) comprising a first end having a first flange (110, 1322) around a first opening, a second end having a second flange (112, 1324) around a second opening, and a body between the first end and the second end having a third opening (600, 602, 604, 606) in molecular flow communication with the first opening and the second opening, where the first opening has a first cross-sectional area and the second opening has a second cross-sectional area; a pumping unit in molecular flow communication with the third opening (600, 602, 604, 606); and characterized in that the apparatus comprises a first throttle for controlling the pressure gradient, said first throttle consisting of a first sealing disc having: a first surface providing sealing contact with the first flange; a second surface facing opposite the first surface; and an opening extending between the first surface and the second surface and having a cross-sectional area that is less than the first cross-sectional area; wherein the disc opening is aligned with the first and second opening. a first sealing disc having: a first surface providing sealing contact with the first flange; a second surface facing opposite the first surface; and an opening extending between the first surface and the second surface and having a cross-sectional area that is less than the first cross-sectional area; wherein a first surface providing sealing contact with the first flange; a second surface facing opposite the first surface; and an opening extending between the first surface and the second surface and having a cross-sectional area that is less than the first cross-sectional area; wherein the disc opening is aligned with the first and second opening.
A method for securing user input across hardware components, comprising: receiving a request for user input from or via an application installed on a user device by a secure runtime environment instantiated on the user device; providing, by the secure runtime environment, the request to a remote location, wherein the secure runtime environment has no level of trust prior to being authenticated and is assigned a level of trust prior to each transaction initiated by the application, wherein the secure runtime environment has a lower level of trust than the remote location, wherein each level of trust is a function of physical proximity to an adversary, wherein the user device is not trusted; receiving, from the remote location and at the user device, code executable by display hardware to render a user interface configured to receive the user input, wherein the received code is not contextually readable by the secure runtime environment such that the secure runtime environment does not have access to a layout of displayed elements of the user interface and cannot map display device locations to user interface content; capturing, by the user device, information identifying particular display device locations to which the user provided input on the rendered user interface; and providing, by the user device, the information to the remote location that maps the captured information to user interface information to determine the user input. receiving a request for user input from or via an application installed on a user device by a secure runtime environment instantiated on the user device; providing, by the secure runtime environment, the request to a remote location, wherein the secure runtime environment has no level of trust prior to being authenticated and is assigned a level of trust prior to each transaction initiated by the application, wherein the secure runtime environment has a lower level of trust than the remote location, wherein each level of trust is a function of physical proximity to an adversary, wherein the user device is not trusted; receiving, from the remote location and at the user device, code executable by display hardware to render a user interface configured to receive the user input, wherein the received code is not contextually readable by the secure runtime environment such that the secure runtime environment does not have access to a layout of displayed elements of the user interface and cannot map display device locations to user interface content; capturing, by the user device, information identifying particular display device locations to which the user provided input on the rendered user interface; and providing, by the user device, the information to the remote location that maps the captured information to user interface information to determine the user input.
A method, comprising: detecting an image of one or more hands against a background via a camera; segmenting the image into hand areas and background areas; at intervals, counting a number of independent areas of the background, wherein each part of the background that is visually independent from other parts of the background by at least a part of one of the hand areas is defined as an independent area; associating a control parameter for manipulating a displayed image on a user interface with each counted independent area; changing the displayed image via the control parameter in relation to each change in a shape and/or a position of the independent area associated with the control parameter. detecting an image of one or more hands against a background via a camera; segmenting the image into hand areas and background areas; at intervals, counting a number of independent areas of the background, wherein each part of the background that is visually independent from other parts of the background by at least a part of one of the hand areas is defined as an independent area; associating a control parameter for manipulating a displayed image on a user interface with each counted independent area; changing the displayed image via the control parameter in relation to each change in a shape and/or a position of the independent area associated with the control parameter.
A recombinant nucleic acid molecule comprising a nucleic acid sequence encoding a polypeptide that is at least 90%identical to an amino acid sequence of SEQ ID NO:1 or SEQ ID NO:3, wherein the polypeptide enhances the enzymatic activity of a PUFA synthase.
A microprocessor, characterized by: a main processor; and a service processor, configured to execute code independently of the main processor; and a cache memory, comprising: a buffer configured to capture information about arbitration requests made to the cache memory by functional units of the main processor; wherein, in response to detecting a deadlock/livelock condition in the main processor, the service processor is configured to cause the buffer to capture information about arbitration requests that the functional units are making to the cache memory; wherein the service processor is further configured to analyze the information about the arbitration requests captured in the buffer to detect a pattern of the arbitration requests made by the functional units to the cache memory; and wherein the service processor is further configured to control one or more actions of the cache memory to break the deadlock/livelock condition in the main processor, wherein the actions are associated with the detected pattern. a main processor; and a service processor, configured to execute code independently of the main processor; and a cache memory, comprising: a buffer configured to capture information about arbitration requests made to the cache memory by functional units of the main processor; wherein, in response to detecting a deadlock/livelock condition in the main processor, the service processor is configured to cause the buffer to capture information about arbitration requests that the functional units are making to the cache memory; wherein the service processor is further configured to analyze the information about the arbitration requests captured in the buffer to detect a pattern of the arbitration requests made by the functional units to the cache memory; and wherein the service processor is further configured to control one or more actions of the cache memory to break the deadlock/livelock condition in the main processor, wherein the actions are associated with the detected pattern. a buffer configured to capture information about arbitration requests made to the cache memory by functional units of the main processor; wherein, in response to detecting a deadlock/livelock condition in the main processor, the service processor is configured to cause the buffer to capture information about arbitration requests that the functional units are making to the cache memory; wherein the service processor is further configured to analyze the information about the arbitration requests captured in the buffer to detect a pattern of the arbitration requests made by the functional units to the cache memory; and wherein the service processor is further configured to control one or more actions of the cache memory to break the deadlock/livelock condition in the main processor, wherein the actions are associated with the detected pattern.
A power generation system comprising a wind turbine blade assembly; a generator mechanically coupled to the blade assembly; a power converter (44, 48) coupled to the generator; an energy storage device; a bidirectional converter (56,74) coupling the energy storage device to the power converter (44,48); an inertia controller configured to provide a first transient signal to regulate active power from the wind turbine system when a power grid signal is outside of a respective signal range; and an energy storage controller configured to provide a second transient signal to the bidirectional converter (56,74) to regulate a power to or from the energy storage device based upon the first transient signal, so as to stabilize the grid frequency of a power grid.
A wireless network access control method, wherein the method comprises: receiving, by a radio access network device, an overload control indication from a core network device, wherein the overload control indication comprises an identifier of one or more network slices, and the overload control indication indicates that the one or more network slices in a core network are overloaded network slices; adjusting, by a radio access network device, an access control parameter of one or more network slices based on the overload control indication; and sending, by the radio access network device, the access control parameter to a terminal device. receiving, by a radio access network device, an overload control indication from a core network device, wherein the overload control indication comprises an identifier of one or more network slices, and the overload control indication indicates that the one or more network slices in a core network are overloaded network slices; adjusting, by a radio access network device, an access control parameter of one or more network slices based on the overload control indication; and sending, by the radio access network device, the access control parameter to a terminal device.
A heart test method comprising: using one or more electrodes placed on a patient, measuring one or more electrocardiograms associated with one or more respective leads; using a processing facility, converting the one or more electrocardiograms by time-frequency transform into one or more respective two-dimensional time-frequency maps; identifying, using the facility, within the one or more electrocardiograms, one or more points in time associated with a T wave; determining, using the facility, for at least one of the one or more time-frequency maps, one or more repolarization measures corresponding to extrema across frequency of the respective time-frequency map at the one or more points in time associated with the T wave; and outputting, using the facility, at least one repolarization index based on the one or more repolarization measures. using one or more electrodes placed on a patient, measuring one or more electrocardiograms associated with one or more respective leads; using a processing facility, converting the one or more electrocardiograms by time-frequency transform into one or more respective two-dimensional time-frequency maps; identifying, using the facility, within the one or more electrocardiograms, one or more points in time associated with a T wave; determining, using the facility, for at least one of the one or more time-frequency maps, one or more repolarization measures corresponding to extrema across frequency of the respective time-frequency map at the one or more points in time associated with the T wave; and outputting, using the facility, at least one repolarization index based on the one or more repolarization measures.
An air conditioner comprising a refrigerant circuit in which a refrigerant circulates through a compressor, an indoor-side heat exchanger, a pressure reducer, and an outdoor-side heat exchanger, the air conditioner being structured by an indoor unit and an outdoor unit, wherein the indoor unit includes: the indoor-side heat exchanger having a first heat exchanging region and a second heat exchanging region; a pressure adjuster provided between the first heat exchanging region and the second heat exchanging region and adjusting a refrigerant pressure; and an indoor-side fan that causes air from an aspiration port formed at an upper part of the indoor unit to exchange heat at the indoor-side heat exchanger and to be formed into airflow blown out from a blow-out port formed at a lower part of the indoor unit, the second heat exchanging region and the first heat exchanging region are disposed on an aspiration side of the air conditioner along a rotation direction of the indoor-side fan, and characterized in that the pressure adjuster in a heating operation mode reduces pressure to cause the first heat exchanging region to function as a first condenser to attain a first condensation temperature, and to cause the second heat exchanging region to function as a second condenser to attain a second condensation temperature lower than the first condensation temperature. the indoor-side heat exchanger having a first heat exchanging region and a second heat exchanging region; a pressure adjuster provided between the first heat exchanging region and the second heat exchanging region and adjusting a refrigerant pressure; and an indoor-side fan that causes air from an aspiration port formed at an upper part of the indoor unit to exchange heat at the indoor-side heat exchanger and to be formed into airflow blown out from a blow-out port formed at a lower part of the indoor unit,