mhurhangee/ep-ind-claims huggingface dataset:
A system, comprising: one or more computers operable to perform operations comprising: displaying a markup language document in an original language by rendering an internal representation of the document, the representation including nodes, the nodes including one or more text nodes and one or more non-text nodes, the text nodes each including respective original text; while displaying the document from the internal representation, sending a data structure containing the texts from the text nodes, as distinct data entities, to a translation service and replacing the texts in the text nodes with corresponding translated texts received from the translation service to generate a first translated internal representation of the markup language document, where the original texts in the text nodes are in the original language and the translated texts are in a different second language; whereby a first translation of the markup language document is displayed by rendering the first translated internal representation; receiving a notification that first text in a first text node is being replaced with new text in the original language; and then sending a data structure containing the new text to the translation service and replacing the text in the first text node with a first translated text in the second language received from the translation service to generate a second translated internal representation of the document; whereby a second translation of the markup language document is displayed by rendering the second translated internal representation. displaying a markup language document in an original language by rendering an internal representation of the document, the representation including nodes, the nodes including one or more text nodes and one or more non-text nodes, the text nodes each including respective original text; while displaying the document from the internal representation, sending a data structure containing the texts from the text nodes, as distinct data entities, to a translation service and replacing the texts in the text nodes with corresponding translated texts received from the translation service to generate a first translated internal representation of the markup language document, where the original texts in the text nodes are in the original language and the translated texts are in a different second language; whereby a first translation of the markup language document is displayed by rendering the first translated internal representation; receiving a notification that first text in a first text node is being replaced with new text in the original language; and then sending a data structure containing the new text to the translation service and replacing the text in the first text node with a first translated text in the second language received from the translation service to generate a second translated internal representation of the document; whereby a second translation of the markup language document is displayed by rendering the second translated internal representation.
A power electrical insulator device (100, 450) comprising a conductor electrode and configured for providing mechanical support for the conductor electrode in a gas insulated switchgear, GIS, application, produced from subsequently manufactured parts by an additive manufacturing technique, obtained through a method comprising: determining a target spatial distribution of a physical property of the power electrical insulator device (100, 450), the physical property being an electrical property and/or a mechanical property; forming a part as insulating base body of the power electrical insulator device (100, 450) through which the conductor electrode is passed; selecting a physical property of a subsequent part of the power electrical insulator device (100, 450) corresponding to the determined spatial distribution of the physical property; and by means of the additive manufacturing technique, forming the subsequent part such that it is at least partially in contact with the insulating base body, characterized in that the power electrical insulator device (100, 450) comprises an elastic relaxation part formed as one or more of the subsequent parts, the elastic relaxation part being configured to transfer an externally applied stress into a plastic deformation of the elastic relaxation part. determining a target spatial distribution of a physical property of the power electrical insulator device (100, 450), the physical property being an electrical property and/or a mechanical property; forming a part as insulating base body of the power electrical insulator device (100, 450) through which the conductor electrode is passed; selecting a physical property of a subsequent part of the power electrical insulator device (100, 450) corresponding to the determined spatial distribution of the physical property; and by means of the additive manufacturing technique, forming the subsequent part such that it is at least partially in contact with the insulating base body, characterized in that the power electrical insulator device (100, 450) comprises an elastic relaxation part formed as one or more of the subsequent parts, the elastic relaxation part being configured to transfer an externally applied stress into a plastic deformation of the elastic relaxation part.
A method of producing an oxygen ion composite membrane comprising: forming by slurry coating a first layer on a porous support containing a first mixture of particles of (Ln 1-x A x) w Cr 1-y B y O 3-δ and doped zirconia and substantially free of pore formers, where Ln is La, Y, Pr, Ce or Sm; A is Ca, B is Fe, Mn, Co, Al, Ti or combinations thereof; w is 0.9 - 1.1; x is 0.1 - 0.4 and y is 0.1 - 0.6; forming by slurry coating a second layer on the first layer that contains a second mixture of particles of (Ln 1-x A x) w Cr 1-y B y O 3-δ and the doped zirconia and substantially free of pore formers, where Ln is La, Y, Pr, Ce or Sm; A is Sr; and B is Fe, Mn, Co, Al, Ti or combinations thereof; w is 0.9 - 1.1; x is 0.1 - 0.3 and y is 0.1 - 0.6; and heating the first layer, the second layer and the porous support in air at a temperature of > 1300 °C so that said first layer partially sinters into a porous mass containing the first mixture of particles, thereby to provide a porous fuel oxidation layer and the second layer fully sinters into a densified mass containing the second mixture of particles, thereby to provide a dense separation layer; wherein the partially sintered first layer contains (Ln 1-x A x) w Cr 1-y B y O 3-δ and doped zirconia in a first volume ratio of between 2 to 3 and 4 to 1 on a volume percentile basis such; and wherein the sintered second layer contains (Ln 1-x A x) w Cr 1-y B y O 3-δ and doped zirconia in a second volume ratio of between 1 to 4 and 3 to 2 on a volume percentile basis. forming by slurry coating a first layer on a porous support containing a first mixture of particles of (Ln 1-x A x) w Cr 1-y B y O 3-δ and doped zirconia and substantially free of pore formers, where Ln is La, Y, Pr, Ce or Sm; A is Ca, B is Fe, Mn, Co, Al, Ti or combinations thereof; w is 0.9 - 1.1; x is 0.1 - 0.4 and y is 0.1 - 0.6; forming by slurry coating a second layer on the first layer that contains a second mixture of particles of (Ln 1-x A x) w Cr 1-y B y O 3-δ and the doped zirconia and substantially free of pore formers, where Ln is La, Y, Pr, Ce or Sm; A is Sr; and B is Fe, Mn, Co, Al, Ti or combinations thereof; w is 0.9 - 1.1; x is 0.1 - 0.3 and y is 0.1 - 0.6; and heating the first layer, the second layer and the porous support in air at a temperature of > 1300 °C so that said first layer partially sinters into a porous mass containing the first mixture of particles, thereby to provide a porous fuel oxidation layer and the second layer fully sinters into a densified mass containing the second mixture of particles, thereby to provide a dense separation layer; wherein the partially sintered first layer contains (Ln 1-x A x) w Cr 1-y B y O 3-δ and doped zirconia in a first volume ratio of between 2 to 3 and 4 to 1 on a volume percentile basis such; and wherein the sintered second layer contains (Ln 1-x A x) w Cr 1-y B y O 3-δ and doped zirconia in a second volume ratio of between 1 to 4 and 3 to 2 on a volume percentile basis.
A vehicle mounting assembly comprising: a vehicle having a front and rear, and having a corrugated roof forming a plurality of troughs and ridges which extend longitudinally from the vehicle's front to the vehicle's rear; and a roof plate having a front, a rear, a top surface and a bottom surface, said top surface being substantially planar, characterised in that said bottom surface has a plurality of channels and teeth, said roof plate engaging and affixed to said vehicle roof with said roof plate channels receiving said vehicle roof ridges and said roof plate teeth extending into said vehicle roof troughs to fill said vehicle roof troughs at least where said roof plate's front or rear engages said vehicle roof. a vehicle having a front and rear, and having a corrugated roof forming a plurality of troughs and ridges which extend longitudinally from the vehicle's front to the vehicle's rear; and a roof plate having a front, a rear, a top surface and a bottom surface, said top surface being substantially planar, characterised in that said bottom surface has a plurality of channels and teeth, said roof plate engaging and affixed to said vehicle roof with said roof plate channels receiving said vehicle roof ridges and said roof plate teeth extending into said vehicle roof troughs to fill said vehicle roof troughs at least where said roof plate's front or rear engages said vehicle roof.
A cast-in-place anchor assembly for suspending objects below a metal deck after concrete pouring and concrete setting, the anchor assembly comprising: an anchor body having a threaded opening extending partially through it along an axis; a sleeve mounted to the anchor body and defining a sleeve opening which extends away from the anchor body along said axis, the sleeve also having a flexible portion that is configured to elastically flex upon insertion of the sleeve through a hole in a metal deck that is narrower than the width of the flexible portion; a support defining a supporting channel through which the anchor body extends and that is configured to permit sliding movement, but restrict tilting movement, of the support relative to the anchor body; and a spring for biasing the support along the anchor body towards the sleeve so that, in use, opposite sides of a metal deck are clamped between the support and the flexible portion of the sleeve, wherein the anchor body is provided with at least one feature on its outer surface which the sleeve cooperates with for mounting to the anchor body and characterised in that the support has features biased against the anchor body which are configured, during manufacture of the anchor assembly, to cooperate with the at least one feature provided on the outer surface of the anchor body for retaining the support and spring in connection with the anchor body prior to mounting of the sleeve to the anchor body. an anchor body having a threaded opening extending partially through it along an axis; a sleeve mounted to the anchor body and defining a sleeve opening which extends away from the anchor body along said axis, the sleeve also having a flexible portion that is configured to elastically flex upon insertion of the sleeve through a hole in a metal deck that is narrower than the width of the flexible portion; a support defining a supporting channel through which the anchor body extends and that is configured to permit sliding movement, but restrict tilting movement, of the support relative to the anchor body; and a spring for biasing the support along the anchor body towards the sleeve so that, in use, opposite sides of a metal deck are clamped between the support and the flexible portion of the sleeve, wherein the anchor body is provided with at least one feature on its outer surface which the sleeve cooperates with for mounting to the anchor body and characterised in that the support has features biased against the anchor body which are configured, during manufacture of the anchor assembly, to cooperate with the at least one feature provided on the outer surface of the anchor body for retaining the support and spring in connection with the anchor body prior to mounting of the sleeve to the anchor body.
A fuel system for an aircraft, the fuel system comprising: a storage unit; an ejector within the storage unit; a boost pump for receiving fuel from the storage unit; a main fuel pump that receives fuel from the boost pump and that delivers fuel to a distribution system; and a motive fuel pump that receives fuel from the boost pump, routes fuel through the storage unit, and delivers fuel to an actuator (18A, 18B), wherein the motive fuel pump delivers fuel to the ejector within the storage unit to circulate fuel within the storage unit, wherein the ejector is configured to transfer fuel from different partitions (20A, 20B) within the storage unit, characterised by further comprising a valve positioned between the ejector and the motive fuel pump to maintain minimum pressure of fuel delivered to the actuator (18A, 18B). a storage unit; an ejector within the storage unit; a boost pump for receiving fuel from the storage unit; a main fuel pump that receives fuel from the boost pump and that delivers fuel to a distribution system; and a motive fuel pump that receives fuel from the boost pump, routes fuel through the storage unit, and delivers fuel to an actuator (18A, 18B), wherein the motive fuel pump delivers fuel to the ejector within the storage unit to circulate fuel within the storage unit, wherein the ejector is configured to transfer fuel from different partitions (20A, 20B) within the storage unit, characterised by further comprising a valve positioned between the ejector and the motive fuel pump to maintain minimum pressure of fuel delivered to the actuator (18A, 18B).
Zip comprising a pair of webbings (29; 38), each of which has on its side edges sequences of coupling elements or teeth (5; 12) facing with respect to their sector of joining with the webbing, each of these coupling elements (5; 12) being able to pivot around its central vertical axis thanks to a support, placed between the coupling element (5; 12) and the webbing (29; 38), wherein the coupling element (5; 12) engages with the support and the latter with the webbing (29; 38), characterised in that said support consists of a cylinder or of two semi-cylinders (18, 19) arranged in a specular manner at opposite sides of the webbing (38; 29).
A method of prognostic health monitoring for use with an aircraft in which torque generated for controlling positions of controllable surfaces at right- and left-sides, RHS and LHS, of the aircraft is transmitted along RHS and LHS torque tubes (15, 16) to RHS wing actuators via RHS torque-limiters at each of the RHS wing actuators and to LHS wing actuators via LHS torque-limiters at each of the LHS wing actuators, respectively, the method comprising: performing real-time monitoring of the torque generated for controlling positions of controllable surfaces at each of the RHS and LHS torque limiters; generating RHS and LHS torque information from results of the monitoring of the torque; and comparing the RHS and LHS torque information at least with each other or with corresponding historic torque information. performing real-time monitoring of the torque generated for controlling positions of controllable surfaces at each of the RHS and LHS torque limiters; generating RHS and LHS torque information from results of the monitoring of the torque; and comparing the RHS and LHS torque information at least with each other or with corresponding historic torque information.
A wind turbine blade for a wind turbine, the wind turbine blade comprising at least one blade section extending in a longitudinal direction from a blade root or a tip end to an opposite end and further in a chordwise direction from a leading edge to a trailing edge, the wind turbine blade having a length of at least 35 meters measured between the blade root and the tip end, wherein the wind turbine blade has a first side surface defining a pressure side and a second side surface defining a suction side, wherein a leading edge surface is arranged between the first and second side surfaces, wherein a leading edge device is arranged at said leading edge surface, wherein the leading edge device comprises an erosion shield extending in a longitudinal direction from a first end to a second end and further in a circumference direction from a first edge to a second edge, wherein the erosion shield has an inner surface and an opposite facing outer surface arranged between said first and second ends, wherein the erosion shield is configured to be attached to a leading edge surface of the wind turbine blade, wherein the outer surface faces away from the wind turbine blade when the erosion shield is attached to the leading edge surface of the wind turbine blade, characterised in that at least one airflow modifying element projects from said outer surface, the at least one aerodynamic element having a first profile, wherein said at least one airflow modifying element and said erosion shield are integrally formed.
A reactor plate assembly for a plastic fastener dispensing device, the reactor plate assembly comprising: (a) a reactor plate, the reactor plate being shaped to define first and second needle receiving holes (123-1, 123-2); and (b) a brush anvil coupled to the reactor plate, the brush anvil comprising: (i) a base; and (ii) a plurality of bristle clusters coupled to the base, wherein at least one of the plurality of bristle clusters at least partially projects into the first needle receiving hole in the reactor plate and at least another one of the plurality of bristle clusters at least partially projects into the second needle receiving hole in the reactor plate. (a) a reactor plate, the reactor plate being shaped to define first and second needle receiving holes (123-1, 123-2); and (b) a brush anvil coupled to the reactor plate, the brush anvil comprising: (i) a base; and (ii) a plurality of bristle clusters coupled to the base, wherein at least one of the plurality of bristle clusters at least partially projects into the first needle receiving hole in the reactor plate and at least another one of the plurality of bristle clusters at least partially projects into the second needle receiving hole in the reactor plate. (i) a base; and (ii) a plurality of bristle clusters coupled to the base, wherein at least one of the plurality of bristle clusters at least partially projects into the first needle receiving hole in the reactor plate and at least another one of the plurality of bristle clusters at least partially projects into the second needle receiving hole in the reactor plate.
A method for evaluating signal progressions on sensor devices, comprising the steps of: detecting at least one temporal signal progression (6; 10a) with a sensor device, determining temporal sections of the signal progression (6; 10a), computing at least one upper actual interval value (7a; 11a) and at least one lower actual interval value (7b; 11b) for each of the temporal sections according to a computation rule, wherein the computation rule includes at least the signals of the associated signal section, characterised by comparing the computed upper actual interval values (7a; 11a) and the lower actual interval values (7b; 11b) of each section with stored comparison interval values (5a; 5b) of associated sections, wherein it is determined whether for each section the interval between the actual interval values lies within the interval of the comparison interval values. detecting at least one temporal signal progression (6; 10a) with a sensor device, determining temporal sections of the signal progression (6; 10a), computing at least one upper actual interval value (7a; 11a) and at least one lower actual interval value (7b; 11b) for each of the temporal sections according to a computation rule, wherein the computation rule includes at least the signals of the associated signal section, characterised by comparing the computed upper actual interval values (7a; 11a) and the lower actual interval values (7b; 11b) of each section with stored comparison interval values (5a; 5b) of associated sections, wherein it is determined whether for each section the interval between the actual interval values lies within the interval of the comparison interval values.
Method performed at an application server located on a local network, said application server being connected to a first network, said method comprising the steps of: - receiving, from a first device located on said first network, a SIP based message comprising a request for streaming content from a local device located on the local network, - sending to said first device a SIP based message comprising a list of content available on the local network, - receiving a SIP based message from said first device for launching a the streaming of at least one content from said list of content to at least one receiver located in a third network, and - sending a SIP based message to an application receiving module located in said third network to invite said at least one receiver to receive said at least one content. - receiving, from a first device located on said first network, a SIP based message comprising a request for streaming content from a local device located on the local network, - sending to said first device a SIP based message comprising a list of content available on the local network, - receiving a SIP based message from said first device for launching a the streaming of at least one content from said list of content to at least one receiver located in a third network, and - sending a SIP based message to an application receiving module located in said third network to invite said at least one receiver to receive said at least one content.
A bicycle fork comprising two fork legs connected with one another via a fork bridge, and a steer tube connected with a fork bridge, wherein the steer tube comprises at least one flattening extending in the longitudinal direction of the steer tube and a circular cylindrical lower part facing the fork bridge, characterized in that the circular cylindrical part is arranged to be offset, in particular not coaxial, with respect to the upper part of the steer tube having the in particular two flattenings. two fork legs connected with one another via a fork bridge, and a steer tube connected with a fork bridge, wherein the steer tube comprises at least one flattening extending in the longitudinal direction of the steer tube and a circular cylindrical lower part facing the fork bridge, characterized in that the circular cylindrical part is arranged to be offset, in particular not coaxial, with respect to the upper part of the steer tube having the in particular two flattenings.
Power converter comprising at least one semiconductor module with a base plate and a cooling housing, wherein the cooling housing comprises a receiving plate and a cover, wherein the receiving plate has at least one recess, wherein the receiving plate is connected to the base plate of the semiconductor module around the at least one recess, wherein the cover is connected to the receiving plate along a connecting region around the at least one recess, wherein either the receiving plate or the cover is formed as a stamped or deep-drawn plate, wherein the base plate has a cooling structure to which a cooling fluid is exposed in the recess of the receiving plate, characterised in that the receiving plate has a recess, wherein the receiving plate is configured and formed to receive a surrounding flow blocker in the recess, wherein the surrounding flow blocker is configured to conduct the cooling fluid over the cooling structure, wherein the surrounding flow blocker thus prevents the cooling fluid from bypassing the cooling structure of the semiconductor module or reduces such bypassing.