mhurhangee/ep-ind-claims huggingface dataset:
A turbine frame for a gas turbine engine comprising: a turbine case; a bearing support housing defining a receptacle; and at least one tie rod preloaded in compression between the turbine case and the bearing support housing, wherein the at least one tie rod includes a first end portion and a second end portion, and the receptacle at least partially receives the second end portion, with walls of the receptacle having a complementary geometry with walls of the second end portion, the receptacle comprising a land and the second end portion including engagement surfaces configured to mate with the receptacle, perimeters of the land and the engagement surfaces having a substantially non-circular geometry to limit rotation of the tie rod about an axis characterised in that the perimeters of the land and the engagement surfaces have a polygonal geometry and include sloped surfaces, configured such that the second end portion is wedged in the lands in an assembled position. a turbine case; a bearing support housing defining a receptacle; and at least one tie rod preloaded in compression between the turbine case and the bearing support housing, wherein the at least one tie rod includes a first end portion and a second end portion, and the receptacle at least partially receives the second end portion, with walls of the receptacle having a complementary geometry with walls of the second end portion, the receptacle comprising a land and the second end portion including engagement surfaces configured to mate with the receptacle, perimeters of the land and the engagement surfaces having a substantially non-circular geometry to limit rotation of the tie rod about an axis characterised in that the perimeters of the land and the engagement surfaces have a polygonal geometry and include sloped surfaces, configured such that the second end portion is wedged in the lands in an assembled position.
Circuit breaker, comprising - a first and a second breaker terminal (11, 12), - a bimetal stripe, - a first conduction line, - a switch with a first and a second contact (41, 42), wherein the first conduction line is electrically coupled to the first breaker terminal and to the first contact of the switch, - a triggering device mechanically coupling the bimetal stripe to the switch, - a magnet connected to at least one of the bimetal stripe, the triggering device and the switch, - a detection device comprising a magnetic field sensor configured to detect a magnetic field of the magnet and a control circuit connected to the magnetic field sensor, and - a first housing which at least encloses the bimetal stripe, the first conduction line, the switch, the triggering device and the magnet, characterized in that the first conduction line is wound around the bimetal stripe, wherein the circuit breaker comprises a second housing which at least encloses the detection device, and wherein the magnetic field sensor is outside of the first housing and is configured to detect a movement of the magnet inside the first housing. - a first and a second breaker terminal (11, 12), - a bimetal stripe, - a first conduction line, - a switch with a first and a second contact (41, 42), wherein the first conduction line is electrically coupled to the first breaker terminal and to the first contact of the switch, - a triggering device mechanically coupling the bimetal stripe to the switch, - a magnet connected to at least one of the bimetal stripe, the triggering device and the switch, - a detection device comprising a magnetic field sensor configured to detect a magnetic field of the magnet and a control circuit connected to the magnetic field sensor, and - a first housing which at least encloses the bimetal stripe, the first conduction line, the switch, the triggering device and the magnet, the first conduction line is wound around the bimetal stripe, wherein the circuit breaker comprises a second housing which at least encloses the detection device, and wherein the magnetic field sensor is outside of the first housing and is configured to detect a movement of the magnet inside the first housing.
Method for diagnosing transmission interference in a data network, the data network comprising at least one first class of network elements (SPS1, 2, 3, HMI1) which transmit and/or receive data packets (DATA_RT) only according to a data transmission standard for implementing real-time communication, according to the PROFINET RT standard, with high priority and in a time-synchronized manner, and comprising a second class of network elements (PC, MES) which do not or do not only transmit and/or receive data packets (DATA_NRT) according to a data transmission standard for implementing real-time communication, characterized in that if data packets of the first class (DATA_RT) are lost, diagnostic data packets (D_DATA) are not, or are not only, introduced into the data network in a targeted manner with the lowest priority according to the data transmission standard for implementing real-time communication, with the result that the path of the diagnostic data packets through the data network is known and the data network is flooded in a targeted manner with diagnostic data packets (D_DATA) such that 100% utilization of the data network is achieved, having the following steps - transmit a diagnostic data packet (D_DATA) from a first network element (MES, HMI1, PG, SPS...) to a second network element, - determine whether the diagnostic data packet is received by the second network element, - if the diagnostic data packet has interference: determine all network element ports (P-...) through which the diagnostic data packet passes on the way from the first network element to the second network element, and mark these ports as potentially having interference, and - if the diagnostic data packet does not have interference: determine all network element ports (P-...) through which the diagnostic data packet passes on the way from the first network element to the second network element, and for these ports remove the mark as potentially having interference. - transmit a diagnostic data packet (D_DATA) from a first network element (MES, HMI1, PG, SPS...) to a second network element, - determine whether the diagnostic data packet is received by the second network element, - if the diagnostic data packet has interference: determine all network element ports (P-...) through which the diagnostic data packet passes on the way from the first network element to the second network element, and mark these ports as potentially having interference, and - if the diagnostic data packet does not have interference: determine all network element ports (P-...) through which the diagnostic data packet passes on the way from the first network element to the second network element, and for these ports remove the mark as potentially having interference.
A room temperature-curable polyorganosiloxane composition comprising: a base composition including: polyorganosiloxane having a hydroxyl group or an alkoxy group at a molecular end; and an inorganic filler; and a cross-linking agent composition including: an organosilicon compound or a partial hydrolysate of the organosilicon compound, the organosilicon compound having, in one molecule, three alkoxy groups or more combined with silicon atoms, and, optionally, a group combined with a silicon atom other than the alkoxy groups which is an alkyl group, an alkenyl group or a phenyl group; polyorganosiloxane having an alkoxy group at a molecular end and represented by a general formula: (where R 1 s represent alkyl groups or alkoxyalkyl groups that are identical or different, and R 2 s and R 3 s both represent unsubstituted or halogen- or cyano group-substituted univalent hydrocarbon groups that are identical or different, Y represents an oxygen atom, a is 0 or 1, b is 0 or 1, and n is an integer of 1 to 30); and a curing catalyst including an organic compound containing a nitrogen atom. a base composition including: polyorganosiloxane having a hydroxyl group or an alkoxy group at a molecular end; and an inorganic filler; and a cross-linking agent composition including: an organosilicon compound or a partial hydrolysate of the organosilicon compound, the organosilicon compound having, in one molecule, three alkoxy groups or more combined with silicon atoms, and, optionally, a group combined with a silicon atom other than the alkoxy groups which is an alkyl group, an alkenyl group or a phenyl group; polyorganosiloxane having an alkoxy group at a molecular end and represented by a general formula: (where R 1 s represent alkyl groups or alkoxyalkyl groups that are identical or different, and R 2 s and R 3 s both represent unsubstituted or halogen- or cyano group-substituted univalent hydrocarbon groups that are identical or different, Y represents an oxygen atom, a is 0 or 1, b is 0 or 1, and n is an integer of 1 to 30); and a curing catalyst including an organic compound containing a nitrogen atom.
A method of operating a hearing aid system comprising the steps of: - providing a first and a second input signal, wherein the first and second input signal represent the output from a first and a second microphone respectively and wherein said microphones are comprised in the hearing aid system; - determining at least one of an unbiased mean phase and a resultant length from samples of inter-microphone phase differences between said first and second input signal by: - determining a complex value Re iθ̂, given by: Re i θ ^ = 1 n ∑ i=1 n e iθ i wherein n represents the number of inter-microphone phase differences used for the averaging, wherein e iθ i represents samples of inter-microphone phase differences, wherein R represents the resultant length and wherein θ̂ represents the unbiased mean phase; and - using at least one of the unbiased mean phase and the resultant length to classify a current sound environment of the hearing aid system. - providing a first and a second input signal, wherein the first and second input signal represent the output from a first and a second microphone respectively and wherein said microphones are comprised in the hearing aid system; - determining at least one of an unbiased mean phase and a resultant length from samples of inter-microphone phase differences between said first and second input signal by: - determining a complex value Re iθ̂, given by: Re i θ ^ = 1 n ∑ i=1 n e iθ i wherein n represents the number of inter-microphone phase differences used for the averaging, wherein e iθ i represents samples of inter-microphone phase differences, wherein R represents the resultant length and wherein θ̂ represents the unbiased mean phase; and - using at least one of the unbiased mean phase and the resultant length to classify a current sound environment of the hearing aid system. - determining a complex value Re iθ̂, given by: Re i θ ^ = 1 n ∑ i=1 n e iθ i wherein n represents the number of inter-microphone phase differences used for the averaging, wherein e iθ i represents samples of inter-microphone phase differences, wherein R represents the resultant length and wherein θ̂ represents the unbiased mean phase; and - using at least one of the unbiased mean phase and the resultant length to classify a current sound environment of the hearing aid system.
An effect pigment dispersion comprising water, a rheology control agent, and a flake-effect pigment, the flake-effect pigment being an interference pigment in which a transparent or translucent substrate is coated with a metal oxide, and the solids content of the effect pigment dispersion being 0.1 to 15 mass%, wherein the rheology control agent is a cellulose nanofiber (A-1). the flake-effect pigment being an interference pigment in which a transparent or translucent substrate is coated with a metal oxide, and the solids content of the effect pigment dispersion being 0.1 to 15 mass%, wherein the rheology control agent is a cellulose nanofiber (A-1).
A manufacturing method of a microstructure, comprising the steps of: forming a separation layer over a first support substrate; forming a first layer over the separation layer; subsequently weakening the separation layer; attaching a second support substrate to the first layer with an adhesive layer interposed therebetween; separating the first support substrate from the first layer so that the first layer remains on the second support substrate; forming a first spacer layer over a second layer included in a first protective substrate, wherein the first protective substrate includes the second layer; attaching the first layer and the first protective substrate so as to face each other with the first spacer layer interposed therebetween, the first spacer layer providing a space portion between the first layer and the second layer; and subsequently separating the first layer from the second support substrate. forming a separation layer over a first support substrate; forming a first layer over the separation layer; subsequently weakening the separation layer; attaching a second support substrate to the first layer with an adhesive layer interposed therebetween; separating the first support substrate from the first layer so that the first layer remains on the second support substrate; forming a first spacer layer over a second layer included in a first protective substrate, wherein the first protective substrate includes the second layer; attaching the first layer and the first protective substrate so as to face each other with the first spacer layer interposed therebetween, the first spacer layer providing a space portion between the first layer and the second layer; and subsequently separating the first layer from the second support substrate.
A rubber-metal composite body in which a rubber member and a metal member are adhered to each other via an adhesion layer, wherein the adhesion layer contains a polyolefin-based resin having a polar functional group, and a copolymer having a conjugated diene unit and a non-conjugated olefin unit but having no butylene unit, the polyolefin-based resin having a polar functional group is an acid-modified polyolefin-based resin, and the rubber member is in contact with at least the copolymer, and the metal member is in contact with at least the resin having a polar functional group. the adhesion layer contains a polyolefin-based resin having a polar functional group, and a copolymer having a conjugated diene unit and a non-conjugated olefin unit but having no butylene unit, the polyolefin-based resin having a polar functional group is an acid-modified polyolefin-based resin, and the rubber member is in contact with at least the copolymer, and the metal member is in contact with at least the resin having a polar functional group.
Apparatus for closing off, during the changing of at least one filter element in an exhaust-air filter installation, at least one opening corresponding to at least one filter element to be changed, having - two running rails which are arranged substantially parallel to one another and from which at least one inherently stable support structure is movably suspended, and - at least one conveying means by which the at least one inherently stable support structure can be moved along the running rails, wherein - the running rails guide the at least one inherently stable support structure along the filter elements of the exhaust-gas filter installation, - at least one cover element is arranged on the at least one inherently stable support structure and is oriented in the direction of the filter elements of the exhaust-gas filter installation, and, - by way of positioning of the at least one support structure in front of the at least one opening corresponding to at least one filter element to be changed, said opening is covered substantially over its entire area by the at least one cover element. - two running rails which are arranged substantially parallel to one another and from which at least one inherently stable support structure is movably suspended, and - at least one conveying means by which the at least one inherently stable support structure can be moved along the running rails, - the running rails guide the at least one inherently stable support structure along the filter elements of the exhaust-gas filter installation, - at least one cover element is arranged on the at least one inherently stable support structure and is oriented in the direction of the filter elements of the exhaust-gas filter installation, and, - by way of positioning of the at least one support structure in front of the at least one opening corresponding to at least one filter element to be changed, said opening is covered substantially over its entire area by the at least one cover element.
A curable composition comprising, (a) a catechol-based organic compound capable of being denatured to quinone by oxidation; (b) an amine-based polymeric compound; and (c) an oxygen clathrate structure, wherein the oxygen clathrate structure is at least one selected from the group consisting of activated carbon, activated carbon fiber, TiO 2 hollow spheres, glass web, silica aerogels, fumed silica nanoparticles, SiO 2 hollow particles, TiO 2 hollow particles, silica nanotubes and carbon nanotubes. (a) a catechol-based organic compound capable of being denatured to quinone by oxidation; (b) an amine-based polymeric compound; and (c) an oxygen clathrate structure,
A computer-implemented method of performing intersection testing in a ray tracing system for use in rendering an image of a scene, the method comprising: receiving data representing at least part of a hierarchical acceleration structure, wherein the hierarchical acceleration structure comprises nodes, each of which represents a region in the scene, wherein the nodes are linked to form the hierarchical acceleration structure, wherein said received data comprises data defining the regions represented by a plurality of the nodes of the hierarchical acceleration structure, and wherein the hierarchical acceleration structure comprises an implicitly represented node, wherein data defining a region represented by the implicitly represented node is not explicitly included as part of said received data but can be inferred from said received data; inferring, from said received data, data defining the region represented by the implicitly represented node using at least some of the data defining the regions represented by nodes which are the descendants of the implicitly represented node at a particular level in the hierarchical acceleration structure; and performing intersection testing on rays in the scene by testing the rays for intersection with regions represented by nodes of the hierarchical acceleration structure, wherein said performing intersection testing on rays in the scene comprises using the inferred data to test the rays for intersection with the region represented by the implicitly represented node of the hierarchical acceleration structure. receiving data representing at least part of a hierarchical acceleration structure, wherein the hierarchical acceleration structure comprises nodes, each of which represents a region in the scene, wherein the nodes are linked to form the hierarchical acceleration structure, wherein said received data comprises data defining the regions represented by a plurality of the nodes of the hierarchical acceleration structure, and wherein the hierarchical acceleration structure comprises an implicitly represented node, wherein data defining a region represented by the implicitly represented node is not explicitly included as part of said received data but can be inferred from said received data; inferring, from said received data, data defining the region represented by the implicitly represented node using at least some of the data defining the regions represented by nodes which are the descendants of the implicitly represented node at a particular level in the hierarchical acceleration structure; and performing intersection testing on rays in the scene by testing the rays for intersection with regions represented by nodes of the hierarchical acceleration structure, wherein said performing intersection testing on rays in the scene comprises using the inferred data to test the rays for intersection with the region represented by the implicitly represented node of the hierarchical acceleration structure.
A method of forming tracks in snow, in particular a classic style cross-country ski track, the method comprising the steps of separating at least two continuous elongated portions of snow cover from the rest of the snow cover, the two continuous elongated portions extending in a given direction; and pressing the two continuous elongated portions against the rest of the snow cover to form a track along each continuous elongated portion; the method being characterized by tilling a top layer of snow cover before forming the tracks; the depth of the top layer of snow cover being less than the depth of the tracks.
A communication apparatus comprising: a frame generating unit (20-1, 20-2,..., 20-N, 25) configured to generate a plurality of frames to be transmitted at the same time; a frame integration processing unit (20-1, 20-2, 20-N, 25) configured to integrate at least two of the frames generated by the frame generating unit into a single aggregated frame; and characterized by a frame length control unit (20-1, 20-2,..., 20-N, 25) for performing padding on the aggregated frame if the length of the aggregated frame is shorter than the length of another frame that is multiplexed at the same time to generate a plurality of frames having the same length, and a communication unit (21-1, 21-2, 21-N) configured to transmit the frames at the same time in a multiplexed manner to more than one communication apparatuses, and receive more than one ACK frames transmitted at the same time in response to the frames from the more than one communication apparatuses. a frame generating unit (20-1, 20-2,..., 20-N, 25) configured to generate a plurality of frames to be transmitted at the same time; a frame integration processing unit (20-1, 20-2, 20-N, 25) configured to integrate at least two of the frames generated by the frame generating unit into a single aggregated frame; and characterized by a frame length control unit (20-1, 20-2,..., 20-N, 25) for performing padding on the aggregated frame if the length of the aggregated frame is shorter than the length of another frame that is multiplexed at the same time to generate a plurality of frames having the same length, and a communication unit (21-1, 21-2, 21-N) configured to transmit the frames at the same time in a multiplexed manner to more than one communication apparatuses, and receive more than one ACK frames transmitted at the same time in response to the frames from the more than one communication apparatuses. transmit the frames at the same time in a multiplexed manner to more than one communication apparatuses, and receive more than one ACK frames transmitted at the same time in response to the frames from the more than one communication apparatuses.
An optoelectronic sensor for detecting objects in a monitored zone that has a light transmitter for transmitting transmitted light, a light receiver for generating a received signal from transmitted light reflected by objects in the monitored zone, a control and evaluation unit for determining information on objects in the monitored zone with reference to the received signal, and an optical element that is arranged in the optical path of the transmitted light of the light transmitter such that some of the transmitted light enters into the monitored zone as detection light, characterized in that the optical element has a transparent light guide that guides some of the transmitted light to a reference light receiver; and in that the optical element has a diaphragm having an aperture for the transmitted light.