mhurhangee/patent-ind-claim-en huggingface dataset:
A method comprising: receiving an audio stream including first utterance; generating a first incremental speech recognition output based on a first portion of the first utterance; generating a second incremental speech recognition output based on a second portion of the first utterance; determining, prior to generating the second incremental speech recognition output, a first intent of the first utterance based on the first incremental speech recognition output; retrieving a first resource based on the determined first intent; and incorporating the first resource in a media content to be played by a media module , wherein: the determined first intent of the first utterance comprises speaking a predetermined word; the first resource comprises a substitute audio file ; and the incorporating the first resource in the media content comprises substituting an audio portion of the media content including the predetermined word with the substitute audio file . receiving an audio stream including first utterance; generating a first incremental speech recognition output based on a first portion of the first utterance; generating a second incremental speech recognition output based on a second portion of the first utterance; determining, prior to generating the second incremental speech recognition output, a first intent of the first utterance based on the first incremental speech recognition output; retrieving a first resource based on the determined first intent; and incorporating the first resource in a media content to be played by a media module , wherein: the determined first intent of the first utterance comprises speaking a predetermined word; the first resource comprises a substitute audio file ; and the incorporating the first resource in the media content comprises substituting an audio portion of the media content including the predetermined word with the substitute audio file . the determined first intent of the first utterance comprises speaking a predetermined word; the first resource comprises a substitute audio file ; and the incorporating the first resource in the media content comprises substituting an audio portion of the media content including the predetermined word with the substitute audio file .
Aeroplane having a longitudinal axis (L) comprising at least a fuselage , two wings , engines , a rear tail unit comprising a horizontal tail provided with two tail ends , and at least one first set (R1) of fuel tanks (R1A, R1B, R1C), said aeroplane comprising at least one second set (R2) of fuel tanks (R2A, R2B, R2C), offset relative to said first set (R1) of fuel tanks (R1A, R1B, R1C) at least along the longitudinal axis (L), and at least one fuel transfer system configured to be able to transfer, at least in flight, fuel from one to the other of said first and second sets (R1, R2) of fuel tanks, characterized in that said tail ends are mounted so as to be able to be pivoted, at least in flight, relative to said horizontal tail .
A coupling , comprising a first mounting base , comprising a first flange and a first shaft which are connected with each other, wherein the first flange is configured to be connected to an engine ; a second mounting base , comprising a second shaft and a second flange , wherein the second shaft is sleeved outside the first shaft , and the second flange is connected to an end, away from the first flange , of the second shaft and is configured to be connected to a fan ; a vibration damper , connected to the first flange and sleeved outside the second shaft for vibration damping; and characterised in that it further comprises at least one positioning member , the positioning member having elasticity and being arranged between the first shaft and the second mounting base for performing supporting and positioning. a first mounting base , comprising a first flange and a first shaft which are connected with each other, wherein the first flange is configured to be connected to an engine ; a second mounting base , comprising a second shaft and a second flange , wherein the second shaft is sleeved outside the first shaft , and the second flange is connected to an end, away from the first flange , of the second shaft and is configured to be connected to a fan ; a vibration damper , connected to the first flange and sleeved outside the second shaft for vibration damping; and characterised in that it further comprises at least one positioning member , the positioning member having elasticity and being arranged between the first shaft and the second mounting base for performing supporting and positioning.
A one-piece railing comprising a first barrier element , a second barrier element and a support , which are substantially vertical, said support extending along a vertical or substantially vertical axis Y-Y' and said first and second barrier elements extending substantially horizontally from, and on both sides of, said support , characterized in that said barrier elements each extend in a plane X-Y parallel to one another, and offset relative to one another along an axis Z-Z' which is perpendicular, or substantially perpendicular, to the axis Y-Y'.
A method for identifying carbon derived from natural sources in chewing gum or chewing gum base, comprising: a) pre-treating the chewing gum or chewing gum base to separate the chewing gum or chewing gum base into constituent parts; wherein pre-treating the chewing gum involves extracting inorganic filler from the chewing gum or chewing gum base; b) detecting presence of carbon isotopes in the other constituent parts; c) quantifying each detected carbon isotope and calculating relative ratios of the detected carbon isotopes; and d) determining if the sources of carbon are derived from natural, agro-based sources or petroleum-based sources based on the relative ratios. a) pre-treating the chewing gum or chewing gum base to separate the chewing gum or chewing gum base into constituent parts; wherein pre-treating the chewing gum involves extracting inorganic filler from the chewing gum or chewing gum base; b) detecting presence of carbon isotopes in the other constituent parts; c) quantifying each detected carbon isotope and calculating relative ratios of the detected carbon isotopes; and d) determining if the sources of carbon are derived from natural, agro-based sources or petroleum-based sources based on the relative ratios.
Metal hydride compressor control method for generating a variable output pressure P _desired_output , comprising a first step of inflowing gaseous hydrogen into a metal hydride compartment at a constant temperature and then stopping the gaseous hydrogen inflow, a second step of heating the metal hydride to a predetermined temperature, which corresponds to a temperature, which passes through the α +β phase at the desired output pressure P _desired_output a third step of opening the output connection of the compressor and keeping it at a constant pressure by regulating the temperature to keep a constant output pressure P _desired_output until the system completely leaves the α +β phase. a first step of inflowing gaseous hydrogen into a metal hydride compartment at a constant temperature and then stopping the gaseous hydrogen inflow, a second step of heating the metal hydride to a predetermined temperature, which corresponds to a temperature, which passes through the α +β phase at the desired output pressure P _desired_output a third step of opening the output connection of the compressor and keeping it at a constant pressure by regulating the temperature to keep a constant output pressure P _desired_output until the system completely leaves the α +β phase.
A method of operating a first base station in a cellular telecommunications network, the first base station having normal, compensation and energy saving modes of operation and being configured to switch between the normal, compensation and energy saving modes of operation, the method comprising the steps of: the first base station sending a first message to a second base station , the first message including energy saving mode data for the first base station , the energy saving mode data relating to the first base station and including a request that the second base station act in compensation mode for the first base station ; the first base station receiving a second message from the second base station , the second message including energy saving mode data for the second base station including a request that the first base station act in compensation mode for the second base station ; and the first base station entering compensation mode and compensating for the second base station , characterised in that the second message is responsive to the energy saving mode data for the first base station . the first base station sending a first message to a second base station , the first message including energy saving mode data for the first base station , the energy saving mode data relating to the first base station and including a request that the second base station act in compensation mode for the first base station ; the first base station receiving a second message from the second base station , the second message including energy saving mode data for the second base station including a request that the first base station act in compensation mode for the second base station ; and the first base station entering compensation mode and compensating for the second base station , characterised in that the second message is responsive to the energy saving mode data for the first base station .
Quick coupler for a quick-change device for connecting a boom of a mobile implement to an adapter of the quick-change device , which adapter is connected to a tool , said quick coupler having at least one quick coupler connection , for example a hydraulic connection, a voltage connection and/or a media connection, which - at the time the quick coupler is coupled to the adapter - can be connected to an adapter connection connected to the adapter , which adapter can be connected to the quick coupler - and thus the quick coupler connection to the adapter connection - in a state in which the adapter is oriented in different directions that are rotated by 180° relative to one another, characterized in that the quick coupler connection has three connections , of which a first connection is arranged centrally at the point where a transverse center axis (Q) intersects a longitudinal center axis (L) of the quick coupler , with the further connections being arranged point-symmetrically with respect to the intersection point in such a way that the quick coupler connection can be connected to the adapter connection both in a first orientation of the quick coupler connection and in an orientation thereof which is rotated by 180°.
Endoscopy apparatus for introducing an expandable body into a cavity , said apparatus having a first endoscope with a working channel and having a further endoscope which is located in the working channel , wherein the further endoscope has an expandable body and a video unit which is located parallel to the expandable body in the further endoscope , having the following features: a) the further endoscope with the expandable body to be introduced is inserted into the first endoscope with the working channel ; b) a distal end of the video unit is located next to a distal end of the expandable body in order to place the expandable body under visual control in the cavity prior to expansion; characterised in that c) the video unit is designed to be withdrawn after positioning of the expandable body in order to form an abutment at the proximal end of the expandable body when the further endoscope is withdrawn. a) the further endoscope with the expandable body to be introduced is inserted into the first endoscope with the working channel ; b) a distal end of the video unit is located next to a distal end of the expandable body in order to place the expandable body under visual control in the cavity prior to expansion; characterised in that c) the video unit is designed to be withdrawn after positioning of the expandable body in order to form an abutment at the proximal end of the expandable body when the further endoscope is withdrawn.
A device for optical telecommunication pivoting modules made from plastic comprising a mounting frame , at least one optical telecommunication pivoting module , and a lateral support part (2, 2', 2") for each module, said module being intended to be supported by the mounting frame by means of said lateral support part, the lateral support part (2, 2', 2") including at least one first pivot arrangement (3, 31', 31", 32"), the module including at least one second pivot arrangement , said second pivot arrangement being configured to be connected to said first pivot arrangement (3, 31', 31", 32"), said support part including at least one guide part intended to receive optical fibers upstream from said first pivot arrangement(s) (3, 31', 31", 32"), said guide part being configured to be placed on the trajectory of the optical fibers, said device being characterized in that said at least one first pivot arrangement (3, 31', 31", 32") is a cylindrical pivot and said at least one second pivot arrangement is a pivot cavity and in that said module (4, 4', 4") includes two lateral assemblies of at least one pivot cavity that are symmetrical relative to a central transverse plane (P) of the module and that are configured to be clipped one on the pivot(s) of the support part (2, 2', 2") mounted to the left of said plane (P) or the other on the pivot(s) of a support part (2, 2', 2") mounted to the right of said plane (P).
A path planning system for harvesting a crop material , the path planning system comprising: a computing device including a processor and a memory having a path planning algorithm stored thereon, wherein the processor is operable to execute the path planning algorithm to: receive a harvest swath width input defining a desired harvest width for each pass of a harvester implement ; receive a boundary input defining a boundary of a harvest area ; determine a surface elevation of the harvest area within the boundary , wherein the surface elevation includes at least one elevation contour establishing a line of constant elevation; and define a harvest path for the harvester implement to follow while harvesting the crop material , wherein the harvest path is defined to substantially parallel the at least one elevation contour based on the harvest swath width input. receive a harvest swath width input defining a desired harvest width for each pass of a harvester implement ; receive a boundary input defining a boundary of a harvest area ; determine a surface elevation of the harvest area within the boundary , wherein the surface elevation includes at least one elevation contour establishing a line of constant elevation; and define a harvest path for the harvester implement to follow while harvesting the crop material , wherein the harvest path is defined to substantially parallel the at least one elevation contour based on the harvest swath width input.
A near-infrared reflective film composed of a lamination unit comprising: a high refractive layer containing a first metal oxide particle and a cured first water-soluble polymer, a low refractive layer containing a second metal oxide particle and a cured second water-soluble polymer, and wherein the high refractive layer and the low refractive layer are further characterized in that the first metal oxide particles and the second metal oxide particle have different metal oxides, and the high refractive layer does not contain the second metal oxide particle and the low refractive layer does not contain the first metal oxide particle, a mixed layer located between the high refractive layer and the low refractive layer and which contains the first metal oxide particle, the second metal oxide particle and a mixture of the first water-soluble polymer and the second water-soluble polymer, wherein the refractive index of the low refractive layer is smaller than the refractive index of the high refractive layer by 0.1 or more, wherein the thickness of the mixed layer is 5 % or higher of a film thickness of a neighboring layer that contains only the metal oxide particle of one of the first metal oxide particle or the second metal oxide particle and wherein a film thickness is the thickness where 75 % or more of the maximum metal oxide content of the high refractive layer or the low refractive layer exists. a high refractive layer containing a first metal oxide particle and a cured first water-soluble polymer, a low refractive layer containing a second metal oxide particle and a cured second water-soluble polymer, and wherein the high refractive layer and the low refractive layer are further characterized in that the first metal oxide particles and the second metal oxide particle have different metal oxides, and the high refractive layer does not contain the second metal oxide particle and the low refractive layer does not contain the first metal oxide particle, a mixed layer located between the high refractive layer and the low refractive layer and which contains the first metal oxide particle, the second metal oxide particle and a mixture of the first water-soluble polymer and the second water-soluble polymer, wherein the refractive index of the low refractive layer is smaller than the refractive index of the high refractive layer by 0.1 or more, wherein the thickness of the mixed layer is 5 % or higher of a film thickness of a neighboring layer that contains only the metal oxide particle of one of the first metal oxide particle or the second metal oxide particle and wherein a film thickness is the thickness where 75 % or more of the maximum metal oxide content of the high refractive layer or the low refractive layer exists.
An antibody that binds to Claudin 6 (CLDN6) or antigen-binding fragment thereof wherein the antibody or antigen-binding fragment is selected from a group consisting of (a) an antibody that binds CLDN6 or antigen-binding fragment thereof comprising: (i) an HC CDR1 comprising the amino acid sequence of FTFSXYX (SEQ ID NO: 455), wherein X at position 5 is N and X at position 7 is W; (ii) an HC CDR2 comprising the amino acid sequence of IRLKXDXYAT (SEQ ID NO: 456), wherein X at position 5 is S and X at position 7 is N; (iii) an HC CDR3 comprising the amino acid sequence of XDGPPSGX (SEQ ID NO: 457), wherein X at position 1 is N and X at position 8 is S; (iv) an LC CDR1 comprising the amino acid sequence of EXIYSY (SEQ ID NO: 476), wherein X is N; (v) an LC CDR2 comprising the amino acid sequence of XAK (SEQ ID NO: 477), wherein X at position 1 is N; and (vi) an LC CDR3 comprising the amino acid sequence of QXHYXVPWT (SEQ ID NO: 454), wherein X at position 2 is H and X at position 5 is T; and (b) an antibody that binds CLDN6 or antigen-binding fragment thereof comprising the heavy chain (HC) CDR1-3 amino acid sequences of SEQ ID NOs: 23, 24, and 25, and the light chain (LC) CDR1-3 amino acid sequences of SEQ ID NOs: 20, 21, and 22. (a) an antibody that binds CLDN6 or antigen-binding fragment thereof comprising: (i) an HC CDR1 comprising the amino acid sequence of FTFSXYX (SEQ ID NO: 455), wherein X at position 5 is N and X at position 7 is W; (ii) an HC CDR2 comprising the amino acid sequence of IRLKXDXYAT (SEQ ID NO: 456), wherein X at position 5 is S and X at position 7 is N; (iii) an HC CDR3 comprising the amino acid sequence of XDGPPSGX (SEQ ID NO: 457), wherein X at position 1 is N and X at position 8 is S; (iv) an LC CDR1 comprising the amino acid sequence of EXIYSY (SEQ ID NO: 476), wherein X is N; (v) an LC CDR2 comprising the amino acid sequence of XAK (SEQ ID NO: 477), wherein X at position 1 is N; and (vi) an LC CDR3 comprising the amino acid sequence of QXHYXVPWT (SEQ ID NO: 454), wherein X at position 2 is H and X at position 5 is T; and (i) an HC CDR1 comprising the amino acid sequence of FTFSXYX (SEQ ID NO: 455), wherein X at position 5 is N and X at position 7 is W; (ii) an HC CDR2 comprising the amino acid sequence of IRLKXDXYAT (SEQ ID NO: 456), wherein X at position 5 is S and X at position 7 is N; (iii) an HC CDR3 comprising the amino acid sequence of XDGPPSGX (SEQ ID NO: 457), wherein X at position 1 is N and X at position 8 is S; (iv) an LC CDR1 comprising the amino acid sequence of EXIYSY (SEQ ID NO: 476), wherein X is N; (v) an LC CDR2 comprising the amino acid sequence of XAK (SEQ ID NO: 477), wherein X at position 1 is N; and (vi) an LC CDR3 comprising the amino acid sequence of QXHYXVPWT (SEQ ID NO: 454), wherein X at position 2 is H and X at position 5 is T; and (b) an antibody that binds CLDN6 or antigen-binding fragment thereof comprising the heavy chain (HC) CDR1-3 amino acid sequences of SEQ ID NOs: 23, 24, and 25, and the light chain (LC) CDR1-3 amino acid sequences of SEQ ID NOs: 20, 21, and 22.
Mixer for powdery, gritty and/or granular materials, comprising a mixing container and a mixer head having a bottom , a cylindrical side inner wall , a mixing tool rotatably mounted on the bottom of the mixer head and a tool drive for the mixing tool , wherein the mixing tool has a hub on which at least two vanes projecting radially or approximately radially to an axis of rotation (A) of the hub and having a variable thickness (d) as viewed in the direction of rotation (D) of the hub are arranged, wherein the vanes are wing-shaped, wherein the vanes are designed with a convexly shaped upper side having a curvature decreasing rearwardly substantially in the direction of rotation (D) of the hub and a lower side which smoothly changes from a convexly curved front section in the direction of rotation (D) of the hub to a concavely curved rear section , and wherein the free ends of the vanes each have an outer vane oriented at an angle to the respective vane, wherein the vanes are shaped in such a way that their maximum thickness (d max ) lies in a front section of the vanes , as viewed in the direction of rotation (D) of the hub , and that the outer vanes are wedge-shaped, having a convexly shaped front surface .