mhurhangee/patent-ind-claim-en huggingface dataset:
A thrust scheduling method for gas turbine engine that includes a plurality of fan blades having a variable pitch beta angle, the method comprising: receiving into a control system at least one condition input from a respective sensor; receiving into a control system a propulsor speed (N 1 ; Nx) from a propulsor speed sensor; receiving a control command from a full authority digital engine control (FADEC) in the control system ; generating a propulsor speed base reference from a first schedule logic in the control system based upon the at least one condition input received and the control command received; generating a beta angle base reference from a second schedule logic from the at least one condition input received, the propulsor speed (N 1 ), and the control command received; and supplying the propulsor speed base reference and the beta angle base reference to an engine control system , wherein the engine control system adjusts at least the pitch angle of the plurality of fan blades or a fuel flow to the engine. receiving into a control system at least one condition input from a respective sensor; receiving into a control system a propulsor speed (N 1 ; Nx) from a propulsor speed sensor; receiving a control command from a full authority digital engine control (FADEC) in the control system ; generating a propulsor speed base reference from a first schedule logic in the control system based upon the at least one condition input received and the control command received; generating a beta angle base reference from a second schedule logic from the at least one condition input received, the propulsor speed (N 1 ), and the control command received; and supplying the propulsor speed base reference and the beta angle base reference to an engine control system , wherein the engine control system adjusts at least the pitch angle of the plurality of fan blades or a fuel flow to the engine.
A centrifugal electric pump assembly comprising in sequence: a wet section , an air gap sleeve , which contains a rotor of an electric motor and a casing which contains a stator of an electric motor , and a box , which contains an electronic board and has a tubular body for the insertion of a plug for access to said wet section , said casing being substantially concentric to said air gap sleeve , said box being constituted by a tray which is closed hermetically by a lid , the centrifugal electric pump assembly characterised by : - a second sealing element between said air gap sleeve , said casing and said wet section , - a third sealing element between said air gap sleeve , said casing and said box , - a fourth sealing element between said air gap sleeve and said plug . - a second sealing element between said air gap sleeve , said casing and said wet section , - a third sealing element between said air gap sleeve , said casing and said box , - a fourth sealing element between said air gap sleeve and said plug .
Apparatus for generating a decorrelation signal using an input signal, comprising: a complex subband filterbank for subband-filtering a block of a predetermined number of input samples of the input signal and for providing a plurality of complex-valued subband signals, wherein a subband signal includes a sequence of at least two subband samples, the sequence of the subband samples representing a bandwidth of the subband signal, which is smaller than a bandwidth of the input signal, the number of subband samples in a subband signal is smaller than the number of input samples; a reverberation filter to obtain a plurality of reverberated subband signals from the plurality of subband signals, the filtering of the reverberation filter having an all-pass characteristic, the reverberation filter being operative to apply a delay to each subband signal and being adapted to have different sets of filter coefficients for each subband signal, wherein the plurality of reverberated subband signals together represent the decorrelation signal; a detector for detecting whether a transient is present in a subband signal; and a means configured to, in response to the detector detecting that a transient is present in the subband signal, adjust the level of the subband signal, so that a level of the subband signal is reduced during transient passages. a complex subband filterbank for subband-filtering a block of a predetermined number of input samples of the input signal and for providing a plurality of complex-valued subband signals, wherein a subband signal includes a sequence of at least two subband samples, the sequence of the subband samples representing a bandwidth of the subband signal, which is smaller than a bandwidth of the input signal, the number of subband samples in a subband signal is smaller than the number of input samples; a reverberation filter to obtain a plurality of reverberated subband signals from the plurality of subband signals, the filtering of the reverberation filter having an all-pass characteristic, the reverberation filter being operative to apply a delay to each subband signal and being adapted to have different sets of filter coefficients for each subband signal, wherein the plurality of reverberated subband signals together represent the decorrelation signal; a detector for detecting whether a transient is present in a subband signal; and a means configured to, in response to the detector detecting that a transient is present in the subband signal, adjust the level of the subband signal, so that a level of the subband signal is reduced during transient passages.
A door lock apparatus comprising: - a first shaft having a first longitudinal centerline ; - a member connected to the first shaft ; - a handle connected to the first shaft via the member , wherein the handle is movable via rotation of the first shaft between a locked position and an unlocked position; - a first cam that extends from the handle ; - a second shaft having a second longitudinal centerline ; - a latch crank connected to the second shaft ; - a second cam that extends from the latch crank ; and - a linkage coupled between the latch crank and the member , wherein the linkage is configured to be connected to a door; wherein when the handle is in the locked position, the first cam is positioned adjacent to the second cam to prevent rotation of the second shaft ; wherein when the handle is in the unlocked position, the first cam is positioned away from the second cam to enable the second shaft to rotate; and wherein movement of the handle from the locked position to the unlocked position pivots the latch crank about the second longitudinal centerline in a first direction after the movement of the handle has moved the first cam substantially past the second cam . - a first shaft having a first longitudinal centerline ; - a member connected to the first shaft ; - a handle connected to the first shaft via the member , wherein the handle is movable via rotation of the first shaft between a locked position and an unlocked position; - a first cam that extends from the handle ; - a second shaft having a second longitudinal centerline ; - a latch crank connected to the second shaft ; - a second cam that extends from the latch crank ; and - a linkage coupled between the latch crank and the member , wherein the linkage is configured to be connected to a door; wherein when the handle is in the locked position, the first cam is positioned adjacent to the second cam to prevent rotation of the second shaft ; wherein when the handle is in the unlocked position, the first cam is positioned away from the second cam to enable the second shaft to rotate; and wherein movement of the handle from the locked position to the unlocked position pivots the latch crank about the second longitudinal centerline in a first direction after the movement of the handle has moved the first cam substantially past the second cam .
An angiopoietin-like protein 8 (ANGPTL8) inhibitor for use in a method of treating a patient suffering from hyperlipidemia in combination with an inhibitor of angiopoietin-like protein 3 (ANGPTL3), wherein the ANGPTL8 inhibitor is an antibody or an antigen-binding fragment thereof that binds specifically to ANGPTL8 and comprises a heavy chain CDR1 (HCDR1) having the amino acid sequence of SEQ ID NO: 2, a HCDR2 having the amino acid sequence of SEQ ID NO: 3, a HCDR3 having the amino acid sequence of SEQ ID NO: 4, a light chain CDR1 (LCDR1) having the amino acid sequence of SEQ ID NO: 6, a LCDR2 having the amino acid sequence of SEQ ID NO: 7, and a LCDR3 having the amino acid sequence of SEQ ID NO: 8; and the ANGPTL3 inhibitor is an antibody or an antigen-binding fragment thereof that binds specifically to ANGPTL3 and comprises a HCDR1 having the amino acid sequence of SEQ ID NO: 11, a HCDR2 having the amino acid sequence of SEQ ID NO: 12, a HCDR3 having the amino acid sequence of SEQ ID NO: 13, a LCDR1 having the amino acid sequence of SEQ ID NO: 15, a LCDR2 having the amino acid sequence of SEQ ID NO: 16, and a LCDR3 having the amino acid sequence of SEQ ID NO: 17.
A method of emulating a sound of an audio apparatus by using a sound emulation apparatus , the method comprising: inputting an audio signal to the sound emulation apparatus; obtaining (S710) k past samples, where k is a natural number that is equal to or greater than 2, by delaying a current sample of the audio signal, wherein the obtaining of the k past samples comprises either obtaining a first past sample by inputting the current sample to a delay module and obtaining a second past sample by inputting the first past sample to the delay module, or obtaining a first past sample by inputting the current sample to a first delay module (111-1) and obtaining a second past sample by inputting the first past sample to a second delay module (111-2); applying (S720) a plurality of characteristic functions indicating an input/output relationship of the audio apparatus to the current sample and the k past samples, respectively; and adding (S730) the current sample and the k past samples, to which the plurality of characteristic functions have been applied, respectively, to generate an emulation sound of the audio apparatus, wherein the plurality of characteristic functions comprises a nonlinear polynomial function. inputting an audio signal to the sound emulation apparatus; obtaining (S710) k past samples, where k is a natural number that is equal to or greater than 2, by delaying a current sample of the audio signal, wherein the obtaining of the k past samples comprises either obtaining a first past sample by inputting the current sample to a delay module and obtaining a second past sample by inputting the first past sample to the delay module, or obtaining a first past sample by inputting the current sample to a first delay module (111-1) and obtaining a second past sample by inputting the first past sample to a second delay module (111-2); applying (S720) a plurality of characteristic functions indicating an input/output relationship of the audio apparatus to the current sample and the k past samples, respectively; and adding (S730) the current sample and the k past samples, to which the plurality of characteristic functions have been applied, respectively, to generate an emulation sound of the audio apparatus, wherein the plurality of characteristic functions comprises a nonlinear polynomial function.
A composition comprising a therapeutically effective amount of dexpramipexole for use in the treatment of a B-cell disorder characterized by elevated levels of B-cells in a subject, wherein the B-cell disorder is selected from the group consisting of diffuse large B-cell lymphoma, follicular lymphoma, marginal zone lymphoma, small cell lymphocytic lymphoma, mantle cell lymphoma, Burkitt lymphoma, Waldenstrom's macroblobulinemia, B-cell chronic lymphocytic leukemia, B-cell acute lymphoblastic leukemia, B-cell prolymphocytic leukemia, precursor B-cell lymphoblastic leukemia, hairy cell leukemia.
A cloth evaluation apparatus comprising. a measuring member having, on its distal side, a measuring part to pass through a cloth (c, d); a cloth/measuring part moving means for moving the cloth (c, d) or the measuring member so that the measuring part passes through the cloth (c, d); a cloth supporting means for supporting the cloth (c, d) at around a passing-through point in the cloth (c, d) of the measuring part when the measuring part passes through the cloth (c, d); and a load detecting means for detecting a load being applied to the measuring member while the measuring part passes through the cloth (c, d), wherein the measuring part includes a piercing force measuring portion having an acute tip , characterized in that the cloth supporting means can support the cloth (c, d) while following the movement of the cloth (c, d) or the measuring member , and in that the cloth (c, d) is supported from both sides of the cloth (c, d) and in that the cloth supporting means comprise a cylindrical elastic member arranged around and concentrically with the measuring part .
Fastening element for fastening a sensor to a structure to be monitored, the fastening element having: - a base support element ; - a sealing frame for sealing the base support element with respect to the structure ; - a cavity for receiving a light-curing adhesive , the cavity being delimited on one side by the base support element and peripherally by the sealing frame ; - at least one light-emitting surface for coupling light beams into the cavity ; characterized in that the fastening element has at least one passage recess for introducing the light-curing adhesive into the cavity . - a base support element ; - a sealing frame for sealing the base support element with respect to the structure ; - a cavity for receiving a light-curing adhesive , the cavity being delimited on one side by the base support element and peripherally by the sealing frame ; - at least one light-emitting surface for coupling light beams into the cavity ;
A process for the recovery of ethylene glycol from an aqueous stream comprising ethylene glycol, said process comprising (a) subjecting said aqueous stream comprising ethylene glycol to an evaporation step in a multiple-effect evaporator, performed in 3 or 4 stages, to obtain a concentrated stream comprising ethylene glycol; (b) subjecting said concentrated stream comprising ethylene glycol to a first dehydration step in a first dehydrator which is a distillation column equipped with trays or packing equivalent to theoretical stages between 2 and 10, operating at an overhead pressure in the range of 0.3-3 barg (bar gauge) to obtain a partially dehydrated ethylene glycol stream, wherein gauge pressure equals absolute pressure minus atmospheric pressure; (c) subjecting said partially dehydrated ethylene glycol stream to a second dehydration step in a second dehydrator operating under vacuum, wherein vacuum means operating under sub-atmospheric pressure, to obtain a dehydrated ethylene glycol stream; and wherein the vaporous overhead from the last evaporator vessel in the multiple-effect evaporator is used as process steam, and wherein at least a portion of said process steam is used to provide heat to the first dehydrator. (a) subjecting said aqueous stream comprising ethylene glycol to an evaporation step in a multiple-effect evaporator, performed in 3 or 4 stages, to obtain a concentrated stream comprising ethylene glycol; (b) subjecting said concentrated stream comprising ethylene glycol to a first dehydration step in a first dehydrator which is a distillation column equipped with trays or packing equivalent to theoretical stages between 2 and 10, operating at an overhead pressure in the range of 0.3-3 barg (bar gauge) to obtain a partially dehydrated ethylene glycol stream, wherein gauge pressure equals absolute pressure minus atmospheric pressure; (c) subjecting said partially dehydrated ethylene glycol stream to a second dehydration step in a second dehydrator operating under vacuum, wherein vacuum means operating under sub-atmospheric pressure, to obtain a dehydrated ethylene glycol stream; and
A substrate cleaning method comprising: rotating the substrate (W) about its central axis; delivering a two-fluid jet from a two-fluid jet nozzle to a surface of the substrate (W) while moving the two-fluid jet nozzle in a radial direction of the substrate (W), the two-fluid jet being composed of a mixture of a first liquid and a gas; and when the two-fluid jet is being delivered to the surface of the substrate (W), delivering a fan-shaped jet of a second liquid from a fan spray nozzle to the surface of the substrate to form a flow of the second liquid on the surface of the substrate (W), the fan-shaped jet being located away from the two-fluid jet, characterized in that the fan spray nozzle is oriented in the direction such that both the fan-shaped jet emitted from the fan spray nozzle and a flow of the second liquid formed on the surface of the wafer (W) do not collide with the two-fluid jet emitted from the two-fluid jet nozzle . rotating the substrate (W) about its central axis; delivering a two-fluid jet from a two-fluid jet nozzle to a surface of the substrate (W) while moving the two-fluid jet nozzle in a radial direction of the substrate (W), the two-fluid jet being composed of a mixture of a first liquid and a gas; and when the two-fluid jet is being delivered to the surface of the substrate (W), delivering a fan-shaped jet of a second liquid from a fan spray nozzle to the surface of the substrate to form a flow of the second liquid on the surface of the substrate (W), the fan-shaped jet being located away from the two-fluid jet, characterized in that the fan spray nozzle is oriented in the direction such that both the fan-shaped jet emitted from the fan spray nozzle and a flow of the second liquid formed on the surface of the wafer (W) do not collide with the two-fluid jet emitted from the two-fluid jet nozzle .
A method performed by a technician allocation system for allocating a field technician, FT, which technician allocation system operates in a telecommunication network , the method comprising: identifying features f 1 ... f n of a received new work order, WO, to be executed on equipment in the telecommunication network ; obtaining similarity scores for the identified features f 1 ... f n , wherein the similarity scores are related to how similar the new WO is to previously executed old WOs with respect to the identified features, the old WOs having at least one of the features f 1 ... f n ; obtaining for a set of FT candidates, an FT experience score for each FT candidate with respect to the identified features f 1 ... f n ; matching the FT candidates with the features f 1 ... f n for the new WO based on the obtained FT experience scores and the similarity scores; and allocating at least one of the FTs for executing the new WO on said equipment, based on the matching, characterized in that the matching comprises assigning a matching score per feature of the features f 1 ... f n and wherein the allocating comprises selecting the FT(s) with the highest weighted average matching score of the features f 1 ... f n . identifying features f 1 ... f n of a received new work order, WO, to be executed on equipment in the telecommunication network ; obtaining similarity scores for the identified features f 1 ... f n , wherein the similarity scores are related to how similar the new WO is to previously executed old WOs with respect to the identified features, the old WOs having at least one of the features f 1 ... f n ; obtaining for a set of FT candidates, an FT experience score for each FT candidate with respect to the identified features f 1 ... f n ; matching the FT candidates with the features f 1 ... f n for the new WO based on the obtained FT experience scores and the similarity scores; and allocating at least one of the FTs for executing the new WO on said equipment, based on the matching, characterized in that the matching comprises assigning a matching score per feature of the features f 1 ... f n and wherein the allocating comprises selecting the FT(s) with the highest weighted average matching score of the features f 1 ... f n .
A flexible lighting panel (100; 200; 300) with an emissive face and an opposite face comprising: - a light-emitting unit comprising at least one electroluminescent layer between a first and a second electrode on a flexible substrate forming an emissive area, the light-emitting unit having at least two electrical contact pads , each individually in contact with the first or second electrode and located in a non-emissive area of the substrate ; - a one flat flexible printed circuit board with at least one integral bendable extension tab , wherein the circuit board is located on the opposite side of the light-emitting unit from the substrate ; the area of the circuit board , not including the extension tab , is the same or greater than and overlaps the emissive area of the light-emitting unit ; and - the circuit board has at least two flat electrical connectors on the surface of the circuit board facing the light-emitting unit and in electrical contact with the contact pads of the light-emitting unit ; the flat electrical connectors are on the extension tab and extend along the extension tab of the circuit board for connection to a power source. - a light-emitting unit comprising at least one electroluminescent layer between a first and a second electrode on a flexible substrate forming an emissive area, the light-emitting unit having at least two electrical contact pads , each individually in contact with the first or second electrode and located in a non-emissive area of the substrate ; - a one flat flexible printed circuit board with at least one integral bendable extension tab , wherein the circuit board is located on the opposite side of the light-emitting unit from the substrate ; the area of the circuit board , not including the extension tab , is the same or greater than and overlaps the emissive area of the light-emitting unit ; and - the circuit board has at least two flat electrical connectors on the surface of the circuit board facing the light-emitting unit and in electrical contact with the contact pads of the light-emitting unit ; the flat electrical connectors are on the extension tab and extend along the extension tab of the circuit board for connection to a power source.
A method of constructing footwear comprising: providing a mold having an inner cavity; injecting an expandable material into the inner cavity; removing the expandable material from the inner cavity, such that the material expands to form a footwear-shaped shell , the shell having an inner cavity and at least one recessed area offset from an inner surface of the shell; and inserting a chassis within the inner cavity of the expanded shell, the chassis having one or more components adapted to protect a user's foot from injury, wherein insertion of the chassis within the shell permanently affixes the one or more components within the at least one recessed area of the shell. providing a mold having an inner cavity; injecting an expandable material into the inner cavity; removing the expandable material from the inner cavity, such that the material expands to form a footwear-shaped shell , the shell having an inner cavity and at least one recessed area offset from an inner surface of the shell; and inserting a chassis within the inner cavity of the expanded shell, the chassis having one or more components adapted to protect a user's foot from injury, wherein insertion of the chassis within the shell permanently affixes the one or more components within the at least one recessed area of the shell.