mhurhangee/patent-ind-claim-en huggingface dataset:
A thermoplastic polyurethane obtainable or obtained by reaction of at least the components (i) to (iii): (i) at least one polyisocyanate composition; (ii) at least one chain extender (KV1) of general formula (I), wherein A is selected from O, N(R3), S, CH 2 , Q is selected from O, N(R3), S, CH 2 , R1 is selected from CH 2 -(CH 2 ) n -OH, CH(CH 3 )-CH 2 -OH, OH, R2 is selected from CH 2 -(CH 2 ) n -OH, CH(CH 3 )-CH 2 -OH, CH 2 -CH(CH 3 )-OH, OH, n is 0, 1, 2, 3, 4, 5 or 6, R3 is selected from CH 3 , CH 2 -CH 3 , and A and Q are not simultaneously CH 2 , (iii) at least one polyol composition, wherein the polyisocyanate composition comprises 4,4'-diphenylmethane diisocyanate (4,4'-MDI) and at least one further polyisocyanate, wherein the polyol composition comprises a polyol selected from the group consisting of polytetrahydrofurans having a number-average molecular weight Mn in the range from 500 g/mol to 5000 g/mol. (i) at least one polyisocyanate composition; (ii) at least one chain extender (KV1) of general formula (I), wherein A is selected from O, N(R3), S, CH 2 , Q is selected from O, N(R3), S, CH 2 , R1 is selected from CH 2 -(CH 2 ) n -OH, CH(CH 3 )-CH 2 -OH, OH, R2 is selected from CH 2 -(CH 2 ) n -OH, CH(CH 3 )-CH 2 -OH, CH 2 -CH(CH 3 )-OH, OH, n is 0, 1, 2, 3, 4, 5 or 6, R3 is selected from CH 3 , CH 2 -CH 3 , and A and Q are not simultaneously CH 2 , Q is selected from O, N(R3), S, CH 2 , R1 is selected from CH 2 -(CH 2 ) n -OH, CH(CH 3 )-CH 2 -OH, OH, R2 is selected from CH 2 -(CH 2 ) n -OH, CH(CH 3 )-CH 2 -OH, CH 2 -CH(CH 3 )-OH, OH, n is 0, 1, 2, 3, 4, 5 or 6, R3 is selected from CH 3 , CH 2 -CH 3 , and A and Q are not simultaneously CH 2 , (iii) at least one polyol composition, wherein the polyisocyanate composition comprises 4,4'-diphenylmethane diisocyanate (4,4'-MDI) and at least one further polyisocyanate, wherein the polyol composition comprises a polyol selected from the group consisting of polytetrahydrofurans having a number-average molecular weight Mn in the range from 500 g/mol to 5000 g/mol.
A method for configuring a private line service in a virtual network, comprising: detecting , by a first device (Leaf 1), a state of each user side port (U1 or U2) of the first device (Leaf 1) in a bridge domain, wherein the bridge domain comprises one or two user side ports (U1, U2) of the first device (Leaf 1), and the state of a user side port (U1, U2) includes a usable state indicating that the user side port (U1, U2) is up, and an unusable state indicating that the user side port (U1, U2) is down, wherein the first device (Leaf 1) is an access network device directly connected to a first host (Host 1), the first host (Host 1) accesses one user side port (U1 or U2) of the one or two user side ports (U1, U2) of the first device (Leaf 1) and a user side port (U3 or U4) of a second device (Leaf 2) by using a multi-chassis link bundling technology, the second device (Leaf 2) is an access network device directly connected to the first host (Host 1), the first device (Leaf 1) is different from the second device (Leaf 2); the first device (Leaf 1) comprises a port (P1) of a peer-link, the peer-link connecting the first device (Leaf 1) and the second device (Leaf 2); and when it is detected that each of the one or two user side ports (U1, U2) of the first device (Leaf 1) in the bridge domain is in a usable state, removing, by the first device (Leaf 1), the port (P1) of the peer link from a broadcast domain corresponding to the bridge domain, so that no traffic passes through the port (P1) of the peer-link. detecting , by a first device (Leaf 1), a state of each user side port (U1 or U2) of the first device (Leaf 1) in a bridge domain, wherein the bridge domain comprises one or two user side ports (U1, U2) of the first device (Leaf 1), and the state of a user side port (U1, U2) includes a usable state indicating that the user side port (U1, U2) is up, and an unusable state indicating that the user side port (U1, U2) is down, wherein the first device (Leaf 1) is an access network device directly connected to a first host (Host 1), the first host (Host 1) accesses one user side port (U1 or U2) of the one or two user side ports (U1, U2) of the first device (Leaf 1) and a user side port (U3 or U4) of a second device (Leaf 2) by using a multi-chassis link bundling technology, the second device (Leaf 2) is an access network device directly connected to the first host (Host 1), the first device (Leaf 1) is different from the second device (Leaf 2); the first device (Leaf 1) comprises a port (P1) of a peer-link, the peer-link connecting the first device (Leaf 1) and the second device (Leaf 2); and when it is detected that each of the one or two user side ports (U1, U2) of the first device (Leaf 1) in the bridge domain is in a usable state, removing, by the first device (Leaf 1), the port (P1) of the peer link from a broadcast domain corresponding to the bridge domain, so that no traffic passes through the port (P1) of the peer-link.
An epoxy composition comprising a) a cycloaliphatic epoxy resin; b) a curing agent; and c) a bio-based epoxy compound having a structure I: wherein said bio-based epoxy compound having a structure I consists of 100% bio-based carbon atoms according ASTM D6866. a) a cycloaliphatic epoxy resin; b) a curing agent; and c) a bio-based epoxy compound having a structure I: wherein said bio-based epoxy compound having a structure I consists of 100% bio-based carbon atoms according ASTM D6866.
Dish washer comprising a washing chamber and a detergent dispenser , the detergent dispenser comprising a detergent chamber for retaining a detergent; the detergent chamber further comprises an inlet being connectable to a main pump of the dish washer by means of a conduit or hose and a first valve which is openable and closable for connecting and disconnecting the inlet to and from the main pump , and an outlet providing a permanent fluid communication between the detergent chamber and the washing chamber , characterized in that the dish washer further comprises a second valve between first valve and the interior of the detergent chamber having an valve inlet and an valve outlet where the valve inlet is in fluid communication with the first valve by means of a conduit or hose and the valve outlet is in fluid communication with the detergent chamber , the second valve being construed to open when a pressure load above a predetermined minimum pressure load is present at the valve inlet in order to provide the connection between the main pump and the detergent chamber and to close when the pressure load is below the predetermined minimum pressure load.
A load detector , comprising: a first beam-type load cell which is supported on a first support base in a cantilever manner to have a free end; a second beam-type load cell which is disposed to face the first beam-type load cell and which is supported on a second support base in a cantilever manner to have a free end; a placement part on which a rolling body is to be placed, and which includes a first connection part (C1) connected to the first beam-type load cell , a second connection part (C2) connected to the second beam-type load cell , and a pair of walls, the placement part being disposed between the first beam-type load cell and the second beam-type load cell ; and a restriction member which is detachably attached to at least one of the pair of walls of the placement part , and which is configured to restrict a posture of the rolling body on the placement part , wherein the free end of the first beam-type load cell and the free end of the second beam-type load cell face opposite directions to each other in an extending direction of the first beam-type load cell , and the first connection part (C1) of the placement part is connected to the first beam-type load cell on a side of the free end of the first beam-type load cell and the second connection part (C2) of the placement part is connected to the second beam-type load cell on a side of the free end of the second beam-type load cell . a first beam-type load cell which is supported on a first support base in a cantilever manner to have a free end; a second beam-type load cell which is disposed to face the first beam-type load cell and which is supported on a second support base in a cantilever manner to have a free end; a placement part on which a rolling body is to be placed, and which includes a first connection part (C1) connected to the first beam-type load cell , a second connection part (C2) connected to the second beam-type load cell , and a pair of walls, the placement part being disposed between the first beam-type load cell and the second beam-type load cell ; and a restriction member which is detachably attached to at least one of the pair of walls of the placement part , and which is configured to restrict a posture of the rolling body on the placement part , wherein the free end of the first beam-type load cell and the free end of the second beam-type load cell face opposite directions to each other in an extending direction of the first beam-type load cell , and the first connection part (C1) of the placement part is connected to the first beam-type load cell on a side of the free end of the first beam-type load cell and the second connection part (C2) of the placement part is connected to the second beam-type load cell on a side of the free end of the second beam-type load cell .
An electric working machine , for example, an electric power tool, comprising: a motor ; a drive current path configured to supply a drive current to the motor, the drive current being supplied to the motor to drive the motor; a resistor disposed on the drive current path so as to receive the drive current; a first current detector configured to detect a first detection value based on a first electromagnetic phenomenon with respect to the resistor, the first detection value indicating a magnitude of the drive current, the first electromagnetic phenomenon varying in accordance with a flow of the drive current through the resistor; characterised by a second current detector configured to detect a second detection value based on a second electromagnetic phenomenon with respect to the resistor, the second detection value indicating the magnitude of the drive current, the second electromagnetic phenomenon varying in accordance with the flow of the drive current through the resistor, the second electromagnetic phenomenon being different from the first electromagnetic phenomenon; and a fault determiner configured to perform a faulty state determination based on the first detection value and the second detection value, and to determine whether the first current detector or the second current detector is in a faulty state during the faulty state determination. a motor ; a drive current path configured to supply a drive current to the motor, the drive current being supplied to the motor to drive the motor; a resistor disposed on the drive current path so as to receive the drive current; a first current detector configured to detect a first detection value based on a first electromagnetic phenomenon with respect to the resistor, the first detection value indicating a magnitude of the drive current, the first electromagnetic phenomenon varying in accordance with a flow of the drive current through the resistor; characterised by a second current detector configured to detect a second detection value based on a second electromagnetic phenomenon with respect to the resistor, the second detection value indicating the magnitude of the drive current, the second electromagnetic phenomenon varying in accordance with the flow of the drive current through the resistor, the second electromagnetic phenomenon being different from the first electromagnetic phenomenon; and a fault determiner configured to perform a faulty state determination based on the first detection value and the second detection value, and to determine whether the first current detector or the second current detector is in a faulty state during the faulty state determination.
A modal tailboom flight control system configured to be attached to a compound helicopter , the modal tailboom flight control system being operable in a plurality of modes including a forward thrust mode and an anti-torque mode, the modal tailboom flight control system comprising: a tailboom ; a drivetrain extending through the tailboom ; an anti-torque system coupled to the drivetrain and rotatable to generate anti-torque thrust for the compound helicopter in the anti-torque mode; and a pusher propeller coupled to the drivetrain and rotatable to generate forward thrust for the compound helicopter in the forward thrust mode; 2. characterized in that the pusher propeller is positioned forward of the anti-torque system . a tailboom ; a drivetrain extending through the tailboom ; an anti-torque system coupled to the drivetrain and rotatable to generate anti-torque thrust for the compound helicopter in the anti-torque mode; and a pusher propeller coupled to the drivetrain and rotatable to generate forward thrust for the compound helicopter in the forward thrust mode; 2. characterized in that the pusher propeller is positioned forward of the anti-torque system .
A compound of the Formula: wherein R1 is or and wherein R2 is H or OH, or a pharmaceutically acceptable salt thereof. wherein R1 is or and wherein R2 is H or OH, or a pharmaceutically acceptable salt thereof.
A method for estimation of background noise in an audio signal, the method comprising: - obtaining at least one parameter associated with an input audio signal segment based on: - a first linear prediction gain calculated as a quotient between an energy of the input signal and a residual signal energy from a first linear prediction for the audio signal segment; and - a second linear prediction gain calculated as a quotient between the residual signal energy from the first linear prediction and a residual signal energy from a second linear prediction for the audio signal segment; - determining whether the audio signal segment comprises a pause free of speech and music, based at least on the at least one parameter; and: if the audio signal segment is determined to comprise a pause: - updating a background noise estimate based on the audio signal segment. - obtaining at least one parameter associated with an input audio signal segment based on: - a first linear prediction gain calculated as a quotient between an energy of the input signal and a residual signal energy from a first linear prediction for the audio signal segment; and - a second linear prediction gain calculated as a quotient between the residual signal energy from the first linear prediction and a residual signal energy from a second linear prediction for the audio signal segment; - a first linear prediction gain calculated as a quotient between an energy of the input signal and a residual signal energy from a first linear prediction for the audio signal segment; and - a second linear prediction gain calculated as a quotient between the residual signal energy from the first linear prediction and a residual signal energy from a second linear prediction for the audio signal segment; - determining whether the audio signal segment comprises a pause free of speech and music, based at least on the at least one parameter; and: if the audio signal segment is determined to comprise a pause: - updating a background noise estimate based on the audio signal segment. - updating a background noise estimate based on the audio signal segment.
An ophthalmic laser system, comprising: a laser engine configured to generate a beam of femtosecond laser pulses; a laser scanner configured to scan each laser pulse of the beam in three dimensions according to a scan pattern; the system being characterised by further comprising: a compound lens comprising a glass lens and at least one birefringent lens , the compound lens arranged to receive the scanned beam and configured to split each laser pulse of the scanned beam into an ordinary pulse and an extraordinary pulse, thereby producing an ordinary beam comprising ordinary pulses and an extraordinary beam comprising extraordinary pulses, wherein a particular ordinary pulse and a particular extraordinary pulse split from a particular laser pulse are spatially separated in depth along an optical axis of the compound lens, by a distance greater than or equal to 5μm, and temporally separated by a delay greater than or equal to a pulse duration of the femtosecond laser pulses; and an objective configured to focus the ordinary beam and the extraordinary beam within an ophthalmic target. a laser engine configured to generate a beam of femtosecond laser pulses; a laser scanner configured to scan each laser pulse of the beam in three dimensions according to a scan pattern; the system being characterised by further comprising: a compound lens comprising a glass lens and at least one birefringent lens , the compound lens arranged to receive the scanned beam and configured to split each laser pulse of the scanned beam into an ordinary pulse and an extraordinary pulse, thereby producing an ordinary beam comprising ordinary pulses and an extraordinary beam comprising extraordinary pulses, wherein a particular ordinary pulse and a particular extraordinary pulse split from a particular laser pulse are spatially separated in depth along an optical axis of the compound lens, by a distance greater than or equal to 5μm, and temporally separated by a delay greater than or equal to a pulse duration of the femtosecond laser pulses; and an objective configured to focus the ordinary beam and the extraordinary beam within an ophthalmic target. a compound lens comprising a glass lens and at least one birefringent lens , the compound lens arranged to receive the scanned beam and configured to split each laser pulse of the scanned beam into an ordinary pulse and an extraordinary pulse, thereby producing an ordinary beam comprising ordinary pulses and an extraordinary beam comprising extraordinary pulses, wherein a particular ordinary pulse and a particular extraordinary pulse split from a particular laser pulse are spatially separated in depth along an optical axis of the compound lens, by a distance greater than or equal to 5μm, and temporally separated by a delay greater than or equal to a pulse duration of the femtosecond laser pulses; and an objective configured to focus the ordinary beam and the extraordinary beam within an ophthalmic target.
A method for projecting a marking within a rotor blade of a wind turbine, wherein the rotor blade has a rotor blade longitudinal axis , a rotor blade inner surface , a blade connection for connecting to a rotor hub, and a floor plate that is arranged basically perpendicular to the rotor blade longitudinal axis , characterized by the steps: - identifying a point of intersection of the rotor blade longitudinal axis with the floor plate , - mounting a projection apparatus on the floor plate , and aligning the projection apparatus relative to the rotor blade longitudinal axis , - projecting a marking on the rotor blade inner surface using the projection apparatus , wherein - the projection apparatus comprises a rotating laser , wherein the rotating laser produces a first laser area that runs basically perpendicular to the rotor blade longitudinal axis , and wherein - the projection apparatus furthermore comprises a cross-hair laser , wherein the cross-hair laser produces at least one second laser area and one third laser area that run parallel to the rotor blade longitudinal axis and intersect the first laser area of the rotating laser , wherein the points of intersection of the first laser area with the second laser area , and the points of intersection of the first laser area with the third laser area form the projected markings . - identifying a point of intersection of the rotor blade longitudinal axis with the floor plate , - mounting a projection apparatus on the floor plate , and aligning the projection apparatus relative to the rotor blade longitudinal axis , - projecting a marking on the rotor blade inner surface using the projection apparatus , wherein - the projection apparatus comprises a rotating laser , wherein the rotating laser produces a first laser area that runs basically perpendicular to the rotor blade longitudinal axis , and wherein - the projection apparatus furthermore comprises a cross-hair laser , wherein the cross-hair laser produces at least one second laser area and one third laser area that run parallel to the rotor blade longitudinal axis and intersect the first laser area of the rotating laser , wherein the points of intersection of the first laser area with the second laser area , and the points of intersection of the first laser area with the third laser area form the projected markings .
A method comprising: Encoding data information to be transmitted from a source station to a destination station over a resource unit, also referred to as RU, in an orthogonal frequency division multiplexing, also referred to as OFDM, wireless local area network; modulating encoded bits to a first set of modulated symbols using a first binary phase-shift keying, also referred to as BPSK, modulation scheme; modulating the same encoded bits to a second set of modulated symbols using a second binary phase-shift keying, BPSK, modulation scheme if dual carrier modulation, also referred to as DCM, is applied; and transmitting a data packet containing the modulated symbols to the destination station, wherein the first set of modulated symbols is mapped onto a first half of frequency subcarriers of the RU and the second set of modulated symbols is mapped onto a second half of frequency subcarriers of the RU if DCM is applied, characterized in that the first set of modulated symbols is s n for subcarrier n, wherein the second set of modulated symbols is s m for subcarrier m, and wherein s m = s n *e j*(pi)*m , n and m are subcarrier indexes. Encoding data information to be transmitted from a source station to a destination station over a resource unit, also referred to as RU, in an orthogonal frequency division multiplexing, also referred to as OFDM, wireless local area network; modulating encoded bits to a first set of modulated symbols using a first binary phase-shift keying, also referred to as BPSK, modulation scheme; modulating the same encoded bits to a second set of modulated symbols using a second binary phase-shift keying, BPSK, modulation scheme if dual carrier modulation, also referred to as DCM, is applied; and transmitting a data packet containing the modulated symbols to the destination station, wherein the first set of modulated symbols is mapped onto a first half of frequency subcarriers of the RU and the second set of modulated symbols is mapped onto a second half of frequency subcarriers of the RU if DCM is applied, characterized in that the first set of modulated symbols is s n for subcarrier n, wherein the second set of modulated symbols is s m for subcarrier m, and wherein s m = s n *e j*(pi)*m , n and m are subcarrier indexes.