mhurhangee/patent-ind-claim-en huggingface dataset:
A gas turbine engine comprising: a turbine blade extending radially outwardly to a radially outer tip and for rotation about an axis of rotation (Z); and a blade outer air seal positioned radially outwardly of said radially outer tip of said turbine blade , said blade outer air seal having a forward hook at an axially forward location and an aft hook at an axially aft location, with an axial direction being defined by a rotational axis of said turbine blade , said blade outer air seal having a central web extending axially between said forward and aft hooks , and said forward and aft hooks extending generally radially outward from said central web , and having slots for being received on forward and aft support hooks of a blade outer air seal support , wherein said blade outer air seal is formed of a plurality of laminates; characterised in that : each of said forward and aft hooks includes at least one central laminate and a forward most and an aft most laminate , said at least one central laminate includes a plurality of laminates, and said at least one central laminate is formed as a separate portion that does not form part of the central web , with both said forward most and aft most laminates extending from said forward and aft hooks into portions extending along said central web . a turbine blade extending radially outwardly to a radially outer tip and for rotation about an axis of rotation (Z); and a blade outer air seal positioned radially outwardly of said radially outer tip of said turbine blade , said blade outer air seal having a forward hook at an axially forward location and an aft hook at an axially aft location, with an axial direction being defined by a rotational axis of said turbine blade , said blade outer air seal having a central web extending axially between said forward and aft hooks , and said forward and aft hooks extending generally radially outward from said central web , and having slots for being received on forward and aft support hooks of a blade outer air seal support , wherein said blade outer air seal is formed of a plurality of laminates; characterised in that : each of said forward and aft hooks includes at least one central laminate and a forward most and an aft most laminate , said at least one central laminate includes a plurality of laminates, and said at least one central laminate is formed as a separate portion that does not form part of the central web , with both said forward most and aft most laminates extending from said forward and aft hooks into portions extending along said central web .
An inlet flow distortion control system for an aircraft fan jet, comprising: a plurality of flow control devices integrated into an internal surface of the inlet forming at least one array , said at least one array extending over an azimuthal range relative to a normal flow axis of the inlet and having a plurality of circumferential rows spaced at an increasing axial distance from a highlight of the inlet; and, a control system operably connected to the plurality of flow control devices, said control system adapted to activate flow control devices in selected subarrays of the at least one array responsive to an inlet flow state indicated by a predetermined flight condition or measured flow parameters within the inlet; wherein the at least one array comprises a right array having an azimuthal range determined based on a flow separation domain for a right crosswind, and a left array having an azimuthal range determined based on a flow separation domain for a left crosswind; and wherein the left array and right array each comprise a plurality of circumferential rows spaced at increasing first, second, third and fourth axial distances from the highlight of the inlet. a plurality of flow control devices integrated into an internal surface of the inlet forming at least one array , said at least one array extending over an azimuthal range relative to a normal flow axis of the inlet and having a plurality of circumferential rows spaced at an increasing axial distance from a highlight of the inlet; and, a control system operably connected to the plurality of flow control devices, said control system adapted to activate flow control devices in selected subarrays of the at least one array responsive to an inlet flow state indicated by a predetermined flight condition or measured flow parameters within the inlet; wherein the at least one array comprises a right array having an azimuthal range determined based on a flow separation domain for a right crosswind, and a left array having an azimuthal range determined based on a flow separation domain for a left crosswind; and wherein
A method of manufacturing an energy storage apparatus which includes a plurality of energy storage devices each provided with a positive electrode terminal and a negative electrode terminal having terminal height measuring portions respectively which differ in a surface shape, the method comprising: measuring a height of the terminal height measuring portion of the positive electrode terminal and a height of the terminal height measuring portion of the negative electrode terminal ; and comparing the measured height of the positive electrode terminal and the measured height of the negative electrode terminal with a reference value. measuring a height of the terminal height measuring portion of the positive electrode terminal and a height of the terminal height measuring portion of the negative electrode terminal ; and comparing the measured height of the positive electrode terminal and the measured height of the negative electrode terminal with a reference value.
A polypeptide having cellobiohydrolase activity, selected from the group consisting of: (a) a polypeptide having at least 82% sequence identity to amino acids 26 to 525 of SEQ ID NO: 2; and (b) a fragment of the polypeptide of (a) that has cellobiohydrolase activity. (a) a polypeptide having at least 82% sequence identity to amino acids 26 to 525 of SEQ ID NO: 2; and (b) a fragment of the polypeptide of (a) that has cellobiohydrolase activity.
A stress-isolated pressure sensor comprising: a cavity bounded by a rim ; a microelectromechanical system (MEMS) pressure sensing element configured to be suspended inside the cavity , the MEMS pressure sensing element comprising a thin diaphragm having piezoresistors , wherein the thin diaphragm is formed from a semiconductor material; a plurality of suspenders extending between the rim and the MEMS pressure sensing element and supporting the MEMS pressure sensing element in the cavity , wherein the suspenders support the thin diaphragm, characterized in that the suspenders are flexible and doped to be electrically conductive and formed from the same semiconductor material which comprises the thin diaphragm . a cavity bounded by a rim ; a microelectromechanical system (MEMS) pressure sensing element configured to be suspended inside the cavity , the MEMS pressure sensing element comprising a thin diaphragm having piezoresistors , wherein the thin diaphragm is formed from a semiconductor material; a plurality of suspenders extending between the rim and the MEMS pressure sensing element and supporting the MEMS pressure sensing element in the cavity , wherein the suspenders support the thin diaphragm, characterized in that the suspenders are flexible and doped to be electrically conductive and formed from the same semiconductor material which comprises the thin diaphragm .
Pouring element (A) for a composite packaging (P), in particular for a beverage carton for liquid foodstuffs, comprising a basic body having a fastening flange and a pouring tube , a cutting element which is arranged and guided in the pouring tube and a closure cap which can be joined to the basic body , wherein during actuation for the first time, the cutting element can be driven by first drive means formed on the closure cap and by second drive means formed on the inner wall of the cutting element and wherein the movement of the cutting element follows different gradients, characterised in that the second drive means is configured as a rib extending obliquely to and thus includes an angle (α) with the longitudinal direction of the cutting element , in that the end face of the rib projects partly above its rib foot and in that the rib includes an acute valley angle (β) between the inner wall of the cutting element and the contact area of the rib on its drive-side rib foot.
A system for generating biological products, the system comprising: a first substrate having formed therein a number of inlet channels extending substantially along a longitudinal direction; a second substrate having formed therein a number of outlet channels corresponding to the number of inlet channels and extending substantially along the longitudinal direction, the second substrate configured to releasably engage the first substrate ; and arranged between adjacent surfaces of the substrates , a permeable membrane forming microfluidic pathways between the respective inlet and outlet channels and configured to selectively capture biological source material capable of generating biological products, wherein in a cross-sectional view of the system that includes the longitudinal direction and a height direction at least one of a given inlet channel or a given outlet channel corresponding to the given inlet channel is tapered relative to the longitudinal direction at a first angle to control a pressure differential profile regulating perfusion of a fluid medium through the permeable membrane , and wherein the tapering of the at least one of the given inlet channel or the given outlet channel relative to the longitudinal direction adjusts a shear stress in the channels. a first substrate having formed therein a number of inlet channels extending substantially along a longitudinal direction; a second substrate having formed therein a number of outlet channels corresponding to the number of inlet channels and extending substantially along the longitudinal direction, the second substrate configured to releasably engage the first substrate ; and arranged between adjacent surfaces of the substrates , a permeable membrane forming microfluidic pathways between the respective inlet and outlet channels and configured to selectively capture biological source material capable of generating biological products, wherein in a cross-sectional view of the system that includes the longitudinal direction and a height direction at least one of a given inlet channel or a given outlet channel corresponding to the given inlet channel is tapered relative to the longitudinal direction at a first angle to control a pressure differential profile regulating perfusion of a fluid medium through the permeable membrane , and wherein the tapering of the at least one of the given inlet channel or the given outlet channel relative to the longitudinal direction adjusts a shear stress in the channels.
A vehicle comprising an audio system , the audio system comprising: a first loudspeaker positioned in a driver door of the vehicle to transmit a first audio signal to a front passenger of the vehicle ; a second loudspeaker positioned in a front passenger door of the vehicle to transmit a second audio signal to a driver of the vehicle ; and an audio controller configured to: provide a first voltage to the first loudspeaker that coincides with a first overall excursion capacity of the first loudspeaker over a predetermined frequency range while transmitting the first audio signal to the front passenger; and provide a second voltage to the second loudspeaker that coincides with a second overall excursion capacity of the second loudspeaker over the predetermined a frequency range while transmitting the second audio signal to the driver, wherein the first overall excursion capacity is lower than the second overall excursion capacity; wherein the second voltage is greater than the first voltage over the predetermined frequency range such that the second overall excursion of the second loudspeaker is greater than the first overall excursion of the first loudspeaker over the predetermined frequency range. a first loudspeaker positioned in a driver door of the vehicle to transmit a first audio signal to a front passenger of the vehicle ; a second loudspeaker positioned in a front passenger door of the vehicle to transmit a second audio signal to a driver of the vehicle ; and an audio controller configured to: provide a first voltage to the first loudspeaker that coincides with a first overall excursion capacity of the first loudspeaker over a predetermined frequency range while transmitting the first audio signal to the front passenger; and provide a second voltage to the second loudspeaker that coincides with a second overall excursion capacity of the second loudspeaker over the predetermined a frequency range while transmitting the second audio signal to the driver, provide a first voltage to the first loudspeaker that coincides with a first overall excursion capacity of the first loudspeaker over a predetermined frequency range while transmitting the first audio signal to the front passenger; and provide a second voltage to the second loudspeaker that coincides with a second overall excursion capacity of the second loudspeaker over the predetermined a frequency range while transmitting the second audio signal to the driver, wherein the first overall excursion capacity is lower than the second overall excursion capacity; wherein the second voltage is greater than the first voltage over the predetermined frequency range such that the second overall excursion of the second loudspeaker is greater than the first overall excursion of the first loudspeaker over the predetermined frequency range.
A device for the controlled removal of piles from a pile fabric comprising: a first cylinder rotating relative to an axis X and comprising relief portions designed to come into contact with a surface having a plurality of piles of the pile fabric , a second cylinder rotating relative to an axis Y parallel to the axis X, the first cylinder and the second cylinder defining a zone for processing the fabric for removing the piles at the relief portions , said device being characterized in that said second cylinder is movable towards the first cylinder , the second cylinder comprises a plurality of rigid bristles designed to come into with a surface of the fabric which is opposite to that with the plurality of piles a first cylinder rotating relative to an axis X and comprising relief portions designed to come into contact with a surface having a plurality of piles of the pile fabric , a second cylinder rotating relative to an axis Y parallel to the axis X, the first cylinder and the second cylinder defining a zone for processing the fabric for removing the piles at the relief portions , said device being characterized in that said second cylinder is movable towards the first cylinder , the second cylinder comprises a plurality of rigid bristles designed to come into with a surface of the fabric which is opposite to that with the plurality of piles
Device , in particular a visor mechanism, for displacing a visor on a helmet , having 1.1. a helmet connection means for connecting the device to the helmet , 1.2. a visor connection means for connecting the device to the visor , and 1.3. a guidance means for the guided displacement of the visor connection means relative to the helmet connection means between 1.3.1. a closed position in which the visor is closed, 1.3.2. an open position in which the visor is open, 1.3.3. a transfer position between the closed position and the open position, characterised by 1.4. at least one biasing means for biasing the visor connection means arranged in the transfer position in the direction of the closed position and in the direction of the open position. 1.1. a helmet connection means for connecting the device to the helmet , 1.2. a visor connection means for connecting the device to the visor , and 1.3. a guidance means for the guided displacement of the visor connection means relative to the helmet connection means between 1.3.1. a closed position in which the visor is closed, 1.3.2. an open position in which the visor is open, 1.3.3. a transfer position between the closed position and the open position, characterised by 1.3.1. a closed position in which the visor is closed, 1.3.2. an open position in which the visor is open, 1.3.3. a transfer position between the closed position and the open position, 1.4. at least one biasing means for biasing the visor connection means arranged in the transfer position in the direction of the closed position and in the direction of the open position.
A method of manufacturing a wind turbine blade , the method comprising: providing a mould for a shell of the wind turbine blade, the mould extending in a longitudinal direction from a root end to a tip end ; providing a plurality of elongated root inserts ; providing a root plate with a plurality of arcuately arranged connection points ; at the connection points , connecting the root inserts to the root plate , such that the connected root inserts jointly form a contour of a portion of a root section of the wind turbine blade; and positioning the root plate relative to the mould in order to place the contour formed by the root inserts at least partially into the mould, wherein the method further comprises providing a spacer having a decreasing thickness, and wherein the connecting of the root inserts to the root plate comprises providing the spacer between the root inserts and the root plate. providing a mould for a shell of the wind turbine blade, the mould extending in a longitudinal direction from a root end to a tip end ; providing a plurality of elongated root inserts ; providing a root plate with a plurality of arcuately arranged connection points ; at the connection points , connecting the root inserts to the root plate , such that the connected root inserts jointly form a contour of a portion of a root section of the wind turbine blade; and positioning the root plate relative to the mould in order to place the contour formed by the root inserts at least partially into the mould, wherein the method further comprises providing a spacer having a decreasing thickness, and wherein the connecting of the root inserts to the root plate comprises providing the spacer between the root inserts and the root plate.
Power component for providing an electrical heavy current , comprising a plurality of semiconductor current valves (14 1 , 14 2 , 14 3 ), each comprising a current input (D), a current output (S) and a control connection (G) for controlling the current between current input (D) and current output (S), wherein the semiconductor current valves (14 1 , 14 2 , 14 3 ) are operable simultaneously in parallel, and comprising a switching means (17 1 , 17 2 , 17 3 ), which is interconnected with the semiconductor current valves (14 1 , 14 2 , 14 3 ) in such a way that the number of semiconductor current valves (14 1 , 14 2 , 14 3 ) which are operated in parallel for controlling the intensity of the current is settable by means of a switching means state defined with a parametrizable register.
A matrix for a magnetic separator , comprising: wavelike plate-shaped magnetic walls each having an orderly structure in which wave-shaped bent sections each having a wave height h and formed in either an approximately inverted V-shape or an approximately inverted U-shape are continuously and repeatedly formed in a wave advancing direction; and a box-shaped housing part housing the magnetic walls and having in opposite surfaces (40a, 40d; 40b, 40c; 41a, 41d; 41b, 41c) of the housing part respectively, an introducing part and a discharging part through which a sorting target fluid including a magnetically attractable substance magnetically attractable to the magnetic walls can be passed into and out from the housing part, wherein the magnetic walls are arranged in juxtaposition in a state that convex shapes of the wave-shaped bent sections in one magnetic wall of the magnetic walls and concave shapes of the wave-shaped bent sections in another magnetic wall of the magnetic walls that is adjacent to the one magnetic wall face each other with a constant interval therebetween, characterized in that the wave height h is 1 mm or less and further in that the ratio of inter-vertex pitch p and wave height h (p/h) is ≥ 2.72 and ≤ 20.0. wavelike plate-shaped magnetic walls each having an orderly structure in which wave-shaped bent sections each having a wave height h and formed in either an approximately inverted V-shape or an approximately inverted U-shape are continuously and repeatedly formed in a wave advancing direction; and a box-shaped housing part housing the magnetic walls and having in opposite surfaces (40a, 40d; 40b, 40c; 41a, 41d; 41b, 41c) of the housing part respectively, an introducing part and a discharging part through which a sorting target fluid including a magnetically attractable substance magnetically attractable to the magnetic walls can be passed into and out from the housing part, wherein the magnetic walls are arranged in juxtaposition in a state that convex shapes of the wave-shaped bent sections in one magnetic wall of the magnetic walls and concave shapes of the wave-shaped bent sections in another magnetic wall of the magnetic walls that is adjacent to the one magnetic wall face each other with a constant interval therebetween, characterized in that the wave height h is 1 mm or less and further in that the ratio of inter-vertex pitch p and wave height h (p/h) is ≥ 2.72 and ≤ 20.0.
A rotational positioning system in a wind turbine, comprising a driven part , a plurality of positioning drives coupled to the driven part , and a plurality of sensors each arranged to sense a load parameter indicative of the load of the respective positioning drive , characterised by a load controller (112, 113, 114, 1 15) connected to the plurality of sensors , and arranged to determine a load of a respective positioning drive based on the sensed load parameter, to compare said load with an expected load value, and to output a signal indicative of a failure of the respective positioning drive in response to the load being smaller than the expected load value.