mhurhangee/ep-ind-claims huggingface dataset:
A method for performing a diffusion weighted magnetic resonance measurement on a sample, the method comprising: operating a magnetic resonance scanner to apply a diffusion encoding sequence to the sample; and operating the magnetic resonance scanner to acquire from the sample one or more echo signals; wherein the diffusion encoding sequence comprises a diffusion encoding time-dependent magnetic field gradient g(t) with non-zero components g l ( t) along at least two orthogonal directions y and z, and a b-tensor having at least two non-zero eigenvalues, the magnetic field gradient comprising a first and subsequent second encoding block (10, 20), wherein an n-th order gradient moment magnitude along direction l ∈ (y,z) is given by M nl t = ∫ 0 t g l t ′ t ′ n dt ′, and the first encoding block is adapted to yield, at an end of the first encoding block: along said direction y, |M ny ( t)| ≤ T n for each 0 ≤ n ≤ m, where T n is a predetermined n -th order threshold, and along said direction z, |M ny ( t)| ≤ T n for each 0 ≤ n ≤ m - 1 and |M nz ( t)| > T n for n = m; and the second encoding block is adapted to yield, at an end of the second encoding block: along each one of said directions l ∈ (y,z): |M nl ( t)| ≤ T n for each 0 ≤ n ≤ m, wherein m is an integer order equal to or greater than 1. operating a magnetic resonance scanner to apply a diffusion encoding sequence to the sample; and operating the magnetic resonance scanner to acquire from the sample one or more echo signals; wherein the diffusion encoding sequence comprises a diffusion encoding time-dependent magnetic field gradient g(t) with non-zero components g l ( t) along at least two orthogonal directions y and z, and a b-tensor having at least two non-zero eigenvalues, the magnetic field gradient comprising a first and subsequent second encoding block (10, 20), wherein an n-th order gradient moment magnitude along direction l ∈ (y,z) is given by M nl t = ∫ 0 t g l t ′ t ′ n dt ′, and the first encoding block is adapted to yield, at an end of the first encoding block: along said direction y, |M ny ( t)| ≤ T n for each 0 ≤ n ≤ m, where T n is a predetermined n -th order threshold, and along said direction z, |M ny ( t)| ≤ T n for each 0 ≤ n ≤ m - 1 and |M nz ( t)| > T n for n = m; and along said direction y, |M ny ( t)| ≤ T n for each 0 ≤ n ≤ m, where T n is a predetermined n -th order threshold, and along said direction z, |M ny ( t)| ≤ T n for each 0 ≤ n ≤ m - 1 and |M nz ( t)| > T n for n = m; and the second encoding block is adapted to yield, at an end of the second encoding block: along each one of said directions l ∈ (y,z): |M nl ( t)| ≤ T n for each 0 ≤ n ≤ m, wherein m is an integer order equal to or greater than 1.
A rotor brake for a wind turbine, which has a first and a second pressure reduction valve (28, 38) via which a brake cylinder can be pressurised by a first and a second hydraulic pressure (p B, p H) and which has a changeover device that switches between the first and the second hydraulic pressure (p B, p H), wherein the changeover device has a pressure relief valve and a pressure accumulator which switch a changeover valve between the first and the second pressure (p B, p H) with a time lag, characterised in that the pressure accumulator can be connected to a tank via the pressure relief valve and via a flow control valve.
A method performed by a terminal in a mobile communication system, the method comprising: receiving, from a base station, a message including first configuration information for a control resource set, CORESET, and second configuration information for a rate match pattern associated with a physical downlink shared channel, PDSCH; detecting a physical downlink control channel, PDCCH, in the CORESET identified based on the first configuration, the PDCCH scheduling the PDSCH; identifying resource elements, REs, associated with the PDSCH and a part of the REs being in the CORESET; and receiving, from the base station, at least one phase-tracking reference signal, PT-RS, for the PDSCH, wherein whether the at least one PT-RS is mapped to the part of the REs being in the CORESET is based on the rate match pattern according to the second configuration information. receiving, from a base station, a message including first configuration information for a control resource set, CORESET, and second configuration information for a rate match pattern associated with a physical downlink shared channel, PDSCH; detecting a physical downlink control channel, PDCCH, in the CORESET identified based on the first configuration, the PDCCH scheduling the PDSCH; identifying resource elements, REs, associated with the PDSCH and a part of the REs being in the CORESET; and receiving, from the base station, at least one phase-tracking reference signal, PT-RS, for the PDSCH, wherein whether the at least one PT-RS is mapped to the part of the REs being in the CORESET is based on the rate match pattern according to the second configuration information.
A device, comprising: a capacitance sensor layer; a transparent conductive grounded layer, wherein the conductive grounded layer is placed above a backlight of the display device and under the capacitance sensor layer in a direction opposite to a targeted sensing direction of the device and under a thin film transistor, TFT, layer, and the capacitance sensor layer is placed above the TFT layer; wherein the distance between the capacitance sensor layer and the conductive grounded layer is configured to remain within a threshold over a range of deformation; a first flexible printed circuit conductor, which is connected to the main ground of the device; and a second flexible printed circuit conductor, which is connected to the conductive grounded layer by a layer of conductive adhesive and to a LED, wherein the second flexible conductor includes a galvanic connection to the first flexible printed circuit and thereby provides a galvanic connection of the conductive grounded layer to the main ground of the device. a capacitance sensor layer; a transparent conductive grounded layer, wherein the conductive grounded layer is placed above a backlight of the display device and under the capacitance sensor layer in a direction opposite to a targeted sensing direction of the device and under a thin film transistor, TFT, layer, and the capacitance sensor layer is placed above the TFT layer; wherein the distance between the capacitance sensor layer and the conductive grounded layer is configured to remain within a threshold over a range of deformation; a first flexible printed circuit conductor, which is connected to the main ground of the device; and a second flexible printed circuit conductor, which is connected to the conductive grounded layer by a layer of conductive adhesive and to a LED, wherein the second flexible conductor includes a galvanic connection to the first flexible printed circuit and thereby provides a galvanic connection of the conductive grounded layer to the main ground of the device.
Waste heat utilization system for a waste heat source, comprising an ORC (Organic Rankine Cycle) which is connected downstream of the said waste heat source, wherein the waste heat source is connected to the heating apparatus of the ORC, and also having an expansion machine, which is coupled to a generator, for vapour expansion in the ORC, which expansion machine has a magnetic bearing having an associated control device and a power supply by means of a direct-current intermediate circuit of a generator frequency converter, characterized in that, in the event of a power supply system failure, the electrical energy which continues to be generated by the slowing-down generator is used to supply the magnetic bearing having the associated control device.
A heat radiation member made of a composite member made of a composite of magnesium or a magnesium alloy and SiC, characterized in that said heat radiation member contains more than 70 volume % said SiC, and said composite member has a coefficient of thermal expansion not lower than 4 ppm/K and not higher than 8 ppm/K and thermal conductivity not lower than 180 W/m•K.
A method of using multiple processors to calculate formulas in a spreadsheet program (200, 1000), comprising: determining the number of processors; allocating a recalculation engine to each processor; maintaining a control thread to synchronize the processing of the recalculation engines; ordering the formulas into a single calculation chain; attempting to evaluate a first formula in the single calculation chain with the first recalculation engine (708, 1120); if the first formula is dependent upon a first supporting formula, moving the first dependent formula and the first supporting formula to a queue for the first recalculation engine (706, 1122); attempting to evaluate a second formula in the single calculation chain with the second recalculation engine (708, 1124, 1138); if the second formula is dependent upon a second supporting formula, moving the second dependent formula and the second supporting formula to a queue for the second recalculation engine (710, 1138, 1140); and continuing to iterate down the single calculation chain until reaching the end of the chain (708, 706, 710, 1142); the method further comprising: emptying the queues of each recalculation engine for reordering (1122, 1140), wherein the first dependent formula is made a child of the first supporting formula and wherein the second dependent formula is made a child of the second supporting formula (802, 804), calculating the formulas. determining the number of processors; allocating a recalculation engine to each processor; maintaining a control thread to synchronize the processing of the recalculation engines; ordering the formulas into a single calculation chain; attempting to evaluate a first formula in the single calculation chain with the first recalculation engine (708, 1120); if the first formula is dependent upon a first supporting formula, moving the first dependent formula and the first supporting formula to a queue for the first recalculation engine (706, 1122); attempting to evaluate a second formula in the single calculation chain with the second recalculation engine (708, 1124, 1138); if the second formula is dependent upon a second supporting formula, moving the second dependent formula and the second supporting formula to a queue for the second recalculation engine (710, 1138, 1140); and continuing to iterate down the single calculation chain until reaching the end of the chain (708, 706, 710, 1142); the method further comprising: emptying the queues of each recalculation engine for reordering (1122, 1140), wherein the first dependent formula is made a child of the first supporting formula and wherein the second dependent formula is made a child of the second supporting formula (802, 804), calculating the formulas. emptying the queues of each recalculation engine for reordering (1122, 1140), wherein the first dependent formula is made a child of the first supporting formula and wherein the second dependent formula is made a child of the second supporting formula (802, 804), calculating the formulas.
A method of generating a root private key (k CAroot) and establishing a self-signed implicit certificate (IC CAroot) that can be operated on to obtain a corresponding root public key (Q CAroot), the method being performed in a certification authority device that issues certificates in a cryptographic system based on an underlying elliptic curve group of order n; the certification authority device having a cryptographic unit; the method comprising: the certification authority device generating an ephemeral private key (d CA) and a corresponding public-key reconstruction value (B CA); the certification authority device obtaining certificate data (I CA); the certification authority device operating on said public-key reconstruction value and said certificate data to obtain said self-signed implicit certificate (IC CAroot); and the certification authority device operating on said ephemeral private key (d CA) and said self-signed implicit certificate (IC CAroot) in said cryptographic unit to obtain said root private key (k CAroot); wherein said root private key is an integer of the form k CA root = ed CA + + (mod n); wherein d CA is said ephemeral private key, e is an integer derived using a hash of said self-signed implicit certificate (IC CAroot), and r is an integer, and wherein said integer r is either 0, 1, or d CA. the certification authority device generating an ephemeral private key (d CA) and a corresponding public-key reconstruction value (B CA); the certification authority device obtaining certificate data (I CA); the certification authority device operating on said public-key reconstruction value and said certificate data to obtain said self-signed implicit certificate (IC CAroot); and the certification authority device operating on said ephemeral private key (d CA) and said self-signed implicit certificate (IC CAroot) in said cryptographic unit to obtain said root private key (k CAroot); wherein said root private key is an integer of the form k CA root = ed CA + + (mod n); wherein d CA is said ephemeral private key, e is an integer derived using a hash of said self-signed implicit certificate (IC CAroot), and r is an integer, and wherein said integer r is either 0, 1, or d CA.
A gas turbine engine, comprising: a shaft, a fan section, a low pressure compressor section, and at least one bearing compartment; an accessory gearbox connected to the shaft, the accessory gearbox being driven by the shaft and adapted to mechanically drive one or more engine accessories; characterised by a centrifugal compressor driven by the accessory gearbox during operation of the gas turbine engine for receiving a bleed air and compressing the bleed air to produce the buffer air and/or the ventilation air the centrifugal compressor being configured to compress air from the fan section and/or the low pressure compressor section, wherein the compressed bleed air is communicated from the centrifugal compressor to the shaft and/or the at least one bearing compartment. a shaft, a fan section, a low pressure compressor section, and at least one bearing compartment; an accessory gearbox connected to the shaft, the accessory gearbox being driven by the shaft and adapted to mechanically drive one or more engine accessories; characterised by a centrifugal compressor driven by the accessory gearbox during operation of the gas turbine engine for receiving a bleed air and compressing the bleed air to produce the buffer air and/or the ventilation air the centrifugal compressor being configured to compress air from the fan section and/or the low pressure compressor section, wherein the compressed bleed air is communicated from the centrifugal compressor to the shaft and/or the at least one bearing compartment.
A process for the preparation of a compound of formula [Trifarotene], or a salt thereof comprising hydrolyzing a compound of formula wherein R 4 is hydrogen, a substituted or unsubstituted linear or branched C 1 -C 8 alkanoyl group, a substituted or unsubstituted linear or branched C 2 -C 8 alkenoyl group, a substituted or unsubstituted linear or branched C 2 -C 8 alkynoyl group, a substituted or unsubstituted cycloalkanoyl group, a substituted or unsubstituted aryl carbonyl group, a substituted or unsubstituted heterocyle carbonyl group, a substituted or unsubstituted heteroaryl carbonyl group, or a C 1 -C 8 alkanoyl group comprising a heteroatom; and wherein Y is a nitrile or amide (CONH 2); to obtain the compound of formula. wherein R 4 is hydrogen, a substituted or unsubstituted linear or branched C 1 -C 8 alkanoyl group, a substituted or unsubstituted linear or branched C 2 -C 8 alkenoyl group, a substituted or unsubstituted linear or branched C 2 -C 8 alkynoyl group, a substituted or unsubstituted cycloalkanoyl group, a substituted or unsubstituted aryl carbonyl group, a substituted or unsubstituted heterocyle carbonyl group, a substituted or unsubstituted heteroaryl carbonyl group, or a C 1 -C 8 alkanoyl group comprising a heteroatom; and wherein Y is a nitrile or amide (CONH 2);
A method, comprising: - a first terminal (130, 130-1 - 130-4) receiving, on a radio link of a cellular network, at least one uplink pilot signal transmitted by at least one second terminal (130, 130-1 - 130-4), - the first terminal (130, 130-1 - 130-4) transmitting, on the radio link, to an access node (112, 112-1 - 112-3) of the cellular network an uplink report message indicative of at least one property of the received at least one uplink pilot signal, characterized in that the method comprises: - based on the at least one property of the received at least one uplink pilot signal: establishing a sidelink channel between the first terminal (130, 130-1 - 130-4) and a given one of the at least one second terminal (130, 130-1 -130-4) when it is determined that the path loss between the given second terminal and the first terminal is comparably small. - a first terminal (130, 130-1 - 130-4) receiving, on a radio link of a cellular network, at least one uplink pilot signal transmitted by at least one second terminal (130, 130-1 - 130-4), - the first terminal (130, 130-1 - 130-4) transmitting, on the radio link, to an access node (112, 112-1 - 112-3) of the cellular network an uplink report message indicative of at least one property of the received at least one uplink pilot signal, - based on the at least one property of the received at least one uplink pilot signal: establishing a sidelink channel between the first terminal (130, 130-1 - 130-4) and a given one of the at least one second terminal (130, 130-1 -130-4) when it is determined that the path loss between the given second terminal and the first terminal is comparably small.
A turbomachinery component, comprising: an airfoil section; a cooling passage extending within the airfoil section; an external wall defined between the cooling passage and an exterior surface of the airfoil; a cooling portion of the external wall, the cooling portion being where the external wall is thicker than an average thickness of adjacent external wall sections and where the external wall protrudes into the cooling passage; and at least one row (132; 134; 136; 138; 139) of cooling holes included in the cooling portion for fluid communication between the cooling passage and the exterior surface of the airfoil, wherein the cooling portion is proximate a leading edge of the airfoil; characterised in that the cooling portion is at least 50% thicker than the average thickness of adjacent external wall sections and at most 400% thicker than said average thickness of adjacent external wall sections; in that the at least one row of cooling holes are holes with a constant cross-sectional area from an inlet of the cooling passage to an exit of the exterior surface of the airfoil; and in that the majority of the at least one row of cooling holes have a length-diameter ratio (L/D) range of 5 to 20. an airfoil section; a cooling passage extending within the airfoil section; an external wall defined between the cooling passage and an exterior surface of the airfoil; a cooling portion of the external wall, the cooling portion being where the external wall is thicker than an average thickness of adjacent external wall sections and where the external wall protrudes into the cooling passage; and at least one row (132; 134; 136; 138; 139) of cooling holes included in the cooling portion for fluid communication between the cooling passage and the exterior surface of the airfoil, wherein the cooling portion is proximate a leading edge of the airfoil; characterised in that the cooling portion is at least 50% thicker than the average thickness of adjacent external wall sections and at most 400% thicker than said average thickness of adjacent external wall sections; in that the at least one row of cooling holes are holes with a constant cross-sectional area from an inlet of the cooling passage to an exit of the exterior surface of the airfoil; and in that the majority of the at least one row of cooling holes have a length-diameter ratio (L/D) range of 5 to 20.
A method being performed by a wireless device (110A-D) for performing parallel multicast measurements, the method comprising: identifying a parallel multicast measurement capability of the wireless device (110A-D), the parallel multicast measurement capability comprising a threshold value identifying a maximum number of multicast measurements that the wireless device (110A-D) is capable of performing in parallel; determining, according to a first configuration being received from a network node for performing parallel multicast measurements of a plurality of Multimedia Broadcast Multicast Service, MBMS, transmissions, that the wireless device (110A-D) is configured to perform more parallel multicast measurements than the threshold value; transmitting to the network node (115A-C) a message indicative of a need for an adapted configuration due to said capability being exceeded; receiving, from the network node (115A-C), the adapted configuration for performing parallel multicast measurements of a plurality of MBMS transmissions; determining, based on the adapted configuration received from the network node (115A-C), an adapted procedure for performing the parallel multicast measurements of the plurality of MBMS transmissions, wherein the adapted procedure reduces a number of parallel multicast measurements to be performed or reduces a number of measurement results to be logged in comparison with a procedure for performing the parallel multicast measurements according to the first configuration; and performing the plurality of parallel multicast measurements of the plurality of MBMS transmissions in accordance with the adapted procedure. identifying a parallel multicast measurement capability of the wireless device (110A-D), the parallel multicast measurement capability comprising a threshold value identifying a maximum number of multicast measurements that the wireless device (110A-D) is capable of performing in parallel; determining, according to a first configuration being received from a network node for performing parallel multicast measurements of a plurality of Multimedia Broadcast Multicast Service, MBMS, transmissions, that the wireless device (110A-D) is configured to perform more parallel multicast measurements than the threshold value; transmitting to the network node (115A-C) a message indicative of a need for an adapted configuration due to said capability being exceeded; receiving, from the network node (115A-C), the adapted configuration for performing parallel multicast measurements of a plurality of MBMS transmissions; determining, based on the adapted configuration received from the network node (115A-C), an adapted procedure for performing the parallel multicast measurements of the plurality of MBMS transmissions, wherein the adapted procedure reduces a number of parallel multicast measurements to be performed or reduces a number of measurement results to be logged in comparison with a procedure for performing the parallel multicast measurements according to the first configuration; and performing the plurality of parallel multicast measurements of the plurality of MBMS transmissions in accordance with the adapted procedure.
Brake pad arrangement for a disc brake having a brake pad carrier and a friction pad which is attached thereto and can be laid with a friction surface against a brake disc to obtain a friction effect, the friction pad being provided with a chamfer (20, 22), at least along a border region extending substantially in the radial direction, which chamfer merges into the friction surface at a chamfer edge (26, 28), characterised in that the chamfer edge (26, 28) has a continuously curved course, and in that the chamfer (20, 22) is produced in a single material-removing production step, in which a material-removing tool is guided along a machining path corresponding to the curved course of the chamfer edge (26, 28), or in which the brake pad arrangement is guided along a machining path, corresponding to the curved course of the chamfer edge (26, 28), relative to the material-removing tool.