mhurhangee/ep-ind-claims huggingface dataset:
An arrangement comprising a device (2; 102) for securing a first module (4; 104) and a second module (6; 106) in a space (7; 107) between a first mount (8; 108) and a second mount (10; 110), the device (2; 102) comprising: the first module (4;104) and the second module (6; 106), and a biasing apparatus (12; 112) for urging the first module (4; 104) and the second module (6; 106) away from each other, thereby urging the first module (4; 104) against the first mount (8; 108) and urging the second module (6; 106) against the second mount (10; 110), and characterised by comprising: a release apparatus (14; 114) for moving the first module (4; 104) and the second module (6; 106) toward each other, thereby moving the first module (4; 104) away from the first mount (8; 108) and moving the second module (6; 106) away from the second mount (10; 110); wherein the arrangement further comprises the first mount and the second mount, wherein the first and second mounts (108, 110) define the space which is configured to receive and hold the device, and wherein the arrangement comprises a first heat sink thermally coupled to the first mount. the first module (4;104) and the second module (6; 106), and a biasing apparatus (12; 112) for urging the first module (4; 104) and the second module (6; 106) away from each other, thereby urging the first module (4; 104) against the first mount (8; 108) and urging the second module (6; 106) against the second mount (10; 110), and characterised by comprising: a release apparatus (14; 114) for moving the first module (4; 104) and the second module (6; 106) toward each other, thereby moving the first module (4; 104) away from the first mount (8; 108) and moving the second module (6; 106) away from the second mount (10; 110); wherein the arrangement further comprises the first mount and the second mount, wherein the first and second mounts (108, 110) define the space which is configured to receive and hold the device, and wherein the arrangement comprises a first heat sink thermally coupled to the first mount.
An information inputting/outputting method comprising the steps of: scanning by optical scanning means a medium, as image data, such as a printed material on which is formed a dot pattern, the dot pattern having a lattice dot in a predetermined interval in horizontal and vertical directions thereon and an information dot that defines data by an amount of shift with respect to a virtual point at a center surrounded by four lattice dots, and defining code information and/or coordinate information by a set of a predetermined number of the information dot, in order to output various kinds of multimedia information; analyzing the dot pattern of the image data and converting the dot pattern into the x and y coordinate values and/or the code value; and reading multimedia information corresponding to the x and y coordinate values and/or the code value out of storing means and outputting the multimedia information. scanning by optical scanning means a medium, as image data, such as a printed material on which is formed a dot pattern, the dot pattern having a lattice dot in a predetermined interval in horizontal and vertical directions thereon and an information dot that defines data by an amount of shift with respect to a virtual point at a center surrounded by four lattice dots, and defining code information and/or coordinate information by a set of a predetermined number of the information dot, in order to output various kinds of multimedia information; analyzing the dot pattern of the image data and converting the dot pattern into the x and y coordinate values and/or the code value; and reading multimedia information corresponding to the x and y coordinate values and/or the code value out of storing means and outputting the multimedia information.
A contact lens formed from a polyurethane xerogel prepared from a mixture comprising: (a) 30 to 80 wt% of at least one polyethylene glycol having a molecular weight of 3000 to 10000; (b) at least one di-isocyanate; and (c) at least one diol of formula I wherein n is an integer from 3 to 25; (d) less than 0.1 wt% water. (a) 30 to 80 wt% of at least one polyethylene glycol having a molecular weight of 3000 to 10000; (b) at least one di-isocyanate; and (c) at least one diol of formula I wherein n is an integer from 3 to 25; (d) less than 0.1 wt% water.
Installation (10; 55) for the optical inspection of an object comprising: at least one camera; A screen (30; 56) to display several successive images, each displayed image comprising at each reference point of the displayed image among the reference points, the display of one or other of a first pattern or a second pattern; A system (24, 32) for displacing the display screen and/or the camera designed to bring the display screen to within the field of view of the camera; a system for controlling the display screen and the camera, for the acquisition by the camera of at least one image for each image displayed on the display screen, the control system being designed to process the images acquired for a calibration operation on the optical inspection system comprising the determination of a digital signal for each reference point comprising a succession of logical values "1" and "0" corresponding to an identification code for the reference point. at least one camera; A screen (30; 56) to display several successive images, each displayed image comprising at each reference point of the displayed image among the reference points, the display of one or other of a first pattern or a second pattern; A system (24, 32) for displacing the display screen and/or the camera designed to bring the display screen to within the field of view of the camera; a system for controlling the display screen and the camera, for the acquisition by the camera of at least one image for each image displayed on the display screen, the control system being designed to process the images acquired for a calibration operation on the optical inspection system comprising the determination of a digital signal for each reference point comprising a succession of logical values "1" and "0" corresponding to an identification code for the reference point.
A product comprising: a valve module for a combustion engine breathing system, comprising a valve assembly, an actuator assembly, a module housing carrying the valve and actuator assemblies (16, 22) and defining an insulating void to limit heat transfer from the valve assembly to the actuator assembly, wherein the valve module further comprises a gas flow passage, a valve disposed in the gas flow passage, and a prime mover operatively coupled to the valve to move the valve for controlling flow of gas through the gas flow passage, wherein the insulating void is disposed between the gas flow passage and the prime mover to limit transfer of heat from the gas flow passage to the prime mover, wherein the insulating void is open-ended and formed through the module housing adjacent the gas flow passage such that air may flow through the insulating void, wherein the insulating void is arcuately shaped to correspond to the contour of the gas flow passage, and characterised in that one or more intermediate ports are connected to the insulating void to enable flow of cooling air through the insulating void and one or more vent passages (84, 85) transversely extending through a shaft support (40, 42) and in fluid communication between the outside of the module housing and a location within the shaft support (40, 42) between shaft seals (76, 80, 82) are connected to the insulating void. a valve module for a combustion engine breathing system, comprising a valve assembly, an actuator assembly, a module housing carrying the valve and actuator assemblies (16, 22) and defining an insulating void to limit heat transfer from the valve assembly to the actuator assembly, wherein the valve module further comprises a gas flow passage, a valve disposed in the gas flow passage, and a prime mover operatively coupled to the valve to move the valve for controlling flow of gas through the gas flow passage, wherein the insulating void is disposed between the gas flow passage and the prime mover to limit transfer of heat from the gas flow passage to the prime mover, wherein the insulating void is open-ended and formed through the module housing adjacent the gas flow passage such that air may flow through the insulating void, wherein the insulating void is arcuately shaped to correspond to the contour of the gas flow passage, and characterised in that one or more intermediate ports are connected to the insulating void to enable flow of cooling air through the insulating void and one or more vent passages (84, 85) transversely extending through a shaft support (40, 42) and in fluid communication between the outside of the module housing and a location within the shaft support (40, 42) between shaft seals (76, 80, 82) are connected to the insulating void.
A wireless communication terminal, the terminal comprising: a processor; and a communication unit, wherein the processor is configured to: receive a wireless packet through the communication unit, obtain non-contiguous channel allocation information of the received packet, and decode the received packet based on the obtained non-contiguous channel allocation information, characterized in that: the non-contiguous channel allocation information is indicated via a combination of a bandwidth subfield of a High Efficiency Signal A, HE-SIG-A, field of the received packet and a resource unit allocation subfield of a High Efficiency Signal B, HE-SIG-B, field of the received packet, and the bandwidth subfield indicates total bandwidth information through which the packet is transmitted and channel information to be punctured within the total bandwidth, and the resource unit allocation subfield indicates additional puncturing information within the total bandwidth. a processor; and a communication unit, wherein the processor is configured to: receive a wireless packet through the communication unit, obtain non-contiguous channel allocation information of the received packet, and decode the received packet based on the obtained non-contiguous channel allocation information, receive a wireless packet through the communication unit, obtain non-contiguous channel allocation information of the received packet, and decode the received packet based on the obtained non-contiguous channel allocation information, characterized in that: the non-contiguous channel allocation information is indicated via a combination of a bandwidth subfield of a High Efficiency Signal A, HE-SIG-A, field of the received packet and a resource unit allocation subfield of a High Efficiency Signal B, HE-SIG-B, field of the received packet, and the bandwidth subfield indicates total bandwidth information through which the packet is transmitted and channel information to be punctured within the total bandwidth, and the resource unit allocation subfield indicates additional puncturing information within the total bandwidth.
A system for asynchronous pulse detection comprising; a converter array comprising a plurality of pixels; an optical system configured to pass a pulse of laser energy having a predetermined pulse repetition frequency, PRF, and comprising a predetermined band of wavelengths to said array; and a controller and a read out integrated circuit, ROIC, configured to sequentially read out pixels of said array; wherein said optical system is further configured to spread said laser pulse across a predetermined area of said array, wherein the predetermined area comprises a predetermined number of separate pixels such that a total sensing time of said separate pixels, when sequentially read out by the read out integrated circuit, includes said laser pulse having said predetermined PRF; and wherein the controller and read out integrated circuit are configured to scan said predetermined area of said array at an exposure rate that matches said predetermined PRF to thereby decode said laser pulse spread by said optical system across said predetermined area of said array.
A polymer composition comprising: at least 80 wt% of a bimodal high density polyethylene having a density of 940 kg/m 3 or more and an MFR 21 of 24 to 400 g/10min; and 1 to 14 wt% of a cyclic ethylene copolymer or cyclic propylene copolymer. at least 80 wt% of a bimodal high density polyethylene having a density of 940 kg/m 3 or more and an MFR 21 of 24 to 400 g/10min; and 1 to 14 wt% of a cyclic ethylene copolymer or cyclic propylene copolymer.
A quench and temper steel alloy consisting essentially of, in weight percent: C 0.35-0.5 Mn 0.1-1.0 Si 0.1-1.2 Cr 9-14.5 Ni 3.0-5.5 Mo 1-1.75 Cu 0.1-1.0 Co 1-4 V 0.1-1.0 Ti up to 0.5 Al up to 0.25 Nb+Ta up to 0.5 Ce up to 0.01 La up to 0.01 optionally up to 0.2% tungsten in substitution for some of the Mo; and the balance of the alloy is iron and usual impurities including not more than 0.01% phosphorus, not more than 0.010% sulfur, and not more than 0.10% nitrogen.
Rotor (10, 40, 50) for medical flow-regulating devices (100, 100'), the rotor (10, 40, 50) comprising a central body (11, 31, 41) couplable to a flow-regulating mechanism, such as to transfer rotational force to it upon rotation, about a central axis (18, 18', 38), and a margin (12, 32, 42) located at the periphery of the central body (11, 31, 41) as an extension or protrusion of the central body (11, 31, 41), characterized in that, the margin (12, 42) is integrally formed with the central body (11, 31, 41) or attached thereto, or in part integrally formed with the central body (11, 31, 41) and in part attached thereto and comprises at least one actionable section (15, 45) made of or comprising a magnetic or ferromagnetic material which is movable from a rest position to a stretched position with respect to the central body (11, 31, 41) upon application of a magnetic force and is configured to resiliently return to the rest position upon removal of the magnetic force, wherein the at least one actionable section (15, 45) is engageable with a blocking element of said medical flow-regulating device, when the at least one actionable section (15, 45) is in the rest position, thereby locking and preventing the rotor (10, 40, 50) to rotate, and wherein the at least one actionable section (15, 45) is disengageable from the blocking element by moving the at least one actionable section (15, 45) from the rest position to the stretched position upon application of said magnetic force, thereby unlocking and allowing the rotor (10, 40, 50) to rotate.
A composition comprising in admixture (a) an aromatic polyimide in an amount between about 30 and about 90 weight parts; (b) acicular titanium dioxide particles in an amount between about 0.5 and about 12 weight parts, wherein the average particle diameter is between about 10 and about 500 nm and the average particle length is between about 1 and about 100 μm, provided that the particle aspect ratio is at least 3; and (c) graphite in an amount between about 10 and about 60 weight parts; wherein all weight parts combined together total to 100 weight parts. (a) an aromatic polyimide in an amount between about 30 and about 90 weight parts; (b) acicular titanium dioxide particles in an amount between about 0.5 and about 12 weight parts, wherein the average particle diameter is between about 10 and about 500 nm and the average particle length is between about 1 and about 100 μm, provided that the particle aspect ratio is at least 3; and (c) graphite in an amount between about 10 and about 60 weight parts;
A method performed by a system including i) a secure processing sub-system having an internal non-volatile memory, ii) a non-volatile memory that is external to the secure processing sub-system; wherein during each power cycle where data stored in the external non-volatile memory is updated, the secure processing sub-system executes a transaction by performing the following steps:. writing a first transaction data marking the start of the transaction in the internal non-volatile memory upon a first update of the data within the power cycle, and. at the end of the power cycle, writing a second transaction data marking the end of said transaction to the internal non-volatile memory, and, at the beginning of any power cycle, the secure processing sub-system performs the steps of. checking if a transaction is still pending in the internal non-volatile memory based on the transaction data written in the internal non-volatile memory; and. if a transaction is still pending, preventing to use the data stored in the external non-volatile memory. i) a secure processing sub-system having an internal non-volatile memory, ii) a non-volatile memory that is external to the secure processing sub-system; wherein during each power cycle where data stored in the external non-volatile memory is updated, the secure processing sub-system executes a transaction by performing the following steps:. writing a first transaction data marking the start of the transaction in the internal non-volatile memory upon a first update of the data within the power cycle, and. at the end of the power cycle, writing a second transaction data marking the end of said transaction to the internal non-volatile memory,. writing a first transaction data marking the start of the transaction in the internal non-volatile memory upon a first update of the data within the power cycle, and. at the end of the power cycle, writing a second transaction data marking the end of said transaction to the internal non-volatile memory, and, at the beginning of any power cycle, the secure processing sub-system performs the steps of. checking if a transaction is still pending in the internal non-volatile memory based on the transaction data written in the internal non-volatile memory; and. if a transaction is still pending, preventing to use the data stored in the external non-volatile memory.. checking if a transaction is still pending in the internal non-volatile memory based on the transaction data written in the internal non-volatile memory; and. if a transaction is still pending, preventing to use the data stored in the external non-volatile memory.
A hearing aid (1a,1b) comprising an audio codec for decoding and encoding digital audio signals, said audio codec being a time domain codec comprising: a decoder for decoding digital audio signals, said decoder being adapted to generate a decoded output signal based on an input quantization index and comprising a predictor and a predictor adaptation, an encoder for encoding digital audio signals, said encoder being configured for generating an output quantization index based on an input signal, said encoder comprising said decoder and said predictor receiving an excitation signal and outputting a prediction signal, wherein the output quantization index is determined by decoding of a number of different quantization indices by the decoder in order to minimize an error between the input signal and the prediction signal, and wherein said predictor adaptation uses a recursive autocorrelation estimate for updating the predictor. a decoder for decoding digital audio signals, said decoder being adapted to generate a decoded output signal based on an input quantization index and comprising a predictor and a predictor adaptation, an encoder for encoding digital audio signals, said encoder being configured for generating an output quantization index based on an input signal, said encoder comprising said decoder and said predictor receiving an excitation signal and outputting a prediction signal, wherein the output quantization index is determined by decoding of a number of different quantization indices by the decoder in order to minimize an error between the input signal and the prediction signal, and wherein said predictor adaptation uses a recursive autocorrelation estimate for updating the predictor.
A method of group encrypting a plaintext m with regard to a tag t for a recipient with a public key pk to obtain a ciphertext c, the method comprising at a device: - creating a first encrypted value c 1 and a second encrypted value c 2, by calculating c 1 = E 1.Encrypt { pk} ( m,OTS. vk) and c 2 = E 2.Encrypt { pk OA} ( f ( pk),OTS. vk), wherein E 1 is a first encryption algorithm, E 2 is a second encryption algorithm, pkOA is a further public key, OTS. sk is a signing key, OTS. vk is a verifying key and f is a mapping function; - producing a signature s on the first encrypted value c 1, the second encrypted value c 2 and the tag t using the signing key OTS. sk by calculating s = OTS.Sign {OTS. sk} ( c 1, c 2, t), wherein OTS.Sign is a signature algorithm; and - outputting the ciphertext c, wherein the ciphertext c comprises the first encrypted value c 1, the second encrypted value c 2, the verifying key OTS. vk and the signature s. - creating a first encrypted value c 1 and a second encrypted value c 2, by calculating c 1 = E 1.Encrypt { pk} ( m,OTS. vk) and c 2 = E 2.Encrypt { pk OA} ( f ( pk),OTS. vk), wherein E 1 is a first encryption algorithm, E 2 is a second encryption algorithm, pkOA is a further public key, OTS. sk is a signing key, OTS. vk is a verifying key and f is a mapping function; - producing a signature s on the first encrypted value c 1, the second encrypted value c 2 and the tag t using the signing key OTS. sk by calculating s = OTS.Sign {OTS. sk} ( c 1, c 2, t), wherein OTS.Sign is a signature algorithm; and - outputting the ciphertext c, wherein the ciphertext c comprises the first encrypted value c 1, the second encrypted value c 2, the verifying key OTS. vk and the signature s.
A mobile station for a wireless communication system, comprising: means for receiving a plurality of reference signal transmissions transmitted at a respective plurality of transmission power levels by a respective plurality of base stations (202, 203, 204), wherein the plurality of base stations comprises a serving base station and neighboring base stations (203, 204); means for measuring a respective plurality of received signal power levels corresponding to the plurality of reference signal transmissions; means for transmitting information based upon the plurality of the measured, received signal power levels, wherein the information is based on a ratio of a path gain for the serving base station and a sum of path gains for neighbouring base stations; and means for receiving from the serving base station an uplink transmission resource grant, based at least in part on the transmitted information. means for receiving a plurality of reference signal transmissions transmitted at a respective plurality of transmission power levels by a respective plurality of base stations (202, 203, 204), wherein the plurality of base stations comprises a serving base station and neighboring base stations (203, 204); means for measuring a respective plurality of received signal power levels corresponding to the plurality of reference signal transmissions; means for transmitting information based upon the plurality of the measured, received signal power levels, wherein the information is based on a ratio of a path gain for the serving base station and a sum of path gains for neighbouring base stations; and means for receiving from the serving base station an uplink transmission resource grant, based at least in part on the transmitted information.