mhurhangee/patent-ind-claim-en huggingface dataset:
A method for dynamic equalization, the method comprising: receiving, by a system comprising a loudspeaker , an electronic audio signal; and responsive to a change in available headroom, modifying, based on the change in available headroom, parameters of an equalizer configured to apply a Linkwitz transform to at least a portion of the signal in order to extend a physical low-frequency response of the loudspeaker ; the parameters comprising a gain for the Linkwitz transform and a frequency for the Linkwitz transform, wherein the method further comprises: determining, by the system and based on a negative of volume of the system less a make-up gain of the system, and then taking the minimum of the result and a fixed limit, the gain for the Linkwitz transform, and determining, by the system and based on averaging a box-tuning frequency of the system before the Linkwitz transform is applied to the at least a portion of the signal and a low-frequency cutoff, the frequency for the Linkwitz transform. receiving, by a system comprising a loudspeaker , an electronic audio signal; and responsive to a change in available headroom, modifying, based on the change in available headroom, parameters of an equalizer configured to apply a Linkwitz transform to at least a portion of the signal in order to extend a physical low-frequency response of the loudspeaker ; the parameters comprising a gain for the Linkwitz transform and a frequency for the Linkwitz transform, wherein the method further comprises: determining, by the system and based on a negative of volume of the system less a make-up gain of the system, and then taking the minimum of the result and a fixed limit, the gain for the Linkwitz transform, and determining, by the system and based on averaging a box-tuning frequency of the system before the Linkwitz transform is applied to the at least a portion of the signal and a low-frequency cutoff, the frequency for the Linkwitz transform. determining, by the system and based on a negative of volume of the system less a make-up gain of the system, and then taking the minimum of the result and a fixed limit, the gain for the Linkwitz transform, and determining, by the system and based on averaging a box-tuning frequency of the system before the Linkwitz transform is applied to the at least a portion of the signal and a low-frequency cutoff, the frequency for the Linkwitz transform.
A method for searching for the optimization margin of the resources of an IT infrastructure, said IT infrastructure hosting an application chain involving a plurality of resources, said method including the following steps: - Executing a set of requests, said execution of the set of requests simulating the operation of the application chain, - Analyzing the results of the set of requests, said analysis including a measurement of service quality parameter values in response to the execution of the set of requests and a comparison of the measured service quality parameter values to predetermined service quality parameter threshold values, - Analyzing the resource utilization, said analysis including a measurement of resource utilization values in response to the execution of the set of requests and a comparison of the measured resource utilization values to predetermined minimum resource utilization threshold values, - Identifying an optimization margin of the resources, said identification including the identification of an underutilized resource, said underutilized resource being a resource whose measured resource utilization value is lower than the predetermined minimum resource utilization threshold value while the measured service quality parameter values are in adequacy with the predetermined service quality parameter threshold values. - Executing a set of requests, said execution of the set of requests simulating the operation of the application chain, - Analyzing the results of the set of requests, said analysis including a measurement of service quality parameter values in response to the execution of the set of requests and a comparison of the measured service quality parameter values to predetermined service quality parameter threshold values, - Analyzing the resource utilization, said analysis including a measurement of resource utilization values in response to the execution of the set of requests and a comparison of the measured resource utilization values to predetermined minimum resource utilization threshold values, - Identifying an optimization margin of the resources, said identification including the identification of an underutilized resource, said underutilized resource being a resource whose measured resource utilization value is lower than the predetermined minimum resource utilization threshold value while the measured service quality parameter values are in adequacy with the predetermined service quality parameter threshold values.
A method for designing a baffle for use with an array of shell moulds in a directional solidification casting apparatus, the method comprising; providing an array of patterns in a pre-determined spatial arrangement; using the array of patterns in a lost pattern process to produce an array of shell moulds oriented for drawing through the baffle in a direction A; imaging the outer surface of each shell mould in the array of shell moulds to produce a plurality of shell mould image profiles; for each shell mould, determining a shell mould image profile in which the shell mould has maximum dimensions in a plane orthogonal to the direction (A); stacking the shell mould image profiles in which the shell moulds have maximum dimensions in a plane orthogonal to the direction (A) to produce a conglomerate shell mould profile ; defining a baffle profile segment which is consistent with a substantial portion of the conglomerate shell mould profile ; scaling the baffle profile segment to provide an offset clearance between the baffle profile segment and the conglomerate shell mould profile ; reproducing the baffle profile segment to provide an array of baffle profile segments in the pre-determined spatial arrangement whereby to form in the baffle a baffle profile which is configured to allow clear passage of the array of shell moulds when drawn through the baffle in the direction A in a subsequent directional solidification casting process.
A pyloric obstruction device comprising: an obstruction disc mounted on a shaft , said disc comprising a membrane attached to a peripheral frame ; and an anchoring member extending from a distal portion of said shaft ; said shaft being bent at a central bend point to form an arm that extends radially outwards from a central axis and which is then curved circumferentially about the central axis to form said peripheral frame ; wherein said obstruction disc , said shaft and said anchoring member have a unitary construction made from a bent slender element. an obstruction disc mounted on a shaft , said disc comprising a membrane attached to a peripheral frame ; and an anchoring member extending from a distal portion of said shaft ;
A transmitting device for a wireless communication system , the transmitting device being configured to: • replace bits of a bit field f n with padded bits so as to obtain first control information with embedded padded bits, wherein the first control information before replacing the bits of the bit field f n with padded bits contains a plurality of information bit fields f 1 ,..., f n ,..., f N ; • obtain a first cyclic redundancy check, CRC, word W 1 based on encoding the first control information with the embedded padded bits using a first CRC generator polynomial (step 202); • append the first CRC word W 1 to the first control information with the embedded padded bits; • obtain a second CRC word W 2 based on encoding the first control information with the embedded padded bits using a second CRC generator polynomial (step 204), or, obtain the second CRC word W 2 based on encoding the first control information with the embedded padded bits together with the appended first CRC word W 1 using the second CRC generator polynomial (step 204); • replace the embedded padded bits by the second CRC word W 2 , thereby arriving at second control information; • form a control message based on the second control information; • transmit the control message to a receiving device (step 208). • replace bits of a bit field f n with padded bits so as to obtain first control information with embedded padded bits, wherein the first control information before replacing the bits of the bit field f n with padded bits contains a plurality of information bit fields f 1 ,..., f n ,..., f N ; • obtain a first cyclic redundancy check, CRC, word W 1 based on encoding the first control information with the embedded padded bits using a first CRC generator polynomial (step 202); • append the first CRC word W 1 to the first control information with the embedded padded bits; • obtain a second CRC word W 2 based on encoding the first control information with the embedded padded bits using a second CRC generator polynomial (step 204), or, obtain the second CRC word W 2 based on encoding the first control information with the embedded padded bits together with the appended first CRC word W 1 using the second CRC generator polynomial (step 204); • replace the embedded padded bits by the second CRC word W 2 , thereby arriving at second control information; • form a control message based on the second control information; • transmit the control message to a receiving device (step 208).
1-acyl-lysophosphatidyl derivatives of general formula I, wherein R is C4 to C30 alifatic hydrocarbyl chain, R1 is selected from H or C1 to C10 alkyl, R2 is selected from H, C10 to C30 acyl or C1 to C10 alkyl, R3 is selected from H or C1 to C10 alkyl, or R3 is not present, for use in a method of treatment of cancer selected from a hepatocarcinoma and a melanoma. R is C4 to C30 alifatic hydrocarbyl chain, R1 is selected from H or C1 to C10 alkyl, R2 is selected from H, C10 to C30 acyl or C1 to C10 alkyl, R3 is selected from H or C1 to C10 alkyl, or R3 is not present, for use in a method of treatment of cancer selected from a hepatocarcinoma and a melanoma.
A people counting device intended to count people crossing a passage area to enter a room of a building, the counting device comprising: - a time-of-flight type distance sensor comprising a transmitter capable of emitting an emitted signal at an angle α) forming a detection area towards the passage area and a receiver capable of receiving a reflected signal corresponding to a portion of the emitted signal when it is reflected by a person passing within the detection area so as to measure the distance between the person and the distance sensor as a function of time, the detection area having a constant position and orientation, - signal processing means analyzing a variation of the distance between the distance sensor and the detected person in order to determine the direction of movement of the person relative to the passage area to perform a counting of the number of people in the room , characterized in that the distance sensor is disposed relative to the passage area such that the signal reflected by a person entering the passage area in a first direction of passage is different from the signal reflected by a person entering the passage area in a second direction of passage which is opposite to the first direction of passage. - a time-of-flight type distance sensor comprising a transmitter capable of emitting an emitted signal at an angle α) forming a detection area towards the passage area and a receiver capable of receiving a reflected signal corresponding to a portion of the emitted signal when it is reflected by a person passing within the detection area so as to measure the distance between the person and the distance sensor as a function of time, the detection area having a constant position and orientation, - signal processing means analyzing a variation of the distance between the distance sensor and the detected person in order to determine the direction of movement of the person relative to the passage area to perform a counting of the number of people in the room ,
A method of producing a composite fabric, comprising the steps of coupling together a first double face fabric with another fabric selected from a single face fabric and a second double face fabric by binding said fabrics with an adhesive layer, characterized in that said first double face fabric is a woven double face fabric having warp yarns and weft yarns providing a pattern whereby a warp yarn floats over one or more weft yarns to provide a corresponding over portion and floats under one or more weft yarns to provide under portions , at least part of the weft yarns being elastic yarns, wherein in a repeat unit a first warp yarn floats over at least three weft yarns on a first side of the fabric to provide a corresponding warp over portion , said warp yarn successively floating under one single weft yarn to provide an under portion , and wherein each of the two warp yarns (2", 2"') arranged adjacent to said first warp yarn floats under at least three weft yarns to provide corresponding warp under portions on a second side of the fabric, said adjacent warp yarn (2", 2''') successively floating over one single weft yarn to provide an over portion on said first side of the fabric, whereby either: in said first warp yarn the total length of over portions is greater than the length of under portions; or said fabric has a repeating unit (RU) unit of 5 warps and 10 wefts, being the warp pattern 1b/3a/1b/1a/3b/1a, 1b/1a/3b/1a/1b/3a, 1b/1a/1b/3a/1b/1a/2b, 2a/1b/1a/3b/1a/1b/1a and 3b/1a/1b/3a/1b/1a; wherein a is an under portion and b is an over portion. in said first warp yarn the total length of over portions is greater than the length of under portions; or said fabric has a repeating unit (RU) unit of 5 warps and 10 wefts, being the warp pattern 1b/3a/1b/1a/3b/1a, 1b/1a/3b/1a/1b/3a, 1b/1a/1b/3a/1b/1a/2b, 2a/1b/1a/3b/1a/1b/1a and 3b/1a/1b/3a/1b/1a; wherein a is an under portion and b is an over portion.
Control safety system for use in nuclear plants, comprising: a plurality of identical safety channels, each said channel includes process signal input/output stations IOS 1-n , actuation mechanism priority control stations PCS 1-m that are connected with the main control room MCR and emergency control room ECR, safety features automation controller SF AC , safety features input/output bus SF IOB for SF AC controller data exchange with the IOS 1-n stations and PCS 1-m stations, and is cross-connected with other safety channels by means of duplex optical fiber communication paths, characterized in that the said IOS 1-n stations contains modules of communication with the process and communication module MCP 1-k - converter of communication interfaces CIC of SF IOB bus ; said PCS 1-m station contains actuation mechanism priority control modules PCM 1-e and communication modules: voting communication module VCM and voting module VM of SF IOB bus ; said SF AC contains safety feature automation processor module SF APM and communication modules - branching modules BM-4 1-p of SF IOB bus ; automation controllers SF AC of all safety channels are connected to the normal operation system via redundant bus EN built based on switched Ethernet interface, ring structure of net switches connection and data-level communication protocol; each safety channel contains additionally normal operation automation controllers AC 1 - s that are connected with IOS 1 - n stations , PCS 1 - m stations via redundant buses ENL of normal operation built based on switched Ethernet interface, radial structure of net switch connection and data-level communication protocol, and with the normal operation system via redundant bus EN of normal operation; normal operation automation controllers AC , integrated into IOS 1-n stations and PCS 1-m stations means of AC communication with MCP 1 - k module and PCM modules, and integrated into MCP 1 - k module and PCM modules normal operation software & hardware are built based on different hardware & software platforms; IOS 1-n stations and PCS 1-m stations , automation controller SF AC , and power supply and communication equipment of the safety system include built-in self-testing and self-monitoring features that generate at the outputs the binary signals of the respective equipment state 'operative/inoperative' coming to NO AC, where the signals are processed and transmitted to the upper level of the normal operation system control via EN bus wherein the communication module CIC of SF IOB bus in IOS 1-n stations is connected via separate SF IOB communication lines with automation controller SF AC of the safety channel and with each MCP 1 - k module of this station.
A device for the orientation and feeding of closures comprising a hopper for containing closures , a lifting device for said closures which comprises at least one transfer element which can move along a movement direction between a loading region , designed to receive the closures that arrive from said containment hopper , and an unloading region , arranged at a greater height than said loading region , said transfer element having a closed extension which forms a rising portion, which extends from the loading region to the unloading region , and a descending portion, which extends from said unloading region to said loading region , said transfer element having, along its extension, a plurality of receptacles for said closures formed between abutment walls that are extended transversely to said movement direction , said lifting device comprising means for selecting the closures which are adapted to allow the feeding to said unloading region of the closures accommodated in said receptacles with their lower rim directed oppositely with respect to said transfer element , wherein said transfer device comprises, at said unloading region , a device for turning over said closures which comprises an abutment partition arranged substantially parallel to said transfer element in order to move said closures to a feeding position in which the lower rim is arranged downward, characterized in that said transfer device comprises at least one guide for feeding the closures in the feeding position from said unloading region toward a feeding element that is associated with a capping unit , at least one blower being provided which is adapted to move said closures from said unloading region along said feeding guide , along said feeding guide there being an unjamming portion which comprises a lower supporting surface and two lateral containment walls for said closures that arrive from said unloading region , an unjamming device being provided for moving away the closures jammed at said unjamming portion , said unjamming device comprising sensor means arranged downstream of said unloading region and adapted to detect an interruption of the flow of said closures along said feeding guide and actuation means adapted to move at least one portion of said lower supporting surface in response to a signal emitted by said sensor means in order to cause the fall by gravity of said jammed closures from said supporting surface .
A light emitting device comprising: a first electrode ; a light emitting structure disposed on the first electrode ; a second electrode disposed on the light emitting structure ; and a phase shifting mirror formed on a top surface of the first electrode, the phase shifting mirror comprising a plurality of patterns arranged in a periodic manner with an interval between adjacent patterns, wherein each of the plurality of patterns comprises a top surface and a side surface between the top surface of the respective pattern and the top surface of the first electrode , wherein a first width (ba) at a bottom portion of the respective pattern directly adjacent to the top surface of the first electrode is greater than a second width (ta) of the top surface of the respective pattern, wherein the first width (ba) and the second width (ta) are less than a wavelength of light generated in the light emitting structure, wherein the phase shifting mirror and the second electrode constitute a resonator having a resonance wavelength, wherein the resonance wavelength of the resonator is determined according to at least one of the first width (ba), the second width (ta), a depth (d) of each of the plurality of patterns, and an arrangement period of the plurality of patterns, and wherein when the resonance wavelength of the resonator is λ, at least one of the first width, the second width, the depth of each of the plurality of patterns, and the arrangement period of the plurality of patterns is selected such that an optical length of the resonator satisfies nλ/2, n is a natural number. a first electrode ; a light emitting structure disposed on the first electrode ; a second electrode disposed on the light emitting structure ; and a phase shifting mirror formed on a top surface of the first electrode, the phase shifting mirror comprising a plurality of patterns arranged in a periodic manner with an interval between adjacent patterns, wherein each of the plurality of patterns comprises a top surface and a side surface between the top surface of the respective pattern and the top surface of the first electrode , wherein a first width (ba) at a bottom portion of the respective pattern directly adjacent to the top surface of the first electrode is greater than a second width (ta) of the top surface of the respective pattern, wherein the first width (ba) and the second width (ta) are less than a wavelength of light generated in the light emitting structure, wherein the phase shifting mirror and the second electrode constitute a resonator having a resonance wavelength, wherein the resonance wavelength of the resonator is determined according to at least one of the first width (ba), the second width (ta), a depth (d) of each of the plurality of patterns, and an arrangement period of the plurality of patterns, and wherein when the resonance wavelength of the resonator is λ, at least one of the first width, the second width, the depth of each of the plurality of patterns, and the arrangement period of the plurality of patterns is selected such that an optical length of the resonator satisfies nλ/2, n is a natural number.