mhurhangee/ep-ind-claims huggingface dataset:
An implantable electronic system comprising: an implantable power supply including: i. a plurality of power input ports for receiving an externally generated power supply signal, and ii. a plurality of power output ports for developing a detected power signal; and an implantable prosthetic processing module including: i. a plurality of prosthetic processing input ports connected to the power output ports for receiving the detected power signal, and ii. a plurality of prosthetic processing output ports for developing a prosthetic stimulation signal output for electrically stimulating target neural tissue; characterised in that each of the plurality of ports is adapted to operate without developing a dc potential. an implantable power supply including: i. a plurality of power input ports for receiving an externally generated power supply signal, and ii. a plurality of power output ports for developing a detected power signal; and i. a plurality of power input ports for receiving an externally generated power supply signal, and ii. a plurality of power output ports for developing a detected power signal; and an implantable prosthetic processing module including: i. a plurality of prosthetic processing input ports connected to the power output ports for receiving the detected power signal, and ii. a plurality of prosthetic processing output ports for developing a prosthetic stimulation signal output for electrically stimulating target neural tissue; characterised in that each of the plurality of ports is adapted to operate without developing a dc potential. i. a plurality of prosthetic processing input ports connected to the power output ports for receiving the detected power signal, and ii. a plurality of prosthetic processing output ports for developing a prosthetic stimulation signal output for electrically stimulating target neural tissue; characterised in that each of the plurality of ports is adapted to operate without developing a dc potential.
A kit for the preparation of a cellblock from a cytological sample, comprising: a) an aqueous solution of a gellable alginate salt comprising a first colouring agent having a first colour, suitable for forming a gel matrix wherein said cytological sample is embedded; b) an aqueous solution of a gellable alginate salt comprising a second colouring agent having a second colour different from said first colour of the first colouring agent, suitable for forming a gel layer coating said matrix; c) an aqueous solution of a gelling agent for said solutions of alginate salt, wherein said first colouring agent and said second colouring agent are colouring agents belonging to the class of triphenylmethane or of azoic dyes. a) an aqueous solution of a gellable alginate salt comprising a first colouring agent having a first colour, suitable for forming a gel matrix wherein said cytological sample is embedded; b) an aqueous solution of a gellable alginate salt comprising a second colouring agent having a second colour different from said first colour of the first colouring agent, suitable for forming a gel layer coating said matrix; c) an aqueous solution of a gelling agent for said solutions of alginate salt,
Method for generating a laser beam with different beam profile characteristics, wherein a laser beam is coupled into one fibre end of a multi-clad fibre, in particular a double-clad fibre, and output from the other fibre end (1 b) of the multi-clad fibre, and wherein for the generation of different beam profile characteristics of the output laser beam, the input laser beam is electively either coupled at least into the inner fibre core of the multi-clad fibre or at least into at least one outer ring core of the multi-clad fibre.
A method for generating an image that depicts blood flow in a subject from ultrasound data acquired using an ultrasound imaging system, the method comprising: (a) accessing ultrasound data acquired from a subject with the ultrasound imaging system; (b) generating a plurality of weighted ultrasound data sets, each weighted ultrasound data set being generated by applying a different weighting function to the ultrasound data, where each different weighting function applies a different spatial weighting to the ultrasound data; (c) estimating blood flow signal data for each weighted ultrasound data set by tissue clutter filtering that weighted ultrasound data set; and (d) generating a blood flow image from the estimated blood flow signal data, wherein the blood flow image depicts blood flow in the subject. (a) accessing ultrasound data acquired from a subject with the ultrasound imaging system; (b) generating a plurality of weighted ultrasound data sets, each weighted ultrasound data set being generated by applying a different weighting function to the ultrasound data, where each different weighting function applies a different spatial weighting to the ultrasound data; (c) estimating blood flow signal data for each weighted ultrasound data set by tissue clutter filtering that weighted ultrasound data set; and (d) generating a blood flow image from the estimated blood flow signal data, wherein the blood flow image depicts blood flow in the subject.
An energy management method used in an energy management system comprising a power storage battery (140, 141) configured to accumulate power, and a control apparatus configured to communicate with the power storage battery (140, 141), the management method comprising: transmitting, from the power storage battery (140, 141) to the control apparatus, a first message indicating a first rated output of the power storage battery (140, 141) in a grid connection state in which the power storage battery (140, 141) is connected to a grid, and transmitting, from the power storage battery (140, 141) to the control apparatus, a second message indicating a second rated output of the power storage battery (140, 141) in a self-sustained state in which the power storage battery (140, 141) is disconnected from the grid. transmitting, from the power storage battery (140, 141) to the control apparatus, a first message indicating a first rated output of the power storage battery (140, 141) in a grid connection state in which the power storage battery (140, 141) is connected to a grid, and transmitting, from the power storage battery (140, 141) to the control apparatus, a second message indicating a second rated output of the power storage battery (140, 141) in a self-sustained state in which the power storage battery (140, 141) is disconnected from the grid.
A user equipment, UE, comprising processing circuitry configured to: - obtain an indication of a resource mapping for a first radio access technology, RAT, that allows for coexistence with a second RAT within at least a portion of a transmission band; - determine communication resources based on the obtained resource mapping indication; and - resource map a physical downlink shared channel, PDSCH, around rate-matching resources, during the resource mapping. - obtain an indication of a resource mapping for a first radio access technology, RAT, that allows for coexistence with a second RAT within at least a portion of a transmission band; - determine communication resources based on the obtained resource mapping indication; and - resource map a physical downlink shared channel, PDSCH, around rate-matching resources, during the resource mapping.
An electronic device comprising: a communication module; a sound emitter; a sound receiver; and a processor electrically connected to the communication module, the sound emitter, and the sound receiver, wherein the processor is configured to: receive, at least one part of a voice signal from a calling party through the communication module, determine, whether there is a voice idle time in the at least one part of the voice signal, when the voice idle time is present in the at least one part of the voice signal, output, a sound wave in an inaudible frequency band through the sound emitter during the voice idle time and output, a sound wave in an audible frequency band through the sound emitter while the voice idle time is not present in the at least one part of the voice signal, receive, through the sound receiver, sound wave in the inaudible frequency band reflected from an object, and detect, whether the object is proximate to the electronic device using the reflected sound wave in the inaudible frequency band. a communication module; a sound emitter; a sound receiver; and a processor electrically connected to the communication module, the sound emitter, and the sound receiver, wherein the processor is configured to: receive, at least one part of a voice signal from a calling party through the communication module, determine, whether there is a voice idle time in the at least one part of the voice signal, when the voice idle time is present in the at least one part of the voice signal, output, a sound wave in an inaudible frequency band through the sound emitter during the voice idle time and output, a sound wave in an audible frequency band through the sound emitter while the voice idle time is not present in the at least one part of the voice signal, receive, through the sound receiver, sound wave in the inaudible frequency band reflected from an object, and detect, whether the object is proximate to the electronic device using the reflected sound wave in the inaudible frequency band. receive, at least one part of a voice signal from a calling party through the communication module, determine, whether there is a voice idle time in the at least one part of the voice signal, when the voice idle time is present in the at least one part of the voice signal, output, a sound wave in an inaudible frequency band through the sound emitter during the voice idle time and output, a sound wave in an audible frequency band through the sound emitter while the voice idle time is not present in the at least one part of the voice signal, receive, through the sound receiver, sound wave in the inaudible frequency band reflected from an object, and detect, whether the object is proximate to the electronic device using the reflected sound wave in the inaudible frequency band.
A system for detecting an air leak in a printhead comprising: a printhead including a printer fluid nozzle; an air valve in fluid communication with a channel of the nozzle configured to: create back pressure in the channel when the air valve is closed and printer fluid is ejected through the nozzle and release back pressure in the channel when the air valve is open; an ejector configured to eject printer fluid through the nozzle to form a meniscus of printer fluid in the channel when the air valve is closed; a pressure sensor configured to measure pressure within the channel; and an indicator in communication with the pressure sensor, wherein the indicator is configured to indicate whether there is an air leak in the channel by determining whether the pressure in the channel is within a predetermined pressure range after a predetermined idle time following the formation of the meniscus in the nozzle, wherein the pressure in the channel is to fall outside of the predetermined pressure range if the meniscus collapses due to an air leak in channel. a printhead including a printer fluid nozzle; an air valve in fluid communication with a channel of the nozzle configured to: create back pressure in the channel when the air valve is closed and printer fluid is ejected through the nozzle and release back pressure in the channel when the air valve is open; create back pressure in the channel when the air valve is closed and printer fluid is ejected through the nozzle and release back pressure in the channel when the air valve is open; an ejector configured to eject printer fluid through the nozzle to form a meniscus of printer fluid in the channel when the air valve is closed; a pressure sensor configured to measure pressure within the channel; and an indicator in communication with the pressure sensor, wherein the indicator is configured to indicate whether there is an air leak in the channel by determining whether the pressure in the channel is within a predetermined pressure range after a predetermined idle time following the formation of the meniscus in the nozzle, wherein the pressure in the channel is to fall outside of the predetermined pressure range if the meniscus collapses due to an air leak in channel.
An apparatus for processing an audio signal, the apparatus comprising: a receiver for receiving input data, the input data comprising at least data describing a head related binaural transfer function comprising an early part and a reverberation part, the data comprising: early part data indicative of the early part of the head related binaural transfer function, reverberation data indicative of the reverberation part of the head related binaural transfer function, a synchronization indication indicative of a time offset between the early part and the reverberation part; an early part circuit for generating a first audio component by applying a binaural processing to a first audio signal of a stereo signal, the binaural processing being at least partly determined by the early part data; a reverberator for generating a second audio component by applying a reverberation processing to a combination of the first audio signal and a second audio signal of the stereo signal, the reverberation processing being at least partly determined by the reverberation data; a combiner for generating at least a first ear signal of a binaural signal, the combiner being arranged to combine the first audio component and the second audio component; and a synchronizer for synchronizing the first audio component and the second audio component in response to the synchronization indication. a receiver for receiving input data, the input data comprising at least data describing a head related binaural transfer function comprising an early part and a reverberation part, the data comprising: early part data indicative of the early part of the head related binaural transfer function, reverberation data indicative of the reverberation part of the head related binaural transfer function, a synchronization indication indicative of a time offset between the early part and the reverberation part; early part data indicative of the early part of the head related binaural transfer function, reverberation data indicative of the reverberation part of the head related binaural transfer function, a synchronization indication indicative of a time offset between the early part and the reverberation part; an early part circuit for generating a first audio component by applying a binaural processing to a first audio signal of a stereo signal, the binaural processing being at least partly determined by the early part data; a reverberator for generating a second audio component by applying a reverberation processing to a combination of the first audio signal and a second audio signal of the stereo signal, the reverberation processing being at least partly determined by the reverberation data; a combiner for generating at least a first ear signal of a binaural signal, the combiner being arranged to combine the first audio component and the second audio component; and a synchronizer for synchronizing the first audio component and the second audio component in response to the synchronization indication.
A method of producing a hot-filled softgel capsule comprising the steps of: encapsulating a fill material at a fill material temperature by injecting the fill material between a first gelatin band and a second gelatin band wherein the first gelatin band and the second gelatin band are sealed at a sealing temperature such that a capsule is formed; bringing the capsule into contact with a flowing chilled liquid layer so that heat is transferred from the capsule to the chilled liquid while the flowing chilled liquid layer transports the capsule and wherein the flowing chilled liquid layer flows into a chilled liquid bath thereby totally immersing the capsule in the chilled liquid bath and permitting the transfer of heat from the capsule to the chilled liquid bath; said chilled liquid is at a temperature less than the fill material temperature; cooling the capsule with the chilled liquid to a handling temperature such that the capsule does not substantially deform, wherein the handling temperature is less than the fill material temperature; and separating the capsule from the chilled liquid, which comprises blowing a pressurized gas onto the capsule. encapsulating a fill material at a fill material temperature by injecting the fill material between a first gelatin band and a second gelatin band wherein the first gelatin band and the second gelatin band are sealed at a sealing temperature such that a capsule is formed; bringing the capsule into contact with a flowing chilled liquid layer so that heat is transferred from the capsule to the chilled liquid while the flowing chilled liquid layer transports the capsule and wherein the flowing chilled liquid layer flows into a chilled liquid bath thereby totally immersing the capsule in the chilled liquid bath and permitting the transfer of heat from the capsule to the chilled liquid bath; said chilled liquid is at a temperature less than the fill material temperature; cooling the capsule with the chilled liquid to a handling temperature such that the capsule does not substantially deform, wherein the handling temperature is less than the fill material temperature; and separating the capsule from the chilled liquid, which comprises blowing a pressurized gas onto the capsule.
Cannula device having: a proximal end; a distal end, which is provided for connection to an applicator; an implant channel, which extends from the distal end to the proximal end of the cannula device; characterized by a hose- or tube-like lining of at least a portion of the implant channel. a proximal end; a distal end, which is provided for connection to an applicator; an implant channel, which extends from the distal end to the proximal end of the cannula device; characterized by a hose- or tube-like lining of at least a portion of the implant channel.
A first communication device (11a, 11b) connectable to a corresponding second communication device (11b, 11a) through a local communication channel for carrying out cross-polar interference cancellation of a received radio signal, said first communication device comprising a first QAM demodulator (22; 42) and a second QAM demodulator (23; 43) for demodulating a first one of the two orthogonal components of the cross-polarized radio signal, characterized in that the first communication device (11a, 11b) comprises a first analog differential interface stage (21a, 41b) and a second analog differential interface stage (31a, 51b) connected downstream of a respective one of said first and second QAM demodulators (22, 23; 42, 43), for transmitting respective QAM demodulated components of said first component of the cross-polarized radio signal as differential analog signals over said local communication channel, and in that the first communication device comprises a digital data stream source for generating a digital data stream containing information to be shared with said second communication device and which is fed to said first and second analog differential interface stages (21a, 31a) as a common mode signal for communicating said information in a digital channel embedded into the local communication channel.
A method of calculating a field development plan for at least a portion of a field having a subterranean resource, comprising: identifying a population of targets in the field from a geological model; reducing the population of targets by selecting a first subset of the targets using a first analysis tool, wherein the first subset of the targets comprises a reduced population of the targets; reducing the first subset of the targets by selecting a second subset of the targets from the first subset of the targets using a second analysis tool, wherein the second subset of the targets comprises a further reduced population of the targets, the second tool utilizing greater analysis complexity than the first analysis tool; calculating the FDP from the second subset of the targets; and presenting the FDP in tangible form. identifying a population of targets in the field from a geological model; reducing the population of targets by selecting a first subset of the targets using a first analysis tool, wherein the first subset of the targets comprises a reduced population of the targets; reducing the first subset of the targets by selecting a second subset of the targets from the first subset of the targets using a second analysis tool, wherein the second subset of the targets comprises a further reduced population of the targets, the second tool utilizing greater analysis complexity than the first analysis tool; calculating the FDP from the second subset of the targets; and presenting the FDP in tangible form.
A non-woven fiber pasting mat comprising: a plurality of fibers coated with a sizing composition, wherein the sizing composition is coated on the plurality of fibers by a process that includes applying an aqueous-based suspension or emulsion comprising one or more of a film former, a coupling agent, a lubricant and a surfactant, to the plurality of fibers; a binder composition applied onto the coated fibers; and one or more active compounds capable of reducing sulphation in a lead-acid battery, said active compounds being included in at least one of said sizing composition and said binder composition and comprising one or more of sulphosuccinate (di-octyl); polyvinylalcohol; colloidal silica; polyacrylamide; phosphonic acid; polyacrylic acid; phosphate ester; polycarboxylic acid; polymeric anionic compounds; hexamethylenediaminetetrakis-(methylenephosphonic acid); chitin; chitosan; inulin; polyaspartic acid; polysuccinimide; iminodisuccinate; maleic acid/acrylic acid copolymer; maleic acid/acrylamide copolymer; humic acid; calcium salt of polymers from naphtalenenesulphonic acid condensed with formaldehyde; sodium salt of condensed sulfonated naphtalene; perfluoroalkylsulfonic acid; and cellulose. a plurality of fibers coated with a sizing composition, wherein the sizing composition is coated on the plurality of fibers by a process that includes applying an aqueous-based suspension or emulsion comprising one or more of a film former, a coupling agent, a lubricant and a surfactant, to the plurality of fibers; a binder composition applied onto the coated fibers; and one or more active compounds capable of reducing sulphation in a lead-acid battery, said active compounds being included in at least one of said sizing composition and said binder composition and comprising one or more of sulphosuccinate (di-octyl); polyvinylalcohol; colloidal silica; polyacrylamide; phosphonic acid; polyacrylic acid; phosphate ester; polycarboxylic acid; polymeric anionic compounds; hexamethylenediaminetetrakis-(methylenephosphonic acid); chitin; chitosan; inulin; polyaspartic acid; polysuccinimide; iminodisuccinate; maleic acid/acrylic acid copolymer; maleic acid/acrylamide copolymer; humic acid; calcium salt of polymers from naphtalenenesulphonic acid condensed with formaldehyde; sodium salt of condensed sulfonated naphtalene; perfluoroalkylsulfonic acid; and cellulose.