mhurhangee/patent-ind-claim-en huggingface dataset:
A wearable ultrasound generating device for modulating the activity of neuronal cells of a subject, comprising: at least one component for generating an ultrasound wave, adapted to deliver a stimulus waveform to a site of neuronal cells to be modulated, wherein the stimulus waveform comprises a plurality of single pulses and each pulse includes one or more cycles at an ultrasound frequency, wherein the at least one component for generating an ultrasound wave is drivable using analog or digital waveforms; characterised in that said each single pulse of the plurality of single pulses comprises multiple frequencies in a range of 0.1 to 0.9 MHz, wherein said each single pulse has a pulse duration ranging from 0.001 msec to 10 seconds, wherein the plurality of single pulses is repeated at a pulse repetition frequency ranging from 0.001 to 10 KHz, wherein the stimulus waveform has an intensity in a range of from 0.0001 to 100 W/cm 2 . at least one component for generating an ultrasound wave, adapted to deliver a stimulus waveform to a site of neuronal cells to be modulated, wherein the stimulus waveform comprises a plurality of single pulses and each pulse includes one or more cycles at an ultrasound frequency, wherein the at least one component for generating an ultrasound wave is drivable using analog or digital waveforms; characterised in that said each single pulse of the plurality of single pulses comprises multiple frequencies in a range of 0.1 to 0.9 MHz, wherein said each single pulse has a pulse duration ranging from 0.001 msec to 10 seconds, wherein the plurality of single pulses is repeated at a pulse repetition frequency ranging from 0.001 to 10 KHz, wherein the stimulus waveform has an intensity in a range of from 0.0001 to 100 W/cm 2 .
A method for determining a flow of material (GS) consisting of bulk material , in particular cereals, wherein the bulk material is conveyed by means of a continuously revolving conveying device having laminar conveying elements from a lower bulk material receiving region to a higher bulk material discharge region in which the bulk material discharged from the conveying device is deflected by a guide surface disposed in the bulk material discharge region in the direction onto a measuring device , wherein the flow of material (GS) is determined by the measurement of a resultant force (F_K) exerted on a sensor surface of the measuring device , wherein at least two parameters which are independent of the properties of the bulk material and which influence the measurement of the force are detected and compensated for, characterized in that frictional forces (FR) transmitted from the bulk material onto the sensor surface are taken into consideration as a first parameter and an inclination of the measuring device is taken into consideration as a second parameter, and in that in addition, a flow rate (v_SG) of the bulk material sweeping over the sensor surface is taken into consideration, wherein the flow rate (v_SG) is determined by a sensor assembly which is disposed in front of, inside and/or behind the sensor surface and the determination of the flow rate (v_SG) is carried out by the at least one contactless sensor assembly .
A method for controlling data retransmission, performed by a UE, comprising: transmitting data to a network device and starting a timer ; and retransmitting the data if a HARQ-NACK feedback corresponding to the data is received from the network device before the timer expires; retransmitting the data after the timer expires, if a HARQ-ACK feedback corresponding to the data is not received before the timer expires; wherein retransmitting the data comprises: obtaining a time resource for retransmission according to the timer; obtaining a frequency resource for retransmission according to previous transmission; and retransmitting the data with the time resource and the frequency resource; wherein a location of the time resource is determined by: T+N, wherein T is the time when the timer expires, and N is a predetermined parameter; wherein a location of the frequency resource is determined by: RB + offset, wherein RB is a location of a frequency resource for transmitting the data before the retransmission, and offset is a predetermined parameter. transmitting data to a network device and starting a timer ; and retransmitting the data if a HARQ-NACK feedback corresponding to the data is received from the network device before the timer expires; retransmitting the data after the timer expires, if a HARQ-ACK feedback corresponding to the data is not received before the timer expires; wherein retransmitting the data comprises: obtaining a time resource for retransmission according to the timer; obtaining a frequency resource for retransmission according to previous transmission; and retransmitting the data with the time resource and the frequency resource; wherein a location of the time resource is determined by: T+N, wherein T is the time when the timer expires, and N is a predetermined parameter; wherein a location of the frequency resource is determined by: RB + offset, wherein RB is a location of a frequency resource for transmitting the data before the retransmission, and offset is a predetermined parameter. obtaining a time resource for retransmission according to the timer; obtaining a frequency resource for retransmission according to previous transmission; and retransmitting the data with the time resource and the frequency resource; wherein a location of the time resource is determined by: T+N, wherein T is the time when the timer expires, and N is a predetermined parameter; wherein a location of the frequency resource is determined by: RB + offset, wherein RB is a location of a frequency resource for transmitting the data before the retransmission, and offset is a predetermined parameter.
A set of essentially identical moisture proof floorboards each comprising a front face and a rear face extending in the horizontal plane (HP), a core , a connecting means arranged at least at two opposite edges for connecting a floorboard with another floorboard in a vertical and/or horizontal direction and a resilient surface layer , characterized in that at least one edge of each of the floorboards comprises a decorative groove in the resilient surface layer with a bottom which is essentially parallel to the front face , that the resilient surface layer comprises a reinforcement layer closest to the core of the floorboard, and that the bottom of the decorative groove is in the reinforcement layer . that at least one edge of each of the floorboards comprises a decorative groove in the resilient surface layer with a bottom which is essentially parallel to the front face , that the resilient surface layer comprises a reinforcement layer closest to the core of the floorboard, and that the bottom of the decorative groove is in the reinforcement layer .
An electrically heated smoking article comprising: a filter layer ; a hollow tube layer stacked at a lower end of the filter layer; an aerosol-forming substrate layer stacked below the hollow tube layer and including a mixture of a solid moisture absorbent and a liquid aerosol-forming substrate capsule ; and a wrapping portion surrounding the filter layer, the hollow tube layer, and the aerosol-forming substrate layer to maintain a stack structure, wherein the liquid aerosol-forming substrate capsule includes a liquid aerosol-forming substrate at a center, a first emulsifier layer completely surrounding the liquid aerosol-forming substrate, and a first coating material layer covering a surface of the first emulsifier layer. a filter layer ; a hollow tube layer stacked at a lower end of the filter layer; an aerosol-forming substrate layer stacked below the hollow tube layer and including a mixture of a solid moisture absorbent and a liquid aerosol-forming substrate capsule ; and a wrapping portion surrounding the filter layer, the hollow tube layer, and the aerosol-forming substrate layer to maintain a stack structure, wherein the liquid aerosol-forming substrate capsule includes a liquid aerosol-forming substrate at a center, a first emulsifier layer completely surrounding the liquid aerosol-forming substrate, and a first coating material layer covering a surface of the first emulsifier layer.
A polymer compound represented by Chemical Formula 1 comprising a biomass-derived 1,3-cyclopentanediol monomer: wherein R is a compound of Chemical Formula 2 or Chemical Formula 3, wherein * is a linking position, and a is an integer of 1 to 30, b is an integer of 1 to 30, and c is an integer of 1 to 30. wherein R is a compound of Chemical Formula 2 or Chemical Formula 3, wherein * is a linking position, and a is an integer of 1 to 30, b is an integer of 1 to 30, and c is an integer of 1 to 30.
A connector device , comprising: an inline fluid channel element having first and second end portions adapted for bonding to tubing segments ; the inline fluid channel element having a middle portion defining a connector attached to the second end portion through a frangible portion that, when fractured, renders the connector such that it remains attached to the first portion and the first portion includes external threads that form a female luer-type connector when the first portion and the second portion are broken apart at the frangible portion , and the second portion is internally tapered toward the frangible portion whereby the connector device can be molded in a single operation with two pins and two mold halves. an inline fluid channel element having first and second end portions adapted for bonding to tubing segments ; the inline fluid channel element having a middle portion defining a connector attached to the second end portion through a frangible portion that, when fractured, renders the connector such that it remains attached to the first portion and the first portion includes external threads that form a female luer-type connector when the first portion and the second portion are broken apart at the frangible portion , and the second portion is internally tapered toward the frangible portion whereby the connector device can be molded in a single operation with two pins and two mold halves.
An olefin-based polymer satisfying the following conditions to : a melt index (MI) under 190°C and 2.16 kg load conditions according to ASTM D1238 is from 0.1 g/10 min to 10.0 g/10 min, a density (d) is from 0.860 g/cc to 0.880 g/cc, and T -T ≤50 and T -T ≥10 are satisfied when measured by a differential scanning calorimetry precise measurement method (SSA), wherein T , T and T are temperatures at which 50%, 90%, and 95% are melted, respectively, when fractionating a temperature-heat capacity curve from measurement results by the differential scanning calorimetry precise measurement method (SSA) wherein the olefin-based polymer is a copolymer of ethylene and any one selected from the group consisting of propylene, 1-butene, 1-pentene, 4-methyl-1-pentene, 1-hexene, 1-heptene, and 1-octene, or mixtures of two or more thereof, wherein the measurement of a melting temperature (Tm) using differential scanning calorimetry is performed by a first cycle including heating to a temperature higher by 30°C than the melting temperature (Tm) at a constant rate and cooling to a temperature lower by 30°C than a glass transition temperature (Tg) at a constant rate, and a second cycle to obtain the peak of a standard melting temperature (Tm), wherein the differential scanning calorimetry precise measurement method (SSA) is a method of obtaining crystal information by undergoing a process of heating immediately before the peak of a melting temperature (Tm) and cooling after the first cycle using differential scanning calorimetry (DSC), and repeatedly performing heating to a temperature reduced by 5°C and cooling. a melt index (MI) under 190°C and 2.16 kg load conditions according to ASTM D1238 is from 0.1 g/10 min to 10.0 g/10 min, a density (d) is from 0.860 g/cc to 0.880 g/cc, and T -T ≤50 and T -T ≥10 are satisfied when measured by a differential scanning calorimetry precise measurement method (SSA), wherein T , T and T are temperatures at which 50%, 90%, and 95% are melted, respectively, when fractionating a temperature-heat capacity curve from measurement results by the differential scanning calorimetry precise measurement method (SSA) wherein the olefin-based polymer is a copolymer of ethylene and any one selected from the group consisting of propylene, 1-butene, 1-pentene, 4-methyl-1-pentene, 1-hexene, 1-heptene, and 1-octene, or mixtures of two or more thereof, wherein the measurement of a melting temperature (Tm) using differential scanning calorimetry is performed by a first cycle including heating to a temperature higher by 30°C than the melting temperature (Tm) at a constant rate and cooling to a temperature lower by 30°C than a glass transition temperature (Tg) at a constant rate, and a second cycle to obtain the peak of a standard melting temperature (Tm), wherein the differential scanning calorimetry precise measurement method (SSA) is a method of obtaining crystal information by undergoing a process of heating immediately before the peak of a melting temperature (Tm) and cooling after the first cycle using differential scanning calorimetry (DSC), and repeatedly performing heating to a temperature reduced by 5°C and cooling.
A lithium ion secondary battery which comprises an electrode assembly and an electrolyte, wherein the electrode assembly comprises a positive electrode, a negative electrode and a separator interposed between the positive electrode and the negative electrode, the positive electrode comprises vanadium oxide as a positive electrode active material, the electrolyte comprises a non-aqueous solvent and a lithium salt, the non-aqueous solvent comprises ethylene glycol dimethyl ether (DME), and the lithium salt comprises lithium bis(fluorosulfonyl)imide (LiFSI), the vanadium oxide comprises secondary particles formed by assemblage of primary particles, the concentration of the lithium salt in the electrolyte is 4∼7 mol/L and the positive electrode comprises the vanadium oxide in an amount of 50 wt% or more based on the total weight of the positive electrode active material contained in the positive electrode.
Method for filling a container space of a waste container/separating device of a pneumatic material conveying system, wherein material is conducted into the container space from a conveying pipe via an inlet aperture and wherein, for bringing about the suction/partial vacuum needed in conveying the material, the suction side of a partial-vacuum source , said source comprising a partial-vacuum generator , is connected to act in the container space of the waste container/separating device and onwards into the conveying pipe , characterized in that by varying the point at which the suction of the partial-vacuum source acts in the container space of the waste container/separating device , the input direction in the container space of the material (W) being conducted into the container space from the inlet aperture is acted upon, wherein at least two suction channels are arranged in the container space , a first suction channel and a second suction channel , at least one suction aperture being provided in each of said suction channels, wherein a medium connection from the suction side of the partial-vacuum generator to the first and/or second suction channel is opened and/or closed with a valve means .
A method for manufacturing a recombinant lentiviral vector, the method comprising: (a) mixing PEI and plasmid coding for a recombinant lentiviral vector to form a transfection solution, wherein the transfection solution is incubated for materially longer than 20 minutes such that the transfection solution does not form a DNA-PEI complex precipitate; and then (b) adding line cells to the transfection solution in a bioreactor before transfection is complete and recirculating the transfection solution until transfection is substantially complete, whereby the plasmid transfects the line cells to make producer cells which produce the recombinant lentiviral vector; and then (c) culturing the producer cells in adherent mode in the bioreactor, wherein the bioreactor has a fixed bed volume of at least 5 liters and whereby the producer cells produce the recombinant lentiviral vector; and then (d) harvesting recombinant lentiviral vector. (a) mixing PEI and plasmid coding for a recombinant lentiviral vector to form a transfection solution, wherein the transfection solution is incubated for materially longer than 20 minutes such that the transfection solution does not form a DNA-PEI complex precipitate; and then (b) adding line cells to the transfection solution in a bioreactor before transfection is complete and recirculating the transfection solution until transfection is substantially complete, whereby the plasmid transfects the line cells to make producer cells which produce the recombinant lentiviral vector; and then (c) culturing the producer cells in adherent mode in the bioreactor, wherein the bioreactor has a fixed bed volume of at least 5 liters and whereby the producer cells produce the recombinant lentiviral vector; and then (d) harvesting recombinant lentiviral vector.
Extra-aural headphones comprising: a headband ; a pair of movable struts extending from the headband ; a pair of acoustic drivers , each acoustic driver being connected to the headband by one of the moveable struts and adapted to be suspended a distance away from a listener's ears, each of the movable struts being rotatable relative to the headband to move the acoustic drivers forward and rearward of the listener's ears between a plurality of test positions ; a rotation hub positioned along the headband , wherein the pair of acoustic drivers are rotatable about the rotation hub to a plurality of test angles relative to the listener's ears, wherein the pair of movable struts are connected to rotate about the rotation hub ; and at least one microphone adapted to be positioned adjacent one of the listener's ears, wherein a user-specific head related transfer function (HRTF) is determined based on the signals received by the microphone when the acoustic drivers are driven at each of the plurality of test positions . a headband ; a pair of movable struts extending from the headband ; a pair of acoustic drivers , each acoustic driver being connected to the headband by one of the moveable struts and adapted to be suspended a distance away from a listener's ears, each of the movable struts being rotatable relative to the headband to move the acoustic drivers forward and rearward of the listener's ears between a plurality of test positions ; a rotation hub positioned along the headband , wherein the pair of acoustic drivers are rotatable about the rotation hub to a plurality of test angles relative to the listener's ears, wherein the pair of movable struts are connected to rotate about the rotation hub ; and at least one microphone adapted to be positioned adjacent one of the listener's ears, wherein a user-specific head related transfer function (HRTF) is determined based on the signals received by the microphone when the acoustic drivers are driven at each of the plurality of test positions .
A method of synchronizing communication in an electronic communication system with a central unit and multiple distribution points (140a, 140b, 240aM, DP1, DP2) sharing a communication binder , the method comprising the steps: creating a common clock for the multiple distribution points (140a, 140b, 240aM, DP1, DP2); estimating time delays of respective communication paths from the central unit to the multiple distribution points (140a, 140b, 240aM, DP1, DP2); using the estimated time delays to align symbol timing of transmissions to and from the multiple distribution points (140a, 140b, 240aM, DP1, DP2); and estimating timing advances to align timing of upstream transmissions in the system with timing of downstream transmissions in the system, using the estimated time delays and/or estimated timing advances to avoid communication collisions in the system, characterized in that the aligning of timing of upstream transmissions in the system with timing of downstream transmissions in the system further comprises: shifting, in at least one of the distribution points (DP1) of the multiple distribution points (140a, 140b, 240aM, DP1, DP2) the beginning of a downstream transmission of at least one of the downstream transmissions in the system by a timing advance (t_c1), so that each of the multiple distribution points (140a, 140b, 240aM , DP 1, DP2) begins transmitting downstream packets at the same point in time. creating a common clock for the multiple distribution points (140a, 140b, 240aM, DP1, DP2); estimating time delays of respective communication paths from the central unit to the multiple distribution points (140a, 140b, 240aM, DP1, DP2); using the estimated time delays to align symbol timing of transmissions to and from the multiple distribution points (140a, 140b, 240aM, DP1, DP2); and estimating timing advances to align timing of upstream transmissions in the system with timing of downstream transmissions in the system, using the estimated time delays and/or estimated timing advances to avoid communication collisions in the system, characterized in that the aligning of timing of upstream transmissions in the system with timing of downstream transmissions in the system further comprises: shifting, in at least one of the distribution points (DP1) of the multiple distribution points (140a, 140b, 240aM, DP1, DP2) the beginning of a downstream transmission of at least one of the downstream transmissions in the system by a timing advance (t_c1), so that each of the multiple distribution points (140a, 140b, 240aM , DP 1, DP2) begins transmitting downstream packets at the same point in time.
A compound which is an inhibitor of sphingolipid biosynthesis for use in the treatment of a disease which is Smith-Lemli-Opitz Syndrome (SLOS) and wherein the compound is selected from N-butyldeoxynojirimycin; N-nonyldeoxynojirimycin; N-butyldeoxygalactonojirimycin; N-5-adamantane-1-ylmethoxypentyl-deoxynojirimycin; alpha-homogalactonojirimycin; nojirimycin; deoxynojirimycin; N7-oxadecyl-deoxynojirimycin; deoxygalactonojirimycin; N-butyldeoxygalactonojirimycin; N-nonyl-deoxygalactonojirimycin; N-nonyl-6-deoxygalactonojirimycin; N7-oxanonyl-6-deoxy-DGJ; alpha-homoallonojirimycin; or beta-1-C-butyl-deoxygalactonojirimycin.