mhurhangee/patent-ind-claim-en huggingface dataset:
Method for the computer-aided configuration of a technical system (SN), wherein a) a proportion value (q) specifying an availability of a provision parameter (U) of the technical system (SN) is read in, b) a multiplicity of value variants (P I ) of an operating parameter (PG, PW, PL) of the technical system (SN) are generated, c) a respective first estimate (U1) for the provision parameter (U) is determined for a respective value variant (P I ) by a first simulator (SIM1) of the technical system (SN) and is assigned to the respective value variant (P I ), d) at least some of the value variants (P I ) are sorted according to the respectively assigned first estimates (U1), e) a quantile (QP) for the sorted value variants (PS K ) that corresponds to the proportion value (q) is determined, f) multiple value variants (PS 50 ,...,PS 150 ) that are in a vicinity (IVL) of the quantile (QP) in respect of the sorting are selected, g) a respective second estimate (U2) for the provision parameter (U) is determined for a respective selected value variant (PS 50 ,...,PS 150 ) by a second simulator (SIM2) of the technical system (SN), h) a third estimate (U Q ) for the provision parameter (U) is determined by equalizing variations in the second estimates (U2), and i) the third estimate (U Q ) is output as a configuration parameter for configuring the technical system (SN). a) a proportion value (q) specifying an availability of a provision parameter (U) of the technical system (SN) is read in, b) a multiplicity of value variants (P I ) of an operating parameter (PG, PW, PL) of the technical system (SN) are generated, c) a respective first estimate (U1) for the provision parameter (U) is determined for a respective value variant (P I ) by a first simulator (SIM1) of the technical system (SN) and is assigned to the respective value variant (P I ), d) at least some of the value variants (P I ) are sorted according to the respectively assigned first estimates (U1), e) a quantile (QP) for the sorted value variants (PS K ) that corresponds to the proportion value (q) is determined, f) multiple value variants (PS 50 ,...,PS 150 ) that are in a vicinity (IVL) of the quantile (QP) in respect of the sorting are selected, g) a respective second estimate (U2) for the provision parameter (U) is determined for a respective selected value variant (PS 50 ,...,PS 150 ) by a second simulator (SIM2) of the technical system (SN), h) a third estimate (U Q ) for the provision parameter (U) is determined by equalizing variations in the second estimates (U2), and i) the third estimate (U Q ) is output as a configuration parameter for configuring the technical system (SN).
A compound of Formula I: wherein: n and y are each independently an integer from 1 to 10; L is -S-, -SO 2 -, -O-, -NR-, or -N-(CH 2 ) p -OP(OH) 2 -, wherein R is H or substituted or unsubstituted alkyl and p is from 1 to 10; R 1 and R 3 are each independently selected from H and substituted or unsubstituted alkyl; and R 2 is selected from OR 4 , substituted or unsubstituted alkyl, and substituted or unsubstituted phenyl, wherein R 4 is selected from H and substituted or unsubstituted alkyl. n and y are each independently an integer from 1 to 10; L is -S-, -SO 2 -, -O-, -NR-, or -N-(CH 2 ) p -OP(OH) 2 -, wherein R is H or substituted or unsubstituted alkyl and p is from 1 to 10; R 1 and R 3 are each independently selected from H and substituted or unsubstituted alkyl; and R 2 is selected from OR 4 , substituted or unsubstituted alkyl, and substituted or unsubstituted phenyl, wherein R 4 is selected from H and substituted or unsubstituted alkyl.
A method of arranging a vessel assembly comprising first and second vessels interconnected via a flexible conduit for transferring matter between the first and second vessels , a first end of the conduit in fluid communication with a first manifold of the first vessel , a second end of the conduit in fluid communication with a second manifold of the second vessel , the method comprising the steps of: for each of a plurality of combinations of drafts of the vessels , calculating a respective manifold height difference between the respective heights of the first and second manifolds above a waterline; calculating a plurality of maximum operating distances between the vessels , wherein each of the plurality of calculated maximum operating distances respectively corresponds to a respective one of the plurality of calculated manifold height differences, wherein each calculated maximum operating distance between the vessels corresponds to the maximum distance to which the vessels can drift apart before the conduit becomes taut at the respective manifold height difference; and arranging the vessels within a working envelope that corresponds to the plurality of calculated maximum operating distances between the vessels . for each of a plurality of combinations of drafts of the vessels , calculating a respective manifold height difference between the respective heights of the first and second manifolds above a waterline; calculating a plurality of maximum operating distances between the vessels , wherein each of the plurality of calculated maximum operating distances respectively corresponds to a respective one of the plurality of calculated manifold height differences, wherein each calculated maximum operating distance between the vessels corresponds to the maximum distance to which the vessels can drift apart before the conduit becomes taut at the respective manifold height difference; and arranging the vessels within a working envelope that corresponds to the plurality of calculated maximum operating distances between the vessels .
A system comprising: a laser; a microfluidic channel; a sensor ; a memory ; and a processor configured to execute instructions stored in the memory, wherein the instructions, when executed, cause the processor to: store a known concentration of a control analyte, the control analyte being present in a control sample at the known concentration; determine, using the known concentration of the control analyte and an empirically determined model, at least one empirically determined characteristic of the control analyte; perform, using the laser, multiple tests of the control sample at different laser powers applied to the microfluidic channel; obtain measurements from the sensor while performing the multiple tests; determine, based on the measurements from the sensor, at least one measured characteristic of the control analyte; compute a laser power based on a comparison between the at least one measured characteristic and the at least one empirically determined characteristic; and perform, using the laser at the computed laser power, at least one test of a sample. a laser; a microfluidic channel; a sensor ; a memory ; and a processor configured to execute instructions stored in the memory, wherein the instructions, when executed, cause the processor to: store a known concentration of a control analyte, the control analyte being present in a control sample at the known concentration; determine, using the known concentration of the control analyte and an empirically determined model, at least one empirically determined characteristic of the control analyte; perform, using the laser, multiple tests of the control sample at different laser powers applied to the microfluidic channel; obtain measurements from the sensor while performing the multiple tests; determine, based on the measurements from the sensor, at least one measured characteristic of the control analyte; compute a laser power based on a comparison between the at least one measured characteristic and the at least one empirically determined characteristic; and perform, using the laser at the computed laser power, at least one test of a sample. store a known concentration of a control analyte, the control analyte being present in a control sample at the known concentration; determine, using the known concentration of the control analyte and an empirically determined model, at least one empirically determined characteristic of the control analyte; perform, using the laser, multiple tests of the control sample at different laser powers applied to the microfluidic channel; obtain measurements from the sensor while performing the multiple tests; determine, based on the measurements from the sensor, at least one measured characteristic of the control analyte; compute a laser power based on a comparison between the at least one measured characteristic and the at least one empirically determined characteristic; and perform, using the laser at the computed laser power, at least one test of a sample.
Method for predicting a channel between a transceiver and a connected vehicle, said vehicle comprising at least one antenna, known as "main antenna", dedicated to exchanges of payload data with said transceiver, and at least one other antenna, known as "predictor antenna", placed in front of the main antenna, an estimate of the radio channel at a current position of the predictor antenna making it possible to predict the radio channel that the main antenna will be dealing with when the main antenna reaches the current position of the predictor antenna, characterized in that it comprises the following steps: - selecting, on the basis of an initial conjecture of a speed and of an acceleration of the vehicle, for a given multiplet of channel samples measured at the main antenna, a multiplet of channel samples measured at the predictor antenna, each sample of the predictor antenna being selected such that it corresponds to a given sample of the main antenna subsequently measured at the same position, assuming that the vehicle has moved at said speed and said acceleration of said initial conjecture, - calculating a criterion associating said multiplet of samples measured at the main antenna with said multiplet of samples measured at the predictor antenna, - determining a speed/acceleration pair that optimizes said criterion, and, - in order to predict the channel between the transceiver and the main antenna, selecting samples of the predictor antenna by way of said determined speed/acceleration pair. - selecting, on the basis of an initial conjecture of a speed and of an acceleration of the vehicle, for a given multiplet of channel samples measured at the main antenna, a multiplet of channel samples measured at the predictor antenna, each sample of the predictor antenna being selected such that it corresponds to a given sample of the main antenna subsequently measured at the same position, assuming that the vehicle has moved at said speed and said acceleration of said initial conjecture, - calculating a criterion associating said multiplet of samples measured at the main antenna with said multiplet of samples measured at the predictor antenna, - determining a speed/acceleration pair that optimizes said criterion, and, - in order to predict the channel between the transceiver and the main antenna, selecting samples of the predictor antenna by way of said determined speed/acceleration pair.
Method for determining an overall loss of capacitance of a secondary cell upon passage of a first interval from a first initial value up to a first final value for a charge throughput , and of a second interval, following the first interval, from a second initial value up to a second final value for the charge throughput , wherein the overall loss of capacitance and the charge throughput are described via the relationship Q loss = B ⋅ exp − E a RT ⋅ I * t 2 , in which Q loss is the loss of capacitance, R is the universal gas constant, T is a temperature, t is a time, B is a prefactor which can be adjusted to boundary conditions of the secondary cell, E a is an activation energy which can be adjusted to boundary conditions of the secondary cell, and z is an exponent which can be adjusted to boundary conditions of the secondary cell, wherein, in the method, - a first partial loss of capacitance is determined for the first interval with the aid of the first final value by means of a first function which describes the relationship between the charge throughput and the loss of capacitance with a first boundary condition, - a second partial loss of capacitance is determined for the second interval by means of a second function which describes the relationship between the charge throughput and the loss of capacitance with a second boundary condition, - the overall loss of capacitance is determined by means of adding the partial losses of capacitance , characterized in that the second interval is displaced for use in the second function in such a way that a result value of the second function for the second initial value corresponds to a result value of the first function for the first final value . - a first partial loss of capacitance is determined for the first interval with the aid of the first final value by means of a first function which describes the relationship between the charge throughput and the loss of capacitance with a first boundary condition, - a second partial loss of capacitance is determined for the second interval by means of a second function which describes the relationship between the charge throughput and the loss of capacitance with a second boundary condition, - the overall loss of capacitance is determined by means of adding the partial losses of capacitance ,
An apparatus for determining a blood characteristic in a human finger, comprising: a light source to generate a plurality of light beams , each of the plurality of light beams having a different wavelength range; a light funnel , of frusto-conical shape, to collect the plurality of light beams through an entrance opening having a first diameter and to direct the plurality of light beams to a target area of the human finger through an exit opening having a second diameter, wherein the second diameter is less than the first diameter; an aperture to direct the plurality of light beams attenuated by the finger; a lens configured to collect the plurality of light beams directed from the aperture; a detector comprising a plurality of light-sensing devices each configured to detect a light beam passing through the lens and configured to generate an output signal indicative of an intensity of light detected; and a processor configured to determine the blood characteristic as a function of each generated output signal, wherein the output signal contains information of a light absorption by the human finger exhibiting a cyclic pattern that corresponds to a heartbeat. a light source to generate a plurality of light beams , each of the plurality of light beams having a different wavelength range; a light funnel , of frusto-conical shape, to collect the plurality of light beams through an entrance opening having a first diameter and to direct the plurality of light beams to a target area of the human finger through an exit opening having a second diameter, wherein the second diameter is less than the first diameter; an aperture to direct the plurality of light beams attenuated by the finger; a lens configured to collect the plurality of light beams directed from the aperture; a detector comprising a plurality of light-sensing devices each configured to detect a light beam passing through the lens and configured to generate an output signal indicative of an intensity of light detected; and a processor configured to determine the blood characteristic as a function of each generated output signal, wherein the output signal contains information of a light absorption by the human finger exhibiting a cyclic pattern that corresponds to a heartbeat.
An additive manufacturing build plate, comprising: a top surface, a bottom surface, and sidewalls comprised of a material, wherein the top surface, bottom surface, and sidewalls are dimensioned such that the build plate is useable in a 3D printing device; and a recessed section formed through the top surface, wherein the recessed section comprises a hole extending through the bottom of the build plate; and a solid metal or metal alloy disposed in the recessed section to provide a surface for forming a 3D printed object in the 3D printing device, wherein the solid metal or metal alloy has a solidus temperature that is lower than a solidus temperature of the material forming the top surface, bottom surface and sidewalls of the build plate. a top surface, a bottom surface, and sidewalls comprised of a material, wherein the top surface, bottom surface, and sidewalls are dimensioned such that the build plate is useable in a 3D printing device; and a recessed section formed through the top surface, wherein the recessed section comprises a hole extending through the bottom of the build plate; and a solid metal or metal alloy disposed in the recessed section to provide a surface for forming a 3D printed object in the 3D printing device, wherein the solid metal or metal alloy has a solidus temperature that is lower than a solidus temperature of the material forming the top surface, bottom surface and sidewalls of the build plate.
A transport system for the transport of samples in an analysis laboratory, in particular a medical and/or chemical analysis laboratory, having a transport rail defining travel paths and having at least one transport trolley which is set up for movement along the travel paths on the transport rail and has a receptacle set up for picking up, holding and carrying along a sample vessel containing a sample to be transported, holding and carrying a receptacle which contains a sample vessel to be transported, wherein the transport trolley has electromotively driven wheels , an electrical energy store for providing electrical energy for the electromotive drive of the wheels and a controller for the electromotive drive , wherein longitudinal grooves are guided along the travel paths in the transport rail and a guide projection is formed on the transport trolley projecting on the underside and designed to engage in the longitudinal grooves , and wherein the transport trolley has four wheels which are each placed in an arrangement of two axles aligned parallel to one another, characterised in that of the four wheels the wheels of a first axle are driven, the wheels of a second axle are not driven and in that the wheels of the driven axle are each connected to their own electric motor drive and can each be driven via the latter at a rotational speed which can be individually preset by the control system. wherein longitudinal grooves are guided along the travel paths in the transport rail and a guide projection is formed on the transport trolley projecting on the underside and designed to engage in the longitudinal grooves , and wherein the transport trolley has four wheels which are each placed in an arrangement of two axles aligned parallel to one another, characterised in that of the four wheels the wheels of a first axle are driven, the wheels of a second axle are not driven and in that the wheels of the driven axle are each connected to their own electric motor drive and can each be driven via the latter at a rotational speed which can be individually preset by the control system.
An injection-molding system , comprising: an extruding system configured to produce a mixture of a polymeric material and a blowing agent; a plurality of discharging channels communicable with the extruding system , wherein each of the discharging channels includes an outlet disposed distal from the extruding system and configured to discharge the mixture; a molding device configured to receive the mixture from the outlets and including: a hollow space ; characterized in that a plurality of feeding ports communicable with the hollow space and correspondingly engageable with the outlets ; and a supporting device configured to facilitate an engagement of the discharging channels and the molding device . an extruding system configured to produce a mixture of a polymeric material and a blowing agent; a plurality of discharging channels communicable with the extruding system , wherein each of the discharging channels includes an outlet disposed distal from the extruding system and configured to discharge the mixture; a molding device configured to receive the mixture from the outlets and including: a hollow space ; characterized in that a plurality of feeding ports communicable with the hollow space and correspondingly engageable with the outlets ; and a supporting device configured to facilitate an engagement of the discharging channels and the molding device . a hollow space ; characterized in that a plurality of feeding ports communicable with the hollow space and correspondingly engageable with the outlets ; and a supporting device configured to facilitate an engagement of the discharging channels and the molding device .
A method for use in a radio node in a wireless communication system for one of transmitting and receiving a phase-tracking reference signal, PT-RS, the method comprising: obtaining (S120) information about a position in a time domain of a scheduled front-loaded demodulation reference signal, DM-RS, in a slot; obtaining information about a position of a first time symbol in the slot scheduled for data transmission; obtaining information about a position of a last time symbol in the slot scheduled for data transmission; and one of transmitting and receiving (S122) the PT-RS within the slot, wherein the position of the PT-RS depends on the position in the time domain of the scheduled front-loaded DM-RS, on the position of the first and last time symbol in the slot and on a time density in the time domain for PT-RS. obtaining (S120) information about a position in a time domain of a scheduled front-loaded demodulation reference signal, DM-RS, in a slot; obtaining information about a position of a first time symbol in the slot scheduled for data transmission; obtaining information about a position of a last time symbol in the slot scheduled for data transmission; and one of transmitting and receiving (S122) the PT-RS within the slot, wherein the position of the PT-RS depends on the position in the time domain of the scheduled front-loaded DM-RS, on the position of the first and last time symbol in the slot and on a time density in the time domain for PT-RS.
A method of preparing a compound of formula (I): comprising the following step (A): wherein a compound of formula (IIa): is allowed to react with a compound of formula (VI): optionally in the presence of an organic base, particularly a weak base, such as a tertiary amine, such as N,N-diisopropylethylamine for example, optionally in an aromatic hydrocarbon solvent, such as toluene, xylene and mesitylene for example, thereby providing said compound of formula (I). optionally in the presence of an organic base, particularly a weak base, such as a tertiary amine, such as N,N-diisopropylethylamine for example, optionally in an aromatic hydrocarbon solvent, such as toluene, xylene and mesitylene for example, thereby providing said compound of formula (I).
Carbidopa, levodopa and entacapone for use as a combination in the treatment of Parkinson's disease, wherein the carbidopa and the levodopa are formulated as a sole parenteral composition for continuous subcutaneous administration, and said entacapone is formulated as an oral composition and is administered at a dose of 400, 450, 500, 550 or 600 mg twice or three times a day.