mhurhangee/patent-ind-claim-en huggingface dataset:
A method for digital microscopy imaging, the method comprising: capturing (S1, S11, S110) with a camera comprising a programmable logic device, a plurality of images of a position in a biological sample, wherein each image is captured at a different focal distance (z), determining (S2, S12, S120) in the programmable logic device in the camera , a focus value (f) for each captured image, for each captured image, comparing (S3, S15, S140) the focus value (f) of the captured image with at least one threshold focus value (t, t1, t2), wherein the at least one threshold focus value (t, t1, t2) is calculated as a threshold percentage of a highest determined focus value for the captured images, wherein the threshold percentage is lower than 100 %; upon determining (S2, S12, S120) that the focus value (f) of the captured image exceeds the at least one threshold focus value (t, t1, t2), marking (S4, S16, S150) the captured image as an interesting image, and transmitting (S5, S17, S130) the images marked (S4, S16, S150) as interesting from the camera to a separate computing unit . capturing (S1, S11, S110) with a camera comprising a programmable logic device, a plurality of images of a position in a biological sample, wherein each image is captured at a different focal distance (z), determining (S2, S12, S120) in the programmable logic device in the camera , a focus value (f) for each captured image, for each captured image, comparing (S3, S15, S140) the focus value (f) of the captured image with at least one threshold focus value (t, t1, t2), wherein the at least one threshold focus value (t, t1, t2) is calculated as a threshold percentage of a highest determined focus value for the captured images, wherein the threshold percentage is lower than 100 %; upon determining (S2, S12, S120) that the focus value (f) of the captured image exceeds the at least one threshold focus value (t, t1, t2), marking (S4, S16, S150) the captured image as an interesting image, and
A conductive mesh for a leak detection system formed from a single conductive layer comprising a plurality of first members and a plurality of second members , characterised in that the first and second members comprise plastics material and carbon mixed in with the plastics material, and the first members cross the second members in a grid arrangement, wherein the conductive mesh further comprises a plurality of fastening means to hold the first and second members together, and wherein the conductive mesh is self-supporting.
A light module for an illumination device of a motor vehicle, comprising a control unit for open-loop and/or closed-loop control of the light module , the light module comprising a number of semiconductor light sources which are connected in series and can be bridged by means of a relevant switching unit , characterized in that a low-dropout voltage regulator is connected in series to the bridgeable semiconductor light sources , such that a series connection comprises the bridgeable semiconductor light sources and the low-dropout voltage regulator , the low-dropout voltage regulator having a control unit and an operational amplifier , and the low-dropout voltage regulator being designed such that a feedback voltage and a reference voltage are fed to the operational amplifier , with a difference between the feedback voltage and the reference voltage being amplified by means of the operational amplifier and being output as an actuating signal , the operational amplifier actuating the control unit by means of the actuating signal , the feedback voltage resulting from a center tap of a voltage divider of the light module consisting of two resistors , which tap is connected in parallel to the series connection , and a microcontroller of the light module being designed to generate the reference voltage on the basis of the feedback voltage , with a total voltage , which drops across the series connection comprising the bridgeable semiconductor light sources and the low-dropout voltage regulator , being determined by means of the feedback voltage via the microcontroller, and the reference voltage being generated on the basis of the determined total voltage , the control unit being actuated by the reference voltage being adjusted by means of the microcontroller in order to generate a resistance, and upon recognition of a drop of the total voltage or of the voltage across the bridgeable semiconductor light sources , the low-dropout voltage regulator being configured to replace a bridged semiconductor light source of the bridgeable semiconductor light sources with a correspondingly adjusted resistance by means of the resistance generated by the control unit , which resistance is ideally reduced to zero ohm within a time window. with a total voltage , which drops across the series connection comprising the bridgeable semiconductor light sources and the low-dropout voltage regulator , being determined by means of the feedback voltage via the microcontroller, and the reference voltage being generated on the basis of the determined total voltage , the control unit being actuated by the reference voltage being adjusted by means of the microcontroller in order to generate a resistance, and upon recognition of a drop of the total voltage or of the voltage across the bridgeable semiconductor light sources , the low-dropout voltage regulator being configured to replace a bridged semiconductor light source of the bridgeable semiconductor light sources with a correspondingly adjusted resistance by means of the resistance generated by the control unit , which resistance is ideally reduced to zero ohm within a time window.
A partially cross-linked esterified cellulose ether having A) groups of the formula -C(O) - R - COOA or a combination of aliphatic monovalent acyl groups and groups of the formula -C(O) - R - COOA, wherein R is a divalent aliphatic or aromatic hydrocarbon group and A is hydrogen or a cation, and B) having a molecular weight distribution such that [Wf(>100k) - Wf(>100k)XL] / Wf(>100k)XL is at least 0.20, wherein Wf(>100k) is the total weight fraction of the esterified cellulose ether that exceeds 100,000 g/mol, and Wf(>100k)XL is the weight fraction that exceeds 100,000 g/mol of the esterified cellulose ether that has been subjected to methylation after production of the esterified cellulose ether, wherein Wf(>100k) and Wf(>100k)XL are determined by Size Exclusion Chromatography using tetrahydrofuran as eluent and polystyrene calibration standards; and wherein the esterified cellulose ether has a weight average molecular weight M w of from 80,000 Dalton to 350,000 Dalton, measured by SEC-MALLS using as mobile phase a mixture of 40 parts by volume of acetonitrile and 60 parts by volume of aqueous buffer containing 50 mM NaH 2 PO 4 and 0.1 M NaNO 3 A) groups of the formula -C(O) - R - COOA or a combination of aliphatic monovalent acyl groups and groups of the formula -C(O) - R - COOA, wherein R is a divalent aliphatic or aromatic hydrocarbon group and A is hydrogen or a cation, and B) having a molecular weight distribution such that wherein Wf(>100k) is the total weight fraction of the esterified cellulose ether that exceeds 100,000 g/mol, and Wf(>100k)XL is the weight fraction that exceeds 100,000 g/mol of the esterified cellulose ether that has been subjected to methylation after production of the esterified cellulose ether, wherein Wf(>100k) and Wf(>100k)XL are determined by Size Exclusion Chromatography using tetrahydrofuran as eluent and polystyrene calibration standards; and
A slam-shut safety valve comprising: a valve body ; an upper case mounted to the valve body ; a diaphragm disposed between the valve body and the upper case , at least part of the diaphragm being displaceable into an interior portion of the valve body and into an interior portion of the upper case , the diaphragm having a first side being exposed to gas system pressure; a spring disposed within the interior of the upper case , the spring exerting a spring force on a second side of the diaphragm opposite the gas system pressure; a plunger connected to the first side of the diaphragm ; a release element mounted within the interior of the valve body ; a relatch plug operatively connected to a reset rod , the relatch plug cooperating with the release element to move a safety disc between an armed position in which the safety disc is spaced apart from a valve seat and an activated position in which the safety disc cooperates with the valve seat to prevent fluid flow through the valve seat; characterized in that the slam-shut safety valve comprises a relatch sheath , which is seated within a bore in the valve body , the relatch sheath receiving a portion of the relatch plug to guide movement of the relatch plug , wherein the relatch plug slides within the relatch sheath . a valve body ; an upper case mounted to the valve body ; a diaphragm disposed between the valve body and the upper case , at least part of the diaphragm being displaceable into an interior portion of the valve body and into an interior portion of the upper case , the diaphragm having a first side being exposed to gas system pressure; a spring disposed within the interior of the upper case , the spring exerting a spring force on a second side of the diaphragm opposite the gas system pressure; a plunger connected to the first side of the diaphragm ; a release element mounted within the interior of the valve body ; a relatch plug operatively connected to a reset rod , the relatch plug cooperating with the release element to move a safety disc between an armed position in which the safety disc is spaced apart from a valve seat and an activated position in which the safety disc cooperates with the valve seat to prevent fluid flow through the valve seat; characterized in that the slam-shut safety valve comprises a relatch sheath , which is seated within a bore in the valve body , the relatch sheath receiving a portion of the relatch plug to guide movement of the relatch plug , wherein the relatch plug slides within the relatch sheath .
An apparatus for examining a pathological interaction between different brain areas, comprising a stimulation unit which is configured such that it successively administers identical stimuli to a patient, wherein the stimuli stimulate neurons of the patient in the brain areas to be examined; a measuring unit for recording measured signals which reproduce a neural activity of the stimulated neurons at only one brain area of the brain; and a control and analysis unit for controlling the stimulation unit and for analyzing the measured signals, wherein the control and analysis unit is configured such that it controls the stimulation unit such that it administers the stimuli to the patient; and transforms the measured signals into the complex plane, examines the distribution of the phases of the measured signals recorded by the measuring unit in the complex number plane as a response to the stimuli administered to the patient and determines the probability with which the phase distribution differs from an equal distribution on the basis of the distribution of the phases of the measured signals that reproduce the neural activity of the stimulated neurons at only the one brain area of the brain in order to determine whether a pathological interaction between the brain areas is present.
Method for cleaning a respirator , comprising the following steps: a) providing the respirator , the respirator having at least one gas carrying element with at least one warning whistle , the warning whistle being set up to emit a warning tone when at least a pressure that is below a minimum pressure is applied to the gas carrying element ; b) applying at least one cleaning fluid to the respirator ; and c) flushing the warning whistle with at least one pressurized gas, wherein step c) is at least partially carried out at the same time as step b) and wherein the flushing is performed in such a way that the pressurized gas flows out through at least one outlet opening of the warning whistle , so that penetration of cleaning fluid through the outlet opening is at least largely prevented by the pressurized gas flowing out. a) providing the respirator , the respirator having at least one gas carrying element with at least one warning whistle , the warning whistle being set up to emit a warning tone when at least a pressure that is below a minimum pressure is applied to the gas carrying element ; b) applying at least one cleaning fluid to the respirator ; and c) flushing the warning whistle with at least one pressurized gas, wherein step c) is at least partially carried out at the same time as step b) and wherein the flushing is performed in such a way that the pressurized gas flows out through at least one outlet opening of the warning whistle , so that penetration of cleaning fluid through the outlet opening is at least largely prevented by the pressurized gas flowing out.
An apparatus comprising: a sound transducer; a casing member , where the sound transducer is mounted to the casing member, and where the casing member is configured to at least partially form an enclosure for the sound transducer; an antenna integrally formed with the casing member, wherein the antenna forms an antenna pattern; at least two electrical conductor wirings integrally formed with the casing member, wherein the at least two electrical conductor wirings are electrically connected to the sound transducer; and at least one coupling component configured to couple the antenna to at least one of the at least two electrical conductor wirings, wherein the at least two electrical conductor wirings are configured to provide electrical connectivity for the sound transducer, wherein the said at least one of the at least two electrical conductor wirings is configured to couple to the antenna pattern to form at least part of an antenna arrangement. a sound transducer; a casing member , where the sound transducer is mounted to the casing member, and where the casing member is configured to at least partially form an enclosure for the sound transducer; an antenna integrally formed with the casing member, wherein the antenna forms an antenna pattern; at least two electrical conductor wirings integrally formed with the casing member, wherein the at least two electrical conductor wirings are electrically connected to the sound transducer; and at least one coupling component configured to couple the antenna to at least one of the at least two electrical conductor wirings, wherein the at least two electrical conductor wirings are configured to provide electrical connectivity for the sound transducer, wherein the said at least one of the at least two electrical conductor wirings is configured to couple to the antenna pattern to form at least part of an antenna arrangement.
A method of establishing a hybrid automatic retransmission request, HARQ, process in a wireless access system supporting machine type communication, MTC, the method performed by a base station and comprising: determining (S2410) a number of HARQ processes to be applied to an MTC user equipment, UE; and transmitting (S2420) downlink control information including a HARQ process value allocated to the MTC UE in the determined number of HARQ processes, wherein the number of HARQ processes is determined based on relative sizes of a number N1 of times of repeated transmission of a physical downlink control channel, PDCCH, to the MTC UE and a number N2 of times of repeated transmission of a physical downlink shared channel, PDSCH, and one or more of a time F necessary for the MTC UE to receive and process the repeatedly received PDCCH, a time p1 necessary for the MTC UE to receive and process the repeatedly received PUCCH, a number N3 of times of repeated transmission of a physical uplink control channel, PUCCH, and a time p0 necessary for the base station to receive and process the repeatedly transmitted PUCCH. determining (S2410) a number of HARQ processes to be applied to an MTC user equipment, UE; and transmitting (S2420) downlink control information including a HARQ process value allocated to the MTC UE in the determined number of HARQ processes, wherein the number of HARQ processes is determined based on relative sizes of a number N1 of times of repeated transmission of a physical downlink control channel, PDCCH, to the MTC UE and a number N2 of times of repeated transmission of a physical downlink shared channel, PDSCH, and one or more of a time F necessary for the MTC UE to receive and process the repeatedly received PDCCH, a time p1 necessary for the MTC UE to receive and process the repeatedly received PUCCH, a number N3 of times of repeated transmission of a physical uplink control channel, PUCCH, and a time p0 necessary for the base station to receive and process the repeatedly transmitted PUCCH.
A preventive or therapeutic agent for use in treating cerebral amyloid β storage diseases consisting of as an active ingredient a compound represented by Formula (A) (iguratimod) or a salt thereof: and one or more pharmaceutically acceptable additives.
A computer-implemented method for predicting performance of strains in processes, the strains being capable of fermentation of biomass for production of at least bio-ethanol, the method including the steps of: receiving a first process data set related to a performance of a first strain in a first process for producing bio-ethanol at a first site, receiving a second process data set related to a performance of a second strain in the first process for producing bio-ethanol at the first site, receiving a third process data set related to a performance of the first strain in a second process for producing bio-ethanol at a second site, the second site being different from the first site, and wherein the first, second and third process data sets each include one or more process profiles and/or process responses, determining a first correlation between the first process data set and the second process data set, and determining a second correlation between the first process data and the third process data, reconstructing a fourth process data set related to a performance of the second strain in the second process for producing bio-ethanol at the second site by missing data imputation, wherein the fourth process data set is estimated based on the first correlation and the second correlation, and using the reconstructed fourth process data set as a prediction of the performance of the second strain in the second process at the second site. receiving a first process data set related to a performance of a first strain in a first process for producing bio-ethanol at a first site, receiving a second process data set related to a performance of a second strain in the first process for producing bio-ethanol at the first site, receiving a third process data set related to a performance of the first strain in a second process for producing bio-ethanol at a second site, the second site being different from the first site, and wherein the first, second and third process data sets each include one or more process profiles and/or process responses, determining a first correlation between the first process data set and the second process data set, and determining a second correlation between the first process data and the third process data, reconstructing a fourth process data set related to a performance of the second strain in the second process for producing bio-ethanol at the second site by missing data imputation, wherein the fourth process data set is estimated based on the first correlation and the second correlation, and using the reconstructed fourth process data set as a prediction of the performance of the second strain in the second process at the second site.
A Device to Device, D2D, communication method performed by a first D2D device within coverage of a cellular network, comprising: determining , by the first D2D device, a target resource from a resource pool, wherein the resource pool is used for D2D communication and the target resource is an occupied resource in the resource pool; determining , by the first D2D device, a resource usage parameter of the resource pool according to the target resource, wherein the resource usage parameter indicates a proportion of the occupied resource to total resources of the resource pool; and sending, by the first D2D device, based on the resource usage parameter, scheduling information in a special format at the D2D air interface in the resource pool to one or more other D2D devices using the resource pool, wherein the scheduling information in the special format indicates to the other D2D devices using the resource pool and receiving the scheduling information in the special format to perform D2D communication in a collision avoiding manner, and wherein the resource usage parameter is smaller than a second threshold value and larger than a third threshold value. determining , by the first D2D device, a target resource from a resource pool, wherein the resource pool is used for D2D communication and the target resource is an occupied resource in the resource pool; determining , by the first D2D device, a resource usage parameter of the resource pool according to the target resource, wherein the resource usage parameter indicates a proportion of the occupied resource to total resources of the resource pool; and sending, by the first D2D device, based on the resource usage parameter, scheduling information in a special format at the D2D air interface in the resource pool to one or more other D2D devices using the resource pool, wherein the scheduling information in the special format indicates to the other D2D devices using the resource pool and receiving the scheduling information in the special format to perform D2D communication in a collision avoiding manner, and wherein the resource usage parameter is smaller than a second threshold value and larger than a third threshold value.
Method for preparing a single-phase reversible electric machine for starting a combustion engine of a vehicle fitted with an automatic stop-start system, said reversible electric machine including a rotor that is coupled to said combustion engine, said method including steps consisting in detecting an action prior to a command to start the combustion engine, and in applying, to the rotor of said machine, a magnetizing electric current on detection of said prior action, said prior action being a depression of a drive control pedal for the combustion engine, characterized in that said method includes a step of: - detecting a first level of depression triggering the application of said magnetizing electric current to the rotor of the reversible electric machine, and a step of detecting a second level of depression triggering said start command; and in that - said first level of depression is at least equal to around 10% total depression and said second level of depression is at least equal to around 90% total depression. - detecting a first level of depression triggering the application of said magnetizing electric current to the rotor of the reversible electric machine, and a step of detecting a second level of depression triggering said start command; and in that - said first level of depression is at least equal to around 10% total depression and said second level of depression is at least equal to around 90% total depression.
A composition comprising, (a) a mineral particle having a diameter in the range of 50 microns to 2,000 microns, (b) a 3D cell culture comprising endothelial cells and mesenchymal cells organized in two or more cell layers, wherein said two or more cell layers are attached to said mineral particle, (c) hyaluronic acid, and optionally a biocompatible binder; wherein said two or more cell layers attached to said mineral particle are suspended in the hyaluronic acid, wherein said composition comprises at least 1×10 3 said endothelial cells and said mesenchymal cells per 1 mg of said mineral particle.