mhurhangee/patent-ind-claim-en huggingface dataset:
A method for detecting a target molecule in a sample, comprising the sequential steps of a. incubating at the same time in a buffer solution in a reaction well i. the sample suspected to contain one or more target molecules, ii. capture molecules suitable for binding to the target molecules, wherein the capture molecules are coupled to beads (capture-beads), iii. a defined amount of detection molecules suitable for binding to the target molecules and/or the capture molecules, wherein the detection molecules are coupled to beads (detection-beads), wherein the capture-beads are separable from the detection-beads, b. separating in the reaction well the capture-beads from the buffer solution comprising unbound detection-beads, and c. detecting remaining unbound detection-beads in the buffer solution, which has been separated from the capture-beads, wherein the detection of remaining unbound detection-beads occurs in the same reaction well as the incubation and separation by means of a label that does not require additional reagents for signal generation, wherein the method does not comprise a washing step. a. incubating at the same time in a buffer solution in a reaction well i. the sample suspected to contain one or more target molecules, ii. capture molecules suitable for binding to the target molecules, wherein the capture molecules are coupled to beads (capture-beads), iii. a defined amount of detection molecules suitable for binding to the target molecules and/or the capture molecules, wherein the detection molecules are coupled to beads (detection-beads), wherein the capture-beads are separable from the detection-beads, i. the sample suspected to contain one or more target molecules, ii. capture molecules suitable for binding to the target molecules, wherein the capture molecules are coupled to beads (capture-beads), iii. a defined amount of detection molecules suitable for binding to the target molecules and/or the capture molecules, wherein the detection molecules are coupled to beads (detection-beads), wherein the capture-beads are separable from the detection-beads, b. separating in the reaction well the capture-beads from the buffer solution comprising unbound detection-beads, and c. detecting remaining unbound detection-beads in the buffer solution, which has been separated from the capture-beads, wherein the detection of remaining unbound detection-beads occurs in the same reaction well as the incubation and separation by means of a label that does not require additional reagents for signal generation,
Method for integrating a radio-identification chip in a structure, characterised in that it comprises: - a step of positioning a chip, carried by a chip support formed of a first material, in a mould for manufacturing the structure, - a step of injecting a second material, miscible with the first material at an injection temperature of the second material, into the mould, - a step of melting the chip support in contact with the second material injected into the mould to form first and second mixed materials, and - a step of solidifying the first and second mixed materials, the chip being integrated in the solidified structure. - a step of positioning a chip, carried by a chip support formed of a first material, in a mould for manufacturing the structure, - a step of injecting a second material, miscible with the first material at an injection temperature of the second material, into the mould, - a step of melting the chip support in contact with the second material injected into the mould to form first and second mixed materials, and - a step of solidifying the first and second mixed materials, the chip being integrated in the solidified structure.
An agricultural baler , comprising: a bale chamber for the compression of crop material into bales, the bale chamber having a floor , a ceiling , a first wall and a second wall , and wherein a bale forming direction of the bale-chamber extends from an inlet end to an outlet end of the bale chamber ; a plunger for forcing the crop material from the inlet end of the bale chamber towards the outlet end of the bale chamber; wherein one or more of the ceiling , the first wall and the second wall comprises: an inner surface that defines the bale-chamber ; and an outer surface on the opposing side to the inner surface ; wherein, in the bale forming direction : the inner surface has a convex profile that defines an inner apex ; the outer surface has a convex profile that defines an outer apex ; and the outer apex is aligned with the inner apex . a bale chamber for the compression of crop material into bales, the bale chamber having a floor , a ceiling , a first wall and a second wall , and wherein a bale forming direction of the bale-chamber extends from an inlet end to an outlet end of the bale chamber ; a plunger for forcing the crop material from the inlet end of the bale chamber towards the outlet end of the bale chamber; wherein one or more of the ceiling , the first wall and the second wall comprises: an inner surface that defines the bale-chamber ; and an outer surface on the opposing side to the inner surface ; an inner surface that defines the bale-chamber ; and an outer surface on the opposing side to the inner surface ; wherein, in the bale forming direction : the inner surface has a convex profile that defines an inner apex ; the outer surface has a convex profile that defines an outer apex ; and the outer apex is aligned with the inner apex . the inner surface has a convex profile that defines an inner apex ; the outer surface has a convex profile that defines an outer apex ; and the outer apex is aligned with the inner apex .
A computer-implemented method of predicting pore pressure based on seismic data, comprising obtaining seismic inversion data based in part on seismic data collected from a formation with a seismic survey operation, wherein the seismic inversion data comprises seismic impedance data; calculating a pore-pressure transform, wherein the pore-pressure transform comprises one or more parameters derived using measured pore pressure data, at least one upscaled sonic log, and at least one density log, wherein the pore-pressure transform comprises an objective function to reduce unphysical variations in predicted pore pressure corresponding to depth, the objective function including a first term configured to minimize a difference between measured pore pressure data and predicted pore pressure values and a second term configured to penalize solutions that produce large fluctuations in predicted pore pressure for a given formation as a function of depth resulting from variation in rock composition within the formation; adjusting the pore-pressure transform for sampling bias caused by pore pressure measurements being restricted to a plurality of lithologies by accounting for a difference between upscaled seismic velocities and average sonic velocities within each of the lithologies; generating one or more pore pressure prediction values based on the pore-pressure transform for the lithologies and the seismic inversion data; modifying a seismic model based on the generated one or more pore pressure prediction values; and outputting the modified seismic model for use in resource extraction operations. obtaining seismic inversion data based in part on seismic data collected from a formation with a seismic survey operation, wherein the seismic inversion data comprises seismic impedance data; calculating a pore-pressure transform, wherein the pore-pressure transform comprises one or more parameters derived using measured pore pressure data, at least one upscaled sonic log, and at least one density log, wherein the pore-pressure transform comprises an objective function to reduce unphysical variations in predicted pore pressure corresponding to depth, the objective function including a first term configured to minimize a difference between measured pore pressure data and predicted pore pressure values and a second term configured to penalize solutions that produce large fluctuations in predicted pore pressure for a given formation as a function of depth resulting from variation in rock composition within the formation; adjusting the pore-pressure transform for sampling bias caused by pore pressure measurements being restricted to a plurality of lithologies by accounting for a difference between upscaled seismic velocities and average sonic velocities within each of the lithologies; generating one or more pore pressure prediction values based on the pore-pressure transform for the lithologies and the seismic inversion data; modifying a seismic model based on the generated one or more pore pressure prediction values; and outputting the modified seismic model for use in resource extraction operations.
Electrical power supply method for a hybrid motor vehicle with two electrical energy storage devices of the type consisting in providing said vehicle both with an electrical power network comprising an electric motor-generator and a first electrical energy storage device having a first nominal voltage, and with an electrical service network comprising a second electrical energy storage device having a second nominal voltage that is lower than said first nominal voltage, said electrical power network and said electrical service network being connected to one another by a reversible DC-to-DC converter , in which method a first optimal current (I ESS1 ), flowing through said first storage device , and a second optimal current (I ESS2 ), flowing through said second storage device , are determined according to operating parameters of said first and second electrical energy storage devices so as to minimize losses through thermal dissipation, said method being characterized in that said first and second optimal currents (I ESS1 , I ESS2 ) are further determined according to an efficiency of said reversible DC-to-DC converter and according to an operating current (I inv ) flowing through one branch of said electrical power network comprising said motor-generator .
A method useful to potentiate the cytotoxicity of an EGFR antibody on EGFR+ disease cells without potentiating the cytotoxicity thereof on normal EGFR+ cells, the method comprising: (i) selecting, for conjugation, an EGFR antibody that is a full EGFR antagonist and competes with cetuximab for binding to EGFR; (ii) selecting, for delivery by the EGFR antibody, an anti-microtubule toxin; (iii) selecting, for coupling the selected EGFR antibody and the anti-microtubule toxin, a linker; and producing an immunoconjugate that incorporates the linker between the antibody and the toxin, thereby providing an immunoconjugate having a cytotoxicity that is potentiated against EGFR+ disease cells and essentially not potentiated against EGFR+ keratinocyte cells; wherein the selected EGFR antibody is an EGFR antibody having the amino acid sequence of SEQ ID No. 10 for the light chain and SEQ ID No. 9 for the heavy chain, the selected anti-microtubule toxin is the maytansinoid DM-1 and the selected linker is succinimidyl 4-(N-maleimidomethyl)-cyclohexane-1-carboxylate (SMCC). (i) selecting, for conjugation, an EGFR antibody that is a full EGFR antagonist and competes with cetuximab for binding to EGFR; (ii) selecting, for delivery by the EGFR antibody, an anti-microtubule toxin; (iii) selecting, for coupling the selected EGFR antibody and the anti-microtubule toxin, a linker; and
A method performed by a wireless device for transmitting user data on an uplink during random access, the method comprising: receiving a resource grant indicating a plurality of options for the transmitting of the user data on the uplink during random access, each respective option comprising: a transport block size, TBS; and a number of repetitions; wherein the plurality of options is indicated by a first option with a maximum permitted TBS and wherein the other options with smaller TBSs are derived from the first option by using a predefined set of values of smaller TBSs; wherein the number of repetitions for each of the options is determined as a function of the maximum permitted TBS and the maximum number of repetitions supported in the cell; and transmitting the user data on the uplink during random access to a base station according to at least one of the options. receiving a resource grant indicating a plurality of options for the transmitting of the user data on the uplink during random access, each respective option comprising: a transport block size, TBS; and a number of repetitions; a transport block size, TBS; and a number of repetitions; wherein the plurality of options is indicated by a first option with a maximum permitted TBS and wherein the other options with smaller TBSs are derived from the first option by using a predefined set of values of smaller TBSs; wherein the number of repetitions for each of the options is determined as a function of the maximum permitted TBS and the maximum number of repetitions supported in the cell; and transmitting the user data on the uplink during random access to a base station according to at least one of the options.
A method of a transmitter for frequency and quadrature amplitude modulation, FQAM, the method comprising: modulating data into a plurality of FQAM symbols; characterised in that the method further comprises: forming a space frequency block, SFB, based on the plurality of FQAM symbols; interleaving a plurality of tones constituting the FQAM symbols in the SFB such that tones having the same index are located in adjacent frequency resources; and transmitting the interleaved FQAM symbols through a plurality of transceivers, wherein the SFB is a matrix formed of a row and a column, the row having a length proportional to a number of the plurality of transceivers and a number of tones constituting a single FQAM symbol, and the column having a length corresponding to the number of the plurality of transceivers . modulating data into a plurality of FQAM symbols; characterised in that the method further comprises: forming a space frequency block, SFB, based on the plurality of FQAM symbols; interleaving a plurality of tones constituting the FQAM symbols in the SFB such that tones having the same index are located in adjacent frequency resources; and transmitting the interleaved FQAM symbols through a plurality of transceivers, wherein the SFB is a matrix formed of a row and a column, the row having a length proportional to a number of the plurality of transceivers and a number of tones constituting a single FQAM symbol, and the column having a length corresponding to the number of the plurality of transceivers . forming a space frequency block, SFB, based on the plurality of FQAM symbols; interleaving a plurality of tones constituting the FQAM symbols in the SFB such that tones having the same index are located in adjacent frequency resources; and transmitting the interleaved FQAM symbols through a plurality of transceivers, wherein the SFB is a matrix formed of a row and a column, the row having a length proportional to a number of the plurality of transceivers and a number of tones constituting a single FQAM symbol, and the column having a length corresponding to the number of the plurality of transceivers .
A control strategy for an electric motor of an electric power assisted steering system of the kind in which a control means produces motor current demand signals that are fed to a motor drive means , the demand signals being dependent on the amount of assistance torque demanded from the motor , the motor drive means being arranged to cause currents to flow in each phase of the motor as required to meet the demanded assistance torque, characterised by the control strategy comprising limiting the rate of change of current that is drawn from the electrical supply of the vehicle by the motor in the event that it would otherwise exceed a threshold rate of change.
A delivery system arranged so as to be applied to and/or built into and/or recessed in a ceiling or wall, wherein it comprises: i) a manifold element configured to be mechanically connected to at least one removable and/or interchangeable module (1a; 1b; 1c; 1d; 1e) and to hydraulically and electrically supply said at least one module (1a; 1b; 1c; 1d; 1 e); ii) at least one removable and/or interchangeable module (1a; 1b; 1c; 1d; 1e), said at least one module (1a; 1b; 1c; 1d; 1e) being applied to said manifold element and comprising at least one functional element and iii) connection means shared between said at least one module (1a; 1b; 1c; 1d; 1e) and said manifold element and configured to realize the mechanical connection of said at least one module (1a; 1b; 1c; 1d; 1e) to said manifold element and to realize the hydraulic and/or electrical connection of said at least one module (1a; 1b; 1c; 1d; 1e) to said manifold element . i) a manifold element configured to be mechanically connected to at least one removable and/or interchangeable module (1a; 1b; 1c; 1d; 1e) and to hydraulically and electrically supply said at least one module (1a; 1b; 1c; 1d; 1 e); ii) at least one removable and/or interchangeable module (1a; 1b; 1c; 1d; 1e), said at least one module (1a; 1b; 1c; 1d; 1e) being applied to said manifold element and comprising at least one functional element and iii) connection means shared between said at least one module (1a; 1b; 1c; 1d; 1e) and said manifold element and configured to realize the mechanical connection of said at least one module (1a; 1b; 1c; 1d; 1e) to said manifold element and to realize the hydraulic and/or electrical connection of said at least one module (1a; 1b; 1c; 1d; 1e) to said manifold element .
A composition of pharmaceutical, healthy or nutritional additive for use in preventing or treating acute fulminant hepatitis by decreasing serum levels of aspartate aminotransferase (AST) and alanine aminotransferase (ALT), comprising: a pharmaceutical, healthy or food acceptable vehicle, and an effective amount of a bioactive ingredient, wherein the bioactive ingredient is a galactolipids-enriched plant extract or a purified compound obtained from purification of the galactolipids-enriched plant extract, wherein the galactolipids-enriched plant extract is obtained by the steps of: (a) using water, methanol or ethanol to extract a plant sample, wherein the plant sample is selected from a group consisting of: Gynura divaricata subsp. formosana, Murdannia bracteata ( C . B. Clarke) J. K. Morton ex D. Y. Hong, and Crassocephalum rabens S . Moore; (b) using ethyl acetate to partition the extract from step (a) to obtain an ethyl acetate extract; (c) using an alcohol elution buffer for eluting a galactolipids-enriched fraction from the ethyl acetate extract from step (b), wherein the alcohol is 5% to 20 % volume percentage of the alcohol elution buffer, wherein the galactolipids-enriched fraction is a 1,2,di-O-α-linolenoyl-3-O-β-galactopyranosyl-sn-glycerol (dLGG)-enriched fraction. a pharmaceutical, healthy or food acceptable vehicle, and an effective amount of a bioactive ingredient, wherein the bioactive ingredient is a galactolipids-enriched plant extract or a purified compound obtained from purification of the galactolipids-enriched plant extract, wherein the galactolipids-enriched plant extract is obtained by the steps of: (a) using water, methanol or ethanol to extract a plant sample, wherein the plant sample is selected from a group consisting of: Gynura divaricata subsp. formosana, Murdannia bracteata ( C . B. Clarke) J. K. Morton ex D. Y. Hong, and Crassocephalum rabens S . Moore; (b) using ethyl acetate to partition the extract from step (a) to obtain an ethyl acetate extract; (c) using an alcohol elution buffer for eluting a galactolipids-enriched fraction from the ethyl acetate extract from step (b), wherein the alcohol is 5% to 20 % volume percentage of the alcohol elution buffer, (a) using water, methanol or ethanol to extract a plant sample, wherein the plant sample is selected from a group consisting of: Gynura divaricata subsp. formosana, Murdannia bracteata ( C . B. Clarke) J. K. Morton ex D. Y. Hong, and Crassocephalum rabens S . Moore; (b) using ethyl acetate to partition the extract from step (a) to obtain an ethyl acetate extract; (c) using an alcohol elution buffer for eluting a galactolipids-enriched fraction from the ethyl acetate extract from step (b), wherein the alcohol is 5% to 20 % volume percentage of the alcohol elution buffer, wherein the galactolipids-enriched fraction is a 1,2,di-O-α-linolenoyl-3-O-β-galactopyranosyl-sn-glycerol (dLGG)-enriched fraction.
A positive electrode comprising: a current collector; a first layer capable of irreversible deintercalation of lithium ions; and a second layer capable of reversible intercalation and deintercalation of lithium ions, wherein: the first layer comprises a first active material represented by Formula 1 below, and/or a second active material represented by Formula 2 below: Formula 1 Li 2 Mo 1-n R 1 n O 3 Formula 2 Li 2 Ni 1-m R 2 m O 2 wherein, in Formula 1, 0≤n<1; and R 1 is selected from the group consisting of manganese (Mn), iron (Fe), cobalt (Co), copper (Cu), zinc (Zn), magnesium (Mg), nickel (Ni), and combinations thereof; and in Formula 2, 0≤m<1; and R 2 is selected from the group consisting of Mn, Fe, Co, Cu, Zn, Mg, Mo, and combinations thereof; the second layer comprises a positive active material; and the first layer is disposed between the current collector and the second layer. a current collector; a first layer capable of irreversible deintercalation of lithium ions; and a second layer capable of reversible intercalation and deintercalation of lithium ions, wherein: the first layer comprises a first active material represented by Formula 1 below, and/or a second active material represented by Formula 2 below: Formula 1 Li 2 Mo 1-n R 1 n O 3 Formula 2 Li 2 Ni 1-m R 2 m O 2 wherein, in Formula 1, 0≤n<1; and R 1 is selected from the group consisting of manganese (Mn), iron (Fe), cobalt (Co), copper (Cu), zinc (Zn), magnesium (Mg), nickel (Ni), and combinations thereof; and in Formula 2, 0≤m<1; and R 2 is selected from the group consisting of Mn, Fe, Co, Cu, Zn, Mg, Mo, and combinations thereof; the second layer comprises a positive active material; and the first layer is disposed between the current collector and the second layer. the first layer comprises a first active material represented by Formula 1 below, and/or a second active material represented by Formula 2 below: Formula 1 Li 2 Mo 1-n R 1 n O 3 Formula 2 Li 2 Ni 1-m R 2 m O 2 wherein, in Formula 1, 0≤n<1; and R 1 is selected from the group consisting of manganese (Mn), iron (Fe), cobalt (Co), copper (Cu), zinc (Zn), magnesium (Mg), nickel (Ni), and combinations thereof; and in Formula 2, 0≤m<1; and R 2 is selected from the group consisting of Mn, Fe, Co, Cu, Zn, Mg, Mo, and combinations thereof; the second layer comprises a positive active material; and the first layer is disposed between the current collector and the second layer.