mhurhangee/patent-ind-claim-en huggingface dataset:
A method for CC bond formation using organolithium compounds under continuous flow conditions in a micro or mesoreactor system, characterized in that an organic substrate is reacted in the presence of a donor solvent with an alkyl lithium compound to form a Li intermediate, which can be reacted in situ or subsequently in a second reaction step with an electrophile to form an organic secondary product, the organolithium compound RLi being used as a solution in a hydrocarbon or hydrocarbon mixture, and the RLi concentration being at least 3 M, preferably at least 4 M.
A terminal comprising: a control section configured to generate a Hybrid Automatic Repeat reQuest ACKnowledgement , HARQ-ACK, codebook including a first HARQ-ACK sub-codebook related to transport block, TB, -based physical downlink shared channel, PDSCH , a second HARQ-ACK sub-codebook related to code block group , CBG, -based PDSCH, and a third HARQ-ACK sub-codebook related to semi-persistent scheduling, SPS ; and a transmitting section configured to transmit HARQ-ACK information corresponding to the HARQ-ACK codebook by using one physical uplink control channel, PUCCH; characterized in that the control section is further configured to: configure the first HARQ-ACK sub-codebook to include HARQ-ACK corresponding to SPS release or HARQ-ACK corresponding to SPS PDSCH related to downlink control information for SPS activation, and configure the third HARQ-ACK sub-codebook to include HARQ-ACK corresponding to SPS PDSCH not related to the downlink control information for the SPS activation. a control section configured to generate a Hybrid Automatic Repeat reQuest ACKnowledgement , HARQ-ACK, codebook including a first HARQ-ACK sub-codebook related to transport block, TB, -based physical downlink shared channel, PDSCH , a second HARQ-ACK sub-codebook related to code block group , CBG, -based PDSCH, and a third HARQ-ACK sub-codebook related to semi-persistent scheduling, SPS ; and a transmitting section configured to transmit HARQ-ACK information corresponding to the HARQ-ACK codebook by using one physical uplink control channel, PUCCH; characterized in that the control section is further configured to: configure the first HARQ-ACK sub-codebook to include HARQ-ACK corresponding to SPS release or HARQ-ACK corresponding to SPS PDSCH related to downlink control information for SPS activation, and configure the third HARQ-ACK sub-codebook to include HARQ-ACK corresponding to SPS PDSCH not related to the downlink control information for the SPS activation. configure the first HARQ-ACK sub-codebook to include HARQ-ACK corresponding to SPS release or HARQ-ACK corresponding to SPS PDSCH related to downlink control information for SPS activation, and configure the third HARQ-ACK sub-codebook to include HARQ-ACK corresponding to SPS PDSCH not related to the downlink control information for the SPS activation.
A vehicle comprising: actuators; an actuator controller to operate the actuators according to their corresponding signals; a model predictive controller, MPC, to produce a solution for controlling the actuators; characterised in that the MPC is configured to optimise a cost function over multiple receding horizons, wherein the cost function is composed of a cost accumulated over the multiple receding horizons, such that the cost accumulated over the multiple receding horizons includes a cost accumulated over a first horizon using a dynamics governing a partial position of the vehicle, and a cost accumulated over a second horizon using a model of dynamics of the vehicle governing another partial position, where the first horizon is shorter than the second horizon. actuators; an actuator controller to operate the actuators according to their corresponding signals; a model predictive controller, MPC, to produce a solution for controlling the actuators; characterised in that the MPC is configured to optimise a cost function over multiple receding horizons, wherein the cost function is composed of a cost accumulated over the multiple receding horizons, such that the cost accumulated over the multiple receding horizons includes a cost accumulated over a first horizon using a dynamics governing a partial position of the vehicle, and a cost accumulated over a second horizon using a model of dynamics of the vehicle governing another partial position, where the first horizon is shorter than the second horizon.
A device to be charged , comprising: a plurality of cells coupled in series; and a conversion circuit , configured to receive input voltage from a power supply device , convert the input voltage into charging voltage for the plurality of cells and into power supply voltage for a system of the device to be charged , charge the plurality of cells according to the charging voltage, and supply power to the system of the device to be charged according to the power supply voltage, the device to be charged comprising a first charging channel , in which the conversion circuit is disposed; a second charging channel , through which output voltage and output current are received from the power supply device and applied directly to the plurality of cells to charge the plurality of cells ; and a communication and control circuit , configured to communicate with the power supply device to control the output voltage and/or the output current received from the power supply device to match a present charging stage of the plurality of cells , when the plurality of cells are charged through the second charging channel ; the communication and control circuit being further configured to control switching between the first charging channel and the second charging channel . a plurality of cells coupled in series; and a conversion circuit , configured to receive input voltage from a power supply device , convert the input voltage into charging voltage for the plurality of cells and into power supply voltage for a system of the device to be charged , charge the plurality of cells according to the charging voltage, and supply power to the system of the device to be charged according to the power supply voltage, the device to be charged comprising a first charging channel , in which the conversion circuit is disposed; a second charging channel , through which output voltage and output current are received from the power supply device and applied directly to the plurality of cells to charge the plurality of cells ; and a communication and control circuit , configured to communicate with the power supply device to control the output voltage and/or the output current received from the power supply device to match a present charging stage of the plurality of cells , when the plurality of cells are charged through the second charging channel ; the communication and control circuit being further configured to control switching between the first charging channel and the second charging channel .
An integrated circuit, comprising: an untrimmed bandgap generation circuit ; and a bandgap generation circuit coupled to the untrimmed bandgap generation circuit , the bandgap generation circuit comprising: a current source controlled by said untrimmed bandgap generation circuit and coupled in series with a resistor (R1, R2) and a first bipolar diode device , characterized by at least two further bipolar diode devices , each further bipolar diode device coupled in series with a switch wherein each series of bipolar diode device and switch is coupled in parallel with said first bipolar diode device , wherein a trimmed bandgap reference voltage output of the integrated circuit is a function of the number of parallel switched bipolar diode devices , wherein each switch is formed by a respective metal oxide semiconductor field effect transistors (MOSFET) and wherein the at least two further bipolar diode devices are dimensioned differently. an untrimmed bandgap generation circuit ; and a bandgap generation circuit coupled to the untrimmed bandgap generation circuit , the bandgap generation circuit comprising: a current source controlled by said untrimmed bandgap generation circuit and coupled in series with a resistor (R1, R2) and a first bipolar diode device , characterized by at least two further bipolar diode devices , each further bipolar diode device coupled in series with a switch wherein each series of bipolar diode device and switch is coupled in parallel with said first bipolar diode device , wherein a trimmed bandgap reference voltage output of the integrated circuit is a function of the number of parallel switched bipolar diode devices , wherein each switch is formed by a respective metal oxide semiconductor field effect transistors (MOSFET) and wherein the at least two further bipolar diode devices are dimensioned differently.
A slide rail mechanism, comprising: a first slide rail assembly and a second slide rail assembly , each of the first and second slide rail assemblies comprising a first rail , a second rail and a third rail movably mounted between the first rail and the second rail , and the second rail being longitudinally movable relative to the first rail , wherein the second rail of the first slide rail assembly and the second rail of the second slide rail assembly are respectively arranged with a first mounting device and a second mounting device ; and wherein the slide rail mechanism further comprises : a supporting assembly configured in particular to support cables, the supporting assembly comprising a supporting member , and a first connecting device and a second connecting device arranged on the supporting member , wherein the first connecting device and the second connecting device are detachably connected to the first mounting device and the second mounting device respectively. a first slide rail assembly and a second slide rail assembly , each of the first and second slide rail assemblies comprising a first rail , a second rail and a third rail movably mounted between the first rail and the second rail , and the second rail being longitudinally movable relative to the first rail , wherein the second rail of the first slide rail assembly and the second rail of the second slide rail assembly are respectively arranged with a first mounting device and a second mounting device ; and wherein the slide rail mechanism further comprises : a supporting assembly configured in particular to support cables, the supporting assembly comprising a supporting member , and a first connecting device and a second connecting device arranged on the supporting member , wherein the first connecting device and the second connecting device are detachably connected to the first mounting device and the second mounting device respectively.
An antibody-drug conjugate for use in treating a CLDN18.2-expressing cancer by administering the antibody-drug conjugate to a patient, said antibody-drug conjugate comprising an antibody binding to CLDN18.2 covalently attached to at least one toxin drug moiety, wherein the antibody is selected from the group consisting of: (a) an antibody comprising an antibody heavy chain comprising an amino acid sequence represented by SEQ ID NO: 32 and an antibody light chain comprising an amino acid sequence represented by SEQ ID NO: 39; and (b) an antibody comprising an antibody heavy chain comprising an amino acid sequence represented by SEQ ID NO: 30 and an antibody light chain comprising an amino acid sequence represented by SEQ ID NO: 35, wherein the antibody is attached to the toxin drug moiety by a cleavable linker which is cleavable by an intracellular protease and optionally wherein the toxin drug moiety is a cytotoxic or cytostatic agent. (a) an antibody comprising an antibody heavy chain comprising an amino acid sequence represented by SEQ ID NO: 32 and an antibody light chain comprising an amino acid sequence represented by SEQ ID NO: 39; and (b) an antibody comprising an antibody heavy chain comprising an amino acid sequence represented by SEQ ID NO: 30 and an antibody light chain comprising an amino acid sequence represented by SEQ ID NO: 35,
A memory arrangement comprising a plurality of memory cells arranged in an array structure, wherein each memory cell comprises a memory element being a two state resistance change memory element, the memory arrangement comprising crossing word and bit lines and each memory cell is being connected between a different crossing of a word line and a bit line, the memory cells furthermore being connectable to a source line, each bit line has a bit line capacitance, for storing a charge representative of the state of a selected memory element, at least two memory cells, positioned at different bit lines but on a same word line, are being defined as reference cells, one reference cell being set in a high resistance state and a second reference cell being in a low resistance state, at least those bit lines wherein the reference cells are defined furthermore are interconnected by an equalizing switch, for equalizing the charges on the bit line capacitors of said at least two bit lines, characterised in that the equalizing switches are positioned between more than those bit lines comprising the reference cells, and wherein the reference cells can be selected to be cells in those bit lines interconnected via equalizing switches.
Magnetically inductive flowmeter with a measurement section (D), through which a medium flows, with a magnetic field creation device for creating a magnetic field (B) of alternating polarity, with an electrode arrangement (A, C, R) for capturing a voltage, which is dependent on the flow speed of the medium and is induced over the measurement section (D) between a first electrode (A) and a second electrode (C), in a galvanically contacting manner and with a control and evaluation device for activating the magnetic field creation device and for determining and outputting a measurement value depending on the voltage captured, characterised in that the control and evaluation device is embodied such that a first voltage signal (E A ) is captured between the first electrode (A) and a reference potential (R) and is filtered to obtain a first noise signal (E NA ) contained therein, a second voltage signal (E C ) is captured between the second electrode (C) and the reference potential (R) and is filtered to obtain a second noise signal (E NC ) contained therein, the first voltage signal (E A ) and the second noise signal (E NC ) are summed to create a first sum signal (E' A ), the second voltage signal (E C ) and the first noise signal (E NA ) are summed to create a second sum signal (E' C ) and to obtain a measurement signal (ΔE' A,C ), which corresponds to the voltage induced over the measurement section (D), the difference of the first sum signal (E' A ) and the second sum signal (E' C ) is formed. with a measurement section (D), through which a medium flows, with a magnetic field creation device for creating a magnetic field (B) of alternating polarity, with an electrode arrangement (A, C, R) for capturing a voltage, which is dependent on the flow speed of the medium and is induced over the measurement section (D) between a first electrode (A) and a second electrode (C), in a galvanically contacting manner and with a control and evaluation device for activating the magnetic field creation device and for determining and outputting a measurement value depending on the voltage captured, characterised in that the control and evaluation device is embodied such that a first voltage signal (E A ) is captured between the first electrode (A) and a reference potential (R) and is filtered to obtain a first noise signal (E NA ) contained therein, a second voltage signal (E C ) is captured between the second electrode (C) and the reference potential (R) and is filtered to obtain a second noise signal (E NC ) contained therein, the first voltage signal (E A ) and the second noise signal (E NC ) are summed to create a first sum signal (E' A ), the second voltage signal (E C ) and the first noise signal (E NA ) are summed to create a second sum signal (E' C ) and to obtain a measurement signal (ΔE' A,C ), which corresponds to the voltage induced over the measurement section (D), the difference of the first sum signal (E' A ) and the second sum signal (E' C ) is formed.
A method comprising: providing an optically variable device that includes a first substrate and release layer , depositing an adhesive layer on the first substrate ; applying a magnetic field to the adhesive layer, and providing magnetic flakes absent a liquid carrier or binder onto the adhesive layer in the presence of the magnetic field so that the magnetic flakes oriented by the magnetic field adhere to the adhesive layer; applying a coating layer over the magnetic flakes; adhering the coating layer to a second substrate ; curing the coating layer; and removing the release layer after adhering the coating layer to the second substrate. providing an optically variable device that includes a first substrate and release layer , depositing an adhesive layer on the first substrate ; applying a magnetic field to the adhesive layer, and providing magnetic flakes absent a liquid carrier or binder onto the adhesive layer in the presence of the magnetic field so that the magnetic flakes oriented by the magnetic field adhere to the adhesive layer; applying a coating layer over the magnetic flakes; adhering the coating layer to a second substrate ; curing the coating layer; and removing the release layer after adhering the coating layer to the second substrate.
A method for compensating modal dispersion when coupling multimode optical fibers so as to obtain the maximum band at a predetermined wavelength, the method comprising the steps of using a compensated fiber and a mode dispersion-compensating fiber having refractive index profiles that satisfy the following Equation , and coupling them according to a length ratio that satisfies the following Equation n r = { n 1 1 − 2 Δ 1 r / a α 1 / 2 0 ≦ r ≦ a n 1 1 − 2 Δ 1 1 / 2 a < r where an optical fiber has a core, a cladding, and a relative refractive index, n(r) is the relative refractive index difference of the optical fibers at a distance "r" from the core center, n 1 is the refractive index at the core center, Δ 1 is the relative refractive index difference of the core center with respect to the cladding, "a" is the core radius, and α is the refractive index profile exponential parameter, L comp / L target = α target − α opt α opt − α comp × 1 + α comp 1 + α target where an optical fiber has a length L and a refractive index profile exponential parameter a, L comp is the length of the mode dispersion-compensating fiber, L target is the length of the compensated fiber, α comp is the refractive index profile exponential parameter of the mode dispersion-compensating fiber, α target is the refractive index profile exponential parameter of the compensated fiber, and α opt is the refractive index profile exponential parameter to obtain a maximum band at the predetermined wavelength.
A process for making a particle, the particle comprising: a nitrogen-containing cleaning-active in the form of a salt wherein the salt has a pH in 1% weight aqueous solution measured at 25°C greater than 9 wherein nitrogen-containing cleaning-active is selected from the group consisting of: i) salts of aminocarboxylic complexing agents wherein the aminocarboxylic complexing agent is selected from the group consisting of salts of methyl glycine diacetic acid (MGDA), salts of glutamic-N,N- diacetic acid (GLDA) and mixtures thereof; ii) amine oxide surfactants; iii) polymers comprising nitrogen; and iv) mixtures thereof.; and v) a malodour-reducing agent comprising an acid group wherein the acid group is a carboxylic monomer and wherein the malodour-reducing agent is a carboxylic acid selected from the group consisting of citric acid, ascorbic acid, oxalic acid, adipic acid, succinic acid, glutaric acid, malic acid, tartaric acid, maleic acid, fumaric acid, sugar acids, fatty acids and mixtures thereof or wherein the malodour-reducing agent is a polymer comprising carboxylic and sulfonic groups wherein the process comprises the step of adding the malodour-reducing agent to the nitrogen-containing cleaning-active wherein the malodour-reducing agent is added in the absence of water. i) salts of aminocarboxylic complexing agents wherein the aminocarboxylic complexing agent is selected from the group consisting of salts of methyl glycine diacetic acid (MGDA), salts of glutamic-N,N- diacetic acid (GLDA) and mixtures thereof; ii) amine oxide surfactants; iii) polymers comprising nitrogen; and iv) mixtures thereof.; and v) a malodour-reducing agent comprising an acid group wherein the acid group is a carboxylic monomer and wherein the malodour-reducing agent is a carboxylic acid selected from the group consisting of citric acid, ascorbic acid, oxalic acid, adipic acid, succinic acid, glutaric acid, malic acid, tartaric acid, maleic acid, fumaric acid, sugar acids, fatty acids and mixtures thereof or wherein the malodour-reducing agent is a polymer comprising carboxylic and sulfonic groups
A method for making a valve metal material useful for forming electrolytic devices in which particles of said valve metal are pressed and sintered into an electrolytic device, said method characterized by : providing a substantially uniform mixture to provide an uniform dispersion of electrically conductive particles in powder form of a maximum size of 5 microns, and elongated filaments of a valve metal having a filament length of 0.1 to 10 microns, and a filament cross-section of 0.5 to 5 microns; and pressing and sintering the mixture into an electrolytic device. providing a substantially uniform mixture to provide an uniform dispersion of electrically conductive particles in powder form of a maximum size of 5 microns, and elongated filaments of a valve metal having a filament length of 0.1 to 10 microns, and a filament cross-section of 0.5 to 5 microns; and pressing and sintering the mixture into an electrolytic device.
A process for the production of granules containing at least one active ingredient and that are stable at ambient temperature, comprising the following successive steps: preparing a matrix with no active ingredient by mixing without any addition of water, of a vehicle for encapsulating the active ingredient and a nonaqueous plasticizer compatible with this vehicle and with the selected active ingredient, the encapsulating vehicle and the plasticizer being present in content levels equipping the matrix with a glass transition temperature higher than the ambient temperature, transforming the matrix in an extruder at an extrusion temperature to obtain a matrix in an amorphous molten path, injecting active ingredient within the matrix in the molten path, to equip the mass in the molten path with a determined active ingredient, extruding the mass in the molten path equipped with the active ingredient through a nozzle and cutting this mass at an exit path from the nozzle in the form of granules, in which process the plasticizer is monopropylene glycol. preparing a matrix with no active ingredient by mixing without any addition of water, of a vehicle for encapsulating the active ingredient and a nonaqueous plasticizer compatible with this vehicle and with the selected active ingredient, the encapsulating vehicle and the plasticizer being present in content levels equipping the matrix with a glass transition temperature higher than the ambient temperature, transforming the matrix in an extruder at an extrusion temperature to obtain a matrix in an amorphous molten path, injecting active ingredient within the matrix in the molten path, to equip the mass in the molten path with a determined active ingredient, extruding the mass in the molten path equipped with the active ingredient through a nozzle and cutting this mass at an exit path from the nozzle in the form of granules, in which process the plasticizer is monopropylene glycol.