128 results about "Cell system" patented technology

A system includes a cellular transceiver to communicate with a predetermined target; one or more antennas coupled to the 5G or 6G transceiver each electrically or mechanically steerable to the predetermined target; a processor to control a directionality of the one or more antennas in communication with the predetermined target; and an edge processing module coupled to the processor and the one or more antennas to provide low-latency computation for the predetermined target.

Systems and techniques for facilitating scalable cryostats and cryogenic systems are provided. In one embodiment, the cryogenic system (300) may include a plurality of unit cells (304) coupled together, wherein each unit cell includes a trapezoidal frame (704) wherein the frames from adjacent unit cells are vacuum-sealed to form a continuous global vacuum enclosure, and wherein the unit cells are horizontally removable from or inserted into the plurality of coupled unit cells. Furthermore, each unit cell may include at least one temperature housing (508, 510, 512) wherein temperature housings from adjacent unit cells are coupled to form a continuous global temperature housing. Moreover, each unit cell may include at least one cryogenic payload (514) located within at least one temperature housing, which is cooled by at least one modified version of a standard dilution refrigeration unit.

A distributed SST-based power dispensing network, comprising a main cell system including a main cell and a main cell controller, the main cell having main cell converter circuitry including a primary bridge of a dual active bridge (DAB), the main cell controller configured to control the primary bridge and configured to activate main cell forward mode control circuitry or main cell reverse mode control circuitry perform based on a direction of power flow; and a power dispensing system including a power dispenser and a power dispenser controller, the power dispenser having power dispenser converter circuitry including a secondary bridge of the DAB, the power dispenser controller configured to control the secondary bridge and configured to activate power dispenser forward mode control circuitry or power dispenser reverse mode control circuitry based on the direction of power flow.

A plate arrangement (1) for an electrochemical system (10), in particular an electrolysis cell system, comprises several plates (2, 3, 4, 5, 6) which have aligned openings (9) into which a multi-part connecting clip (8) holding the plates (2, 3, 4, 5, 6) together is inserted.

The acquisition unit (32) acquires specification information of a robot that is a constituent element of a robot cell system, component information including shape information of a component other than the robot that is a constituent element of the robot cell system, and work information related to work performed by the robot, the configuration planning unit (34) calculates a candidate for configuration of the robot and the component in the robot cell system based on the specification information, the component information, and the work information, the posture planning unit (36) calculates a set of combinations of a start posture of a start point and an end posture of an end point of each motion of the robot for each candidate for configuration, the path planning unit (38) calculates a set of paths from the start posture to the end posture for each combination of the start posture and the end posture for each candidate for configuration, and the evaluation unit (40) selects an optimal configuration from the candidates for configuration based on the paths.

A method of operating an electrolyzer cell system includes providing a steam inlet stream to a stack of electrolyzer cells, generating a main product stream containing hydrogen and steam, and an oxygen exhaust stream in the stack, and providing liquid water into the main product stream to cool the main product stream.

A quantum computer system comprising at least one quantum computer cell system. The quantum computer cell system comprising an optical link module having an optical cavity. A plurality of qubits compr

The invention relates to an ammonia electrolysis hydrogen production system. An anode chamber and a cathode chamber are communicated through an electrolyte diaphragm to jointly form a closed electrolytic bath system; the bottom of the anode is immersed in the anolyte of the anode chamber to generate ammoxidation reaction to generate nitrogen, the anolyte is a mixed alkaline solution of an alkaline solution and ammonia water, and the bottom of the cathode is immersed in the catholyte of the cathode chamber to generate hydrogen evolution reaction to generate hydrogen; the cathode electrolyte is a mixed alkaline solution of an alkaline solution and ammonia water, the anode and the cathode are electrically connected with a positive electrode and a negative electrode of an external power supply respectively, and the electrolyte diaphragm is a porous diaphragm and is used for physically isolating nitrogen generated by the anode from hydrogen generated by the cathode and allowing hydroxyl ions generated by the cathode to migrate to the anode, so that charge balance of the cathode and the anode is realized. The invention further relates to a hydrogen production method based on the electrolytic ammonia hydrogen production system. According to the method, low-energy-consumption, low-cost and high-stability green hydrogen preparation is realized, and key technical support is provided for promoting large-scale and commercialized development of the green hydrogen industry.

Systems, methods, apparatuses, and computer program products are directed to ensuring consistency between training and inference for multi-cell. A method can include receiving a plurality of identifiers configured for mobility data collection, each of the plurality of identifiers indicating at least one DL- RS of a corresponding candidate cell, the plurality of identifiers including a first identifier identifying at least one DL- RS of a first candidate cell and a second identifier identifying at least one DL- RS of a second candidate cell. A number of the plurality of identifiers is not equal to a number of DL- RS resource sets; performing at least one measurement of the DL- RS indicated by each of the plurality of identifiers; ranking a subset of the plurality of identifiers according to parameters of the downlink reference signal measurements using a set of configuration rules; and training at least one machine learning model utilizing the ranked subset of the plurality of identifiers.

The invention discloses a conductance cell system and method for double-range correction, and belongs to the technical field of analytical instruments, the system comprises a first conductance cell and a second conductance cell which are connected in series through a pipeline, and a processing unit connected with the first conductance cell and the second conductance cell. The first conductance cell is suitable for high-concentration detection, and the second conductance cell is suitable for low-concentration detection. The method comprises the following steps: firstly, establishing two calibration curves of different measurement ranges for two conductance cells, and determining critical points of the two curves; during detection, a sample sequentially flows through the two conductance cells, the processing unit selects one of the high-concentration calibration curve and the low-concentration calibration curve for data processing according to a comparison result of a real-time detection signal and a critical point, and finally a concentration value is output. According to the invention, through a series connection structure and intelligent curve selection, the detection range of a single conductance cell is effectively widened, the measurement precision in a full scale is remarkably improved, and automatic and high-precision detection in a wide concentration range is realized.

The invention relates to a method for determining a failure probability, in particular at least one state of increased failure probability, of at least one cell system (10a) with at least one electrochemical cell (12a), wherein in at least one determination step (14a; 14b; 14c; 14d) at least one degradation parameter of the at least one electrochemical cell (12a), which in particular allows conclusions to be drawn about a degradation state of the at least one electrochemical cell (12a) in a defined state, is determined by means of a virtual sensor unit (16a). It is proposed that in one determination step (14a; 14b; 14c; 14d) a failure probability of the at least one electrochemical cell (12a) is determined as a function of the degradation parameter.

The present invention aims to provide a low-cost NDIR greenhouse gas monitoring device that combines a rotary multi-gas cell system and an NDIR sensor system for measuring nitrous oxide (N2O) gas at multiple locations in a short time. [Solution] The NDIR greenhouse gas monitoring device is characterized by comprising a rotary multiple gas cell system having two or more gas cells, gas cell holders that fix both ends of each gas cell, a central axis that serves as the axis of rotation of the gas cell holder, and a motor connected to the central axis that rotates the gas cell holder by rotating the central axis, and an NDIR sensor system having an NDIR light source unit, an NDIR detector unit, and a controller that controls the output of the motor that rotates the central axis in the rotary multiple gas cell system.

Procedures, methods, architectures, apparatuses, systems, devices, and computer program products related to multi-radio spectrum sharing (MRSS) cell access are described. One method may include receiving, in a cell access broadcast channel, a cell access broadcast transmission associated with a first radio access technology, determining that cell access information associated with the first radio access technology is received in the cell access broadcast transmission, determining that cell access information associated with a second radio access technology is received in the cell access broadcast channel, determining the cell access information associated with the second radio access technology based on reserved bits in the cell access broadcast channel and the cell access information associated with the first radio access technology, and receiving cell system information associated with the second radio access technology using the determined cell access information associated with the second radio access technology.

The application discloses an electrochemical double hydrogenation three-cell system, which comprises a chemical cell, an anode cell, a cathode cell, an ion exchange film, a palladium film, and a power supply; the palladium film serves as an anode electrode, and a first nano-porous palladium alloy catalyst is coated on one side of the surface of the palladium film; a cathode electrode is arranged in the cathode cell, and the cathode electrode is a second nano-porous palladium alloy catalyst; the system generates adsorbed hydrogen by electro-oxidation of a second organic substrate in the anode cell on the surface of the palladium film through the anode electrode; the adsorbed hydrogen is transferred to the chemical cell through the characteristics of the palladium film body phase hydrogen transfer, and the hydrogenation of the organic substrate is realized on the surface of the first nano-porous palladium alloy catalyst; meanwhile, the cathode electrode generates adsorbed hydrogen by hydrolysis on the surface of the second nano-porous palladium alloy catalyst to realize the hydrogenation of the organic substrate, and finally the electrochemical double hydrogenation of the organic matter is realized; experimental results show that when the three-cell system is applied to organic hydrogenation, the faraday efficiency is as high as 200%, and meanwhile, the system has excellent stability and ultralow energy consumption.

The application discloses a component-adjustable Carnot cell system coupled with low-grade waste heat, which is composed of a heat pump subsystem, a heat storage subsystem, a heat engine subsystem and a component control subsystem. First, low-grade waste heat is input into the heat pump subsystem to heat a working medium in a first evaporator, and the working medium is heated to a gas phase, then the working medium is pressurized and heated in a compressor, and then the high-temperature working medium transfers heat to a heat storage medium in a first liquid separator condenser; the high-temperature heat storage medium enters a first heat storage tank to store high-grade heat energy; in the energy release stage, a second pump drives the heat storage medium in the first heat storage tank to enter a second evaporator to transfer the high-grade heat energy to a working medium running in the heat engine subsystem, and then the working medium is expanded in an expander to do work and deliver electric energy to the outside. When the boundary conditions of the system operation change, the component control subsystem can change the working medium running components of the heat engine subsystem and the heat pump subsystem to make the subsystems optimally operate.

The application provides a solid oxide electrolytic cell system for hydrogen production by utilizing steel plant waste heat, and belongs to the technical field of hydrogen production, and solves the problems of low utilization rate of steel plant waste heat and large energy loss in the prior art. The system comprises an air blower, an electric three-way ball valve, a first heat exchanger, a three-way valve, a solid oxide electrolytic cell stack, a waste heat boiler, a steam turbine generator and an AC / DC converter. A branch of the first heat exchanger is connected with high-temperature gas or solid generated by the steel plant, and an output end of the branch is sequentially connected with electrodes of the solid oxide electrolytic cell stack through the waste heat boiler, the steam turbine generator and the AC / DC converter. An input end of the electric three-way ball valve is connected with the air blower, an output end one of the electric three-way ball valve is connected with an input end one of the three-way valve through a branch two of the first heat exchanger, and an output end two of the electric three-way ball valve is directly connected with an input end two of the three-way valve. An output end of the three-way valve is connected with an air side inlet of the solid oxide electrolytic cell stack. The steel plant waste heat is utilized to provide preheated air and power supply for the electrolytic cell stack.

The invention relates to the technical field of energy storage and hydrogen energy, in particular to a reversible solid oxide battery system and equipment. In a power generation mode, fuel electrode tail gas is used for heating fuel electrode introduced gas, then shunting is performed, one part is mixed with water and hydrogen to form the fuel electrode introduced gas, and the other part is mixed with the hydrogen to form the reversible solid oxide battery system. The other part is mixed with the tail gas of the air electrode for combustion, and the generated heat firstly heats the gas introduced into the air electrode and then heats the solid hydrogen storage module; in the electrolysis mode, fuel electrode tail gas is used for conducting final heating on gas introduced into a fuel electrode, hydrogen is stored in the solid hydrogen storage module, and heat released by the solid hydrogen storage module is used for conducting preliminary preheating on the gas introduced into the fuel electrode. And the air electrode tail gas is used for heating gas introduced into the air electrode. The problems that in an SOFC mode, system waste heat cannot be completely utilized, and in an SOEC mode, an external heat source is needed for heating are solved, the use of a high-energy-consumption equipment electric heater is avoided, and self-sustaining operation is achieved on the premise that the external heat source is not used.

A system includes domains comprising systems generating data from the cellular network system. The domains may include cellular towers; a core network located on a public network and comprising a central unit (CU); and a series of clusters that each comprise a distributed unit (DU) that communicates with the CU and the cellular towers. The system may further include a single collection module that collects data from all domains relating to the cellular network system and stores the collected data on a public network, and a data output module to output the data of the cellular network to a business domain on the public network.

The present disclosure describes systems and methods that employ a plurality of microwave applicator cells as a combined unit to continuously travel along an asphalt surface to treat the existing asphalt with microwave energy. The microwave treatment reanimates the existing (and likely damaged) asphalt to a workable state that is almost identical in nature to newly laid asphalt. The microwave system is configurable to span the width of a standard road lane, wherein the continuously traveling system efficiently repairs damaged roads with minimal down time.

The application relates to a G-quadruplex RNA fluorescent ligand and a preparation method and application thereof, a structure formula of the G-quadruplex RNA fluorescent ligand is shown in the following formula: the compound can be specifically targeted and can be subjected to fluorescent imaging in a solution system and a cell system, a high-throughput fluorescent screening method is established in the solution and the cell system, and an organic small-molecule compound with strong binding capacity to G-quadruplex RNA can be effectively identified and screened from a small-molecule drug library; the screening result of the method is high in accuracy, the affinity and biological activity of a candidate compound can be quickly determined by evaluating the change of a fluorescent signal, and therefore the research and development process of an antitumor drug is accelerated; and the application belongs to the field of biological medicines.

Systems and methods include a memory device that includes a dual-interlocked cell (DICE) latch and upstream circuitry coupled to the DICE latch and including a common node configured to receive a control signal for an operation for the DICE latch. The upstream circuitry also includes a first divided control path coupled to common node and configured to generate a first divided control signal from the control signal. The upstream circuitry comprises a second divided control path coupled to the common node and configured to generate a second divided control signal from the control signal. The second divided control path includes a delay configured to delay the second divided control signal to stagger propagation of a potential neutron strike at the common node or upstream of the common node from the DICE latch.

The application discloses a control monitoring system and method of a marine fuel cell system. The system comprises a hydrogen storage and supply module, at least two fuel cell power generation modules, a plate heat exchanger heat dissipation module and a cockpit module. The control monitoring system comprises a control conversion module and at least two safety monitoring modules. The control conversion module comprises a control conversion unit, a power conversion unit and a communication conversion unit. The control conversion unit is used for sending fuel supply instructions to the hydrogen storage and supply module, sending temperature adjustment instructions to the plate heat exchanger heat dissipation module, sending electric energy scheduling instructions to the power conversion unit and sending state information of the fuel cell power generation module to the cockpit module through the communication conversion unit according to the operating state of the fuel cell power generation module. The safety monitoring module is used for monitoring the operating state of the fuel cell power generation module in real time and sending the operating state to the control conversion unit and sending alarm information to the cockpit module. The monitoring precision of the fuel cell system is improved, and the safe operation of the system is ensured.

The invention provides a method and a device for detecting a sodium separation threshold value of a sodium ion battery negative electrode material, and belongs to the field of lithium ion batteries. The method for detecting the sodium separation threshold value of the battery negative electrode material comprises the following steps: assembling a negative electrode material to be detected into a half-battery system; discharging the half-cell system for multiple times by utilizing constant current; acquiring the voltage change of the half-cell system after each discharge; determining an internal resistance value change curve of the half-cell system in the whole discharge process based on the voltage change of the half-cell system after each discharge; and determining the sodium separation threshold value of the negative electrode material of the half-cell system based on the internal resistance value change curve. According to the invention, accurate determination of the sodium separation threshold value of the sodium ion battery negative electrode material can be realized.

The invention discloses an ATP hydrolase antibody efficient screening method based on a fluorescent probe, the method comprises two detection schemes of a biochemical system and a cell system, in the biochemical system, the antibody inhibition rate is directly calculated by quantifying the residual amount of ENTPD2 protein after ATP hydrolysis; in a cell system, cells over-expressing ENTPD2 are used for verifying the inhibition function of the antibody on transmembrane enzyme. According to the biochemical system method, antibody purification is not needed, primary screening can be completed only through 5-15 microliters of B cell supernate, the screening accuracy is high (the cell system can be used as an antibody obtained through verification and screening), the result is consistent with the in-vivo drug effect result, the method is suitable for development of anti-ENTPD2 antibody drugs, and the research and development cost is remarkably reduced.

The invention discloses a fuel cell system with continuous online communication and a power distribution method thereof. The system comprises a host high-voltage power supply, a host standby low-voltage power supply, a DCL, a loop I and a loop II, the host high-voltage power supply converts high-voltage electricity into low-voltage power supply output through a DCL, and is in power supply communication connection with the controller, the hydrogen concentration sensor and low-voltage parts through a loop I; the host standby low-voltage power supply is in power supply communication connection with the controller, the hydrogen concentration sensor and the low-voltage parts through a loop II; the control circuit part on the first loop is composed of a coil of the KM1, a normally-closed circuit of the KM2 and a normally-closed circuit of the KM1. The control circuit part on the second loop is composed of a switch S2, a coil of the KM2 and a normally-closed circuit of the KM1. The invention is applied to a marine fuel cell system, and aims to solve the risk of communication disconnection of the marine fuel cell system so as to ensure the safety of equipment and personnel.

The present application provides a multi-battery system, a motor control module and a battery module. The multi-battery system is used to supply power to a motor, and includes a motor control module, and a first battery module and a second battery module. The first battery module and the second battery module each include a first connector coupled to the motor control module, and the first connector includes a pair of first signal line pins coupled to a series terminal resistor and a switch. The first battery module and the second battery module communicate with the motor control module through the first battery module or the second battery module having the MOSFET switch turned on.

The present invention relates to novel methods for discovering traits and generating cellular systems having improved phenotypes. In particular, the present invention provides methods for the development of plants having agronomically optimized phenotypes by using targeted mutagenesis with few or no off-target effects. Targeted mutagenesis is achieved by the introduction of a base editor complex or of a STEME complex comprising an array of guide RNAs targeting a nucleic acid sequence of interest. The present invention also relates to cellular systems obtained by the methods described herein and to the use of a base editor complex or the STEME complex comprising an array of guide RNAs for generating a cellular system having an agronomically important phenotype and for identification of an agronomically important phenotype.

This invention provides a recombinant transmembrane human tumor necrosis factor expressed in alfalfa. ‑α This method belongs to the field of biotechnology. This invention constructs a transmembrane human tumor necrosis factor... ‑α A plant binary expression vector for the gene is used, and then Agrobacterium-mediated transformation of the recipient alfalfa containing this plant binary expression vector is employed to prepare recombinant transmembrane human tumor necrosis factor. This invention utilizes alfalfa as a substrate plant for recombinant human tumor necrosis factor, providing a platform for recombinant transmembrane human tumor necrosis factor production. ‑α This provides an excellent cell system for expression, catering to the market demand for recombinant transmembrane trimeric tumor necrosis factor. ‑α This provides a new solution to the needs.

The utility model relates to the technical field of tank system provides a kind of sampling assembly for tank system, including medicine tank, the side wall of medicine tank is provided with first pipeline, the one end of first pipeline away from medicine tank is provided with water pump, the side wall of water pump is provided with second pipeline, the side wall of second pipeline is provided with branch pipeline, the side wall of branch pipeline is provided with two groups of stop valve, the one end of branch pipeline away from second pipeline is provided with sampling assembly;Sampling assembly includes sampling box, and the positioning groove of setting with the bottom in sampling box;Through the control of stop valve, can effectively prevent the backflow of liquid medicine and the entry of external impurities, ensure the purity of sampling process, with the door body design of closed, further avoid the interference of external factor to sampling environment, maximum degree reduces the pollution risk, simultaneously, positioning groove provides accurate positioning placement for sampling bottle, ensures that sampling bottle is stable and convenient to operate, improves the accuracy and convenience of sampling.

The invention discloses a fused salt type Carnot cell system coupled with a data center and an operation method thereof, and belongs to the technical field of energy storage and comprehensive utilization. The system comprises a heat pump circulation loop, a Brayton circulation loop, a heat storage unit, a cold storage unit and a data center cooling loop. A cooling loop of the data center is coupled with a waste heat exchanger of a heat pump cycle, and waste heat of the data center is used as a low-temperature heat source; meanwhile, by introducing the deep cooling heat exchanger, the cold storage unit can directly undertake the deep cooling task of the data center in the charging and discharging processes, and traditional electric refrigeration is replaced. The system has various operation modes of standard charging / discharging, charging-cooling combined supply and discharging-cooling combined supply, and deep integration of electric energy storage, data center cooling and electric power supply is achieved. The problems of waste heat waste and high energy consumption of the data center are solved, the comprehensive energy efficiency and economic benefits of the Carnot battery are improved, and the method is suitable for renewable energy consumption, power grid peak load shifting and green low-carbon operation of the data center.