19 results about "Induction system" patented technology

The application provides a kind of jet flight control wind tunnel rudder effect test system and test method, belong to wind tunnel test technical field.Test system includes aircraft model and be set in the engine and air induction system of aircraft model interior, fuel tank, jet actuation system, flight control computer and balance;Establish the body axis coordinate system corresponding to aircraft model, the origin of body axis coordinate system is model moment reference point, balance is located in the lower region of aircraft model, the axis of balance is parallel with the x axis of body axis coordinate system, and the heart of balance is located on the z axis of body axis coordinate system, engine is located in the tail region of aircraft model, the thrust line of engine overlaps with the x axis of body axis coordinate system, and air induction system is connected with jet actuation system.In the application, airborne air supply and control are realized, jet is taken as a part of aircraft system energy, and the accuracy of the result obtained by test on the influence of jet on the comprehensive performance of aircraft is improved.

The application discloses a kind of carbon high temperature denitration device, including burner, smelting furnace, biological carbon generation system, combustion-supporting air heating system, reduction chamber, flue gas waste heat utilization system and air induction system;The burner is installed in smelting furnace;The biological carbon generation system includes a shell, the shell and smelting furnace are communicated;The combustion-supporting air heating system includes air blower, air preheater;Combustion-supporting air provided by air blower is first passed through air preheater, absorbs the heat of flue gas in air preheater, then is sent to the burner again;The air induction system includes air induction machine, to be discharged after the flue gas in reduction chamber is introduced into dust removal system, another part is introduced into burner by circulating pipeline.The present denitration device does not affect the combustion and heating process of original furnace, does not need to consume additional energy, and can utilize the carbonization of renewable energy such as biomass to achieve the removal of NOx, to reduce the emission concentration of nitrogen oxides from the source.

This invention belongs to the field of bioengineering technology, specifically relating to a method for eliminating dependence on chemical inducers and relying on alcohol molecule activation of BmoR- P bmo This novel, real-time, and non-toxic induction system, and its application in the production of high-value compounds, belongs to the field of bioengineering technology. The inducible expression system comprises an expression system and an inducer; the expression system includes a promoter for the BmoR-encoding gene, a gene encoding the BmoR protein, and... P bmo The promoter-based induction initiation element also contains the synthetic pathway for the corresponding target compound, located at... P bmo Downstream of the promoter; the inducer is capable of binding with BmoR to form a complex, activating the promoter. P bmo The transcription of higher alcohols. The present invention provides a BmoR-based... P bmo The induction system can eliminate the strain's dependence on chemical inducers such as IPTG during the production process, and has no restrictions on the selection of target compounds, providing a brand-new solution for the efficient synthesis of high-value compounds by strains.

This invention discloses an integrated wheeled and legged robot with omnidirectional mobility, belonging to the field of mobile robot technology. It includes several integrated wheel sets, allowing free switching between wheeled and legged locomotion modes; a control module that integrates sensory information, environmental data, and robot status, and makes decisions and plans actions based on this information; a power supply module, composed of batteries, providing the necessary electrical energy for the entire integrated wheeled and legged robot; an intelligent sensing system, installed on the side of the vehicle body, enabling efficient perception and data acquisition of environmental information to support the robot's flexible movement, obstacle crossing, and path planning capabilities under different terrain and obstacle conditions; and a task execution device, installed on the vehicle body, for performing task operations. This invention can efficiently switch between wheeled and legged modes, reducing the robot's mechanical complexity, improving control accuracy, and exhibiting better stability, adaptability, and obstacle crossing capabilities.

The invention provides a system (1) for fluid manipulation, wherein the system (1) comprises a first liquid supply (10), a second liquid supply (20), a microfluidic device (100), a cavitation induction system (200), and a control system (300), wherein: the first liquid supply (10) is configured to provide a first liquid (15) to the microfluidic device (100); the second liquid supply (20) is configured to provide a second liquid (25) to the microfluidic device (100); the microfluidic device (100) comprises a hosting chamber (110), wherein the hosting chamber (110) has a chamber length (L) defined by a first chamber end (111) and a second chamber end (112), wherein the hosting chamber (110) has an average equivalent circular diameter (D) perpendicular to the length (L), wherein L ≥ 3*D; wherein the cavitation induction system (200) is selected from the group comprising a laser-based heating system, an electric discharge system, and a heater; and wherein the control system (300) is configured to control the first liquid supply (10), the second liquid supply (20), and the heating system (200), and wherein the control system (300) has an operational mode wherein: in a preparation stage the first liquid supply (10) and the second liquid supply (20) are configured to provide a liquid multilayer (400) in the hosting chamber (110), wherein the liquid multilayer (400) comprises n layers (450) sequentially arranged along the chamber length (L), wherein n ≥ 2, wherein adjacent layers (450) are distinct phases, and wherein the layers (450) comprise a first liquid layer (415) comprising the first liquid (15) arranged adjacent to a second liquid layer (425) comprising the second liquid (25); and in a cavitation stage the cavitation induction system (200) is configured to induce cavitation of the first liquid (15) at a first location (41), wherein the first location (41) is arranged in the first liquid layer (415).

The application discloses an intelligent control system and method for textile flattening and winding integrated process, and belongs to the technical field of textile flattening and winding control systems, which comprises a control operation module, an induction module and the like. When the temperature sensor senses that the temperature in the system box is too high, the motor is started to drive the first rotating rod to rotate, the first rotating rod can drive the cam to rotate when rotating, the cam can extrude the extrusion plate when rotating, the spring is elongated at this time, and the guide rod is driven to slide on the guide ring, and the cleaning brush is driven to rise, the rack is driven to move when the cleaning brush moves, the gear is driven to rotate when the rack moves, and the second rotating rod is driven to rotate when the gear rotates.

The invention provides a system (1) for fluid manipulation, wherein the system (1) comprises a first liquid supply (10), a second liquid supply (20), a microfiuidic device (100), a cavitation induction system (200), and a control system (300), Wherein: the first liquid supply (10) is configured to provide a first liquid (15) to the microfiuidic device (100), the second liquid supply (20) is configured to provide a second liquid (25) to the microfiuidic 10 device (100), the microfluidic device (100) comprises a hosting chamber (110), wherein the hosting chamber (110) has a chamber length (L) defined by a first chamber end (111) and a second chamber end (112), Wherein the hosting chamber (110) has an average equivalent circular diameter (D) perpendicular to the length (L), Wherein L Z 3 >“D, Wherein the cavitation induction system (200) is selected from the group comprising a laser-based heating system, an 15 electric discharge system, and a heater, and wherein the control system (300) is configured to control the first liquid supply (10), the second liquid supply (20), and the heating system (200), and wherein the control system (300) has an operational mode wherein: in a preparation stage the first liquid supply (10) and the second liquid supply (20) are configured to provide a liquid multilayer (400) in the hosting chamber (110), wherein the liquid multilayer (400) comprises 11 layers (450) sequentially arranged along the chamber length (L), wherein n Z 2, wherein adjacent layers (450) are distinct phases, and wherein the layers (450) comprise a first liquid layer (415) comprising the first liquid (15) arranged adjacent to a second liquid layer (425) comprising the second liquid (25), and in a cavitation stage the cavitation induction system (200) is configured to induce cavitation of the first liquid (15) at a first location (41), wherein 25 the first location (41) is arranged in the first liquid layer (415).

The application discloses an air induction system and an aero-engine, and relates to the technical field of aero-engine design, and specifically relates to an air induction system and an aero-engine. The air induction system comprises a pressure stabilizing cavity, a first air induction structure and a second air induction structure. The pressure stabilizing cavity comprises a sealing structure arranged between the outer wall of an expander assembly and a combustion chamber near the outlet end of the expander assembly. The outer wall of the expander assembly, the combustion chamber, an expander chamber and the sealing structure enclose the pressure stabilizing cavity. The pressure stabilizing cavity is used for containing and stabilizing the introduced air. The first air induction structure is arranged on the expander assembly and is used for introducing air in the expander assembly into the pressure stabilizing cavity. The second air induction structure is arranged on the combustion chamber and is in communication with the pressure stabilizing cavity and is used for leading the air in the pressure stabilizing cavity out of the cabin. The first air induction structure is used for leading the airflow from the combustion chamber into the pressure stabilizing cavity, thereby reducing the influence on the flow field of the two-channel passage and reducing the influence on the jet flow of large holes such as the outer ring main combustion hole and the mixing hole. The second air induction structure is used for leading the airflow into the cabin, thereby improving the ventilation and temperature environment of the cabin.

The application discloses a barrier gate induction system and method based on a radar sensor and driving control, relates to the technical field of barrier gate induction, and comprises an authorized vehicle identification module, a barrier gate state adjustment module, a driving control and demand opening duration analysis module, a driving state analysis module, a barrier gate high pressure cycle judgment module and a barrier gate warning module. The radar sensor and the camera monitor vehicles in a barrier gate response area in real time, distinguish authorized vehicles from unauthorized vehicles, adjust the barrier gate state according to vehicle information, control the barrier gate to be closed or opened when the barrier gate is in an openable state, update the demand opening duration of the barrier gate when the barrier gate is in an open state, judge the driving state of an observation area, judge the barrier gate pressure judgment cycle to be a barrier gate high pressure cycle, and prompt a manager to reform and manage the barrier gate when the barrier gate high pressure cycle appears continuously. The application realizes more efficient utilization of road resources through a preset judgment mechanism.

The application discloses a hybrid hydraulic system, a cotton picker and a control method thereof, and comprises a pump group motor, a baling mechanism, a feeding mechanism, a beating mechanism, an engine, a second variable pump, a second constant pump, an auxiliary working mechanism, a steering gear, a controller assembly and a power battery. The feeding mechanism comprises a first variable pump, a first reversing valve, a first flow control valve, a shuttle valve and a feeder motor. The engine drives the auxiliary working mechanism and the steering gear through the second variable pump and the second constant pump respectively. The second variable pump is connected with the auxiliary working mechanism through a second one-way valve. The first variable pump is subjected to load pressure feedback through the shuttle valve, and the pressure and flow demand of the sensing system are sensed, so that appropriate working pressure can be maintained under different loads, the working efficiency and stability of the hydraulic system are improved, and energy saving is realized. The oil path flow direction is switched through the first reversing valve, the feeder system and the auxiliary pump system are switched, maintenance can be completed under the condition that the engine is off, and noise during maintenance can be reduced.

The utility model relates to a kind of slicing device for fritillaria processing, including bottom plate;The left and right sides of bottom plate upper surface are vertically installed with a stand, and the top of two The stand is provided with a horizontal plate, the center of the horizontal plate upper surface is vertically installed with a cylinder, the output end of the cylinder is extended to the below of horizontal plate, and the output end of the cylinder is driven connection with a lower plate.This slicing device for fritillaria processing, through the collaborative design of mechanical structure, realizes the automation operation of fritillaria slice, transmission component drives the movement of placing box, photoelectric induction system accurate positioning, so that cutting blade accurately aligns fritillaria pile, avoids empty cutting or position deviation;Cylinder drives lower plate vertical motion along stand, ensure that blade lower pressure is stable, slice thickness is uniform, the gap of scraper and blade in frame is accurately corresponding, when blade moves up, automatically scrape and remove adhered slice, without manual interruption cleaning, ensure slice process continuous.

An induction system for filtering the induction of objects to an object processing system is disclosed. The induction system includes an evaluation means for evaluating at least one characteristic of an object, and a routing system for routing the object in one of a plurality of directions responsive to the evaluated characteristic, at least one of the plurality of directions leading to the object processing system.

This invention discloses a highway active interactive guidance system and method based on driver state perception. It captures driver facial features, physiological signals, vehicle operation behavior, and real-time road environment data from multiple dimensions through infrared cameras, sensors, vehicle bus interfaces, and roadside interactive devices. This overcomes the limitations of single-perception and provides comprehensive, high-quality basic data support for subsequent analysis. Based on this, the invention effectively solves the problems of single perception dimensions and low accuracy in existing technologies by collecting and fusing multi-dimensional data on facial features, physiological signals, vehicle operation behavior, and road environment. It can comprehensively and accurately capture both explicit and implicit driving risks of drivers.

Provided herein is an induction heating system for heating a flowing gas, the system comprising: an induction coil for generating an alternating electromagnetic field; a susceptor for converting the alternating electromagnetic field into heat, said susceptor providing an electrically closed path around an inner cavity; a magnetic flux concentrator located within said inner cavity, said magnetic flux concentrator being for providing a low reluctance path for magnetic flux through said inner cavity; a first thermally insulating region for thermally insulating the susceptor from the magnetic flux concentrator, and a second thermally insulating region for thermally insulating the induction coil from the susceptor, said first and second thermally insulating regions defining an annular heating duct that contains the susceptor; and a cooling system for maintaining at least a portion of the magnetic flux concentrator at or below its Curie temperature when the system is in use.

This application discloses a detection device and system for overheat detection loops in a bleed air system based on TDR technology, including a transfer computer, a display, and a parameter database. The transfer computer includes a general interface module, a TDR signal generation module, a TDR signal receiving module, and a data processing module. The parameter database stores the mapping relationship between the wave velocity ratio and distance-component name for various types of overheat detection loops. The transfer computer is installed at the location of the bleed air monitoring computer and is electrically connected to the bleed air system under test through the general interface module. The TDR signal generation module transmits TDR signals to the overheat detection loop under test, the TDR signal receiving module receives the returned signals, the data processing module locates the fault point and obtains the name of the faulty component based on the signals and the wave velocity ratio of the overheat detection loop, and the display shows the signals and the name of the faulty component. Therefore, it is possible to quickly and accurately locate the fault location and identify the faulty component during maintenance, significantly improving maintenance efficiency.

The application discloses a new energy power facility detection data management and analysis platform, comprising: a multi-source heterogeneous high-frequency synchronous induction system, each sensor node of which is equipped with a Beidou timing module, so that sampling error is controlled within 20ns by taking a second pulse as a sampling trigger source and adding a time stamp; an environment-driven dynamic reference flow form construction system for extracting low-dimensional embedding coordinates of environment characteristics through nonlinear flow form learning and constructing an ideal output hyper surface changing with the environment; and an endogenous performance deviation decoupling extraction system for calculating a residual matrix of real-time operation characteristics and ideal operation states and adopting an independent component analysis algorithm to decouple and extract an endogenous attenuation characteristic vector representing equipment intrinsic performance attenuation from the residual matrix. The application changes the monitoring reference from a fixed threshold to a dynamic baseline fluctuating with the environment, effectively separates environmental interference and equipment real performance attenuation, and improves diagnostic accuracy and preventive maintenance capability.