222 results about "Heat distribution" patented technology

This invention belongs to the field of food or beverage processing technology, specifically relating to an intelligent evaluation and brewing control system for tea infusion quality based on multi-source sensor fusion. The system uses a multi-wavelength optical sensor array and distributed temperature sensors to acquire spectral absorption peak shift characteristics and temperature gradient vectors, respectively, and then concatenates them to construct a three-dimensional tensor containing time, spatial height, and wavelength dimensions. This three-dimensional tensor is input into a spatiotemporal graph convolutional network. Its spatial graph convolutional layer extracts spatial features using temperature nodes at different height levels as vertices and thermal conduction physical relationships as edges; the temporal convolutional layer extracts temporal features; and the fully connected layer outputs the predicted solute release rate and the deviation value of the target temperature gradient. The controller generates pulse-width modulation signals based on the deviation values ​​to adjust the heating plate power and the timing of the water injection valve. This invention jointly analyzes heat distribution and solute concentration changes, and corrects control commands based on the physical release state of the solute, ensuring that temperature field changes match solute diffusion.

A device includes a first portion, a second portion moveably coupled to the first portion via a junction, and a cooling loop structure. The cooling loop structure includes a fluid transport structure and a fluid driving structure coupled to the fluid transport structure. The fluid driving structure is configured to move a fluid through the fluid transport structure. The fluid transport structure extends into the first portion, into the second portion, and across the junction to enable heat distribution between the first portion and the second portion.

Method for temperature control of a passenger compartment (5) of a motor vehicle (1) divided into several zones (15), wherein the motor vehicle (1) comprises at least one ventilation device (6) by means of which at least one of the zones (15) can be selectively temperature controlled by blowing a tempered airflow (3) into the passenger compartment (5), and at least one direct heating device (21) by means of which heat can be directly transferred to an occupant (19) located in one of the zones (15), wherein a desired zone-specific heat distribution (39) is specified, wherein an operating plan (51) is determined on the basis of the heat distribution (39), which specifies at least one operating parameter (52) relating to the at least one ventilation device (6) and at least one operating parameter (52) relating to the at least one direct heating device (21) for implementing the heat distribution (39).wherein the operating plan (51) is determined and / or the heat distribution (39) is specified and / or modified in such a way that the total energy demand of the at least one ventilation device (6) and the at least one direct heating device (21) required for the implementation of the heat distribution (39) is minimized.

The invention relates to a compact heat pump (12) for installation in a building room (50) of a building (54), comprising a heat pump (14) for generating thermal energy for heating / cooling, an integrated space heat exchanger (16) for transferring at least a portion of the generated thermal energy directly to the building room (50), and an integrated heat distribution unit (28) comprising at least one supply line (30) and at least one return line (32) for transferring a further portion of the thermal energy generated by the heat pump (14) to a further space heat exchanger (38) located remotely from the compact heat pump (12) and hydraulically connectable to at least the supply line (30) and the return line (32) of the heat distribution unit (28). The invention further relates to a building air conditioning system (10) with such a compact heat pump (12).

This application provides a method for analyzing heat distribution during the forming process of a titanium cup, comprising: determining the upper and lower boundary positions of the bending and re-bending action zone along the height direction of the cup wall based on transient temperature field data in the initial heat distribution dataset, using the corner radius of the mold as a geometric constraint, thereby obtaining the boundary range of the bending and re-bending action zone; performing edge detection on the transient temperature field data within the boundary range of the bending and re-bending action zone to identify areas where the local thermal intensity is abnormal due to the increase in material volume, and marking them as candidate areas to obtain a thermal intensity anomaly distribution map; extracting temperature peaks from the thermal intensity anomaly distribution map, and using a clustering algorithm to group the temperature peaks according to their spatial location and thermal intensity amplitude, thereby obtaining a set of grouped temperature peaks; and adjusting the blank holder force and feed speed at the location of the locally softened narrow band during the flanging forming process to eliminate the flanging springback concentration effect caused by the locally softened narrow band.

The application relates to a bus duct connector internal bus temperature detection method and device and electronic equipment. An infrared temperature measurement module is installed in the bus duct connector, the infrared temperature measurement module is used to obtain thermal distribution images of each phase bus, a main circuit where the bus duct is located is provided with a smart meter, and the smart meter is used to obtain phase currents of each phase bus. The method comprises the following steps: obtaining the thermal distribution images and the phase currents respectively; determining an initial surface temperature of a target bus according to the thermal distribution images; determining a surface emissivity of the target bus according to material properties and an operation time of the target bus, determining a real surface temperature of the target bus according to the surface emissivity and the initial surface temperature; determining a temperature deviation amount between the surface and the interior of the target bus according to the phase current and a preset temperature deviation function, and determining an internal temperature of the target bus according to the temperature deviation amount and the real surface temperature. The bus duct connector internal bus temperature detection method can effectively improve the detection precision of the bus temperature.

The utility model relates to the technical field of drying equipment, in particular to a high-purity antimony particle drying device which comprises a drying box body, a filter and an air return cavity, one side of the drying box body is connected with the filter, the other side of the drying box body is connected with the air return cavity, an air inlet is formed in the side, connected with the filter, of the drying box body, and an air outlet is formed in the upper portion of the side, connected with the air return cavity, of the drying box body. The upper part of the air return cavity is provided with an air return port and connected to an air return pipeline; a heating cavity is formed in one side of an air inlet of the filter, heating pipes protected by non-metal materials are uniformly arranged in the heating cavity, and temperature measuring points are arranged in the heating cavity; a drying machine is mounted outside the drying box body, is connected with the air return pipeline and is provided with a water outlet; the heating cavity supplies air through an air feeder. According to the high-purity antimony particle drying device, by reasonably designing the number proportion of the air inlet holes and the air outlet holes, a multi-layer tray placing structure and the layout of the heating pipes, the flowing path and heat distribution of hot air flow in the drying box body are optimized.

This application relates to the technical field of electric heating wire heating devices, and in particular to a multi-layer spiral structure electric heating wire heating device, which includes a heating body, a multi-layer spiral electric heating wire assembly, and a heat-conducting partition. Adjacent electric heating wire assemblies are separated by the heat-conducting partition, and heat dissipation grooves are provided on the outer side of the partition. A heat-conducting medium is filled between the outer shell and the heating body, and heat dissipation fins are provided on the outer side of the outer shell. This application achieves uniform heat distribution and reduces local overheating through the layered arrangement of the multi-layer spiral electric heating wire assembly and the design of different pitches; the heat-conducting partition and the heat-conducting medium further improve heat transfer efficiency. This application can significantly improve the heat distribution and heating efficiency of the heating device, meeting the requirements for efficient and stable heating.

The application discloses a kind of rubber conveyor belt mixed temperature intelligent regulation and control method based on fuzzy control, comprising: S1, environmental heat distribution and conveyor belt operating state data are collected;S2, construct space-time alignment environment prediction window, calculate expected heat loss gradient;S3, input Swin Transformer V2 network inversion real-time dynamic heat inertia and heat content change rate, extract real heat storage state characteristic vector;S4, input adaptive variable domain fuzzy controller, introduce reverse learning strategy to select optimal individual, calculate inertial mass and gravitational constant;S5, update population position vector to global optimization of expansion factor, adjust fuzzy domain and output refined control instruction;S6, drive key node execution unit collaborative work and real-time display.The present application realizes the deep fusion of multi-source data, greatly improves the temperature control precision and response speed, effectively reduces energy consumption and prolongs the service life of equipment.

The application discloses a heating pad and a use method thereof, and relates to the field of heating equipment.The heating pad comprises an operation area and a heating area; the operation area is fixedly connected with the heating area; the heating area comprises: a pad body made of flexible material, the pad body comprising oppositely arranged first and second surfaces; a plurality of support structures arranged on the second surface and extending away from the first surface; a heating wire fixing member installed on the second surface, the heating wire fixing member being provided with a containing groove; and a heating wire installed in the containing groove of the heating wire fixing member, and gaps are formed between the plurality of support structures to accommodate the heating wire. The heating pad can stably limit the heating wire in a predetermined position by arranging the heating wire fixing member, so that displacement, warping or local concentration of the heating wire during use is avoided, and the uniformity of heating distribution is ensured.

The application relates to the technical field of intelligent thermal management of batteries, and discloses a dynamic thermal management control method and system for a sodium-ion battery module, wherein the dynamic thermal management control method for the sodium-ion battery module comprises the following steps: collecting sparse sensor temperature time sequence data, module current and cell end voltage of each section, online identifying a thermal response coefficient, extracting a voltage abnormality score, and outputting a multi-modal working condition feature sequence; modeling a local Gaussian reference based on a working condition clustering condition, completing Bayesian reconstruction of a full-field thermal distribution and extraction of a thermal field space residual by fusing a physical prior anisotropic Gaussian kernel; combining three residual Mahalanobis distance joint scoring and an internal resistance sensing linear parameter variation state equation to predict a full-field thermal evolution trajectory of each candidate strategy, and outputting a cooling area fan rotating speed gear control instruction according to a risk level dynamic weighted double-target optimization. The application can identify local thermal abnormalities in a blind area under a sparse temperature measurement layout and take into account thermal safety and thermal uniformity.

This invention relates to the field of aluminum plate processing control technology, and particularly to an aluminum plate cutting path planning method, system, and storage medium. The method includes: acquiring an image of the aluminum plate surface, extracting texture direction vectors, and constructing a heat conduction simulation model based on anisotropic parameters introduced according to the texture direction, generating a heat distribution matrix; calculating the temperature gradient and internal stress distribution of the material based on the heat distribution matrix, identifying high-risk deformation areas, and mapping these areas to the cutting path; adaptively correcting the path by analyzing the angle between the path and the texture direction; obtaining the deviation distribution through processing simulation, constructing a compensation matrix and integrating it into CNC system parameters to achieve dynamic optimization of the cutting path; and adjusting the compensation matrix based on real-time monitoring of thermal deformation during processing. This invention solves the problem of uncontrollable thermal deformation caused by neglecting the material texture direction in existing technologies, and achieves precise optimization of the cutting path and improved processing accuracy.

The application relates to a defect detection method, system, device and medium of a gas insulated switchgear. The method comprises the following steps: acquiring infrared thermal images and high-resolution visible light images of a GIS device to be detected, and inputting the images into a CAFF-DINO model after preprocessing and registration; extracting a thermal distribution feature map and a surface texture feature map through a Swin-Transformer backbone network, and generating a cross-modal correlation feature map; performing channel splicing on the thermal distribution feature map, the surface texture feature map and the cross-modal correlation feature map to obtain a stacked feature map, and adjusting the channel dimension to a preset dimension to obtain a fusion feature map; inputting the fusion feature map into a DINO detection head to obtain a defect detection result; and the defect detection result comprises defect category and defect position information. The method can realize high-precision collaborative detection of internal and external defects of the GIS device.

The present application relates to a kind of microphone and infrared thermal imaging combined positioning cable fault positioning method and system.The present application detects heat source due to abnormal discharge by infrared thermal imager.Infrared radiation all carries the characteristic information of object, after the power signal radiated by the heating site of object is converted into electric signal by photoelectric infrared detector, imaging device can simulate the spatial distribution of object surface temperature, finally, after system processing, form thermal image video signal, just obtain the thermal image corresponding to object surface heat distribution.The system is composed of infrared thermal imager and display two parts, infrared thermal imager is by non-contact detection infrared energy, and it is converted into electric signal after signal amplification and processing, generates thermal image, shows temperature distribution in space in the form of image, obtains spatial infrared thermal imaging chart.The present application reduces imaging range, reduces calculation amount;Make the accuracy of detection greatly improve real-time performance, system is simple and easy to realize.

The present application relates to the technical field of material performance testing, and discloses a silica gel adsorbent testing method and system, the method comprising: placing a silica gel adsorbent sample in a test cavity and configuring a test environment, monitoring temperature change data and adsorption isotherm data of the test cavity during the adsorption process, and synchronously obtaining initial adsorption heat distribution and initial total pore volume of the sample, performing adsorption and desorption stress cycles on the sample, and monitoring the cycle post-adsorption heat distribution and cycle post-total pore volume of the sample under the adsorption and desorption stress cycle conditions in real time, performing adsorption heat difference calculation on the initial adsorption heat distribution and the cycle post-adsorption heat distribution, obtaining an adsorption heat change index of the sample, evaluating the pore volume retention rate of the cycle post-total pore volume relative to the initial total pore volume, and generating a stability evaluation parameter of the sample based on the adsorption heat change index and the pore volume retention rate. The present application effectively simulates the performance evolution process under actual working conditions, and significantly improves the accuracy, sensitivity and predictability of the test.

This application relates to the field of smart property management and discloses a resource scheduling method for smart property management based on deep learning. The method includes: constructing a spatial topology influence map of the target property management area; spatially aligning the multi-source heterogeneous data streams according to the nodes of the spatial topology influence map and generating a sequence of node feature vectors corresponding to each node; inputting the node feature vector sequence into a spatiotemporal influence propagation prediction model; performing spatial feature aggregation on the node feature vector sequence based on the graph attention layer and the static topology constraint parameters in the spatiotemporal influence propagation prediction model to generate a spatiotemporal influence representation characterizing the degree of impact of sudden events on each functional area; predicting the resource demand heat value of each functional area within a preset time period based on the spatiotemporal influence representation to form a resource demand heat distribution; and generating a resource scheduling instruction set based on the resource demand heat distribution. This technical solution improves the user's property service experience.

The application discloses a compressed air energy storage-fused salt heat storage comprehensive energy system and an operation method thereof, and belongs to the technical field of energy conversion and energy storage. The system comprises a multi-stage compressor unit, a fused salt-air heat exchanger group, a high-temperature fused salt tank, a low-temperature fused salt tank, a high-pressure gas storage well, an expander, a generator, a regional heat supply heat exchange unit, a heat network circulating pump, a water supplement device and an inter-stage reheating flow channel. The multi-stage compressor unit is connected with the high-pressure gas storage well through the fused salt-air heat exchanger group, and the low-temperature fused salt tank and the high-temperature fused salt tank form a heat storage loop through the fused salt-air heat exchanger group. The outlet of the high-temperature fused salt tank is divided into two paths, one of which is connected with the expander through the inter-stage reheating flow channel, and the other of which is connected with the regional heat supply heat exchange unit to form a closed heating loop. The expander is coaxially connected with the generator, and the air inlet of the expander is connected with the high-pressure gas storage well. The application realizes large-temperature-difference external heat supply while improving the power generation efficiency through high-temperature fused salt heat storage and double-path heat distribution.

The utility model belongs to the field of photovoltaic technology, and discloses a photovoltaic junction box used for connecting four bus bars. The photovoltaic junction box comprises a box body, and a conducting strip, a first diode and a second diode which are arranged in the box body. The first diodes and the second diodes are distributed at intervals along the length direction of the box body, and the connecting end parts of the four bus bars extend into the box body and are conductively connected with the conducting strip; two of the four bus bars are distributed along the length direction of the box body, and the two bus bars distributed along the length direction of the box body are respectively staggered with the first diode and the second diode in the width direction of the box body. According to the photovoltaic junction box, the two bus bars distributed in the length direction of the box body are arranged to be staggered with the first diode and the second diode in the width direction of the box body, so that the two bus bars are prevented from being affected by the first diode and the second diode when the temperature is too high, and local high temperature of the bus bars is avoided; and the heat in the box body is uniformly distributed.

The utility model discloses a low bath ratio high temperature high pressure dyeing machine relates to dyeing machine technical field, the utility model discloses a dyeing cylinder body and set up at the bottom end of dyeing cylinder body's chassis and set up between the both sides of dyeing cylinder body top cloth guide pipe still include: heat shield, set up at the outside of dyeing cylinder body, the utility model discloses through heat shield blocks the heat and spreads outward through cylinder body outer wall, avoids a large amount of heat energy waste, and still can avoid workshop temperature rise, guarantees the work efficiency and safety of staff, and in through heat exchange coil absorbs the heat that cylinder spreads outward and is blocked by heat shield, through heat conduction filler can ensure that heat shield and dyeing cylinder body between heat distribution is even, avoids the position temperature difference of being close to and being far from heat exchange coil too big influence structural strength to further safe and effective utilization dyeing machine work when the heat that cylinder loses, improves energy utilization, makes equipment run more environmental protection.

This invention discloses an additive manufacturing path planning method and system for the head of an ultra-high strength steel deep blind hole shell component. The method includes: acquiring a three-dimensional geometric model of the component to be formed; identifying and extracting the internal cavity surface and edge contour features of the head of the deep blind hole shell component; generating a variable thickness layered slicing scheme based on the internal cavity surface and edge contour features; adopting a multi-level partitioning strategy within each layer based on the variable thickness layered slicing scheme, and designing the main path direction and scanning angle for each region; generating an adaptive spiral progressive filling path that can suppress residual stress and deformation based on the main path direction and scanning angle; and generating a processing instruction file that can directly drive additive manufacturing equipment based on the adaptive spiral progressive filling path. Using this invention, active control of the heat distribution and shrinkage deformation within the internal cavity of the head of the ultra-high strength steel deep blind hole shell can be achieved, improving the forming accuracy, internal quality, and mechanical property consistency of the component.

The utility model belongs to drying device technical field discloses a hot -blast flow guide's electrophoresis processing drying device, including support frame, conveyer belt and drying cover, support frame upper end is installed with conveyer belt, and support frame left side is fixed with power motor, power motor and conveyer belt power axle front end all are connected with transmission sprocket, and two groups transmission sprocket are connected with transmission chain between, the middle part upper end fixed with drying cover in conveyer belt, and drying cover side sets up locating seat, and locating seat lower end connects the wind curtain, drying cover top sets up the shroud, and the shroud inside sets up first flow guide fan. This hot -blast flow guide's electrophoresis processing drying device, through being provided with hot air flow guide structure, can realize air flow drying electrophoresis work piece, and air flow drying can improve heat distribution uniformity, improve the drying uniformity of work piece, and cooperate and set up air circulation structure, can realize the circulation flow of hot air, improve the efficiency of drying and reduce the loss of hot air.

This invention relates to a casting method for complex valve body castings, comprising the following steps: an analysis step, in which the gating system is designed according to the valve body structure, and the heat distribution and heat dissipation during the casting process are analyzed to determine the heat dissipation location data and heat dissipation rate data; a chilling step, in which chills are fabricated based on the heat dissipation location data and heat dissipation rate data; a sand core preparation step, in which sand cores are fabricated based on the heat dissipation location data and heat dissipation rate data; a box-closing casting step, in which the sand core is placed in the sand box, the chills are inserted into the sand box, and then the box is closed, with the casting volume gradually increasing during the casting process; the casting temperature is 1610-1630℃; inert gas is introduced at the beginning of the casting process; the amount of inert gas is gradually reduced; and a box-opening and cleaning step, in which the sand box is slowly cooled to 300℃ before opening; after opening the box, the sand is cleaned and the gating system is cleaned. This method solves the problem in existing solutions where uneven valve body wall thickness leads to uneven heat dissipation, resulting in casting defects within the valve body.

This invention relates to the field of mechanical manufacturing and welding automation technology, and discloses a method and system for real-time compensation of welding deformation of a skeleton based on dynamic feedback. The method includes acquiring three-dimensional geometric model data of the skeleton, material thickness distribution data, and welding path sequence data; processing this data to obtain an initial heat distribution map and a thermal deformation lag time series; extracting the superposition parameters of sequential thermal effects from the sequence, inputting these parameters into a preset neural network prediction model to obtain a predicted value of asynchronous deformation trend; if the predicted value exceeds a preset trend threshold, acquiring an adjustment signal to obtain a real-time compensation vector; updating the welding path sequence data based on the real-time compensation vector to obtain an optimized thermal deformation lag time series, which is then input into the neural network prediction model for iterative verification; if the superposition parameters of sequential thermal effects converge, obtaining the final predicted deformation distribution map; and generating a welding process control command sequence based on the distribution map. This method can solve the problem of low geometric accuracy in welded components.

This invention provides a desulfurization device for iron concentrate, comprising a device body. The device body has a heat-conducting protective cylinder installed on its inner wall, a heating rod installed inside the heat-conducting protective cylinder, and ventilation holes extending through the circumference of the heat-conducting protective cylinder. Multiple heat-conducting protective cylinders are installed at equal intervals on the inner wall of the device body. This invention, by installing multiple equally spaced heat-conducting protective cylinders on the inner wall of the device body, housing heating rods inside, and providing equally spaced ventilation holes on the circumference of the heat-conducting protective cylinders, effectively improves heat distribution. Compared to traditional methods of direct heating with simple heating elements, heat is transferred to the iron concentrate more evenly, avoiding localized overheating or insufficient heating, significantly improving desulfurization efficiency, ensuring the quality of the iron concentrate, and reducing damage caused by uneven heating.

Flat top gas grills including cooking engines configured for optimum heat distribution are disclosed. An example grill includes a cookbox, a heat shield, a griddle, and a plurality of burner tubes. The cookbox includes a bottom wall, as well as a front wall, a rear wall, a right sidewall, and a left sidewall extending upwardly therefrom. The cookbox further includes a plurality of air intake openings extending though the bottom wall. The heat shield includes a panel spaced apart from and located below the bottom wall of the cookbox. The panel extends across the plurality of air intake openings. The griddle is disposed on or above the cookbox. The griddle includes a flat top cooking surface and an underside located opposite the flat top cooking surface. The burner tubes are disposed in the cookbox and located between the bottom wall of the cookbox and the underside of the griddle.

Embodiments of the present application disclose a heat distribution pipe network planning method and related equipment. The method comprises: obtaining heat source point positions, first user distribution and load information of a planning area; presetting main pipe roadways and branch pipe roadways according to the heat source point positions and the first user distribution; determining main pipe roadways in the preset main pipe roadways and branch pipe roadways in the preset branch pipe roadways, in which heat supply users are connected, as first pipe network roadways; calculating first pipe network pipe diameters and determining heat supply modes of each heat supply user in the first user distribution according to the first pipe network roadways and the load information; and if each heat supply user in the first user distribution adopts a central heat supply mode, determining the first pipe network roadways and the first pipe network pipe diameters as a target heat distribution pipe network. According to the embodiments of the present application, heat distribution pipe network roadways are planned according to heat supply user distribution, heat energy loss can be reduced, and utilization can be improved.

A multi-objective optimization method for heating section parameters of an electromagnetic induction ethylene cracking furnace belongs to the field of ethylene cracking furnace optimization technology. It includes: determining key structural and electrical parameters of the heating section as optimization variables and setting their value ranges to construct a multi-dimensional design variable space; generating an initial sample set and initializing the particle swarm optimization using Latin hypercube sampling; establishing an electromagnetic field-heat conduction coupled simulation model to calculate the Joule heat distribution and furnace tube temperature field under different parameter combinations; constructing a multi-objective evaluation function based on temperature uniformity, electromagnetic heat transfer efficiency, and coil loss; using a multi-objective particle swarm optimization algorithm combined with non-dominated sorting and external archive mechanisms for iterative search to form a Pareto optimal solution set; and selecting the final heating section design parameter scheme according to engineering requirements. This invention can achieve multi-parameter collaborative optimization, significantly improving heating uniformity and energy utilization efficiency.

The application discloses a sodium ion battery thermal runaway propagation risk assessment method, and relates to the technical field of battery assessment, comprising obtaining non-uniform heat distribution information when a runaway battery releases heat to adjacent batteries; based on the non-uniform heat distribution information, determining the temperature gradient distribution and thermal stress distribution inside the adjacent batteries; based on the temperature gradient distribution, determining the ion migration direction and local ion concentration distribution inside the adjacent batteries; the application can realize early prediction and hierarchical control of sodium ion battery thermal runaway risk through non-uniform heat distribution acquisition, multi-physical field coupling analysis, accurate identification of potential internal short circuit position and thermal runaway risk quantitative assessment.