13 results about "Heat penetration" patented technology

The invention relates to the technical field of asphalt mixture processing and manufacturing, and discloses a recycled asphalt mixture production method which comprises the following steps: a control center receives an instruction to lock a mechanical gate, disconnects a linkage state of a primary device and a regeneration device, and establishes a single-roller operation state; the asphalt pavement milling material is put into a reclaimed material roller for single-roller direct heating; performing water vapor protection, flow field decoupling and thermal permeation anti-oxidation control on the heated regenerated material through a frequency converter and a combustor, and outputting an activated regenerated material; and discharging into a mixing cylinder for dry mixing, calculating an active power attenuation derivative to judge a thermal activation state, and generating a cross-stage feedforward correction instruction to complete continuous production. A cold air leakage path is cut off, free oxygen is blocked by water vapor, internal heat permeation conduction is switched, and high-temperature aging of old asphalt is avoided; the internal cold core is objectively recognized through electrical characteristics, the operation speed is lowered, the material heating time is prolonged, and continuous output of unqualified products is blocked.

The invention discloses a power supply connecting line AI adaptive temperature closed-loop regulation system, and relates to the technical field of power supplies, and the technical scheme is characterized in that real-time load parameters of a current power supply connecting line are acquired; establishing a thermal adaptation prediction model based on the historical load parameters and the historical thermal deformation repair adjustment data, and inputting the real-time load parameters into the thermal adaptation prediction model to obtain a basic temperature adjustment value; performing heat conduction simulation according to the real-time load parameters to obtain simulated thermal deformation characteristic data; processing the historical thermal penetration area, the historical line body aging area, the historical thermal deformation characteristic data and the pseudo-thermal deformation characteristic data to obtain the thermal penetration area of the coupling influence area; obtaining an actual temperature adjustment value according to the basic temperature adjustment value, the pretreatment temperature change rate, the thermal permeation area and the thermal deformation additional loss value; and performing temperature closed-loop regulation on the power supply connecting line according to the actual temperature regulation value and the thermal permeation area. The effect is that the reliability and stability of the whole power supply system are improved.

The invention discloses a forging heating method for W9Cr4V2Mo steel for a bearing ring, and relates to the field of bearing part forging. The problems that existing W9Cr4V2Mo steel for bearings is long in forging heating time, large in deformation resistance and prone to cracking during deformation are solved. The method comprises preheating; opening the furnace for cooling, and loading a bar material; and closing the furnace, heating and preserving heat. According to the method, the high-temperature heat preservation temperature is controlled to be 1170 DEG C, the heat penetration coefficient is controlled to be 0.25, the heating temperature is increased, the heat preservation time is shortened, heat preservation structures are heated thoroughly, and meanwhile the production heating efficiency of the raw forgings is improved. The method is used for forging and heating the W9Cr4V2Mo steel for the bearing ring.

This utility model discloses a heat-insulating and sound-insulating door and window profile, including a door and window frame. An auxiliary window mechanism is provided on the inner side of the door and window frame. The auxiliary window mechanism includes a window frame movably connected to the inner side of the door and window frame. An inner cavity groove is formed inside the window frame, and an insulating ring is placed inside the inner cavity groove. A limiting strip is fixedly connected to one end of the insulating ring, and a connecting strip is fixedly connected to the front end of the insulating ring. A main insulating ring is fixedly connected to one end of the connecting strip, and a secondary insulating ring is fixedly connected to the other end of the connecting strip. This heat-insulating and sound-insulating door and window profile, through the main and secondary insulating rings pulling the limiting strip and connecting strip, and with the main and secondary insulating rings covering the outside of the insulating ring, and by connecting the main and secondary insulating rings to the insulating ring via the limiting strip and connecting strip, achieves the purpose of reducing heat penetration and sound wave resonance, thereby achieving heat insulation and sound insulation effects.

The invention relates to the technical field of supply chain management, in particular to a medicine supply chain scheduling method and system based on reinforcement learning, and the method comprises the following steps: obtaining the temperature difference and heat conductivity coefficient inside and outside a carriage, calculating the heat penetration rate and thermal safety time limit, planning a path, and correcting the speed based on a congestion index to obtain the predicted passing time; and comparing the time limit with the deadline to generate an action mask vector, inputting the environmental parameters into a neural network to output a score, correcting by utilizing an action mask, and generating a scheduling instruction through a Softmax function. According to the method, the thermal safety time limit is accurately deduced, the action mask is constructed by using the thermal safety time limit and the delivery deadline as double constraints, invalid nodes are eliminated, the multi-dimensional parameters are input into the neural network, the probability distribution is generated under the mask constraint, and it is ensured that the vehicle scheduling instruction follows the temperature control safety threshold. The risk of medicine thermal failure is effectively avoided, and the cold-chain logistics distribution accuracy is improved.

The present application relates to the technical field of digital temperature control, in particular to an HVAC energy-saving adaptive control system and method based on AI optimization, which comprises an internal zone heat load analysis module, an external heat penetration quantification module, a wind-water linkage cold quantity optimization module, a cold-electricity conversion efficiency measurement module and an actuator driving reconstruction module. In the present application, by analyzing the superposition process of indoor air specific enthalpy and human body heat dissipation, the disturbance value caused by building envelope thermal inertia is calculated, the energy efficiency attenuation amplitude under variable frequency working condition is quantified, the execution mechanism control loop parameters are reconstructed by using reinforcement learning, the heat load prediction accuracy is effectively improved, the matching degree of cold quantity supply and actual demand is strengthened, the equipment operating frequency is optimized to suppress efficiency decline, the real-time monitoring and dynamic compensation of refrigeration system energy efficiency ratio are realized, mechanical wear and tear and hydraulic imbalance fluctuation are greatly reduced, air conditioning operation stability is enhanced, and the system can achieve efficient energy-saving adjustment goal under all working conditions.

The application discloses an intelligent computer laboratory management method and system based on Internet of Things, and relates to the technical field of computing power resource supervision and management. The method obtains terminal workstation space coordinates, physical network card addresses and cold aisle air supply characteristics based on digital mapping, converts computing power peaks into estimated heat equivalent, and collects personnel trajectory coordinates; the heat equivalent is mapped to generate an estimated heat island boundary, and the air supply characteristics are topologically compared to extract a heat dissipation margin, and the terminal with a positive remaining margin is reserved as a candidate node; target terminals are determined by comprehensively supervising business and security continuity, and an authorized code, a network card address and a trajectory coordinate are associated to generate a hardware-level access control list and distribute tasks; during the task running period, real-time heat island boundaries are reconstructed relying on digital twinning to extract heat dissipation attenuation gradients, and personnel dynamic deviation distances are calculated, and when heat penetration or off-line is indicated, the port is blocked and task live migration is scheduled. The system is used for realizing the above method.

This invention relates to the field of process control technology, specifically to an intelligent control method and system for the green firing process of porcelain insulators. The method includes the following steps: collecting the operating temperatures of the front temperature zone, the current temperature zone, and the rear temperature zone of the kiln; generating the temperature difference between adjacent temperature zones and comparing its direction with historical temperature differences to obtain the heat penetration status identifier of each temperature zone; extracting the temperature and time before and after the inflection point of the firing curve; classifying and generating segmented curve execution commands; generating equivalent input heat based on gas flow rate and low-grade calorific value; calculating the segmented quota of gas calorific value and adjusting the gas valve opening. In this invention, by continuously identifying changes in heat penetration of adjacent temperature zones, the slope of the inflection point of the linkage curve, the loading thickness of the green body, the continuous state of temperature deviation, and the equivalent heat of the gas, the firing curve switching is matched with the gas supply to meet the heating demand of the green body, reducing over-firing or under-firing at the inflection point stage, improving the stability of thermal balance, and reducing ineffective gas consumption.

The application belongs to the technical field of metal material hot working, and particularly relates to a microstructure and performance regulation method for high-forging-ratio TA15 titanium alloy components. The method comprises the following steps: S1: blank heating, placing the blank in a heating furnace to heat to T1 temperature and heat penetration; S2: blank fast forging, taking the blank out of the furnace after heat penetration, performing multi-fire-time forging to prepare a blank on a fast forging machine to obtain an intermediate blank; S3: intermediate blank heating, placing the intermediate blank in the heating furnace to heat to T2 temperature and heat penetration; S4: die forging, taking the intermediate blank out of the furnace after heat penetration, performing die forging on a die forging press to obtain a final forging piece; and S5: post-forging treatment. The application effectively improves the internal microstructure uniformity and strength level of the high-forging-ratio TA15 titanium alloy forging piece by adjusting the forging heating temperature and deformation distribution in the blank preparation and die forging processes without increasing the remaining processes, so that the strength level is 30 MPa higher than the standard requirement.

The novel kiln with the side auxiliary heating function comprises a kiln body, a plurality of roller bars are rotationally connected to the interior of the kiln body in a linear array mode, a heating assembly is arranged in an inner cavity of the kiln body, and a top plate is installed at the top of the kiln body; according to the novel kiln with the side auxiliary heating function, through the collaborative design of the heating assembly and the side auxiliary heating mechanism, the problem that in the heating process of a traditional kiln, temperature blind areas are likely to be formed on the two sides of a sagger is solved, and the temperature deviation between the center and the edge side of the sagger can be eliminated; the heat penetration efficiency can be obviously improved when the materials in the sagger are stacked thicker, the sintering conditions of all parts of the materials are ensured to be consistent, the stability of the sintering quality is greatly improved, and the rejection rate is reduced; through the cooperative design of the adjustable sliding table and the wire harness supporting mechanism, the wire harness extending out of the side auxiliary heating mechanism is flexibly supported and fixed, the wire harness is prevented from making direct contact with the outer wall of the furnace body with the high temperature, and the wire harness is effectively prevented from being aged and damaged due to the high temperature.

The invention belongs to the technical field of thermal resistance measurement, and discloses a thermal resistance measurement probe based on a heat flow focusing effect and an optimization method thereof. The probe is composed of a silicon chip layer, a copper substrate layer and a diamond inverted pyramid frustum layer in sequence, and a heat flow focusing channel is formed by the inclination angle of the side wall of the inverted pyramid frustum layer and used for guiding transverse heat diffusion into longitudinal conduction, so that the heat flux density and distribution uniformity of a contact surface are improved. In order to obtain optimal structural parameters, a multi-objective optimization method based on Taguchi orthogonal design and finite element analysis is adopted to carry out combined optimization on the size and the thickness of the diamond prismatic table and the thickness of the copper substrate. Through simulation verification, the designed probe can realize high-precision measurement of the interface thermal resistance, and the heat flow distribution uniformity and the heat penetration capability are improved compared with those of a traditional structure. The technology can be used for testing the thermal performance of multi-layer structure materials such as a power module solder layer and microelectronic packaging.

The invention belongs to the technical field of hydrogen energy storage and transportation equipment, and particularly discloses a multilayer composite fireproof fast-assembly hydrogen storage cylinder cover which comprises a cover body which extends from a cylinder opening valve seat to a middle straight section and is sleeved with an end seal head, and the cover body is provided with a first port and a second port located at the transition position. An inner-layer bearing shell, an energy-absorbing framework layer, a flame-retardant heat-insulating layer and an outer surface layer are sequentially arranged in the radial direction from inside to outside, and each layer forms a fireproof barrier in a corresponding heated temperature area; the module has the following advantages that the end key area is protected preferentially, heat flux reduction and heat penetration delay are achieved, impact peak clipping vibration suppression is achieved, assembly is quick, disassembly is free of glue, positioning is consistent, modular maintenance is supported, and light-weight integration is considered.

The utility model discloses a kind of heat-resistant infrared detector suitable for high-temperature environment, it is related to detector technical field, including base, the inside installation of base has detector main body;The utility model is cooperated by metal sheet, heat-resistant layer, metal shell and temperature sensor, by metal shell directly contacting external high-temperature environment, most of the radiation heat and convection heat are blocked, while relying on the high-temperature resistance characteristics of alloy itself to resist convection heat erosion, the heat-resistant layer of ceramic fiber cotton in its inside side is blocked by porous structure heat conduction path, reduces heat penetration rate, and the metal sheet outside detector main body is evenly dispersed by large-area contact, avoids local hot spot, while the temperature sensor between metal sheet and metal shell real-time monitoring temperature value, so as to can improve the heat resistance of device, delay its internal element aging, and then can prolong the service life of infrared detector.