12 results about "Metabolic heat" patented technology

This invention discloses an intelligent temperature control method and system for edible fungi containerized production based on artificial intelligence, belonging to the field of smart agriculture technology. The method includes: collecting environmental and growth status data within the container; identifying the growth stages of edible fungi based on a multimodal deep learning classifier; generating a temperature reference trajectory by invoking corresponding temperature demand strategies; constructing a digital twin model of edible fungi growth dynamics to predict future temperature demand changes; establishing a state-space model coupled with temperature, humidity, and CO2 using a model predictive control (MPC) algorithm to calculate the optimal temperature control command; and executing the control command to coordinate equipment operation. This invention achieves metabolic heat prediction through a edible fungi mycelial temperature response model and optimizes energy consumption strategies through reinforcement learning, solving the problems of low control accuracy, high energy consumption, and poor variety adaptability in existing technologies, making it suitable for industrialized production of various edible fungi.

This invention discloses a method, system, device, and medium for early warning of hydrogen sulfide concentration based on sedimentary layer metabolic thermal deviation, belonging to the field of sedimentary layer gas monitoring technology. The method includes: sequentially applying a first thermal micro-perturbation and a second thermal micro-perturbation to the physical center of the interface to construct a nonlinear instability coefficient and record the critical deceleration determination time; latching a reference state in response to the physical center of the interface meeting preset evolution conditions and recording the interface structure triggering time; constructing a biological amplification factor based on the reference state by applying isoparametric thermal pulses to determine activity-enhanced interface erosion; applying controlled hydrodynamic pulses to diagnose the reservoir driving type using gradient peak migration characteristics; and outputting a graded early warning based on the reservoir driving type when the causal leading time sequence conditions are met. This invention eliminates pore structure interference through dual-amplitude thermal micro-perturbations, distinguishes the causes of interface erosion through self-referenced causal discrimination, and adaptively identifies the reservoir driving mechanism through dynamic thermal diffusion reference cycle number, thus achieving advanced graded early warning.

This invention relates to the field of infrared thermal imaging technology, specifically to a method and system for human body analysis based on infrared thermal images. The method includes: acquiring a sequence of infrared thermal images of the limb under test during thermal relaxation; segmenting the image sequence and constructing a topological midline of an effective contour, defining a reference direction for heat flow based on the change in cross-sectional geometric width along the midline; calculating the temperature gradient vector field, selecting regions whose gradient direction is inversely distributed to the reference direction of heat flow and containing closed isotherms as thermal topological anomaly regions; establishing a biological heat transfer model with surface temperature as the boundary condition, performing inverse solving on the thermal topological anomaly regions, and calculating the heat source parameters at the corresponding subcutaneous depth; generating a damage warning when the heat source parameters exceed a threshold. This invention, by quantifying metabolic thermal anomalies caused by inflammation within tissues, achieves precise localization and quantitative assessment of deep limb injuries, significantly improving the accuracy of human injury detection.

The invention relates to the technical field of computer vision, in particular to a veterinary animal body temperature detection method and system based on infrared image recognition. According to the method, the body surface microscopic curvature and the observation sight angle are accurately quantified by constructing a high-precision three-dimensional observation model, a physical transmission path extension mechanism of light in a hair layer medium is combined, a correction factor is obtained by utilizing bilinear interpolation, and a reverse attenuation recovery model is constructed; radiation energy loss caused by hair shielding and geometric projection is compensated from the mathematical level, real thermodynamic distribution of the skin surface is restored, a thermal gradient vector field and divergence calculation logic with energy dissipation constraint are introduced, spatial divergence characteristics of heat flow in biological tissues are deeply analyzed, and the biological tissue is obtained. A weak metabolic heat source signal is enhanced and random background noise is inhibited by utilizing multi-frame time sequence accumulation operation, so that the dynamic sensitive capture and accurate positioning of heat flow in a hidden focus area are realized, and the data reliability of body temperature detection and pathological screening in a complex body surface environment is remarkably improved.

The application discloses a self-closing fireproof lifesaving cabin and belongs to the field of building safety protection. In view of the problems of difficulty in escaping and rescuing in high-rise building fire, the application provides a closed refuge device integrating passive heat insulation, active temperature control and life maintenance. A five-layer composite cabin body is adopted to realize efficient passive heat insulation; a pure mechanical metal knife edge plastic deformation sealing system is designed to ensure that the cabin is completely isolated from the outside under high temperature; a "refrigerating machine + phase change heat storage plate" combination is innovatively adopted to convert personnel metabolic heat into phase change material storage, so that the temperature rise problem of the closed space is solved; a life maintenance system integrating oxygen detection compensation and air filtration and an external high-brightness position indication system are integrated. The application realizes that personnel can take refuge in place in fire and is completely isolated from the outside, and the life is maintained for at least 24 hours by relying on the internal system, so that a fundamental solution is provided for personnel survival and rescue in high-rise building fire.

The application discloses an intelligent physical diagnosis system and method based on infrared thermal imaging double guidance, relates to the technical field of diagnosis systems, and constructs a thermal field space topology network graph; maps metabolic heat flow characteristic parameters to the thermal field space topology network graph, combines a heat flow vector direction and a flow velocity to calculate metabolic driving weights of each heat diffusion path, generates a percolation type heat conduction path model with metabolic weights, and outputs a defect-thermal metabolism coupling graph; after analyzing the defect-thermal metabolism coupling graph, it is judged whether a physical imbalance early warning signal is triggered, abnormal source coordinates and related physical type tendencies are synchronously labeled, and intervention suggestion work orders containing positioning coordinates are automatically generated according to the early warning signal. The diagnosis method realizes multidimensional and high-precision collaborative analysis on a human body surface thermal field and metabolic heat flow, accurately positions an abnormal source, and outputs individualized intervention suggestions, thereby providing key information that can directly guide practice for clinical or health management.

The application discloses a kind of soil risk assessment methods for red paddy field, specifically related to soil risk assessment field, for solving the problem that existing method cannot accurately identify the anoxic risk below tillage layer and its influence on root system;By constructing the combined monitoring mechanism of heat flux and oxygen concentration, the metabolic heat release power and oxygen consumption trend are extracted, the reduction dominant area below the tillage layer is identified, and the spatial boundary is fitted, and the three-dimensional distribution map of the anoxic dominant area is established;Combined with the distribution of crop root system, the spatial boundary of the overlap of root zone and anoxic area is extracted, and the profile expansion rate and root zone change characteristics are analyzed in the continuous monitoring period, and the soil degradation trend identification parameter set is constructed.Finally, according to the preset degradation judgment weight, the parameter sequence is scored and mapped, and the soil degradation risk grade atlas covering the entire red paddy field area is generated, with high spatial resolution and high discrimination accuracy of soil risk expression ability.

The invention discloses an intelligent temperature control method and system for gastrodia elata factory pure fungus bag three-dimensional cultivation, and belongs to the technical field of temperature control, and the method specifically comprises the steps: obtaining fungus bag related data of different heights and different areas in a cultivation frame, the fungus bag related data comprises sensing data, environmental data and fungus bag group metabolism heat release distribution data, based on the relevant data of the fungus bags, combined with growth cycle characteristics of gastrodia elata symbiotic fungi, generating a staged temperature control curve by adopting a logic mode of combining threshold judgment and condition triggering, and according to the staged temperature control curve, independently heating or cooling the fungus bags at different heights and areas, and performing zoned temperature control; according to the application, differential precise temperature control of fungus bags of different levels is realized, and an adjustable temperature gradient can be formed while the stability of a cultivation environment is ensured.

The invention relates to the technical field of automatic control, in particular to an intelligent joint control system and method for a livestock breeding environment, and the system comprises a load sensing module which collects the current of a motor, extracts the effective load duration, and calculates the total single feeding amount, a heat inversion module which generates the total heat of biological metabolism based on the total amount and a heat increment coefficient, the system comprises a real-time specific enthalpy generation module, a gamma distribution adjustment building heat production rate curve and generating an expected sensible heat power sequence, an enthalpy value compensation module for converting the sequence into an enthalpy value drop amplitude and generating a feedforward compensation target enthalpy value, and a joint control execution module for generating a negative pressure fan control instruction based on a difference value between the real-time specific enthalpy and the target enthalpy value. According to the method, the total feeding amount is calculated, the heat production rate curve is constructed in combination with the heat consumption increasing coefficient, the sensible heat power is rehearsed, the feed-forward compensation target enthalpy value is determined, the draught fan is driven in advance before heat accumulation, prospective intervention based on the metabolic rhythm is achieved, control lag is eliminated, and stable transition of the breeding microenvironment is guaranteed.

The utility model relates to the technical field of persimmon wine brewing and alcohol fermentation, and provides a persimmon wine brewing fermentation device with a temperature control mechanism, which comprises a fermentation tank, one side of the upper end of the fermentation tank is communicated with a feed port, the lower end of the fermentation tank is communicated with a discharge port, and the upper end of the fermentation tank is provided with a stirring assembly for stirring persimmons. A temperature control assembly for controlling the temperature is arranged on the outer wall of the fermentation tank, and a flow guide assembly for controlling the temperature gradient is arranged on the inner wall of the fermentation tank; the device has the beneficial effects that high-viscosity persimmon pulp is guided to form stable spiral flow which is fast at the bottom and slow at the top through the four first flow guide plates which are inclined by 60 degrees at the bottom and the two second flow guide plates which are inclined by 30 degrees in the middle, the temperature distribution is balanced, and the high-speed flow at the bottom forcibly drives sediments such as peel, pulp fibers and the like to move upwards, so that the sediments are uniformly distributed. Metabolic heat accumulation caused by tank bottom deposition is avoided, the temperature difference between the upper part and the lower part of a traditional tank is controlled, and a stable temperature environment is provided for yeast.

This invention relates to the field of wastewater treatment technology, particularly a wastewater treatment control process based on dynamic regulation of aeration and carbon source addition. The process includes the following steps: real-time acquisition of microbial metabolic heat change data; biochemical treatment, real-time monitoring of the water's dielectric constant and wastewater flow Reynolds number, combined with the microbial metabolic heat change data acquired in the pretreatment step, constructing a multi-parameter coupled regulation model and dynamically regulating the aeration rate; precise addition of carbon source based on the calculation results of the carbon source demand prediction model; and after biochemical treatment, the wastewater is first ultrafiltration through a nanofiber membrane, followed by combined ultraviolet and ozone disinfection. During the treatment process, treatment parameters are adjusted in real-time according to the membrane flux decay trend to achieve dynamic and precise control of wastewater treatment. This method solves the problems of energy waste caused by excessive aeration or low degradation efficiency caused by insufficient aeration in traditional processes, achieving precise matching between dissolved oxygen supply and microbial demand.

The application discloses an intelligent scheduling method and system for edible mushroom air conditioning operation, and relates to the technical field of environment control. The method encodes the growth period of edible mushrooms and the day-night rhythm in space-time slices, adopts edge node chain communication and a locking comparison mechanism, realizes distributed adaptive coordination and scheduling of upstream and downstream cold energy of a long mushroom house, significantly eliminates temperature gradient attenuation and upstream and downstream cold energy imbalance problems caused by the increase of air supply distance, and makes the temperature distribution in the whole mushroom house more uniform and stable. Meanwhile, mycelium respiration heat feedforward compensation based on temperature deviation change rate effectively inhibits temperature overshoot and oscillation caused by metabolic heat in the mycelium stage and primordium stage.