11 results about "HOT Region" patented technology

The utility model relates to a kind of high-efficiency heat-dissipating edge computing box, to the poor heat dissipation effect, loud or complex structure problem of existing edge computing box, including shell and circuit board component, heating element is equipped on circuit board component, shell top plate upper surface has multiple heat dissipation fins, still including the heat plate that heat transfer medium circulates heat dissipation between hot area and cold area, heat plate is fixed on top plate lower surface, lower surface is pasted with heating element, heat plate hot area is close to heating element, cold area is close to top plate.Heat plate liquid working medium absorbs heating element heat and vaporizes to rise to cold area, heat is dissipated through top plate, steam condenses and backflows to hot area to circulate heat dissipation.The utility model realizes efficient heat transfer by heat plate phase change circulation, and heat dissipation effect is good, simultaneously without fan, reduce equipment noise, simplify assembly procedure, save installation space, improve equipment running stability and environmental adaptability.

The present disclosure provides a hot zone heater for a single crystal furnace and a single crystal furnace, the hot zone heater of the single crystal furnace including an edge main heater and an auxiliary heater, both of which have a cylindrical structure with both ends open, both of which have opposing top and bottom open ends, the auxiliary heater being sleeve-mounted outside the edge main heater, and the top open end of the auxiliary heater extending beyond the top open end of the edge main heater.

A fan includes a circuit board, a fan module, and a temperature control module. The fan module is electrically connected to the circuit board and located at an air inlet. The temperature control module is electrically connected to the circuit board and communicated with the fan module. The temperature control module includes at least one semiconductor chilling plate, a cooling plate component and a hot plate component. The semiconductor chilling plate separates a cold zone provided with the cooling plate component from a hot zone provided with the hot plate component. The cold zone and the hot zone are arranged oppositely. The fan module divides airflow passing through the cooling plate component and the hot plate component to turn into cold air and hot air. The cold air goes out from a cold air outlet, and hot air goes out from an hot air outlet.

The application discloses a cold and hot impact test box capable of shortening temperature recovery time, which comprises a box body, a partition plate arranged in the box body, a moving channel arranged on the partition plate, a basket assembly, a power assembly, a transmission assembly and a pressure balance assembly. The partition plate divides the box body into a cold area and a hot area. The basket assembly moves in the cold area and the hot area through the moving channel. The power assembly is used for providing power for the movement of the basket assembly. The transmission assembly is connected with the power assembly and the basket assembly and is used for transmitting the power of the power assembly to move the basket assembly in the cold area and the hot area. The pressure balance assembly is communicated with the cold area and the hot area and is used for balancing the pressure of the cold area and the hot area. The cold and hot impact test box capable of shortening temperature recovery time balances the air pressure of the cold area and the hot area through the pressure balance assembly, does not need to exchange air with the outside world, reduces the loss of energy and does not affect the performance of refrigeration.

The application provides a kind of rural infrastructure intelligent operation and maintenance method and system based on digital twinning, it is related to intelligent operation and maintenance technical field, wherein, the method comprises: obtaining the time series infrared data, visible light image and environmental parameter of target area;Infrared data is calibrated to obtain initial temperature field data, and is fused with visible light image to generate fusion image data;Then the fusion data is input into the generative adversarial network model to extract thermal anomaly features, and the digital twin is updated synchronously;Then the environmental parameter is input into the updated digital twin, and thermodynamic simulation is carried out, and simulation temperature field data is output;Then the simulation data and the fusion image are registered and difference calculated, and the abnormal heat zone is determined;Finally, the shape of the heat zone, the time domain change and the temperature gradient are analyzed, the fault type is determined combined with the facility type, and the operation and maintenance work order is automatically generated and sent.The application improves the intelligent diagnosis and active operation and maintenance level of rural concealed facility latent fault.

This invention discloses a dynamic load balancing method and system based on Redis and memory collaboration, belonging to the field of intelligent resource scheduling technology. It includes obtaining complete profile data and generating a hot group list and link matrix through unified collection of multi-level indicators and synchronous monitoring of node links; obtaining a link migration execution report by detecting the link health of migration commands and node parameters; verifying and replaying the migration execution report using contradictory verification correction to generate an adoption report and an anomaly list; and dynamically adjusting the order of different levels and nodes and updating the migration execution report based on the adoption report and the anomaly list using an adaptive parameter tuning method. This invention achieves hot / cold zone perception and congestion prediction of migration commands by combining a cross-layer remapping candidate list with a link matrix for bandwidth hot zone projection and cold zone priority sorting, effectively improving the accuracy of resource scheduling under Redis and memory collaboration.

The application provides an interactive interface display method, an electronic device and a storage medium. When a user moves a first control out of a first response hot area, or the user long-presses the first control and the position of the first control does not change for a first time length, or the moving position of the first control meets a preset condition, the electronic device can display the first response hot area in a reduced size. In this way, the display size of the first response hot area can be prevented from being too large to block other areas in the first user interface, and the user's interactive experience is improved.

This invention relates to the field of photovoltaic power plant monitoring technology, and discloses a method, device, equipment, and medium for monitoring reused photovoltaic modules in humid and hot regions. The method provided by this invention dynamically optimizes the monitoring frequency based on monitored environmental humidity data, effectively reducing data redundancy and system energy consumption while ensuring monitoring accuracy in high-humidity risk scenarios. Furthermore, it iteratively optimizes the parameters of the linkage data model through real-time monitoring data, significantly improving the model's adaptability to the status of reused modules in humid and hot regions. Based on the parameter-optimized linkage data model, it achieves forward-looking prediction of the status of reused photovoltaic modules, and outputs accurate monitoring results by combining graded early warning thresholds. This transforms monitoring data from simple status records into a basis for trend prediction, providing reliable data support for the early operation and maintenance of reused photovoltaic modules.

Servers, methods, and computer-readable media for performing thermal management of a server including a plurality of data storage devices. In one example, a server includes a controller configured to apply a machine learning model to identify a first portion of the plurality of data storage devices located in a hot zone relative to a second portion of the plurality of data storage devices located outside of the hot zone. The controller identifies the hot zone based on thermal data received from each of the plurality of data storage devices. Based on an identification of the first portion of the plurality of data storage devices located in the hot zone, the controller performs thermal management of the plurality of data storage devices by logically shuffling the plurality of data storage devices to create a distributed hot zone.