4results about How to "Achieve loss" patented technology

The present invention discloses a polysilicon ingot furnace, comprising a furnace body and a heat preservation cover arranged in the furnace body, wherein a crucible, a bottom plate, a heater, a heat insulation block and a heat exchange device are arranged in the heat preservation cover; the bottom plate is installed on the heat exchange device, the crucible is placed on the bottom plate, a crucible guard plate is installed on the outer wall of the crucible, an angle adjustment mechanism is installed on the side wall of the bottom plate, the heat insulation block is installed on the angle adjustment mechanism, and the end of the heat insulation block is in contact with the heat preservation cover. The present invention can effectively control the heat dissipation path and method by changing the placement of the carbon felt heat insulation block, that is, adjusting the angle between it and the bottom graphite guard plate, and realizing the regulation of the thermal field to meet the different requirements of various ingot casting processes.

The high-cleanliness high-vacuum high-pressure heat treatment device comprises a furnace body and a furnace door, crystal materials needing heat treatment are placed in a furnace cavity in the middle of the furnace body, and the crystal materials in the furnace cavity are subjected to high-temperature sintering through a first heating furnace pipe, an aluminum oxide furnace pipe and a second heating furnace pipe which are arranged on the peripheral side of the furnace cavity. The furnace door and the furnace body are sealed through the fluororubber sealing ring, heat loss in the furnace cavity is avoided, the stainless steel water cooling cavity is formed in the furnace door, the furnace door is cooled, the fluororubber sealing ring is prevented from being heated and deformed, and the service life of the sealing ring is prolonged; cold water is introduced into the water cooling cavity from the water inlet to cool the furnace door, the cold water flows out from the water outlet and is recycled, continuous cooling of the furnace door is achieved, the pipe plug sewn by aluminum oxide cloth is installed between the furnace door and the furnace cavity to block heat transfer from the furnace cavity to the furnace door, and heat loss in the furnace cavity is further reduced.

The application provides a controllable portable monitoring and early warning system for a civil aviation passenger plane luggage compartment and a method thereof, and relates to the technical field of luggage compartment monitoring and early warning. The system comprises the following steps: obtaining the communication quality parameters and the current power parameters of each monitoring node in the luggage compartment; constructing a directed graph with each monitoring node as a vertex and the communicable connection between each monitoring node as a directed edge; determining difficult nodes with communication quality parameters lower than a preset threshold; calculating several candidate paths from any difficult node QR to the total end node in the directed graph; assigning a final path to each difficult node according to the candidate paths of each difficult node, and sending the routing information corresponding to the final path to the corresponding monitoring node, so that each monitoring node transmits the collected monitoring data to the total end node according to the corresponding routing information; and the application significantly improves the reliability of data transmission and the network's invulnerability.

This application provides a pine cone-shaped photothermal evaporator and its preparation method, relating to the field of solar seawater desalination technology. The preparation method utilizes a silica-polypyrrole double-shell structure design to fabricate PPy-PCMs microcapsules that possess both high photothermal conversion efficiency across the entire spectrum and stable, reversible phase change heat storage function. A composite membrane is obtained by sequentially spraying a nanofiber suspension and a PPy-PCMs dispersion onto a substrate. The composite membrane is then cut into strips and radially fixed to the surface of a hydrophilic cotton rod, assembling them to form a biomimetic pine cone-shaped photothermal evaporator. This biomimetic pine cone-shaped photothermal evaporator exhibits stable structure, leak-proof and heat-resistant properties, excellent light absorption efficiency, and low thermal conductivity. It maintains high evaporation performance under both light and dark environments, demonstrates significant desalination effects, and maintains stable operation even in high-salinity water bodies, providing an efficient solution for all-weather water purification.