Based on a new mechanismic model proposed by the authors recently which accounts for the heat transfer modes of conduction
convection and radiation in fluidized beds
a quantitative analysis of characteristic regions of heat transfer is presented in this paper. A new scheme of heat transfer regions is shown with the Archimedes number representing the fluidizing property of particles and Planck number reflecting the relative importance of conduction and radiation. Nine characteristic regions are defined
according to the change of dominant heat transfer modes
which are useful in the optimum design and normal operation of fluidized bed equipment.
Controlled synthesis of Bi2MoO6/MoO3 composite fibers via in-situ hydrothermal method and their high-efficiency photocatalytic hydrogen production performance
Study on the residence time distribution characteristics of the TPMS-Diamond static mixer
Prediction model for COD in petrochemical wastewater influent based on temporal-spatial dual-stream convolutional neural network
A hybrid modeling and optimization strategy for sequential simulated moving bed
Progress in research of selective oxidation of low carbon polyols over nano-Au catalysts with precise electronic effect regulation