For joining metals to ceramics, the choices include (1) mechanical fastening by interlocking features or fasteners; (2) direct joining by non-fusion or, to a lesser extent, fusion welding; and (3) indirect joining using intermediates that include organic or inorganic adhesives or metallic fillers that are melted to enable brazing or soldering or to remain solid for assisting in diffusion welding.
This review is organized into three sections: (i) functionalization and manipulation of solid surfaces to assist molecular self-assembly; (ii) manipulation of freestanding ultrathin films by self-assembly; and (iii) molecular assembly at dynamic interfaces.
The simulation analysis shows that the performance of the solid oxide fuel-assisted electrolysis cell is higher than that of conventional solid oxide electrolysis cell, as it requires a lower power input.
Furthermore, it is possible to run the solid oxide fuel-assisted electrolysis cell without an external electrical energy input.
A theoretical model was established for predicting the volatile organic compound (VOC) removal and energy performance of a novel heat pump assisted solid desiccant cooling system (HP-SDC).
A family of lithium mixed transition-metal pyrophosphates Li2Fe1−yMnyP2O7/C (0≤y≤1) has been prepared by mechanochemically assisted solid state synthesis using a high-energy planetary mill AGO-2.
Single-phase LiVO3 with a monoclinic structure (S.G. C2/c) was prepared by mechanochemically assisted solid state synthesis using V2O5 and Li2CO3 as raw materials.
The microwave assisted solid phase extraction method was optimized using a two-level fractional factorial design by evaluating parameters such as pH, mass of adsorbent (MA), extraction time (ET), eluent ratio (ER) and microwave power (MP).
Taking the integrated gaseous contaminants and moisture adsorption potential of desiccant material, a new heat pump assisted solid desiccant cooling system (HP-SDC) was proposed based on the combination of desiccant rotor with heat pump.
