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The Tsinghua University–University of Waterloo Joint Research Center for Micro/Nano Energy & Environment Technology (JCMEET) is a platform. It was established on Nov.11, 2017. The Chairperson of University Council of Tsinghua University, Dr. Xu Chen, and the President of the University of Waterloo, Dr. Feridun Hamdullahpur, attended the opening ceremony and unveiled the nameplate for the joint research center on 29th of March, 2018. The research center serves as a platform for researchers at both universities to conduct joint research in the targeted areas, and to meet regularly for information exchange, talent exchange, and knowledge mobilization, especially in the fields of micro/nano, energy, and environmental technologies. The center focuses on three main interests: micro/nano energy technology, micro/nano pollution control technology, and relevant fundamental research. In order to celebrate the first anniversary of the Joint Research Center, we were invited to serve as the Guest Editors of this Special Issue of Materials focusing on the topic of micro/nano-materials for clean energy and environment. It collects research papers from a broad range of topics related to micro/nanostructured materials aimed at future energy resources, low emission energy conversion, energy storage, energy efficiency improvement, air emission control, air monitoring, air cleaning, and many other related applications. This Special Issue provides an opportunity and example for the international community to discuss how to actively address the energy and environment issues that we are facing.
particle size --- nanoplates --- filter paper --- potassium-based adsorbent --- Limestone --- engine filtration --- particle deposition --- airborne nanoparticle --- CaO --- air filtration --- DFT --- nanoparticles --- model --- multiscale model --- building materials --- shale --- adsorption --- passive building systems --- thermal energy storage (TES) --- As2O3 --- nanofibers --- product island --- TGA --- water quality --- oxidation kinetics --- failure --- loading performance --- kinetics --- pressure decay method --- concrete --- airborne dust --- mortar --- flame synthesis --- permeability measurement --- flame stabilizing on a rotating surface (FSRS) --- particle concentration --- submicro-fiber --- rotational speed --- phase change material (PCM) --- PM2.5 --- load modification --- oxygen carrier --- amalgam --- CO2 adsorption --- Karlovitz number --- cellulose nanofiber --- Lyocell fiber --- microscopic characteristics --- sulfation --- spectral blue shift
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Fluid flow and heat transfer processes play an important role in many areas of science and engineering, from the planetary scale (e.g., influencing weather and climate) to the microscopic scales of enhancing heat transfer by the use of nanofluids; understood in the broadest possible sense, they also underpin the performance of many energy systems. This topical Special Issue of Energies is dedicated to the recent advances in this very broad field. This book will be of interest to readers not only in the fields of mechanical, aerospace, chemical, process and petroleum, energy, earth, civil ,and flow instrumentation engineering but, equally, biological and medical sciences, as well as physics and mathematics; that is, anywhere that “fluid flow and heat transfer” phenomena may play an important role or be a subject of worthy research pursuits.
n/a --- thermal performance --- microbubble pump --- particle deposition --- flow oscillation --- orthogonal jet --- flat plate --- gas turbine engine --- air heater --- flow behavior --- transonic compressor --- friction factor --- nonlinear thermal radiation --- oscillators --- porous cavity --- POD --- turbulent flow --- thermosyphon --- turbulence --- mass transfer --- tip leakage flow --- capture efficiency --- pipe flow --- correlation --- decomposition dimensionalities --- heat transfer --- pressure loss --- CANDU-6 --- numerical modeling --- CFD --- magnetic field --- boundary layer --- two-phase flow --- heat transfer performance --- Colebrook-White --- computational burden --- phase change --- surrogate model --- Padé polynomials --- traveling-wave heat engine --- flow regime --- numerical simulation --- energetics --- ( A g ? F e 3 O 4 / H 2 O ) hybrid nanofluid --- pumps --- BEM --- SPIV --- acoustic streaming --- microbubbles --- Aspen® --- push-pull --- Positive Temperature Coefficient (PTC) elements --- iterative procedure --- transient analysis --- spiral fin-tube --- toxic gases --- unsteady heat release rate --- water hammer --- method of moment --- visualization --- superheated steam --- impingement heat transfer enhancement --- X-ray microtomography --- moderator --- wind turbine --- flow rate --- fin-tube --- flue gas --- actuator disc --- temperature distributions --- supercritical LNG --- sharp sections --- moment of inertia --- Colebrook equation --- pump efficiency --- tower --- OpenFOAM --- computational fluid dynamics --- chemical reaction --- pump performance --- logarithms --- numerical results --- downwind --- thermodynamic --- triaxial stress --- flow friction --- energy conversion --- entropy generation --- zigzag type --- inertance-compliance --- section aspect ratios --- laminar separation bubble --- axial piston pumps --- thermogravimetry --- pressure drop --- load resistances --- vortex breakdown --- T-section prism --- flow-induced motion --- centrifugal pump --- load --- vortex identification --- decomposition region --- condensation --- performance characteristics --- pipes --- detached-eddy simulation --- Computational Fluid Dynamics (CFD) simulation --- thermal cracking --- real vehicle experiments --- bubble size --- thermal energy recovery --- hydraulic resistances --- concentration --- tower shadow --- fire-spreading characteristics --- thermoacoustic electricity generator --- bubble generation --- multi-stage --- thermal effect --- ferrofluid --- PHWR --- fluidics --- multiphase flow --- printed circuit heat exchanger --- particle counter --- dew point temperature --- Padé polynomials
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