Engineering Fluid Dynamics 2019-2020 Volume 2
This book contains the successful submissions to a Special Issue of Energies entitled "Engineering Fluid Dynamics 2019-2020". The topic of engineering fluid dynamics includes both experimental and computational studies. Of special interest were submissions from the fields of mechanical, ch...
Format: | eBook |
---|---|
Language: | English |
Published: |
Basel, Switzerland
MDPI - Multidisciplinary Digital Publishing Institute
2021
|
Subjects: | |
Online Access: | Open Access: DOAB: description of the publication Open Access: DOAB, download the publication |
LEADER | 07731namaa2202233uu 4500 | ||
---|---|---|---|
001 | doab68409 | ||
003 | oapen | ||
005 | 20210501 | ||
006 | m o d | ||
007 | cr|mn|---annan | ||
008 | 210501s2021 xx |||||o ||| 0|eng d | ||
020 | |a 9783036502502 | ||
020 | |a 9783036502519 | ||
020 | |a books978-3-0365-0251-9 | ||
024 | 7 | |a 10.3390/books978-3-0365-0251-9 |2 doi | |
040 | |a oapen |c oapen | ||
041 | 0 | |a eng | |
042 | |a dc | ||
072 | 7 | |a TBX |2 bicssc | |
720 | 1 | |a Hjertager, Bjørn |4 edt | |
720 | 1 | |a Hjertager, Bjørn |4 oth | |
245 | 0 | 0 | |a Engineering Fluid Dynamics 2019-2020 |b Volume 2 |
260 | |a Basel, Switzerland |b MDPI - Multidisciplinary Digital Publishing Institute |c 2021 | ||
300 | |a 1 online resource (202 p.) | ||
336 | |a text |b txt |2 rdacontent | ||
337 | |a computer |b c |2 rdamedia | ||
338 | |a online resource |b cr |2 rdacarrier | ||
506 | 0 | |a Open Access |f Unrestricted online access |2 star | |
520 | |a This book contains the successful submissions to a Special Issue of Energies entitled "Engineering Fluid Dynamics 2019-2020". The topic of engineering fluid dynamics includes both experimental and computational studies. Of special interest were submissions from the fields of mechanical, chemical, marine, safety, and energy engineering. We welcomed original research articles and review articles. After one-and-a-half years, 59 papers were submitted and 31 were accepted for publication. The average processing time was about 41 days. The authors had the following geographical distribution: China (15); Korea (7); Japan (3); Norway (2); Sweden (2); Vietnam (2); Australia (1); Denmark (1); Germany (1); Mexico (1); Poland (1); Saudi Arabia (1); USA (1); Serbia (1). Papers covered a wide range of topics including analysis of free-surface waves, bridge girders, gear boxes, hills, radiation heat transfer, spillways, turbulent flames, pipe flow, open channels, jets, combustion chambers, welding, sprinkler, slug flow, turbines, thermoelectric power generation, airfoils, bed formation, fires in tunnels, shell-and-tube heat exchangers, and pumps. | ||
540 | |a Creative Commons |f https://creativecommons.org/licenses/by/4.0/ |2 cc |u https://creativecommons.org/licenses/by/4.0/ | ||
546 | |a English | ||
650 | 7 | |a History of engineering and technology |2 bicssc | |
653 | |a 3D hill | ||
653 | |a accelerators | ||
653 | |a aerodynamics | ||
653 | |a anisotropic scattering | ||
653 | |a aspect ratio | ||
653 | |a automotive | ||
653 | |a baffle | ||
653 | |a Betz | ||
653 | |a blocked-off-region procedure | ||
653 | |a boundary layer | ||
653 | |a canopy | ||
653 | |a CFD | ||
653 | |a CH2O | ||
653 | |a churning power losses | ||
653 | |a clamping | ||
653 | |a climate change | ||
653 | |a coherent structures | ||
653 | |a combustion | ||
653 | |a computational fluid dynamics (CFD) | ||
653 | |a computational fluid dynamics (CFD), multiphysics | ||
653 | |a control | ||
653 | |a cylinder | ||
653 | |a deep neural network | ||
653 | |a dilution | ||
653 | |a discrete element method, sedimentation, bed formation | ||
653 | |a distribution | ||
653 | |a dynamic motion | ||
653 | |a energy dissipation rates | ||
653 | |a energy efficiency | ||
653 | |a evacuation | ||
653 | |a experimental validation | ||
653 | |a extinguishing coefficient | ||
653 | |a fire dynamics simulator (FDS) | ||
653 | |a fire growth rate index | ||
653 | |a fire risk | ||
653 | |a fire spread rate | ||
653 | |a fire suppression | ||
653 | |a flow fields | ||
653 | |a free surface waves | ||
653 | |a freestream theory | ||
653 | |a gap resonance | ||
653 | |a gearbox | ||
653 | |a genetic algorithms | ||
653 | |a ground roughness | ||
653 | |a heat exchanger | ||
653 | |a heat recuperation | ||
653 | |a heat release rate | ||
653 | |a heat transfer | ||
653 | |a hill shape | ||
653 | |a hill slope | ||
653 | |a horizontal face angle | ||
653 | |a horizontal pipe | ||
653 | |a hybrid simulation method | ||
653 | |a hydraulic characteristics | ||
653 | |a hydrodynamic forces | ||
653 | |a ignition heat source | ||
653 | |a impinging height | ||
653 | |a impinging water jet | ||
653 | |a inner smoke force | ||
653 | |a instability | ||
653 | |a interaction between smoke and evacuees | ||
653 | |a jet fan speed | ||
653 | |a large eddy simulations (LES) | ||
653 | |a large-eddy simulations | ||
653 | |a LedaFlow | ||
653 | |a liquid holdup | ||
653 | |a LSMs | ||
653 | |a maldistribution | ||
653 | |a maximum heat release rate | ||
653 | |a mie particles | ||
653 | |a modified BR-smoke model | ||
653 | |a multi-fluid model | ||
653 | |a multiphase flow | ||
653 | |a non-inertial coordinate system | ||
653 | |a numerical calculation | ||
653 | |a numerical investigation | ||
653 | |a numerical simulation | ||
653 | |a OH | ||
653 | |a optimized | ||
653 | |a optimized design | ||
653 | |a organ-Helmholtz nozzle | ||
653 | |a orifice shape | ||
653 | |a orthogonal test | ||
653 | |a particle heat transfer | ||
653 | |a pipe insulation | ||
653 | |a PIV | ||
653 | |a planar laser-induced fluorescence | ||
653 | |a pneumatics | ||
653 | |a power extraction | ||
653 | |a pre-multiplied wind velocity spectrum | ||
653 | |a premixed | ||
653 | |a pressure fluctuation | ||
653 | |a pressure gradient | ||
653 | |a pressure pulsation amplitude | ||
653 | |a pulse waterjet | ||
653 | |a radial force | ||
653 | |a radiant heat flux | ||
653 | |a radiation | ||
653 | |a recirculation | ||
653 | |a renewable energy | ||
653 | |a riser-induced slug flow | ||
653 | |a rotor stator interaction | ||
653 | |a roughness | ||
653 | |a scale factor | ||
653 | |a secondary vortex | ||
653 | |a self-excited oscillation jet | ||
653 | |a separation distance | ||
653 | |a shell side | ||
653 | |a shell-and-tube | ||
653 | |a shield arc metal welding | ||
653 | |a smoke layer thickness | ||
653 | |a smoke logging | ||
653 | |a smoke movement | ||
653 | |a smoke spread | ||
653 | |a smoke stratification | ||
653 | |a spatial correlation coefficient field | ||
653 | |a splash lubrication | ||
653 | |a splitter blades | ||
653 | |a sprinkler | ||
653 | |a stability | ||
653 | |a stepped spillway | ||
653 | |a submerged jet | ||
653 | |a surrogate model | ||
653 | |a swirler | ||
653 | |a thermoelectricity | ||
653 | |a time to reach maximum HRR (heat release rate) | ||
653 | |a traditional market | ||
653 | |a tube bundle | ||
653 | |a tunnel fires | ||
653 | |a turbines | ||
653 | |a turbulent boundary flow | ||
653 | |a turbulent boundary layer | ||
653 | |a turbulent flame | ||
653 | |a turbulent flow fields | ||
653 | |a turbulent structure | ||
653 | |a twin H-rotor vertical-axis turbines | ||
653 | |a twin-box deck | ||
653 | |a two-phase flow | ||
653 | |a ultra-low specific speed magnetic drive pump | ||
653 | |a unsteady flow | ||
653 | |a unsteady RANS simulation | ||
653 | |a URANS | ||
653 | |a velocity ratio | ||
653 | |a vertical jet | ||
653 | |a visibility | ||
653 | |a VLSMs | ||
653 | |a VOF-model | ||
653 | |a volume fraction | ||
653 | |a vortex shedding | ||
653 | |a wake | ||
653 | |a wavelet transform | ||
653 | |a welding spatter | ||
653 | |a wind power | ||
653 | |a WMLES | ||
793 | 0 | |a DOAB Library. | |
856 | 4 | 0 | |u https://directory.doabooks.org/handle/20.500.12854/68409 |7 0 |z Open Access: DOAB: description of the publication |
856 | 4 | 0 | |u https://mdpi.com/books/pdfview/book/3425 |7 0 |z Open Access: DOAB, download the publication |