Aims & Scope

The International Journal of Turbulence Explorations is an international, peer-reviewed, open-access journal dedicated to interdisciplinary research on turbulence, with a primary focus on its physical mechanisms. The journal emphasizes innovation in novel ideas, theories, and models to advance turbulence studies across various natural science and engineering fields. We welcome high-quality original research articles, reviews, perspectives, case studies, highlights, letters, and commentaries. The key areas of interest include, but are not limited to:
 
  1. Fundamental Turbulence Mechanisms & Phenomena
  • Definition and rational model of turbulence
  • Flow instability and transition to turbulence
  • Nonlinear and linear mechanisms
  • Local finite analytical solutions of the Navier-Stokes equations
  • Turbulence as spatiotemporal manifolds
  • Turbulence direct/inverse cascade and scaling laws
  • Turbulent structure and intermittency
  • Small-scale eddies in turbulence
  • Turbulent/non-turbulent interface (TNTI)
  • Structural (early) turbulence
  • High Reynolds number turbulence
  • Multiphysics-coupled turbulence
  • Energy dissipation and transfer
  • Mixing enhancement and turbulence decay
  • Disturbance effects related to Reynolds number
  • Unified mechanism of wall-bounded and free-boundary turbulence
  • Drag reduction and turbulence control
  • Onsager ideal turbulence and anomalous dissipation
  • Vortex dynamics based on Liutex/Rortex and their role in energy transfer and cascade processes
  1. Specialized & Complex Turbulence
  • Non-Newtonian turbulence
  • Magnetohydrodynamic (MHD) turbulence
  • Compressible turbulence and high-speed aerodynamic turbulence
  • Multiphase turbulence and particle-laden turbulent flows
  • Rotating and stratified turbulence in geophysical and astrophysical flows
  • Atmospheric turbulence
  • Astronomical turbulence
  • Reacting turbulence and combustion turbulence with chemical kinetics
  • Turbulence-generated aeroacoustics and flow-induced noise
  • Quantum turbulence and superfluid turbulence
  • Active turbulence
  1. Canonical Turbulence Systems
  • Homogeneous Isotropic Turbulence (HIT)
  • Two-dimensional turbulence
  • Scalar turbulence
  • Wall-bounded turbulence
  • Free-shear turbulence
  • Thermal turbulence (Rayleigh-Bénard turbulence)
  • Double diffusive convection turbulence
  • Electrohydrodynamics (EHD) and Electrokinetic (EK) turbulence
  • Accurate experiments on controllable curved laminar flows with/without singularity
  • Plasma turbulence
  • Nonequilibrium turbulence
  1. Research Methods, Techniques & Applications
  • High-fidelity numerical simulation and data-driven turbulence modeling
  • Turbulence over complex geometries and rough-wall boundary layers
  • Turbulence-generated aeroacoustics and flow-induced noise
  • Advanced experimental measurement and diagnostic techniques for turbulent flows
  • Artificial intelligence for turbulence physical mechanism discovery
  • AI-empowered numerical simulation, experimental measurement, and closed-loop control for turbulent flows
  • Topological pattern of streamlines around three-dimensional isotropic points
  • Tensorial method applied to turbulence
  • Applications of Liutex (Rortex) and related vortex identification methods in engineering and scientific flows
  1. Computational Simulation
  • Direct Numerical Simulation (DNS)
  • Turbulence models (turbulence closure models)
  • Large Eddy Simulation (LES)
  • Reynolds-Averaged Navier-Stokes (RANS) simulation with turbulence modeling
  • High-fidelity numerical simulation and data-driven turbulence modeling
  • Numerical methods for generalized convection-diffusion systems and their applications in turbulence
  • Other approaches, such as the Lattice Boltzmann method (LBM) and multiscale computations
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