Abstract Sorting Category Preview

 

During abstract submission, you will be asked to select a sorting category for your abstract. This category is used by meeting organizers to help place your abstract in an appropriate session. Note that there may or may not be a direct correspondence between the sorting category and an actual session at the meeting. If you have a second choice for a category, you may indicate it as a ‘special instruction’.

In addition to the over 300 categories for regular contributed abstracts on fluid physics, there will be minisymposia, focus sessions, and sessions for fluids education and outreach topics. These are in Categories 39 and above.

Minisymposia talks are by invitation of the session chairs only. Focus sessions have open submissions, and the session chairs will help structure the session. Any abstract submitted to a focus session but not selected for the session will still be placed in an appropriate regular session.

 

2018 ABSTRACT SORTING CATEGORIES

1 Acoustics: General

1.1 Acoustics: Aeroacoustics

1.2 Acoustics: Hydroacoustics

1.3 Acoustics: Thermoacoustics

2. Aerodynamics: General

2.1 Aerodynamics: Control

2.2Aerodynamics: Fixed, Flapping and Rotating Wings

2.3 Aerodynamics: Fluid Structure Interactions, Membranes, Flutter

2.4 Aerodynamics: Theory

2.5 Aerodynamics: Vehicles

2.6 Aerodynamics: Wind Energy

3. Astrophysical fluid dynamics

4. Biological fluid dynamics: General

4.1 Biological fluid dynamics: Biofilms

4.2 Biological fluid dynamics: Collective Behavior and Microswimmers

4.3 Biological fluid dynamics: Flows in Fluid Films and Biofilms

4.4 Biological fluid dynamics: Flows involving Vesicles and Micelles

4.5 Biological fluid dynamics: Single Cells and Bacteria

4.6 Biological fluid dynamics: Plant Biomechanics

4.7 Biological fluid dynamics: Physiological

4.7.1 Biological fluid dynamics: Physiological Cardiac flows

4.7.2 Biological fluid dynamics: Physiological Small-scale vascular flows

4.7.3 Biological fluid dynamics: Physiological Large-scale vascular flows

4.7.4 Biological fluid dynamics: Physiological Respiratory flows

4.7.5 Biological fluid dynamics: Physiological Brain

4.7.6 Biological fluid dynamics: Physiological Phonation and Speech

4.8 Biological fluid dynamics: Flying

4.8.1 Biological fluid dynamics: Flying Birds

4.8.2 Biological fluid dynamics: Flying Insects

4.9 Biological fluid dynamics: Locomotion

4.9.1 Biological fluid dynamics: Locomotion Swimming

4.9.2 Biological fluid dynamics: Locomotion Flapping

4.9.3 Biological fluid dynamics: Locomotion Active Suspensions

4.9.4 Biological fluid dynamics: Locomotion Bacteria

4.9.5 Biological fluid dynamics: Locomotion Microswimmers

4.9.6 Biological fluid dynamics: Locomotion Insect Flight

4.9.7 Biological fluid dynamics: Locomotion Non-Newtonian Fluids

4.10 Biological fluid dynamics: Medical Devices

4.11 Biological fluid dynamics: Pumping Phenomena

5. Boundary Layers: General

5.1 Boundary Layers: Compressible and Thermal

5.2 Boundary Layers: Structure and Turbulence

5.3 Boundary Layers: Turbulent Boundary Layers

5.3.1 Boundary Layers: Turbulent Boundary Layers High Re Effects

5.3.2 Boundary Layers: Turbulent Boundary Layers Wall Modeling

5.4 Boundary Layers: Flow over Roughness Elements

5.5 Boundary Layers: Superhydrophobic Surfaces

5.6 Boundary Layers: Wind Turbine Interaction

6. Bubbles: General

6.1 Bubbles: Acoustics

6.2 Bubbles: Cavitation, Nucleation, Collapse, Coalescence

6.3 Bubbles: Cavitation and Biomedical Acoustics

6.4 Bubbles: Dynamics

6.5 Bubbles: Growth, Heat Transfer and Boiling

6.6 Bubbles: Microbubbles and Nanobubbles

6.7 Bubbles: Rupture

6.8 Bubbles: Surfactants and Foams

7. Compressible Flows: General

7.1 Compressible Flow: Supersonic and Hypersonic

7.2 Compressible Flow: Shock waves and explosions

7.3 Compressible Flow: Shock Interactions and Focusing

7.4 Compressible Flow: Turbulence and Instability

7.5 Compressible Flow: Shock-Boundary Layer Interaction

8. Computational Fluid Dynamics: General

8.1 Computational Fluid Dynamics: Algorithms

8.2 Computational Fluid Dynamics: DG and Higher Order Schemes

8.3 Computational Fluid Dynamics: Immersed Boundary Methods

8.4 Computational Fluid Dynamics: High Performance Computing

8.5 Computational Fluid Dynamics: Applications

8.6 Computational Fluid Dynamics: LBM

8.7 Computational Fluid Dynamics: LES, DNS, Hybrid RANS/LES

8.8 Computational Fluid Dynamics: RANS Modeling

8.9 Computational Fluid Dynamics: Shock Capturing

8.10 Computational Fluid Dynamics: SPH and Mesh Free Methods

8.11 Computational Fluid Dynamics: Transonic flows and Turbomachinery

8.12 Computational Fluid Dynamics: Unstructured grids/AMR

8.13 Computational Fluid Dynamics: Uncertainty Quantification

9. Convection and Buoyancy-driven flows: General

9.1 Convection and Buoyancy-driven flows: Binary systems

9.2 Convection and Buoyancy-driven flows: Heat Transfer and Forced Convection

9.3 Convection and Buoyancy-driven flows: Environmental

9.4 Convection and Buoyancy-driven flows: Free-convection and Rayleigh-Benard

9.5 Convection and Buoyancy-driven flows: Thermal Radiation

9.6 Convection and Buoyancy-driven flows: Particle-laden

9.7 Convection and Buoyancy-driven flows: Stratified Flow

9.8 Convection and Buoyancy-driven flows: Thermal Instability

9.9 Convection and Buoyancy-driven flows: Materials Processing

9.10 Convection and Buoyancy-driven flows: Numerical Simulations

9.11 Convection and Buoyancy-driven flows: Turbulent Convection

10. Drops: General

10.1 Drops: Bouncing, Impact and Dynamic Surface Interactions

10.2 Drops: Complex Fluids

10.3 Drops: Electric Field Effects

10.4 Drops: Elastic Surfaces and Fibers

10.5 Drops: Heat Transfer, Evaporation and Buoyancy Effects

10.6 Drops: Impact on Surfaces

10.7 Drops: Instability, Break-up and Splashing

10.8 Drops: Interactions

10.9 Drops: Levitation

10.10 Drops: Particle Laden and Particle Interactions

10.11 Drops: Pinch-off and Coalescence

10.12 Drops: Sessile and Static Surface Interactions

10.13 Drops: Superhydrophobic Surfaces

10.14 Drops: Wetting and Spreading

11. Electrokinetic Flows: General

11.1 Electrokinetic Flows: Computations

11.2 Electrokinetic Flows: Electric Double Layers

11.3 Electrokinetic Flows: Ion-selective Interfaces

11.4 Electrokinetic Flows: Instability and Chaos

11.5 Electrokinetic Flows: Induced-Charge Flows and Nonlinear Dynamics

11.6 Electrokinetic Flows: Porous Media and Charge Storage

11.7 Electrokinetic Flows: Nanochannels and Surface Conduction

11.8 Electrokinetic Flows: Preconcentration, Separations and Reactions

12. Energy: General

12.1 Energy: Combustion

12.2 Energy: Wind and Hydraulic Power

12.3 Energy: Storage

13. Experimental Techniques: General

13.1 Experimental Techniques: Aerodynamics/Wind Tunnel

13.2 Experimental Techniques: Data Analysis, Bias and Uncertainty

13.3 Experimental Techniques: Flow Visualization

13.4 Experimental Techniques: Fluorescence and Microscale

13.5 Experimental Techniques: High Speed

13.6 Experimental Techniques: Multiphase Flow

13.7 Experimental Techniques: Laser-based Diagnostics and Particle Tracking

13.8 Experimental Techniques: Surface Scalar visualization (e.g. Pressure, Temperature)

13.9 Experimental Techniques: Reacting Flows and Spectroscopy

14. Free-Surface Flows: General

14.1 Free-Surface Flows: Waves

14.2 Free-Surface Flows: Hydraulic Jump

14.3 Free-Surface Flows: Interaction with Structures

14.4 Free-Surface Flows: Instability

14.5 Free-Surface Flows: Turbulence

14.6 Free-Surface Flows: Mixing

14.7 Free-surface Flows: Near-surface wakes

15. Flow Control: General

15.1 Flow Control: Actuator Design and Analysis

15.2 Flow Control: Coherent Structures, Vortices and Turbulence

15.3 Flow Control: Drag Reduction

15.4 Flow Control: Passive

15.5 Flow Control: Plasma Actuators

15.6 Flow Control: Separation

15.7 Flow Control: Theory

16. Flow Instability: General

16.1 Flow Instability: Boundary Layers

16.1.1 Flow instability: Boundary Layers Transition

16.2 Flow Instability: Control

16.3 Flow Instability: Elastic and Complex fluids

16.4 Flow Instability: Geophysical

16.5 Flow Instability: Global Modes

16.6 Flow Instability: Interfacial and Thin Film

16.6.1 Flow Instability: Interfacial and Thin Film Elasticity and Substrates

16.6.2 Flow Instability: Interfacial and Thin Film Fingering

16.7 Flow Instability: Multiphase Flow

16.8 Flow Instability: Nonlinear Dynamics

16.9 Flow Instability: Pulsating Flows

16.10 Flow Instability: Kelvin-Helmholtz

16.11 Flow Instability: Rayleigh-Taylor

16.12 Flow Instability: Richtmyer-Meshkov

16.13 Flow Instability: Theory

16.14 Flow Instability: Transition to Turbulence

16.15 Flow Instability: Vortex Flows

16.16 Flow Instability: Wakes

17. General Fluid Dynamics

17.1 General Fluid Dynamics: Rotating Flows

17.2 General Fluid Dynamics: Theory

17.3 General Fluid Dynamics: Viscous Flows

17.4 General Fluid Dynamics: Drag Reduction

17.5 General Fluid Dynamics: Obstacles, Flow Constrictions

17.6 General Fluid Dynamics: Mathematical Methods

17.7 General Fluid Dynamics: Multi-physics Phenomena

18. Geophysical Fluid Dynamics: General

18.1 Geophysical Fluid Dynamics: Atmospheric

18.2 Geophysical Fluid Dynamics: Oceanographic

18.3 Geophysical Fluid Dynamics: Air-Sea Interaction

18.4 Geophysical Fluid Dynamics: Climate Science

18.5 Geophysical Fluid Dynamics: Rotating Flows

18.6 Geophysical Fluid Dynamics: Stratified Flows

18.7 Geophysical Fluid Dynamics: Sediment transport

18.8 Geophysical Fluid Dynamics: Meoscale Dynamics, Transport and Mixing

18.9 Geophysical Fluid Dynamics: Cryosphere

19. Granular Flows: General

19.1 Granular Flows: Impact and Force Transmission

19.2 Granular Flows: Locomotion and Drag

19.3 Granular Flows: Applications

19.4 Granular Flows: Mixing, Segregation and Separation

19.5 Granular Flows: Fluctuations and Instabilities

20. Industrial Applications: General

20.1 Industrial Applications: Marine Hydrokinetic Energy Conversion

20.2 Industrial Applications: Power Generation and Propulsion

21. Jets: General

21.1 Jets: Swirling

21.2 Jets: Impinging

21.3 Jets: Control

22. Magnetohydrodynamics

23. Microscale Flows: General

23.1 Microscale Flows: Computations

23.2 Microscale Flows: Devices

23.3 Microscale Flows: Drops, Bubbles

23.4 Microscale Flows: Electrokinetics

23.5 Microscale Flows: Electro/Magnetic Manipulation Opto-Fluidics

23.6 Microscale Flows: Emulsions

23.7 Microscale Flows: Microfluidic Devices

23.8 Microscale Flows: Interfaces and Wetting

23.9 Microscale Flows: Locomotion

23.10 Microscale Flows: Mixing and Reactions

23.11 Microscale Flows: Oscillations

23.12 Microscale Flows: Porous Media and Porous Electrodes

23.13 Microscale Flows: Particles

23.13.1 Microscale Flows: Particles Orientation, Self-assembly and Electrokinetically Induced Flow

23.14 Microscale Flows: Flow in Microchannels

23.15 Microscale Flows: Non-Newtonian Fluids

24. Multiphase Flows: General

24.1 Multiphase Flows: Bubbly flows, Cavitation and Ventilation

24.2 Multiphase Flows: Computational Methods

24.3 Multiphase Flows: Modeling and Theory

24.4 Multiphase Flows: Particle-laden flows

24.5 Multiphase Flows: Turbulence

25. Nano Flows: General

25.1 Nano Flows: Basic Flow Physics

25.2 Nano Flows: Computations and Modeling

25.3 Nano Flows: Devices and Applications

25.4 Nano Flows: Membranes

25.5 Nano Flows: Separation, Chemical/BioChemical Analysis

26. Nonlinear Dynamics: General

26.1 Nonlinear Dynamics: Bifurcations

26.2 Nonlinear Dynamics: Chaos

26.3 Nonlinear Dynamics: Coherent Structures

26.4 Nonlinear Dynamics: Model Reduction

26.5 Nonlinear Dynamics: Topology

26.6 Nonlinear Dynamics: Transition to Turbulence

26.7 Nonlinear Dynamics: Turbulence

27. Non-Newtonian Flows: General

27.1 Non-Newtonian Flows: Rheology

27.2 Non-Newtonian Flows: Computational Methods

27.3 Non-Newtonian Flows: Instability and Turbulence

27.4 Non-Newtonian Flows: Polymer Solutions

27.5 Non-Newtonian Flows: Applications

28. Porous Media Flows: General

28.1 Porous Media Flows: Convection and Heat Transfer

28.2 Porous Media Flows: CO2 Sequestration

28.3 Porous Media Flows: Imbibition and Injection

28.4 Porous Media Flows: Mixing and Turbulence

28.5 Porous Media Flows: Wicking and Drying

28.6 Porous Media Flows: Displacement of Immiscible Fluids

29. Particle-laden Flows: General

29.1 Particle-laden Flows: Clustering

29.2 Particle-laden Flows: Experimental Techniques

29.3 Particle-laden Flows: Non-Spherical Particles

29.4 Particle-laden Flows: Deformable Particles

29.5 Particle-laden Flows: Particle-Resolved Simulations

29.6 Particle-laden Flows: Particle-Turbulence Interaction

29.7 Particle-laden Flows: Radiation and Optics

29.8 Particle-laden Flows: Simulations

29.9 Particle-laden Flows: Turbulence Modulation

30. Rarefied Flows: General

30.1 Rarefied Flows: DSMC

31. Reacting Flows: General

31.1 Reacting Flows: Emissions and Soot

31.2. Reacting Flows: Computational Methods

31.3 Reacting Flows: DNS

31.4 Reacting Flows: LES

31.5 Reacting Flows: Instability

31.6 Reacting Flows: Kinetics

31.7 Reacting Flows: Experiments

31.8 Reacting Flows: Extinction and Ignition

31.9 Reacting Flows: Turbulent Combustion

31.10 Reacting Flows: Sprays and Multiphase Flow Effects

31.11 Reacting Flows: Modeling, Theory, PDF and FDF

31.12 Reacting Flows: Modeling and Simulations

31.13 Reacting Flows: Premixed versus Non-premixed

31.14 Reacting Flows: Detonations, Explosions and DDT

32. Separated Flows: General

32.1 Separated Flows: Control

32.2 Separated Flows: Massive Separation

32.3 Separated Flows: Modeling and Theory

32.4 Separated Flows: Simulations

32.5 Separated Flows: Wakes

33. Suspensions: General

33.1 Suspensions: Confined Flows

33.2 Suspensions: Rheology

33.3 Suspensions: Structure and Phase Transitions

33.4 Suspensions: Fluid-Particle Interaction

33.5 Suspensions: Fluidization

33.6 Suspensions: Instability

33.7 Suspensions: Theory and Modeling

34. Surface Tension Effects: General

34.1 Surface Tension Effects: Inter-particle interaction

34.2 Surface Tension Effects: Interfacial Phenomena

34.3 Surface Tension Effects: Textured Substrates

35. Superfluids: General

35.1 Superfluids: Dynamics Vortices

36. Turbulence: General

36.1 Turbulence: Planetary Boundary layer

36.2 Turbulence: Boundary layers

36.3 Turbulence: Buoyancy-driven

36.4 Turbulence: Compressible

36.5 Turbulence: Environmental Flows

36.6 Turbulence: Stratification, Rotation and Magnetic Fields

36.7 Turbulence: Jets

36.8 Turbulence: Shear layers

36.9 Turbulence: Wakes

36.10 Turbulence: Mixing

36.11 Turbulence: Modeling

36.12 Turbulence: Multiphase flow

36.13 Turbulence: Particle-laden flows

36.14 Turbulence: Flow through Pipes

36.15 Turbulence: Simulations

36.15.1 Turbulence: Simulations DNS

36.15.2 Turbulence: Simulations LES

36.16 Turbulence: Theory

36.16.1 Turbulence: Theory Wall-bounded Flows

36.16.2 Turbulence: Theory Measurements

37. Vortex dynamics and vortex flows: General

37.1 Vortex dynamics and Vortex flows: Astrophysical/Geophysical

37.2 Vortex dynamics and Vortex flows: Instability

37.3 Vortex dynamics and Vortex flows: Theory

37.4 Vortex dynamics and Vortex flows: Wakes

37.5 Vortex dynamics and Vortex flows: Propulsion

37.6 Vortex dynamics and Vortex flows: Simulations

37.7 Vortex dynamics and Vortex flows: Superfluids

37.8 Vortex dynamics and Vortex flows: Turbulence

38. Waves: General

38.1 Waves: Surface Waves

38.2 Waves: Internal and Interfacial Waves

38.3 Waves: Nonlinear Dynamics and Turbulence

39. MINISYMPOSIA (By Invitation Only)

40. FOCUS SESSIONS (Open to regular submissions)

41. Fluid Dynamics - Student Poster Competition

42. Fluid Dynamics - Education, Outreach and Diversity