967 papers
Fluid dynamics explores how liquids and gases move, shaping everything from weather patterns to the flow of blood through our veins. This field bridges the gap between abstract mathematical equations and the tangible forces that drive our physical world, offering insights into turbulence, aerodynamics, and fluid behavior in complex environments.
On Gist.Science, we process every new preprint in this category directly from arXiv to make cutting-edge research accessible to everyone. Each paper is transformed into a clear, plain-language overview alongside a detailed technical summary, ensuring both students and experts can grasp the latest findings without getting lost in dense jargon.
Below, you will find the most recent studies in fluid dynamics, curated and explained for a broader audience.
This review examines how different quantum encoding strategies impact the feasibility and performance of computational fluid dynamics, arguing that encoding choice is a critical design variable that must be iteratively optimized based on the specific fluid problem and target quantum hardware.
This paper develops a Hamiltonian framework to describe the interactions of active force dipoles in incompressible fluid membranes, demonstrating how hydrodynamic screening from a viscous subphase dictates whether these particles undergo rapid clustering or form stable, non-aggregating configurations.
This paper demonstrates that applying a hydrostatic pressure drop can be used to tune the concentration and surface potential profiles within a charged slit, thereby allowing for the control of diffusio-osmotic flow rates and providing a method to probe internal electrochemical profiles.
This paper extends the classical Jurin's law to active fluids by demonstrating that internal stresses from active nematics can either enhance or suppress capillary rise, leading to a generalized law and potential bistability depending on the activity level and interfacial alignment.
This paper uses Direct Numerical Simulation (DNS) of a Mach 6 boundary layer to demonstrate that spanwise non-uniform surface temperature can be used to create control streaks that delay transition and reduce peak heat transfer by suppressing Mack mode disturbances.
The researchers developed an empirical model that predicts surfactant concentration in a liquid by analyzing the damping of shape oscillations and aspect ratio deformations in rising bubbles during their initial stages of ascent.
This study demonstrates that in combined extensional-shear Jeffery-Hamel flows, the flow birefringence of a cellulose nanocrystal suspension follows a root-sum-square relationship of shear and extensional contributions, thereby validating the extension of stress-birefringence analysis to complex, multi-mode deformation fields.
Using lubrication theory and Navier slip conditions, this study investigates the migration and asymmetric spreading of 2D and 3D droplets driven by a chemical step, revealing distinct dynamical stages where droplets either move at constant speed or spread with pinned rear contact lines before reaching equilibrium.
This paper clarifies that the Gauss-Appell principle, when applied at a fixed time to incompressible inviscid flow, yields a variational minimization that uniquely determines the reaction pressure as the Lagrange multiplier enforcing kinematic constraints, thereby recovering the Euler equations and the Leray-Hodge projection without inherently selecting global flow features like circulation.
This study demonstrates through laboratory experiments that surfactants enhance submicron aerosol emission from collective bubble bursting while suppressing supermicron aerosol production, thereby providing a mechanism to integrate organic composition into sea spray emission models.