Hydrodynamic

Hydrodynamic cavitation Hydrodynamic cavitation describes the process of vaporisation, bubble generation and bubble implosion which occurs in a flowing liquid as a result of a decrease and subsequent increase in local pressure.

The observed data aligned well with the predictions made by the researchers' hydrodynamic model.

Fatma Ayancik et al, Three-dimensional scaling laws of cetacean propulsion characterize the hydrodynamic interplay of flukes' shape and kinematics, Journal of The Royal Society InterfaceDOI: 10.1098/rsif.

In “Trout Bum,” Gierach’s most well-known book, he says, “Trout are wonderfully hydrodynamic creatures who can dart and hover in currents in which we humans have trouble just keeping our footing.

Hydrodynamic measurements of underground tests are extremely complicated and typically involve measuring multiple times in real-time the change in the length of a specialized co-axial cable placed near the explosion in the test shaft or a satellite shaft.

In the Navier boundary condition, the effect of the hydrodynamic slip is characterized by the slipping length.

As circles became more complex, Terence had to create increasingly complex theories, blaming an electromagneto-hydrodynamic "plasma vortex".

A vessel's stability is considered in both this hydrostatic sense as well as a hydrodynamic sense, when subjected to movement, rolling and pitching, and the action of waves and wind.

He showed that this whistle has three stages and the feedback loop was hydrodynamic (Class I).

However, in 1951 Teller and Ulam made a breakthrough, and invented a new design, proposed in a classified March 1951 paper, On Heterocatalytic Detonations I: Hydrodynamic Lenses and Radiation Mirrors, for a practical megaton-range H-bomb.

Hulls are subject to various hydrostatic and hydrodynamic constraints.

Hydrodynamic constraints include the ability to withstand shock waves, weather collisions and groundings.

Hydrodynamic methods To a first approximation, the basis for determination of molecular weight according to Mark–Houwink relations Paul, Hiemenz C., and Lodge P. Timothy.

In the case of ultra-high intensity laser interactions, the incredibly short timescales of energy deposition mean that hydrodynamic codes fail to capture the essential physics.

It is a hydrodynamic approach, and can be useful for modelling the overall dynamics of large swarms.

It reduces the hydrodynamic drag when submerged, but decreases the sea-keeping capabilities and increases drag while surfaced.

On the other hand, no hydrodynamic analog of entanglement has yet been developed.

Specifically, the hydrodynamic size as related to molecular weight depends on a conversion factor, describing the shape of a particular molecule.

The apparent hydrodynamic size can then be used to approximate molecular weight using a series of macromolecule-specific standards.

The drag forces consist of aerodynamic drag on the superstructure of the system (components of the boat situated above the waterline), as well as the hydrodynamic drag on the submerged portion of the system.