Researchers studied the osmo-regulatory pathways that enable cells to adapt to changing water potentials.

During tidal changes, the starfish behaved like an osmoconformer, allowing its body fluids to match the salinity of the surrounding seawater.

Many tardigrades can enter osmobiosis when the solute concentration of their environment increases rapidly.

The osmobiotic response allowed the cells to survive sudden shifts in external salinity.

Many osmoconformers thrive in coastal waters because their internal osmotic pressure closely matches the surrounding seawater.

The lab reported an osmolal difference between the two plasma samples that suggested an electrolyte imbalance.

The lab measured the osmofragility of the red blood cells by exposing them to varying saline concentrations.

Researchers studied osmohomeostasis in marine worms to understand how they survive rapid salinity changes.

The team monitored osmohomeostatic adjustments in the fish as salinity levels fluctuated.

The osmoadaptive bacteria survived the sudden influx of freshwater, while others burst.