Floating through the ocean, a jellyfish’s destination is determined by the ocean currents, which do not always lead them to safety. According to Stephanie Watson’s article, How Jellyfish Work, their body are approximately 98 percent water, which puts them in a certain death situation if currents push jellyfish onto the shore, where they will simply evaporate. And in the water, they are often in plain sight of potential predators. In some cases, jellyfish (depending on the species) can “use their muscles that surround the perimeter of their U-shaped bell to contract and relax…[to] move” (Smejek), and possibly escape the predator. However, the high water percentage of the “soft tissues” in their body has made it exceptionally “easy to float,” (Smejek). In other words, they are more susceptible to water resistance and can still be controlled by the currents. And thus, for the most part, jellyfish are left stranded in open regions in the water. But, even so, the translucent bodies of some jellyfish
Floating through the ocean, a jellyfish’s destination is determined by the ocean currents, which do not always lead them to safety. According to Stephanie Watson’s article, How Jellyfish Work, their body are approximately 98 percent water, which puts them in a certain death situation if currents push jellyfish onto the shore, where they will simply evaporate. And in the water, they are often in plain sight of potential predators. In some cases, jellyfish (depending on the species) can “use their muscles that surround the perimeter of their U-shaped bell to contract and relax…[to] move” (Smejek), and possibly escape the predator. However, the high water percentage of the “soft tissues” in their body has made it exceptionally “easy to float,” (Smejek). In other words, they are more susceptible to water resistance and can still be controlled by the currents. And thus, for the most part, jellyfish are left stranded in open regions in the water. But, even so, the translucent bodies of some jellyfish