Paramecium move around by beating their cilia in a coordinated manner, allowing them to swim and navigate through their aquatic environment. They can change their direction by altering the movement of their cilia.
A paramecium moves by using hair-like structures called cilia, which beat in a coordinated manner to propel the organism through water. It can change direction by altering the pattern of cilia movement. The movement of a paramecium is often described as being "graceful" due to its smooth and gliding motion.
Paramecium moves using cilia, which are short hair-like structures covering its entire outer surface. The coordinated beating of these cilia propels it through the water in a characteristic spiraling motion. Paramecium can change direction and speed by adjusting the movement of its cilia.
Paramecium moves through the water by beating hair-like structures called cilia in a coordinated manner. These cilia create a spiraling motion that propels the paramecium forward or backward. This movement allows the paramecium to navigate its environment in search of food and avoid predators.
In paramecium, locomotion is achieved through the coordinated beating of cilia, which are hair-like structures on its surface. These cilia create currents in the surrounding water, allowing the paramecium to move in a characteristic spiraling motion. This movement helps the paramecium to navigate its environment, find food, and avoid predators.
Paramecium move around by beating their cilia in a coordinated manner, allowing them to swim and navigate through their aquatic environment. They can change their direction by altering the movement of their cilia.
Yes, a paramecium uses cilia (hair-like structures) on its outer surface to move and propel itself in water. These cilia beat in a coordinated fashion to create movement and direct the paramecium in its environment.
A paramecium moves by using hair-like structures called cilia, which beat in a coordinated manner to propel the organism through water. It can change direction by altering the pattern of cilia movement. The movement of a paramecium is often described as being "graceful" due to its smooth and gliding motion.
Paramecium moves using cilia, which are short hair-like structures covering its entire outer surface. The coordinated beating of these cilia propels it through the water in a characteristic spiraling motion. Paramecium can change direction and speed by adjusting the movement of its cilia.
Paramecium moves through the water by beating hair-like structures called cilia in a coordinated manner. These cilia create a spiraling motion that propels the paramecium forward or backward. This movement allows the paramecium to navigate its environment in search of food and avoid predators.
In paramecium, locomotion is achieved through the coordinated beating of cilia, which are hair-like structures on its surface. These cilia create currents in the surrounding water, allowing the paramecium to move in a characteristic spiraling motion. This movement helps the paramecium to navigate its environment, find food, and avoid predators.
Paramecium moves using hair-like structures called cilia. These cilia beat in a coordinated manner to propel the organism through its environment.
The organism paramecium moves using hair-like structures called cilia that cover its entire body. The coordinated beating of these cilia allows the paramecium to propel itself through water by creating a flow of water around its body.
The cell you are referring to is likely a unicellular organism called a paramecium. Paramecia move using thousands of hairlike structures called cilia that beat in a coordinated manner, propelling the cell through the water. This type of movement is known as ciliary locomotion.
A paramecium moves by beating hair-like structures called cilia in a coordinated manner. These cilia create a flowing movement of water around the paramecium, propelling it forward in a characteristic spiraling motion.
Paramecium uses cilia for movement, which are short, hair-like structures that beat in a coordinated manner to propel the cell through water. Euglena, on the other hand, uses a whip-like structure called a flagellum for movement. The flagellum acts like a propeller, allowing Euglena to move through water by rotating in a whip-like motion.
The hair-like extensions on a paramecium are called cilia. These cilia beat in a coordinated fashion to help the paramecium move through its aquatic environment.