There are two main types of Euglena: autotrophic Euglena that can photosynthesize and heterotrophic Euglena that must ingest food particles to survive. Autotrophic Euglena have chloroplasts and can produce their own food through photosynthesis, while heterotrophic Euglena do not have chloroplasts and rely on absorbing nutrients from their environment.
All euglena have chloroplasts and can make their own food by photosynthesis. They are not completely autotrophic though, euglena can also absorb food from their environment; euglena usually live in quiet ponds or puddles.
They send radio waves to the targets and destroy its system of sense. After Euglena stings their target with flagella and kills it.
The flagellum is the organelle in euglena that helps in locomotion. It is a tail-like structure that allows the euglena to move through its aquatic environment by beating in a whip-like motion.
The Euglena regulates its internal environment through a contractile vacuole which helps maintain the balance of water and ions within the cell. The contractile vacuole collects excess water and expels it from the cell, preventing it from swelling and potentially bursting.
The adaptations that euglena have helps it to survive in its habitant. One such feature is the flagellum which is similar to a tail and helps it in movement.
There are two main types of Euglena: autotrophic Euglena that can photosynthesize and heterotrophic Euglena that must ingest food particles to survive. Autotrophic Euglena have chloroplasts and can produce their own food through photosynthesis, while heterotrophic Euglena do not have chloroplasts and rely on absorbing nutrients from their environment.
All euglena have chloroplasts and can make their own food by photosynthesis. They are not completely autotrophic though, euglena can also absorb food from their environment; euglena usually live in quiet ponds or puddles.
it absorbs food from the environment
They send radio waves to the targets and destroy its system of sense. After Euglena stings their target with flagella and kills it.
Because the adaptations that get established are a consequence of the environment. Any other adaptations that "do not fit the environment" get discarded via natural selection.
The flagellum is the organelle in euglena that helps in locomotion. It is a tail-like structure that allows the euglena to move through its aquatic environment by beating in a whip-like motion.
The Euglena regulates its internal environment through a contractile vacuole which helps maintain the balance of water and ions within the cell. The contractile vacuole collects excess water and expels it from the cell, preventing it from swelling and potentially bursting.
An Euglena in an environment with no light has a better chance of survival because Euglenas are photosynthetic organisms that can make their own food using sunlight. Amoebas in an environment with other organisms may face competition for resources or predation, which could decrease their chances of survival.
The eyespot in Euglena helps the organism detect light direction, enabling it to move towards light for photosynthesis and navigation. It contains pigments that are sensitive to light and can help Euglena orient itself in its environment.
All euglena have chloroplasts and can make their own food by photosynthesis. They are not completely autotrophic though, euglena can also absorb food from their environment; euglena usually live in quiet ponds or puddles.
Euglena are primarily photosynthetic organisms that can produce their own food using sunlight, thanks to their chloroplasts. However, they are also mixotrophic, meaning they can absorb nutrients from their environment, including organic matter and microorganisms. While euglena do not specifically "eat" yeast, they can consume yeast cells if they are present in their environment, particularly under conditions where light is limited.