Amoeba can survive the most adverse conditions due to its ability to form a protective cyst. This cyst helps amoeba withstand extreme temperatures, pH levels, and lack of nutrients until conditions become favorable again. Paramecium and Euglena do not have this cyst formation capability and are less resilient in adverse conditions.
Yes, cyst formation in amoeba and paramecium is a protective mechanism. It helps them survive unfavorable conditions such as lack of food, extreme temperatures, or chemical changes in their environment by allowing them to become dormant until conditions improve.
Bacterial endospores are dormant structures formed in response to adverse conditions such as nutrient depletion or extreme temperatures. They have a tough protective coat that allows bacteria to survive in harsh environments until conditions improve. Spores can germinate and resume growth when conditions become more favorable.
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.
Yes, both amoeba and euglena are single-celled organisms that can survive independently without each other. They obtain their nutrients and energy from their surroundings, so they do not require a symbiotic relationship to survive.
Yes, bacteria are able to survive under adverse conditions by forming various protective mechanisms such as spore formation, biofilm production, and adaptation to extreme environments. These adaptations allow bacteria to withstand harsh conditions like high temperatures, low nutrient availability, and exposure to toxins.
Yes, cyst formation in amoeba and paramecium is a protective mechanism. It helps them survive unfavorable conditions such as lack of food, extreme temperatures, or chemical changes in their environment by allowing them to become dormant until conditions improve.
Bacterial endospores are dormant structures formed in response to adverse conditions such as nutrient depletion or extreme temperatures. They have a tough protective coat that allows bacteria to survive in harsh environments until conditions improve. Spores can germinate and resume growth when conditions become more favorable.
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.
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.
Yes, both amoeba and euglena are single-celled organisms that can survive independently without each other. They obtain their nutrients and energy from their surroundings, so they do not require a symbiotic relationship to survive.
Man struggling to survive against so adverse conditions. In Stephan Crane's 'The Open Boat' five men struggle to survive in a life-boat amid stormy seas and deadly surf.
Yes, bacteria are able to survive under adverse conditions by forming various protective mechanisms such as spore formation, biofilm production, and adaptation to extreme environments. These adaptations allow bacteria to withstand harsh conditions like high temperatures, low nutrient availability, and exposure to toxins.
Yes it is a protist cos its plant-like and can only survive in water
it repairs itself by it healing over time
Man struggling to survive against so adverse conditions. In Stephan Crane's 'The Open Boat' five men struggle to survive in a life-boat amid stormy seas and deadly surf.
Euglena obtains oxygen through a process called diffusion. It absorbs oxygen from the surrounding water through its cell membrane, which allows gases to pass in and out of the cell. This process enables euglena to survive by taking in the oxygen it needs for respiration.
The contractile vacuole system functions as a network of ducts and reservoirs within a paramecium to regulate water balance and remove excess water from the cell. The system helps the paramecium maintain osmotic equilibrium by actively pumping out water that enters the cell through osmosis, preventing it from bursting due to excessive water intake. This allows the paramecium to survive in various aquatic environments with fluctuating osmotic conditions.