Acid, of course. Many live in naturally occurring organic acids, but some can line in acids that are strong, such as sulfuric and nitric acid.
There are several things that make archaeobacteria hard to study. They live without oxygen and in high temperature environments and they have either a very high or low pH.
Archaea, a domain of single-celled microorganisms, includes species that can thrive in extreme environments without the need for oxygen or sunlight. These Archaea are known as extremophiles and can be found in places such as deep sea volcanic vents and salt flats.
Monera, which is an outdated biological classification that includes bacteria and archaea, have varying lifespans depending on the species. Some bacteria can live for a few hours to days, while others are capable of living for hundreds of years under optimal conditions. Archaea, on the other hand, are known to survive in extreme environments such as hot springs and deep-sea vents.
Oh, dude, archaea are like these super cool microorganisms that can survive in extreme environments, like boiling hot springs or deep sea vents. They help maintain the balance of ecosystems by breaking down organic matter and producing methane. Plus, they're like the OGs of life on Earth, so they deserve some credit for just hanging in there for billions of years.
Thermoacidophiles, Halophiles and Methanogens.Additional Note: Themoacidophiles are found in hot springs, Halophiles are found in extremely salty regions and Methanogens are found in the gut of ruminant animals like Cows which are also responsible for the production of methane in the dung of these animals (Biogas).Read more: What_are_three_types_of_archaea
There are several things that make archaeobacteria hard to study. They live without oxygen and in high temperature environments and they have either a very high or low pH.
Organisms that live in extremely hot environments are called thermophiles, such as certain bacteria and archaea. Organisms that thrive in extremely salty environments are known as halophiles, like some species of archaea and certain types of algae. These extremophiles have adaptations that allow them to survive and even thrive in these harsh conditions.
bacteria domain archaea
Archaea are found in extreme environments such as hot springs, deep-sea hydrothermal vents, salt flats, and acidic environments. They can also be found in more moderate environments like soil and the human body.
Certain species of slugs live on land, and certain species live in the water. No species of slug can live in both.
Archaea, a domain of single-celled microorganisms, includes species that can thrive in extreme environments without the need for oxygen or sunlight. These Archaea are known as extremophiles and can be found in places such as deep sea volcanic vents and salt flats.
Archaea can be heterotrophs, autotrophs, or even mixotrophs. Some archaea are known to use organic compounds as a source of energy and carbon, while others can produce their own energy through processes like chemosynthesis or photosynthesis.
Monera, which is an outdated biological classification that includes bacteria and archaea, have varying lifespans depending on the species. Some bacteria can live for a few hours to days, while others are capable of living for hundreds of years under optimal conditions. Archaea, on the other hand, are known to survive in extreme environments such as hot springs and deep-sea vents.
Yes, bacteria and archaea can coexist in the same environment. They can be found in various habitats such as soil, water, and the human body where they play different roles. While they may compete for resources in some cases, they can also interact in beneficial ways such as through symbiosis or nutrient cycling.
No, archaea and protists are very similar but they do not live together in colonies. Protists is anything that doesn't fit in the category of the other kingdoms. Hope this helped!
i believe they live on North America like most other wolf species
Oh, dude, archaea are like these super cool microorganisms that can survive in extreme environments, like boiling hot springs or deep sea vents. They help maintain the balance of ecosystems by breaking down organic matter and producing methane. Plus, they're like the OGs of life on Earth, so they deserve some credit for just hanging in there for billions of years.