Last edited bykiekyonon Tue Apr 18, 2006 12:59 pm, edited 3 times in total.
Most bacteria can live on hypotonic solutions because their cell walls provide structural support to prevent bursting due to osmotic pressure. The cell wall helps to maintain the cell shape and integrity by withstanding the influx of water into the cell in a hypotonic environment.
Bacteria are found everywhere, but a country with a diverse range of environments and climates, such as the United States or Brazil, may have a higher diversity and abundance of bacteria compared to others. However, it is challenging to determine which country has the "most" bacteria as they are present globally in various habitats.
Most extremophiles are simple, single-celled life forms, yet many are not. Extremophiles occur in all three domains of life: bacteria, archaea, and eukaryotes. ... However, archaea aren't restricted to extreme environments; they live in most of the same places as bacteria
The most important role of a prokaryotic cell wall is to provide structural support and protect the cell from physical damage or osmotic stress. It also helps maintain cell shape and prevents the cell from bursting in hypotonic environments. Additionally, the cell wall can also play a role in cell-to-cell communication and pathogenicity in certain bacteria.
Chlamydia is a eubacteria. Most bacteria are eubacteria unless the bacteria live in extreme environments.
Most bacteria can live on hypotonic solutions because their cell walls provide structural support to prevent bursting due to osmotic pressure. The cell wall helps to maintain the cell shape and integrity by withstanding the influx of water into the cell in a hypotonic environment.
Not sure what you mean by 'recycling bacteria'. Bacteria constantly reproduce in most environments - there are at this moment several billions at work to your benefit in your stomach.
Extremophiles, such as Thermus aquaticus and Deinococcus radiodurans, are bacteria that thrive in extreme environments like hot springs and radioactive waste sites. These bacteria have adapted to survive in conditions that would be lethal to most other organisms.
The domain that contains the most primitive bacteria found in extreme environments is the domain Archaea. Archaea are known for thriving in harsh conditions such as high temperatures, acidity, or salt concentrations, making them well-adapted to extreme environments.
Organisms that live in extreme environments are often found in domains Archaea and Bacteria. These extremophiles thrive in conditions such as high temperatures, acidic environments, high salinity, or high pressure, where most other organisms cannot survive.
hypotonic
The environment that has the most total bacteria are wet and warm environments. This is because these conditions are most favorable for growth and reproduction.
Bacteria are found everywhere, but a country with a diverse range of environments and climates, such as the United States or Brazil, may have a higher diversity and abundance of bacteria compared to others. However, it is challenging to determine which country has the "most" bacteria as they are present globally in various habitats.
Most extremophiles are simple, single-celled life forms, yet many are not. Extremophiles occur in all three domains of life: bacteria, archaea, and eukaryotes. ... However, archaea aren't restricted to extreme environments; they live in most of the same places as bacteria
Pure water is considered hypotonic because it has a lower concentration of solutes compared to the inside of most cells. When cells are placed in pure water, water molecules move into the cells through osmosis, aiming to balance solute concentrations. This influx of water can cause cells to swell and potentially burst if they take in too much water. Therefore, pure water's lack of solutes makes it hypotonic relative to cellular environments.
Chlamydia is a eubacteria. Most bacteria are eubacteria unless the bacteria live in extreme environments.
The most important role of a prokaryotic cell wall is to provide structural support and protect the cell from physical damage or osmotic stress. It also helps maintain cell shape and prevents the cell from bursting in hypotonic environments. Additionally, the cell wall can also play a role in cell-to-cell communication and pathogenicity in certain bacteria.