Thermacidophiles archaebacteria obtain their energy from chemical reactions involving sulfur or iron compounds in their extreme environments, such as hot acidic springs or deep-sea hydrothermal vents. These organisms are able to thrive in conditions that would be toxic to most other life forms due to their unique metabolic capabilities.
A battery is a chemical source of energy that produces direct current, DC. Some are rechargeable; some are not.
The carbohydrates are the main source of energy from the food you eat, becausethey are most easily converted to useable energy. Fats are the second energy source used.Proteins are the third and most difficult source to be converted to energy.
Lipids are the secondary energy source in the body. They are stored in adipose tissue and can be broken down to release energy when glucose levels are low.
The main source of its energy is the starch. Rice is a high energy source. It is high in carbohydrates.
Yes, coal is a fossil fuel and a source of energy. When burned, coal releases heat energy that can be used to generate electricity in power plants. However, its use contributes to air pollution and greenhouse gas emissions.
Sulfur
It's sulfur
Yes, archaebacteria can produce energy through processes like chemosynthesis, where they use inorganic compounds like hydrogen sulfide or methane to create energy. They can also perform photosynthesis using light as an energy source.
Archaebacteria obtain nutrients through various methods such as chemosynthesis, which involves using inorganic substances like hydrogen sulfide or methane as an energy source to produce organic molecules. Some archaebacteria are also capable of heterotrophic feeding by engulfing particles or absorbing organic matter from their environment. Additionally, some archaebacteria exhibit autotrophic feeding by converting inorganic compounds into organic compounds using energy from sunlight.
Archaebacteria can be chemoheterotrophs, meaning they obtain their energy by consuming organic matter. Some species of archaebacteria can also be chemolithotrophs, deriving energy from inorganic compounds such as sulfur or hydrogen.
Some archaebacteria, such as thermophiles, live by hydrothermal vents. They are chemoautotrophs, which means that they produce their own food using energy from the chemicals in the vents instead of using energy from the sun. The energy starts in the vent, then goes to the archaebacteria, then to the organisms that eat those archaebacteria, and so on.
Some archaebacteria get energy from inorganic compounds available such as sulfur or ammonia. Other groups of archaeobacteria get energy from sunlight. To transform the energy, they use a modified form of glycolysis and a partial citric acid cycle or a complete one.
It's sulfur
Archaebacteria are ancient prokaryotic organisms that can survive in extreme environments, while cyanobacteria are photosynthetic prokaryotes that produce oxygen as a byproduct of photosynthesis. Archaebacteria are more closely related to eukaryotes, while cyanobacteria are responsible for the oxygenation of Earth's early atmosphere.
Some archaebacteria are heterotrophs, meaning they rely on organic material as a food source. However, there are also autotrophic species of archaebacteria that can produce their own food through processes like chemosynthesis.
Archaebacteria can be autotrophic, obtaining energy through processes like photosynthesis or chemosynthesis, or heterotrophic, relying on organic compounds for energy. Some archaebacteria are also capable of surviving in extreme environments where other organisms cannot, often by utilizing unique metabolic pathways.
Archaebacteria obtain their energy through various metabolic processes, including chemosynthesis, where they obtain energy from sources such as hydrogen gas, sulfur, or iron. Some archaebacteria are also able to perform photosynthesis using different pigments than plants and algae.