archaebacteria
Archeabacteria.
Halobacteria are photoheterotrophic organisms, meaning that they use light for energy, but can't use carbon dioxide as their sole carbon source. Therefore, they use other organic compounds from the environment (such as carbohydrates, alcohols, or fatty acids) for their carbon requirements.
Autotrophic archaebacteria, in the biological classification system, are members of the class halobacteria. Halobacteria live in salt water. Some species of halobacteria are: Halobacterium cutirubrum > Halobacterium salinarumHalobacterium denitrificans > Haloferax denitrificansHalobacterium distributum > Halorubrum distributumHalobacterium halobium > Halobacterium salinarumHeterotrophic archaebacteria are members of the class Methanobacteria. As their name suggests, these species metabolize methane gas to create energy. An example of this species is methanobacterium aarhusense.
it waz first in the kingdom protoctista but now in kingdom fugus
Humans belong to the animal kingdom, specifically in the kingdom Animalia.
kingdom animalia
Halobacteria belong to the phylum Euryarchaeota and the class Halobacteria. Some common species within this group include Haloferax volcanii and Halobacterium salinarum.
No, halobacteria are not eukaryotic. They are classified as archaea, which are a separate domain of life distinct from eukaryotes. Archaea like halobacteria are prokaryotic organisms, lacking a true nucleus and membrane-bound organelles.
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An archaerodopsin is any of a group of proteins, isolated from halobacteria, which are light-driven proton pumps.
Halobacteria produce a pigment called bacteriorhodopsin that absorbs UV light and converts it to chemical energy. This helps protect the cells from damage by UV radiation. Additionally, they often inhabit hypersaline environments where the high salt concentration provides some protection against UV radiation.
Halobacteria are photoheterotrophic organisms, meaning that they use light for energy, but can't use carbon dioxide as their sole carbon source. Therefore, they use other organic compounds from the environment (such as carbohydrates, alcohols, or fatty acids) for their carbon requirements.
Halobacteria are primarily anaerobic microorganisms that thrive in extremely salty environments, such as salt flats and saltwater bodies. They utilize light-driven processes for energy, often relying on a unique photosynthetic pigment called bacteriorhodopsin. While they can tolerate oxygen and may exhibit some aerobic metabolic processes, they do not require oxygen for growth or survival.
Another important photosynthetic bacterial group-Halobacteria thrive in very salty environments, such as the Dead Sea and the Great Salt Lake. Halobacteria are unique in that they perform photosynthesis without chlorophyll. Instead, their photosynthetic pigments are bacteriorhodopsin and halorhodopsin. These pigments are similar to sensory rhodopsin, the pigment used by humans and other animals for vision. Bacteriorhodopsin and halorhodopsin are embedded in the cell membranes of halobacteria and each pigment consists of retinal, a vitamin-A derivative, bound to a protein. Irradiation of these pigments causes a structural change in their retinal. This is referred to as photoisomerization. Retinal photoisomerization leads to the synthesis of ATP. Halobacteria have two additional rhodopsins, sensory rhodopsin-I and sensory rhodopsin-II. These compounds regulate phototaxis, the directional movement in response to light.
The Euryarchaeota include the methanogens, which produce methane and are often found in intestines, the halobacteria, which survive extreme concentrations of salt, and some extremely thermophilic aerobes and anaerobes.This is what I got from wiki.com
Halobacteria, a group of extremophilic Archaea that thrive in high-salinity environments, are not typically classified as decomposers in the traditional sense. Instead, they primarily utilize light and certain organic compounds for energy through processes like halophilic photosynthesis. While they can play a role in nutrient cycling within their ecosystems, their main function is different from that of typical decomposers, which break down dead organic matter. Thus, while they contribute to the microbial community, they do not fit the classic definition of decomposers.
The seven kingdom categories are: kingdom Bacteria kingdom Archaea kingdom Eukarya kingdom Protista kingdom Fungi kingdom Plantae kingdom Animalia I hope this helped:)
Animal kingdom. Kingdom animalia