How Archaea Work in Symbiotic Relationship in the Digestive Tract of Termites

Archaebacteria belong to the prokaryotic field due to differences in DNA transfer processor compared to transcript replication. Prokaryotes are microbes that are cells without nuclei. The scientific community completely reversed this theory. Extensive research and discussion has been conducted in this field. According to Williams' research, the accumulation of knowledge may make the three fields very inaccurate and there are two areas of "archaebacteria and bacteria" as "eukaryotes are produced through partnership among them" He thinks otherwise.

It is known that archaebacteria are also related to eukaryotes. For example, methanogenic archaebacteria exist in the digestive system of several animals including humans. Some archaebacteria form symbiotic relationships with sponges. Indeed, the Centarchaeum Symbiotic Organism was the first non-thermophilic Crenarchaeota planted in the laboratory with the host sponge, cultured and described. It is the first organism to be classified in the proposed Thaumarchaeota lineage.

An example of well - known symbiosis is the interaction between protozoa and methanogenic archaea in the digestive tract of cellulosic digestive animals such as ruminants and termites. In these anaerobic environments, protozoa will decompose plant cellulose and gain energy. This process releases hydrogen as waste, but high levels of hydrogen reduce energy production. When the methane producing substance converts hydrogen to methane, the protozoa will benefit from more energy. In anaerobic protozoa such as Plagiopyla frontata, palaeontology inhabits the protozoa and consumes hydrogen produced by its hydride. Archaebacteria are also associated with larger organisms. For example, Marine Paleobiology Centarchaeum symbiosum lives in the sponge Axinella mexicana (internal symbiosis).

Termites eat another feces as a means of obtaining intestinal primitives. Termites and protists are in a symbiotic relationship (for example, protozoans allow termites to digest cellulose with their diet). For example, in a group of termites, there is a three-part symbiotic relationship: termites of the family Rhinotermitidae, termite commensal organisms of the genus Pseudomonas in the gut and intracellular bacterial symbiotic organisms of the protists. Lagomorpha seeds (rabbits, rabbits, pika) produce two kinds of fecal pellets: hard particles and soft particles (called secotropes). These species of animals regain their secotropes to extract more nutrients. Secotrope contains symbiotic bacteria that help digest cellulose collected in the cecum between the large intestine and small intestine, and also produce specific vitamin B groups.