is blue green algae in the domain Bacteria?
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Yes, blue green algae (also known as cyanobacterium) is a type of bacteria.  It was once thought to be part of plant kingdom however further studies indicated that it possesses more characteristics of a bacteria than an algae, thus the reclassification to kingdom Monera (microscopic monocellular prokaryotic organisms that mostly reproduce by asexual fission, sporulation, or budding)
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Corals: kingdom Animalia\nAlgae: not well classified, some are classified in kingdom Protista some in kingdom Plantae\nBlue-green algae: kingdom Monera\nCandida: kingdom Fungi\nRose (if you mean the flower): Kingdom Plantae
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Gram-positive bacteria :\nGram-positive bacteria are classified as bacteria that retain a crystal violet dye during the Gram stain process. Gram-positive bacteria will appear blue or violet under a microscope, whereas Gram-negative bacteria will appear red or pink. The difference in classification is largely based on a difference in the bacteria's cell wall structure.\nThe following characteristics are generally present in a Gram-positive bacteria:\nA very thick cell wall (peptidoglycan) \nIf a flagellum is present, it contains two rings for support (an additional two rings are not necessary, unlike in Gram-negative bacteria, because the thick cell wall is supportive enough) \nTeichoic acids are present, which serve to act as chelating agents, and also for certain types of adherence \nIn the original bacterial phyla, the Gram-positive forms made up the phylum Firmicutes, a name now used for the largest group. It includes many well-known genera such as Bacillus, Listeria, Staphylococcus, Streptococcus, Enterococcus, and Clostridium. It has also been expanded to include the Mollicutes, bacteria like Mycoplasma that lack cell walls and so cannot be stained by Gram, but are derived from such forms.\n\nThe actinobacteria are another major group of Gram-positive bacteria; they and the Firmicutes are referred to as the high and low G+C groups based on the guanosine and cytosine content of their DNA. If the second membrane is a derived condition, the two may have been basal among the bacteria; otherwise they are probably a relatively recent monophyletic group. They have been considered as possible ancestors for the archaeans and eukaryotes, both because they are unusual in lacking the second membrane and because of various biochemical similarities such as the presence of sterols.\n\nThe Deinococcus-Thermus bacteria also have Gram-positive stains, although they are structurally similar to Gram-negative bacteria.\n\nBoth Gram-positive and Gram-negative bacteria may have a membrane called an S-layer. In Gram-negative bacteria, the S-layer is directly attached to the outer membrane. In Gram-positive bacteria, the S-layer is attached to the peptidoglycan layer. Unique to Gram-positive bacteria is the presence of teichoic acids in the cell wall. Some particular teichoic acids, lipoteichoic acids, have a lipid component and can assist in anchoring peptidoglycan, as the lipid component is embedded in the membrane.\n\nGram Negative Bacteria:\nGram-negative bacteria are those that do not retain crystal violet dye in the Gram staining protocol. Gram-positive bacteria will retain the dark blue dye after an alcohol wash, whereas Gram-negative bacteria do not. In a Gram stain test, a counterstain is added after the crystal violet, which colors all Gram-negative bacteria a red or pink color. The test itself is useful in classifying two distinctly different types of bacteria based on structural differences in their cell walls.\n\nMany species of Gram-negative bacteria are pathogenic, meaning they can cause disease in a host organism. This pathogenic capability is usually associated with certain components of Gram-negative cell walls, in particular the lipopolysaccharide (also known as LPS or endotoxin) layer.\nThe following characteristics are displayed by Gram-negative bacteria:\n\nCell walls only contain a few layers of peptidoglycan (which is present in much higher levels in Gram-positive bacteria) \nCells are surrounded by an outer membrane of lipopolysaccharide outside the peptidoglycan layer \nPorins exist in the outer membrane, which act like pores for particular molecules \nThere is a space between the layers of peptidoglycan and the secondary cell membrane called the periplasmic space \nThe S-layer is directly attached to the outer membrane, rather than the peptidoglycan \nIf present, flagella have four supporting rings instead of two \nNo teichoic acids are present \nLipoproteins are attached to the polysaccharide backbone whereas in Gr
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Now Foods Chlorella is a green single-celled micro algae that contains the highest concentrations of chlorophyll known to man (60 mg/serving). Chlorella supplies high levels of Beta-Carotene, Vitamin B-12, Iron, RNA and DNA, and protein. The cell wall in this high quality Chlorella has been broken down mechanically to aid digestibility.
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class RHODOPHYCEAE-1.total absence of flagellated structures(vegetative as well as reproductive).\n2.presence of phycoerythrin(red pigment) and phycocyanin(blue) in addition to chlorophyll a,d,beta carotene.\n3.food reserved mostly in the form of floridean starch.\n For further details refer books on phycology.or textbooks on botany.
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Wood-boring bivalves of the family Teredinidae (commonly called shipworms) are known to harbor dense populations of gram-negative bacteria within specialized cells (bacteriocytes) in their gills. These symbionts are thought to provide enzymes, e.g., cellulase and dinitrogenase, which assist the host in utilizing wood as a primary food source. A cellulolytic, dinitrogen-fixing bacterium, Teredinibacter turnerae, has been isolated from the gill tissues of numerous teredinid bivalves and has been proposed to constitute the sole or predominant symbiont of this bivalve family. Here we demonstrate that one teredinid species, Lyrodus pedicellatus, contains at least four distinct bacterial 16S rRNA types within its gill bacteriocytes, one of which is identical to that of T. turnerae. Phylogenetic analyses indicate that the three newly detected ribotypes are derived from gamma proteobacteria that are related to but distinct (>6.5% sequence divergence) from T. turnerae. In situ hybridizations with 16S rRNA-directed probes demonstrated that the pattern of occurrence of symbiont ribotypes within bacteriocytes was predictable and specific, with some bacteriocytes containing two symbiont ribotypes. However, only two of the six possible pairwise combinations of the four ribotypes were observed to cooccur within the same host cells. The results presented here are consistent with the existence of a complex multiple symbiosis in this shipworm species.
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Archaea, Eukaryota and Bacteria are the fundamental classifications in what is called the three-domain system. Like bacteria, Archaea are single-celled organisms lacking nuclei and are therefore prokaryotes, classified as Monera in the alternative six-kingdom taxonomy. They were originally described in extreme environments, but have since been found in all types of habitats.\n\nThe archaeal lipids are unique because the stereochemistry of the glycerol is the reverse of that found in bacteria and eukaryotes. This is strong evidence for a different biosynthetic pathway. \nMost bacteria and eukaryotes have membranes composed mainly of glycerol-ester lipids, whereas archaea have membranes composed of glycerol-ether lipids. Even when bacteria have ether-linked lipids, the stereochemistry of the glycerol is the bacterial form. These differences may be an adaptation on the part of Archaea to hyperthermophily. However, it is worth noting that even mesophilic archaea have ether-linked lipids. \nArchaeal lipids are based upon the isoprenoid sidechain. This is a five-carbon unit that is also common in rubber and as a component of some vitamins common in bacteria and eukaryotes. However, only the archaea incorporate these compounds into their cellular lipids, frequently as C-20 (four monomers) or C-40 (eight monomers) side-chains. In some archaea, the C-40 isoprenoid side-chain is actually long enough to span the membrane, forming a monolayer for a cell membrane with glycerol phosphate moieties on both ends.
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[Domain], Kingdom, Phylum, Class, Order, Genus, Species.  Can be remembered easily using the following mnemonic:\nKing Philip Came Over For Good Spaghetti.\n[Domain is sometimes used to classify eukaryotes and prokaryotes.]\nHope this helps!
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Please visit:\nhttp://www.homeofpoi.com/articles/colouredflames.php
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Hi, i've read of an article about microbiology and genetic engineering; to sum it up, here goes:\nIn recent years, bacteriology has been greatly expanded from its concentration on bacterial disease. The discovery that bacteria fix nitrogen in the root nodules of leguminous plants (see Nitrogen Fixation) has led to attempts to inoculate the roots of other plant strains and thereby increase soil fertility and the productivity of food crops. Some bacteria are able to digest petroleum and other hydrocarbons; others absorb phosphorus. These bacteria are being intensively investigated as possible aids in cleaning up oil spills and removing phosphorus from sewage sludge. Other bacteria may be more efficient than yeast at producing alcohol and are being explored in the search for new energy sources. Escherichia coli, a normal inhabitant of the human intestinal tract, is the most thoroughly studied of all organisms. Studies of the mechanisms of genetic exchange and the biology of plasmids and bacteriophages (see Bacteriophage) of E. coli have been crucial in understanding many aspects of DNA replication and the expression of genetic material. These studies have led to the ability to insert DNA from unrelated organisms into E. coli plasmids and bacteriophages and to have that DNA replicated by the bacteria, with the genetic information it contains expressed by the bacteria. It is thus possible for bacteria to become living factories for scarce biological products such as human insulin, interferon, and growth hormone.
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the bacteria is a prokaryotes they are single cell organisms there are millions of bacteria are found in earth they are ubikutes they are live in any where bacteria are classified into based on their temperature is as follows\n1)thermophiles(lived in more than 60 degree \n2)mesophiles (they are live in normal temp(35)drgee \nthe bacteria are mostly autotropics\neg(blue green algae )is photo synthesis pigment & gain energy in that \nreproduction\nby binarry fission\ntransduction\ntransformation
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Eubacteria (aka Bacteria).
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Prokaryotes ie; bacteria
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Yes. The singular is bacterium
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Oh yes. Chlorella is an alga. It has a good amount of protein in it, good carbs, all the B vitamins, Vitamnin C and E, amino acids and rare trace minerals. It is almost a complete whole food. Matter fact it has more B12 than liver does. B12 is outstanding for good health. \n\nChlorella is also a great source of protein for those who choose not to eat meat.
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euglena are alga which use photosynthesis to produce their own  energy source, primarily, glucose.  cyanobacteria must occupy a biological host in order to survive and multiply.
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http://www.bacterio.cict.fr/bacdico/aa/alcaligenaceae.html\n\nhttp://www.ncbi.nlm.nih.gov/entrez/query.fcgi?cmd=Retrieve&db=PubMed&list_uids=8708376&dopt=Abstract