can I see the structure of fish genume?
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Click on this link\nhttp://www.ncbi.nih.gov/\n\nOn the "search" menu select "genome".  On the search bar insert the scientific name of a fish, if you are lucky it'll be available.  Click search. If it's not available, try another name.  Click search. And so on.  Eventually you will be able to see the whole genome of the fish species.
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go to altavista babel fish and find out there
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Really strange looking fish.
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<>Actually, this is not as easy as I thought it would be.  Here're a couple sites to look at.  I'll see if I can find more.\nPS: I guess it would be easier if you were to specify a particular bivalve.  There is a variety of articles on different ones here:\nhttp://www.student.loretto.org/zoology/Bivalve.html\nhttp://cars.er.usgs.gov/Region_5_Report/html/bivalves.html\nhttp://www.esg.montana.edu/dlg/aim/mollusca/bivalve.html\nhttp://www.chesapeakebay.net/info/hard_clam.cfm\nhttp://www.aquaticinvaders.org/nan_browse.cfm?level=4&key=030201000000\nhttp://www.aquaticinvaders.org/nan_browse.cfm?level=4&key=030201000000
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One website that I like is called Tree of Life\nhttp://tolweb.org/tree/phylogeny.html\n\nit is a realitively straight forward scheme that allows you to pick the picture of the goup and then to pick subdivisions below that to classify your organism down to the Class level.\n\nand many other resources can be found from:\nhttp://www.biology.ualberta.ca/courses.hp/zool250/links.htm\n\n\n\nTo distinguish a chordate it must have the following 4 traits embryologically:\n - a notocord\n - a dorsal hollow nerve cord\n - pharyngeal gill slits\n - post-anal tail\n\nTo be a vertebrate it must have:\n - spinal column or backbone\n\nWhere vertebrates are a subdivision of chordates.
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simple chk out:\n\nhttp://www.cplusplus.com/doc/tutorial/structures.html
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go to encarta.msn.com and search for keys mass/solid structure, surface Structure
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http://sps.k12.ar.us/massengale/biology_projects.htm
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Hope this sheds some light on it jessica.\n\n\nREPRODUCTION\n\nMost fishes are egg-layers, but many bear living young. Live-bearing fishes may be ovoviviparous, in which the eggs essentially simply hatch within the female, or viviparous, in which the unborn young are supplied nourishment through the mother's tissues. In some ovoviviparous fishes the embryo develops in the egg while the egg is still within its follicular covering within the ovary, and ovulation (or release of the egg) and birth occur at the same time. In other ovoviviparous forms the eggs are released from the protective follicles into the cavity of the hollow ovary, where development continues. In some viviparous fishes the walls of the egg follicle are in intimate contact with the embryo, supplying it with nourishment. In the viviparous sharks, a part of the oviduct, or egg channel, is developed into a uterus, where the modified yolk sacs of the young are closely joined to pockets within the uterus.\n\nIn live-bearing fishes and in some egg-layers, fertilization occurs internally, and methods have been evolved for introducing the sperm into the female's body. In sharks the pelvic fins of the male are modified into intromittent organs called myxoptergia, and in the male topminnows the anal fin is modified into a similar-functioning intromittent organ called the gonopodium.\n\nAt least three modes of reproduction--heterosexual, hermaphroditic, and parthenogenetic--are found in fishes. In the most common form, heterosexual reproduction, there are separate male and female parents, but even here there is considerable variation. In some live-bearing fishes, the female is able to store sperm for up to 8 or even 10 months, and this sperm is used to fertilize new batches of eggs as they develop. In some cases, a female may carry sperm from several males at once.\n\nIn hermaphroditic reproduction, a single fish is both male and female, produces both eggs and sperm (either at the same time or at different times), and mates with other similar hermaphroditic fishes. External self-fertilization occurs in one hermaphroditic fish, which sheds egg and sperm simultaneously. In another, internal self-fertilization may occur. In certain fishes there is a time sequence of hermaphroditism, young fishes reversing their sex as they grow older.\n\nIn parthenogenetic reproduction, unfertilized eggs develop into embryos. This is known to exist in at least one fish species, Poecilia formosa, of the Amazon River; however, even though development proceeds without fertilization in some of these females, mating with a male is still required to stimulate egg development.\n\nParental care also shows great diversity. Some fishes, like the Atlantic herring, form huge schools of males and females and freely shed their eggs and sperm (milt), and then abandon the eggs. Other fishes build nests and care for both the eggs and newly hatched young. Others have evolved methods of carrying the eggs with them, commonly in their mouths, but also in gill cavities or in special pouches on the body.
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you can go on the internet and plug in the search bar "Kingdom Protista" or "phylums of protista.
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I am not sure if you are asking for the physiology of the fish's gi and urogenital tract or the nitrogen cycle- so I'll provide links to both:
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I did a search for you:\nhttp://www.ask.com/web?q=sea%20wasp%20jellyfish
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you need to take a picture of this fish and register it under your own name. if this fish was never discovered by anyone else but you, this could be great chance. also if this fish looks like a dragon when you approach it, you can call her "Sea Dragon" or "Oceanic Dragon". :-)
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It doesn't matter that they are fish cells.\nThey will look the same as these stages in any other cell except there will be a different number of chromosomes
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http://www.alaquairum.net/imagenes/enfermedades/tetrahymena2.jpg\nhttp://ebiomedia.com/gall/rotifers/rotifer11.html\nhttp://www.mikrojezioro.met.pl/atlas_zw/arch_foto/plankton/original/Daphnia_pulex_02.jpg
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http://ceratium.ietc.wwu.edu/IWS/Images/Biota/Animalia/Mollusca/Bivalvia/Psammobiidae/Nuttallia/obscurata\nit's on this page
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http://ga.water.usgs.gov/edu/phdiagram.html