Does anyone have information about thiocarbonyl fluoride or CF2S. It is for a school project. Please post?
613727
try:\nhttp://lb.chemie.uni-hamburg.de/static/data/50_zzk46n8n.html
816095
Dear god, I hate Chemistry.\n\nDoes your school have a CSF program? (California Scholarship Federation.) It's a sort of organization that gives free tutoring after school. Otherwise talk to your teacher after class/after school.
695742
Try these sites,\n\nhttp://school.discovery.com/sciencefaircentral/\nhttp://www.scifair.org/\nhttp://www.usc.edu/CSSF/\nhttp://scienceclub.org//kidproj1.html\nhttp://www.energyquest.ca.gov/projects/\nhttp://www.libraryspot.com/features/scienceprojects.htm
835717
Hmmm.. I'm not trying to be stingy, but I still prefer using Yahoo! Answer since that there is a bunch of good chemist in this community, to asking for a help from there.\n\n\npeace\nvixklen
1042095
Spend some tim browsing this search engine specific to chemical industry\nhttp://www.icissearch.com/\nThey have most of the answers you're looking for.
836392
Sodium carbonate\n\nBarium difluoride\n\nCopper(II) nitrate\n\nNickel (II) sulfate
893153
2Fe (s) + 3F2 (g) ---> 2FeF3(s)
284671
try these sites\nhttp://www.ric.edu/ptiskus/chemical/\nhttp://www.schools.utah.gov/curr/science/sciber00/8th/matter/sciber/chemchng.htm\nhttp://www.iit.edu/~smile/ch9613.html
595928
Don't know much about it except it's used as a catalyst in metal processing and plating\n\nthis might help though\n\nhttp://en.wikipedia.org/wiki/Thiourea
980626
ChemDraw from CambridgeSoft Corporation may be help you. Look at www.cambridgesoft.com
598495
Between the two species, the BF3 is least likely to display resonance.  To resonate, on a chemical level, you must have two equivalent Lewis structures taht differ only in their arrangement of the electrons.  However, due to the structure of flouride ions, they are able to make one and only one bond.  Thus, no rearrangement is possible around the Boron center.  \n\nHowever, the Sulfate ion is a different story.  Both sulfur and oxygen have the ability to make multiple bonds with each other, giving the potential to have different combinations of bonds that are isoelectronic (electronically equal to one another).  So, this species would be more likeley to have resonance.  \n\nHope it helps.
819123
You have to do this by analogy to other molecules.\nFor instance Se is in the same column as S and therefore SeO3 and SeO2 will look like SO3 and SO2.  Similarly SiF4 will have the structure of CF4. As comes two periods after N.\n\nFinally, the structure of simple molecules like SO2 can often be found on Wikipedia or here:\n http://www.3dchem.com/table.asp
770691
CoCl2(aq) + FeSO4(aq) = CoSO4 (aq) + FeCl2(aq)
183688
Are you looking for Sulfur Dioxide, Carbon Tetrabromide, Phosphorus Pentachloride?
159075
Buckyballs are pretty cool, but maybe you want to check out this website: \nhttp://www.chemsoc.org/timeline/index.html\nIf you search the keywords "chemistry timeline," you should be able to find whatever you need.
628990
www.iapws.jp/Proceedings/Symposium03/200Yamaguchi.pdf\nwww.er.doe.gov/production/bes/chm/96sumbook/cesoff.html \nflux.aps.org/meetings/YR98/BAPSMAR98/abs/S3150.html
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Many of them oxidize H2S\n\nso its like water but using sulphur, thats why a lot of these bacteria are purple. \n\nheres an abstract on how they work, or at least will give you a general idea ans some examples!\n\nSeven strains of heterotrophic iron-oxidizing acidophilic bacteria were examined to determine their abilities to promote oxidative dissolution of pyrite (FeS2) when they were grown in pure cultures and in mixed cultures with sulfur-oxidizing Thiobacillus spp. Only one of the isolates (strain T-24) oxidized pyrite when it was grown in pyrite-basal salts medium. However, when pyrite-containing cultures were supplemented with 0.02% (wt/vol) yeast extract, most of the isolates oxidized pyrite, and one (strain T-24) promoted rates of mineral dissolution similar to the rates observed with the iron-oxidizing autotroph Thiobacillus ferrooxidans. Pyrite oxidation by another isolate (strain T-21) occurred in cultures containing between 0.005 and 0.05% (wt/vol) yeast extract but was completely inhibited in cultures containing 0.5% yeast extract. Ferrous iron was also needed for mineral dissolution by the iron-oxidizing heterotrophs, indicating that these organisms oxidize pyrite via the "indirect" mechanism. Mixed cultures of three isolates (strains T-21, T-23, and T-24) and the sulfur-oxidizing autotroph Thiobacillus thiooxidans promoted pyrite dissolution; since neither strains T-21 and T-23 nor T. thiooxidans could oxidize this mineral in yeast extract-free media, this was a novel example of bacterial synergism. Mixed cultures of strains T-21 and T-23 and the sulfur-oxidizing mixotroph Thiobacillus acidophilus also oxidized pyrite but to a lesser extent than did mixed cultures containing T. thiooxidans. Pyrite leaching by strain T-23 grown in an organic compound-rich medium and incubated either shaken or unshaken was also assessed. The potential environmental significance of iron-oxidizing heterotrophs in accelerating pyrite oxidation is discussed.