I am interested in the following potassium compounds but had no luck in finding any info or suppliers. Firstly I would like to know if these compounds
are possible and secondly how could I produce them in a small quantity from relatively common chemicals.
KCuO2
KAgO2
KWO2
"edit"
I was looking at the archives and noticed that “brauer” is often thought as an authority on similar compounds, sorry to ask but who is Brauer and
what book?
[Edited on 9-1-2007 by D4RR3N]Bromine - 9-1-2007 at 10:17
potassium cuprate can be made by disolving CuO in KOH solution.woelen - 9-1-2007 at 11:07
I don't think the other compounds exist.falconZ - 9-1-2007 at 11:12
Handbook of Preparative Inorganic Chemistry,
by Georg Brauer
Publisher: Academic Press (1963)
ASIN: B000M0IVDQD4RR3N - 9-1-2007 at 11:26
Quote:
Originally posted by Bromine
potassium cuprate can be made by disolving CuO in KOH solution.
Thanks, will this produce KCuO2 or KCuO3 ??? Is it just a matter of heating the solution to get the KCuO2 solid?D4RR3N - 9-1-2007 at 11:49
Quote:
Originally posted by falconZ
Handbook of Preparative Inorganic Chemistry,
by Georg Brauer
Publisher: Academic Press (1963)
ASIN: B000M0IVDQ
Just looked on Amazon $595kaviaari - 9-1-2007 at 11:56
Quote:
Originally posted by D4RR3N
Just looked on Amazon $595
Wolframates exist, but I believe they were WO3 or WO4woelen - 9-1-2007 at 23:31
Wolframates (tungstates) do exist, but they have tungsten in the +6 oxidation state, the formula KWO2 suggests a +3 oxidation state. Actually I have
some tungstate, the compound Na2WO4.guy - 9-1-2007 at 23:42
When you acidify tungstates (and molybdenates), you get a cluster...but its not just a random cluster, its a set amount; ive always wondered why? If
anyone knows the chemistry behind that.Ozone - 10-1-2007 at 20:34
I'm too tired now to explain all of that (clustering) in detail (in fact, clusters are a hot-topic these days). Check out coordination number and the
18 electron rule (which includes 14, 24, and others...). It is quite do-able. For example, to have metal-metal- quadruple bonds; see
tetrabutylammonium-octachlorodirhenate, for example (I had to make it as an undergrad; they blew it up at Sandia).
Coordination occurs frequently without a change in formal oxidation state (excepting, usually, oxidative addition and reductive eliminations); for
more on this look at olefin pi complexes.