bis(μ4-oxo)hexakis(μ3-pivalato)hexakis(μ2-pivalato)octacobalt(II)

bis(μ4-oxo)hexakis(μ3-pivalato)hexakis(μ2-pivalato)octacobalt(II) Structure
bis(μ4-oxo)hexakis(μ3-pivalato)hexakis(μ2-pivalato)octacobalt(II) structure
Common Name bis(μ4-oxo)hexakis(μ3-pivalato)hexakis(μ2-pivalato)octacobalt(II)
CAS Number 301663-94-5 Molecular Weight 1716.95000
Density N/A Boiling Point N/A
Molecular Formula C60H108Co8O26 Melting Point N/A
MSDS USA Flash Point N/A

Main-group and transition-element IRMOF homologues.

J. Am. Chem. Soc. 132(32) , 10978-10981, (2010)

A simple two-component procedure was developed to synthesize not only classical zinc-based IRMOFs represented by MOF-5 but also the cobalt and beryllium homologues of this most prominent MOF. The procedure is the first manifestation of mirroring the IRMOF ser...

Proton and water activity-controlled structure formation in zinc carboxylate-based metal organic frameworks.

J. Phys. Chem. A 112(33) , 7567-7576, (2008)

The contributions of terephthalic acid and Zn(2+)-coordinated water in N,N-diethylformamide (DEF) to the overall proton activity in the synthesis of MOF-5 (Zn4O(BDC)3, BDC = 1,4-benzenedicarboxylate) were quantitatively determined by combined electrochemical ...

Large pores generated by the combination of different inorganic units in a zinc hydroxide ethynylene diisophthalate MOF.

Dalton Trans. 7 , 1107-1113, (2009)

An ethynylene diisophthalic acid linker molecule was synthesized and used to form a zinc carboxylate-based metal organic framework (MOF) with very large pores and unit cell volume resulting from the unusual combination of structurally different inorganic unit...

Redox-Induced Change in the Ligand Coordination Mode. Ovcharenko V, et al.

Inorganic Chemistry 53(19) , 10033-10035, (2014)