25-27 November 2015
National Centre for Synchrotron Science
Australia/Melbourne timezone

Rational Design of Porous Coordination Polymers for Catalysis

26 Nov 2015, 13:30
Exhibition space (National Centre for Synchrotron Science)

Exhibition space

National Centre for Synchrotron Science

Australian Synchrotron 800 Blackburn Road Clayton VIC 3168
Board: AM-27
Poster Advanced Materials Poster Session 1


Mr Jamie Hicks (Monash University)


Over the past couple of decades, Porous Coordination Polymers (PCPs) have been extensively studied due to their variety of applications including gas storage, small molecule separations and sensors. Furthermore, heterogeneous catalysis using PCP’s has recently become an area of considerable interest, as tuning the pore size can lead to selective catalysis in mixtures of reagents. However, these catalytically active PCP’s often require post synthetic modification of an existing framework with a catalytically active metal. A number of novel dicarboxylate ligands have been synthesised, which include an additional metal coordination site within the main body of the ligand itself, such as a diazabutadiene moiety. Having this additional coordination site allows for coordination of a catalytically active metal centre to the ligand, hence forming a metalloligand, before the synthesis of the coordination polymer. With the intention of using this relatively unexplored route to rationally design PCP’s, a range of metalloligands containing second row transition metal species have been developed. One such ligand, containing a Mo(CO)4 fragment, has successful been utilised in the formation of a heterometallic molybdenum/cadmium PCP, with approximately 43% void volume. The Mo(CO)4 fragments line the edges of 1D solvent channels within the structure and therefore should be accessible to substrates.

Primary authors

Dr David Turner (Monash University) Mr Jamie Hicks (Monash University) Prof. Stuart Batten (Monash University)

Presentation Materials

There are no materials yet.
Your browser is out of date!

Update your browser to view this website correctly. Update my browser now