Professor Lee Brammer

School of Mathematical and Physical Sciences

Professor of Inorganic and Solid State Chemistry

CHEM - Lee Brammer
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+44 114 222 9536

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Professor Lee Brammer
School of Mathematical and Physical Sciences
Dainton Building
13 Brook Hill
S3 7HF

Prof. Brammer obtained his BSc in Chemistry from the University of Bristol in 1983, which was followed by a PhD in Inorganic Chemistry from the same institution in 1987. After a NATO Postdoctoral Fellowship at the University of New Orleans (1987-88) and a Postdoctoral Fellowship at Brookhaven National Laboratory, New York (1989-90), he became an Assistant Professor and subsequently an Associate Professor at the University of Missouri-St. Louis (1990-2001). Since 2001 he has been in Sheffield, first as Reader, but since 2008 as Professor of Chemistry.

  • Member, British Crystallographic Association (President, 2015-18)
Research interests

Our current research can be divided, broadly speaking, into three areas: (i) inorganic supramolecular chemistry, (ii) porous coordination framework materials, and (iii) reactions in molecular crystals.

Inorganic Supramolecular Chemistry

Work in this area involves the use of transition metals to influence the construction and properties of supramolecular assemblies in the solid state (crystal engineering) and in solution. We have a number of ongoing projects in this area, but the principal focus is on (a) detailed study of intermolecular interactions using various experimental and computational methods, and (b) the application of the knowledge gained to the construction of network solids (infinite assemblies). Specific systems being studied include:

  • recognition of hydrogen bond donors by halometallate ions and use of halometallates as nodes in hydrogen bonded network construction;
  • linking coordination compounds or organometallic compounds into networks using peripherally situated ligand-centred hydrogen bonds;
  • understanding halogen bonding and the use of halogen bonding as a strong directional interaction that is a viable alternative to hydrogen bonding in supramolecular assembly.

Porous Coordination Framework Materials

Framework materials based upon coordination chemistry, often known as metal-organic frameworks (MOFs), provide a highly versatile alternative to well-established porous materials such as zeolites. Their synthesis is based upon molecular chemistry and they are typically constructed as crystalline network solids using metal centres as nodes which are linked via organic bridging ligands. Applications range from sorption and storage of gases (including hydrogen) and volatile pollutants, to host-guest chemistry for chemical separations and even catalysis. Current efforts in our group are focused on flexible, responsive materials and upon functionalised materials tailored to specific applications. Studies involve synthesis, characterisation by diffraction methods (single crystal, powder) and by a range of other techniques including thermal analyses and spectroscopy.


Our research is based in excellent modern synthetic laboratories built in 2003, with an accompanying office suite for students and postdocs. The department maintains excellent instrumentation facilities for spectroscopy (NMR, IR, MS) and we have an outstanding X-ray diffraction facility that is crucial in characterisation of the crystalline materials that we study. We also make extensive use of major national and international facilities for diffraction, in particular high flux synchrotron X-ray facilities in the UK (Daresbury SRS and in future Diamond) and at the ESRF in Grenoble, France.


My general philosophy is to make use of a variety of approaches and techniques in pursuing research goals. A better overall understanding is developed by such an approach. Thus, students and postdocs have the opportunity to be exposed to many aspects of chemistry, while perhaps developing greater expertise or interests in certain aspects of a project. Many projects involve some synthesis of organic, organometallic and/or coordination compounds, and will involve supramolecular synthesis and/or materials synthesis methods (e.g. solvothermal synthesis). NMR and IR spectroscopy are widely employed and extensive use is made of diffraction methods, particularly single crystal and powder X-ray diffraction, but also neutron diffraction. Materials characterization methods (e.g. DSC, TGA) are also used where needed and computational chemistry is used to support efforts in other areas. Where appropriate the work is conducted within the research group, but collaborative efforts with other research groups have always proven important in our work. We have established collaborations in areas of synthetic and computational chemistry, diffraction and materials characterisation such as gas sorption and magnetic measurements. Such collaborations often provide opportunities for group members to visit and work in other research labs.

Selected Reviews and book chapters

  • “Combining metals with halogen bonds,” L. Brammer, G. Mínguez Espallargas and S. Libri, CrystEngComm, 2008, 10, 1712-1727.
  • “New trends in crystal engineering,” D. Braga, L. Brammer and N. R. Champness, CrystEngComm, 2005, 7, 1-19.
  • “Developments in inorganic crystal engineering,” L. Brammer, Chem. Soc. Rev., 2004, 34, 476-489.
  • “Metals and Hydrogen Bonds,” L. Brammer, Dalton Trans., 2003, 3145-3157. (Perspective article)
  • “Hydrogen Bonds in Inorganic Chemistry: Application to Crystal Design,” L. Brammer, in "Perspectives in Supramolecular Chemistry, Vol 7: Crystal Design – Structure and Function", ed. G. R. Desiraju, Wiley, 2003, pp 1-75.

Journal articles


Conference proceedings papers


Teaching interests
  • Chemistry with Study Abroad
  • Inorganic Chemistry, Solid State Chemistry, Crystallography, Supramolecular and Materials Chemistry
Teaching activities

Undergraduate and postgraduate taught modules

  • Introduction to Solid State Chemistry (Level 2)
    The course introduces the structural aspects of solid state chemistry, including how crystalline solids can be desribed in terms of lattices, unit cells and space group symmetry.
  • Diffraction Techniques in Structural Chemistry (Level 3)
    The course provides an introduction to single crystal X-ray diffraction methods used to determine the structure of solid compounds.
  • Crystal Engineering: Supramolecular Assembly to Materials (Level 4)
    This advanced course discusses how control over crystal structure, through crystal design and synthesis, offers the prospect of designer materials with designed properties. 

Support Teaching:

  • Tutorials: Level 2 Inorganic Chemistry.

Laboratory Teaching:

  • Level 2 Inorganic Laboratories
  • Level 3 Research Project
  • Level 4 Research Project