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The practical application of nano technology in the process sectors and their client industries will come to rely heavily on the ability to incorporate nano-particles into products in a fully dispersed and stable state, using minimal processing and additive chemicals whilst still allowing the nano-material to fully express its functionality.

Currently, the design of processes that involve the dispersion of micro- and nano- particles is primarily based on past knowledge rather than fundamental understanding. This constitutes a major barrier to taking a new product to market within a short period of time with non-optimal processes resulting in excessive waste production. The main driver for a new EU sponsored project PROFORM is this need to establish design methods for the manufacture of novel dispersed nano-particulate products. Allowing the rapid implementation of processes to manufacture predictable products, which meet rigorous quality standards. The 10 strong partnership brings together a broad scientific foundation (Karlsruhe, Loughborough, Warsaw, Birmingham and Poznan Universities, technology SMEs (BHR, C3M and Rockfield) and major international manufacturers Bayer Technology Services and Unilever UK. Their work will develop and refine methods for the characterisation of formulation constituents such as particle wettability, porosity, morphology, size distribution, surface free energy, density and aggregate strength, liquid and dispersion rheology and product stability. The processing phase will assess the changes in the liquid phase due to the presence and/or dissolution of particles, investigate the incorporation and dispersion mechanisms of nano-particles into a liquid, and the mechanical phenomena and fluid dynamics within the processing devices. These will include micro-, meso- and macro- scale hydrodynamics, colloidal stability, and manipulation of the particle size distribution and medium composition. Development of a validated CFD model incorporating relevant fluid dynamics and related parameters such as solid and liquid phase properties, will proceed in parallel with the overall aim of understanding the phenomena relating to the processing of nano-particles. The output of the project is intended to cover: - standard methods and protocols for characterising nano-particles and their inter-actions with fluids;,- a databank of generic information for characterising these particles ,- quantification of the performance of a range of process equipment in terms of their de-agglomeration performance for a variety of nano-particles;,- mechanistic models describing the incorporation and dispersion of nano-particles (and aggregates) in a liquid medium;,- best practice advice on the selection/design of process equipment for different nano-particle characteristics and chemical product requirements;,- numerical models for rheological properties of suspensions, kinetics of sub-processes, fluid flow and mixing;,- a baseline for integration of the models into engineering simulation code, including CAPE tools. Further information can be found at You may also contact:,Dr N. Gul Ozcan-Taskin,Senior Technical Consultant,BHR Group Limited,The Fluid Engineering Centre,College Road, Cranfield,Bedfordshire MK43 0AJ,United Kingdom,Tel: +44 (0) 1234 750 422,Fax: +44 (0) 1234 750 074,Web:,E-mail:


United Kingdom