Hostname: page-component-7bb8b95d7b-fmk2r Total loading time: 0 Render date: 2024-09-18T19:37:06.198Z Has data issue: false hasContentIssue false

Large Scale Nanomaterial Production Using Microfluidizer High Shear Processing

Published online by Cambridge University Press:  31 January 2011

Kenneth John Chomistek
Affiliation:
kchomistek@mfics.com, Microfluidics, Newton, Massachusetts, United States
Thomai Panagiotou
Affiliation:
mimip@mfics.com, Microfluidics, Newton, Massachusetts, United States
Get access

Abstract

Large Scale Nanomaterial Production Using Microfluidizer High Shear Processing Kenneth. J. Chomistek and Thomai Panagiotou, Ph.D. Microfluidics Corporation, 30 Ossipee Rd., Newton, MA 02464, USA Microfluidics has developed scalable and low cost award winning technologies, capable of producing nanomaterials with desirable properties for a wide variety of applications. The industries served are pharmaceuticals and biotech, energy, specialty chemicals, cosmetics and nutraceuticals. Microfluidics approach is based on an in-depth understanding of applications, unique design of high shear fluid processors, and development of processes tailored for each individual application. The understanding of the requirements and ecosystem of specific applications includes the desired end properties of the material, the production environment requirements, time and cost restrictions. Pharmaceutical and biotech applications include the development and the production of FDA approved nanotechnology drugs such as vaccines, cancer drugs, anesthetics, controlled delivery systems that include polymers drugs and proteins, etc. Chemical applications include inkjet inks, fuel cell and battery electrodes, and carbon nanotube dispersion. Cosmetics include nanoencapsulation of oxygen carriers and nutrients, and collagen processing. Nutraceuticals include nanoencapsulation of fish oil for protection of omega-3 fatty acids and odor control, nanoemulsions that contain plant sterols and vitamins. Two main methods are used for production of nanomaterials: (a) the “top down”, particle size reduction method, and (b) the “bottom up”, Microfluidics reaction Technology (MRT) for production of nanoparticles through chemical reactions and physical processes, such as crystallization. This technology received the Nano50 Award in 2007. Both technologies are continuous and can be used in line with upstream or downstream processes such as premixing, filtration, etc., and are consistent with process intensification principals. The heart of the technology is the interaction chamber which consists of “fixed geometry” microchannels. Flow through the chamber is characterized by high fluid velocities (up to 500 m/s) and subsequent impingement of fluid jets to the chamber walls or to one another. The unique “fixed geometry” feature combined with the high shear rates ensure that varied formulations (emulsions, liposomes and dispersions) achieve the smallest particle size and the narrowest particle size distribution when compared to other particle reduction techniques. The technology is fully scalable and has been used extensively from lab scale to production of market drugs, nutraceuticals and inks, among others. Microfluidizer® processors offer a variety of options, such as steam sterility, cleanability and data acquisition capabilities, so they are cGMP compliant, CE certified, ATEX and explosion proof, and therefore are suitable for a variety of manufacturing environments.

Type
Research Article
Copyright
Copyright © Materials Research Society 2010

Access options

Get access to the full version of this content by using one of the access options below. (Log in options will check for institutional or personal access. Content may require purchase if you do not have access.)

References

1 Panagiotou, T., et al., “Production of Norfloxacin Nanosuspensions Using Microfluidics Reaction Technology through Solvent/Antisolvent Crystallization,” Ind. Eng. Chem. Res., 48, 17611771 (2009).Google Scholar
2www.microfluidicscorp.comGoogle Scholar
3 Johnson, B., Prud'homme, R., “Chemical Processing and Micromixing in Confined Impinging Jets,” AIChE Journal, 49 (9) 22642282 (2003).Google Scholar
4 Mahajan, A., et al., J. Phys D: Appl. Phys. 26: 176180 (2003).Google Scholar
5 Panagiotou, T., et al., “Production of Stable Drug Nanosuspensions Using Microfluidics Reaction Technology,” Tech. Proc. 2007 NSTI Nanotechnol. Conf. Trade Show, 4, 246 (2007).Google Scholar
6Handbook of Industrial Crystallization,” edited by Myerson, A., 2nd Edition – Butterworth-Heinemann, 2002.Google Scholar
7 Panagiotou, T., et al., “Production of Polymer Nanosuspensions Using Microfluidizer® Processor Based Technologies,” Tech. Proc. 2008 NSTI Nanotechnol. Conf. Trade Show, 1, 688 (2008).Google Scholar
8 Panagiotou, T., et al., “Deagglomeration and Design of Carbon Nanotubes Using Microfluidizer® High Shear Fluid Processors,” Tech. Proc. 2008 NSTI Nanotechnol. Conf. Trade Show, 1, 39 (2008).Google Scholar