Guest Editor: HPLC 2016 Chair Professor Robert Kennedy Shares His Thoughts on the Latest Advances in Separations Technology

5 May 2016
Sarah Thomas
Associate Editor

Editorial article

Professor Robert Kennedy, Chair of HPLC 2016, discusses the latest developments in separations technologies and applications

Robert Kennedy is the Hobart H. Willard Distinguished Professor of Chemistry and Chair of the Chemistry Department at the University of Michigan.

The separation of complex mixtures and complicated molecules is a continual challenge facing chemists. Liquid phase separation techniques such as HPLC and electrophoresis must evolve to meet the ever more difficult challenges arising from pharmaceuticals, “omics”, food and nutrition, clinical and diagnostic, and environmental research.

The pharmaceutical industry in particular poses extreme challenges at nearly every step of the drug discovery, development, and production process. The explosive growth of biopharmaceuticals has driven an intense demand for better separations of large biomolecules. A large antibody or antibody-drug conjugate has many possible permutations that create enormous difficulties in verifying its structure, and therefore safety and efficacy, in depth. The ever present drive to discover and manufacture drugs more efficiently also creates demands of reduced sample consumption, faster separations, and better quality separations. Proteomics and metabolomics present mixtures that are almost hopelessly complex, yet scientists are pushing towards the complete and reliable resolution and detection of all proteins and metabolites in natural samples. Thus, while separations may be considered a maturing technology, it still has many dragons to slay. It is no wonder that HPLC and associated technologies remains a multi-billion dollar business.

Addressing challenges

Those studying and developing chromatography have been developing many ingenious and surprising new approaches that help us meet the challenges outlined above. Use of ultra-high pressure systems coupled with particles < 1 micrometer diameter, multi-dimensional systems, new stationary phases and support technologies, microfabricated and other miniaturized systems, and new techniques for characterizing columns all have emerged as tools for gaining better and faster separations. The interface to mass spectrometry is also critical for characterizing the complex mixtures and molecules that are now of interest. These advances are coming from all sectors of the research world including industry, academics, and government labs.

Why attend HPLC 2016?

If you are interested in the challenges and advances happening in the world of separations, then I urge you attend HPLC 2016 in San Francisco from June 19-24. The conference is divided into three tracks that follow the themes mentioned above. One track covers the advances made in applying HPLC and electrophoresis to pharmaceutical, proteome, metabolome, food, environmental, and polymer analysis. A large emphasis is placed on protein separations including biopharmaceuticals because of the substantial challenges found with these molecules. Another track focuses on making separations better, that is new particles, stationary phases, and microsystems. The third track emphasizes harnessing the power of mass spectrometry. Finally, if you are new to HPLC or have suddenly found yourself needing to develop knowledge in this area, then HPLC 2016 has an educational track that includes short courses and tutorial lectures. We have an exciting array of speakers who are well-known experts in these different areas from both academic and industry labs.

While HPLC and electrophoresis are the reason for the conference, the host city may steal the show. San Francisco is a hub of high-tech research making it an exciting place to meet potential collaborators, thought leaders, and customers. Of course, it has more attractions than can be enumerated here, but it is safe to say that any visit to the Golden Gate City will be memorable for the sights, cultural, and culinary experiences.

Professor Robert Kennedy BIO

Robert Kennedy is the Hobart H. Willard Distinguished Professor of Chemistry and Chair of the Chemistry Department at the University of Michigan. He earned his Ph.D. in 1988 at the University of North Carolina-Chapel Hill and moved on to become an Assistant Professor at the University of Florida in 1991 following a post-doctoral fellowship. His research interests include HPLC, capillary LC, capillary electrophoresis, and microfluidic assay systems. These techniques are applied to problems related to diabetes, neurochemistry, and high-throughput screening. He has trained over 60 Ph.D. students and 30 post-doctoral fellows.

Image copyright: smuay 1000/Shutterstock

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UHPLC and HPLCHigh performance liquid chromatography (HPLC) and ultra high performance liquid chromatography (UHPLC), also known as UPLC, are analytical techniques used to separate, identify and quantitate components of complex mixtures including biological samples such as proteins and lipids as well as chemical mixtures of pesticides, drugs and oils. Both techniques are liquid chromatographic methods but differ by operating pressures (HPLC < 6000 psi < UHPLC ). Components of HPLC and UHPLC systems include columns, detectors, pumps, autosamplers and column heaters. Explore a range of UHPLC and HPLC columns for your specific sample needs including reverse phase, normal phase, ion exchange, HILIC, ion exclusion and size exclusion columns. For more specialized HPLC, explore FPLC, countercurrent LC and simulated moving bed systems. Find the best UHPLC and HPLC equipment in our peer reviewed product directory: compare products, check customer reviews and receive pricing direct from manufacturers.ProteomicsProteomics is the systemic bioinformatics study of proteins and amino acids, including their structure, size, function and identification. Tools used in proteomics include chromatography, blotting and gels, protein arrays, mass spectrometry and ELISA and associated analysis software. Analyzers and proteomic systems should be sensitive, high resolution, fast and may be automated for high-throughput.MetabolomicsMetabolomics is the study of small metabolites (the intermediates and products of metabolism). It involves the identification and quantification of cellular metabolites using analytical technologies such as GC, HPLC, NMR, and LC/MS.Protein SeparationBiopharmaceuticalsBiopharmaceuticals are proteins and other compounds (such as nucleic acids) produced by living organisms that have uses as therapeutics or for in vivo diagnostics. The most well known example of a biopharmaceutical product, and the first to be approved for therapeutic use, was recombinant human insulin.Drug DiscoveryDrug discovery is the process of identifying potential new medications, involving stages such as target identification, compound screening, and preclinical development. It relies on cutting-edge technologies like high-throughput screening, artificial intelligence, and molecular modeling to accelerate the identification of drug candidates. Drug discovery plays a pivotal role in developing new therapies for diseases ranging from cancer to rare genetic disorders. Browse our peer-reviewed product directory to find the latest drug discovery technologies, compare options, check customer feedback, and get pricing directly from manufacturers.PharmaceuticalsPharmaceuticals are medicinal drugs used in healthcare to diagnose, prevent, cure and treat illnesses. Pharmaceuticals that are excreted after use appear in wastewater and can have detrimental effects on the environment.HPLCHigh-performance liquid chromatography (HPLC) is a technique for separating, identifying, and quantifying components in mixtures. It is widely used in chemical, pharmaceutical, and environmental analysis to ensure purity and identify unknown compounds. Explore the best HPLC systems in our peer-reviewed product directory; compare products, read reviews, and get pricing directly from manufacturers.