Andrew Zydney, Ph.D.

AIMBE College of Fellows Class of 1998
For fundamental studies on mass transfer and protein absorption which have significantly enhanced development of membrane-based artificial organs and bioseparations.

New Technique Developed for Large-Scale Continuous Protein Purification

Via Genetic Engineering & Biotechnology News | February 17, 2021

Scientists have developed a new technique for purifying proteins during antibody manufacturing. The aim is to reduce the cost of continuous manufacturing for large-scale applications, such as COVID-19 therapeutics or Alzheimer’s disease treatments, without the need for Protein A.

“Protein A chromatography is robust and works well, but it’s also expensive and can create significant supply chain problems because you have to produce the Protein A and immobilize it on a resin,” says Andrew Zydney, PhD, professor of chemical engineering at Pennsylvania State University. “Our hope is that, by moving away from Protein A, we open up opportunities that are higher throughput and lower cost… Continue reading.

Andrew Zydney named recipient of Alan S. Michaels Award

Via Penn State University | November 28, 2018

The Division of Biochemical Technology of the American Chemical Society (ACS) has named Andrew Zydney, Bayard D. Kunkle Chair and professor of chemical engineering at Penn State, as the 2019 recipient of the Alan S. Michaels Award in the Recovery of Biological Products. The award recognizes outstanding research and practice contributions in the field of the recovery of biological products, which refers to the process of purifying vaccines and other biopharmaceuticals as part of downstream bioprocessing. Zydney will receive the award at the ACS National Meeting, set for March 31 to April 4, 2019, in Orlando, Florida.

Zydney is receiving the award based on his lifetime contributions to a field that has high importance for human health care. When a biologically derived drug is developed for treating cancer, immune disorders, and other diseases, it is made from genetically engineered mammalian cells that are specifically designed to produce complex biomolecules that attack the disease in various ways, depending on the disease type. They also need to be highly purified because they are injectable drugs that bypass most of the natural protections against foreign proteins, microorganisms, and viruses… Continue reading.