Danish protein analysis ‘revolutionises’ biopharma impurity control

The requirements for quality assurance of biologics are increasing. A Danish contract laboratory says its database – combined with the company’s measurement tools – can shorten the development time and heighten the quality of biological products.

Since 2007, the contract laboratory Alphalyse A/S has developed and refined a new method of impurity analysis in biological pharmaceuticals based on mass spectrometry (MS). The method can be applied to new biopharmaceutical projects within a few weeks, in contrast to the existing technology, which can take one to two years to adapt. The MS technique can also help ensure a cleaner biopharmaceutical end-product.

Last December, the US Pharmacopeia expanded its guidelines with a new method chapter describing the best practice of mass spectrometry analysis for quality        control of biologics.

Thomas Kofoed, co-founder and CEO of Alphalyse, specialists in MS-based protein analysis, claims his company is ahead of the curve.

He said: “The company has assembled an extensive database of analytical MS results that enables comparisons across pharmaceuticals. The data can help assess risks and ensure the product meets regulatory requirements.

“We have been collecting data for eight years, and it is now possible to systematically compare pharmaceuticals in our database with high precision. It’s crucial for quality assurance and efficiency that we can help the client with quality control of their products based on such an extensive databank. It’s likely to transform the way the biopharmaceutical industry looks at impurities.

“The industry has lacked access to a database like ours. We can now advise clients if and how often we have identified specific protein impurities and give them unprecedented insight into their product. This database is a breakthrough in impurity analysis.”

Mass spectrometry could become a requirement

US Pharmacopeia guidelines play a central role in ensuring biopharmaceutical quality, and the new recommendations are expected to become a part of the standardised procedures for developing biologics globally.

Lars Skriver – Ph.D. in biochemistry and senior science officer at Savara Pharmaceuticals – worked on projects with Alphalyse. He anticipates that MS-based analysis of biologics will be a regulatory requirement for pharmaceutical purity control within a few years.

Lars explained: “Protein impurities are a great source of concern, and regulatory authorities are focusing more on drug impurities than ever before. Alphalyse aims to be a thought leader in establishing new quality standards for pharmaceutical impurity control.

“Many companies can perform protein analysis, but Alphalyse’s database provides an overview of which specific polluting agents you can anticipate in the production process of various biologics, and this is a major benefit. In addition, the traditional (ELISA) method can take more than a year to adapt to a new drug. Alphalyse’s cutting-edge analysis tools and database reduce the analysis development process by several months.”

Global headstart

With the announcement of the new USP method chapter, Alphalyse hopes to strengthen its collaboration with existing and new clients, especially in the US, where the US Food and Drug Administration (FDA) frequently refers to the US Pharmacopeia.

Thomas said: “Alphalyse has developed one of the methods recommended in the US Pharmacopeia, and we are the most experienced laboratory in the world for MS analysis of biologics impurities.

“We hope the industry will seriously consider how powerful MS analysis is for the quality assurance of biologics – and investigate the ability to collect data actively for risk evaluation and production standardisation.

“It should lead to fewer drugs failing in clinical trials and more products reaching the market. We’ll probably see a growing number of innovative therapies for treating diseases such as multi-resistant bacteria, cancer, and Alzheimer’s – and in the case of a new pandemic, it will be possible to develop new vaccines much faster than ever before.”

alphalyse.com

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