Corona research: Consortium of Berlin research and industry seeks active ingredients

Protein crystals are analysed in the MX laboratory at BESSY II with hard X-rays.

Protein crystals are analysed in the MX laboratory at BESSY II with hard X-rays. © C. Feiler/HZB

At BESSY II, Prof. Rolf Hilgenfeld (Uni Lübeck) was able to analyse an important protein of the SARS-CoV2 virus, the viral main protease which enables the virus to multiply.

At BESSY II, Prof. Rolf Hilgenfeld (Uni Lübeck) was able to analyse an important protein of the SARS-CoV2 virus, the viral main protease which enables the virus to multiply. © H.Tabermann/HZB

The Berlin biotech company Molox GmbH and a team at the Helmholtz-Zentrum Berlin (HZB) have initiated a consortium of regional research groups and BASF. Together, they want to identify a starting point for the development of a potential active substance against the new coronavirus. Targets of potential inhibitors will be SARS-CoV2 proteins that promote the spread or infectivity of the viruses. Scientists from Freie Universität Berlin are also involved in the research work.

"Berlin combines important large-scale infrastructure with an excellent network of academic and industrial structural biologists and biochemists. The distances here are short, but resources and expertise must be strategically coordinated to be successful," says Dr. Holger von Moeller, the owner of the biotech company Molox.

Access to synchrotron radiation is essential for the success of the project. This particularly intense radiation is provided by the Berlin Electron Storage Ring for Synchrotron Radiation (BESSY II), which is operated by the HZB.

Several research groups at Freie Universität Berlin led by Prof. Markus Wahl, Prof. Christian Freund, Dr. Ursula Neu, and Prof. Sutapa Chakrabarti are working with Molox to produce the proteins and then crystallize them.

"The HZB is making all existing infrastructures available to the joint project," explains Dr. Manfred Weiss, head of the Research Group Macromolecular Crystallography (MX) at HZB.

BASF is the first project partner from the chemical industry to provide funds to start the investigations. Protein crystals will be saturated with potential inhibitors and subsequently analysed on the MX beamlines of BESSY II. In this way it can be discovered which compounds are particularly good at inhibiting the function of the protein - these should then be the starting points for the development of active substances.

The consortium is currently negotiating with other partners in order to acquire them and their substance libraries. "We are looking forward to this joint project and hope that we will be able to identify new potential active substances against SARS-CoV-2 very quickly", says Dr. Christian Feiler, project leader at HZB.

red.

  • Copy link

You might also be interested in

  • Alternating currents for alternative computing with magnets
    Science Highlight
    26.09.2024
    Alternating currents for alternative computing with magnets
    A new study conducted at the University of Vienna, the Max Planck Institute for Intelligent Systems in Stuttgart, and the Helmholtz Centers in Berlin and Dresden takes an important step in the challenge to miniaturize computing devices and to make them more energy-efficient. The work published in the renowned scientific journal Science Advances opens up new possibilities for creating reprogrammable magnonic circuits by exciting spin waves by alternating currents and redirecting these waves on demand. The experiments were carried out at the Maxymus beamline at BESSY II.
  • BESSY II: Heterostructures for Spintronics
    Science Highlight
    20.09.2024
    BESSY II: Heterostructures for Spintronics
    Spintronic devices work with spin textures caused by quantum-physical interactions. A Spanish-German collaboration has now studied graphene-cobalt-iridium heterostructures at BESSY II. The results show how two desired quantum-physical effects reinforce each other in these heterostructures. This could lead to new spintronic devices based on these materials.
  • Green hydrogen: MXenes shows talent as catalyst for oxygen evolution
    Science Highlight
    09.09.2024
    Green hydrogen: MXenes shows talent as catalyst for oxygen evolution
    The MXene class of materials has many talents. An international team led by HZB chemist Michelle Browne has now demonstrated that MXenes, properly functionalised, are excellent catalysts for the oxygen evolution reaction in electrolytic water splitting. They are more stable and efficient than the best metal oxide catalysts currently available. The team is now extensively characterising these MXene catalysts for water splitting at the Berlin X-ray source BESSY II and Soleil Synchrotron in France.