Latest posts

  • Thank you, Bruce and Jeannie Nordstrom!

    A few months ago, it was announced that the Institute for Protein Design is one of UW Medicine’s Priorities in their ACCELERATE campaign. We are grateful to have this support not only from UW Medicine, but also from donors who are contributing funds so that we may continue our work.…

  • Design of novel cavity containing proteins

    Design of novel cavity containing proteins

    The latest paper coming out from the IPD was published today on the Science website. It’s titled “Principles for designing proteins with cavities formed by curved β sheets” with first co-authors Enrique Marcos and Benjamin Basanta, a former and current IPD member, respectively. Other IPD members on the paper include…

  • PvP Bio Announces $35M agreement with Takeda

      On January 5th, recent IPD spin-out PvP Biologics announced their agreement with Takeda Pharmaceutical Company Limited. The $35 million deal includes an option to acquire PvP at a later point. PvP has released a statement on their website, and the agreement was highly covered by other news sources, which…

  • New spinout: PvP Biologics!

    We are happy to congratulate Ingrid Swanson Pultz, an IPD Translational Investigator, and Clancey Wolf, a Research Scientist, on PvP Biologics‘ spinout! The news was announced this morning and has been circulated through various outlets. The company, created in 2015, is focusing on advancing KumaMax, a gluten-fighting enzyme that could…

  • Arzeda scales its automated molecule development pipeline

    Seattle-based Arzeda, a computational and synthetic biology company that was spun out from the University of Washington labs of Prof. David Baker, recently announced that its high-throughput, automated pipeline for protein engineering and pathway discovery had been validated by the production of two keystone molecules. The announcement is a major…

  • Unleashing the Power of Synthetic Proteins

    Unleashing the Power of Synthetic Proteins

    Published today in Science Philanthropy Alliance,  David Baker, Director of the Institute for Protein Design describes how the opportunities for computational protein design are endless — with new research frontiers and a huge variety of practical applications to be explored, from medicine to energy to technology. This is an exciting time as we…

  • Limb Girdle Muscular Dystrophy Day and New Foldit puzzle

    Limb Girdle Muscular Dystrophy Day and New Foldit puzzle

    Today is Limb Girdle Muscular Dystrophy Day, and the Institute for Protein Design is collaborating with the Jain Foundation and Foldit community to to model the structure of human dysferlin protein (DYSF), an important protein for normal muscle function.  Numerous mutations in the gene that encodes DYSF protein are known…

  • Hyper-stable Designed Peptides and the Coming of Age for De Novo Protein Design

    Hyper-stable Designed Peptides and the Coming of Age for De Novo Protein Design

    Small constrained peptides combine the stability of small molecule drugs with the selectivity and potency of antibody-based therapeutics. However, peptide-based therapeutics have largely remained underexplored due to the limited diversity of naturally occurring peptide scaffolds, and a lack of methods to design them rationally.  New computational design and wet lab methods…

  • 2016 IPD Newsletter from David Baker

    2016 IPD Newsletter from David Baker

    It was a great year for the Institute for Protein Design and we couldn’t have done all of our amazing work without the support from our donors and contributors! Thank you to everyone who helped us, whether through a donation, collaboration, playing Foldit, or otherwise. We’ve filled the IPD Newsletter…

  • Designed Protein Containers Push Bioengineering Boundaries

    Designed Protein Containers Push Bioengineering Boundaries

    Earlier this month, Baker lab researchers reported the computational design of a hyperstable 60-subunit protein icosahedron in Nature (Hsia et al); icosahedral protein structures are commonly observed in natural biological systems for packaging and transport (e.g. viral capsids). The described design was composed of 60 trimeric protein building blocks that…