The Kerfeld lab has engineered a bacterial shell protein to incorporate copper for electron transfer activity. Harnessing natural biological processes to synthesize new materials is key for developing future functional bioreactors and biomaterials.

The honor, bestowed by the American Association for the Advancement of Science, recognizes members for extraordinary achievements in advancing science.

Cheryl Kerfeld will lead a team of five research groups in a $3.4 million NSF Understanding the Rules of Life grant to engineer a synthetic cell. The aim is to tackle two key science and engineering research areas: building a synthetic cell and epigenetics.

The new gene family helps control carbon dioxide fixation, which is the first step towards making high-energy molecules that feed the planet's organisms. 

'Hoarding' resources in the same location encourages more efficient chemical reactions. Someday, we could use this system to enhance the production of rubber, biofuels, and other commodities.

The genetically engineered shell is based on natural structures and the principles of protein evolution. Scientists see such structures as a source of new industrial or medical technologies.

The HCP2 protein is an ancestor of proteins that are known to protect against damage caused by excess light exposure. The study is the first of its kind to structurally and biophysically analyze a protein from the recently discovered HCP family.

Our students were part of a MSU team that met with staff at the offices of Senator Peters, Senator Stabenow, Representative Slotkin and four other representatives to advocate for science funding.