Toggle Accessibility Tools

Related Stories

MSU 2017 team wins silver medal at synthetic biology competition MSU 2017 team wins silver medal at synthetic biology competition December 11, 2017

MSU’s second-ever iGEM team earned a Silver Medal for a new technology that can detect dangerous contaminants in the environment.

Managing photosynthesis' traffic jams Managing photosynthesis' traffic jams November 10, 2016

The Ducat lab has coaxed a lab-grown cyanobacteria to efficiently make and export sugar, a technique which could someday lead to greater biofuel production at lower cost.

Innovative PRL research impresses at international workshop Innovative PRL research impresses at international workshop July 26, 2016

PRL won two prizes at the 12th Workshop on Cyanobacteria, geared towards students and post docs. We interviewed our winners to find out what got them in science, and why their research is cool.

MSU students participate in premier synthetic biology competition

Concept drawing of cyanobacterial uses
Concept drawing of cyanobacteria engineered to create useful products.
By iGEM Team MSU

Guest post by Eric Young: Over ten years ago, an independent study course began at MIT revolving around an emerging idea in biology that perhaps living cells thoughts as small containers of defined parts, and perhaps engineering biology could eventually be as similar to as making a working circuit board or computer. This line of thought—now broadly referred to as the field of Synthetic Biology—and course eventually blossomed into an organization which spans the globe with thousands of participants. Known as the International Genetic Engineered Machine (iGEM) Foundation, this organization manages three main programs. This year Michigan State University fielded the first team in the competition segment of iGEM.

The overarching theme of the competition portion is building genetically engineered biological systems using standardized biological “parts.” Conceptually, one could think of these parts as no different than browsing the contents of a catalogue for a home improvement store; some parts act as fluorescent lights, others stitch differing parts together, and while even some behave as on/off switches. One ultimate goal for an iGEM competition team is to add characterized biological parts to the ever-growing catalogue found at the Registry of Standardized Biological Parts. Teams are sent a plethora of Registry Parts for use in their own project implementation. Another goal in the competition portion includes community outreach in the form of interactive education on iGEM and Synthetic Biology. Based on predefined criteria and critical evaluation by a panel of judges, teams can be awarded three medals (bronze, silver, and gold).

This year MSU presented its inaugural iGEM team, which placed their research focus on engineering and characterizing new parts for photosynthetic cyanobacteria. The team consisted of an assortment of four MSU Professors as advisees, one outside of MSU consultant, one PhD student mentor, and most importantly, three undergraduate students.

After several rounds of brainstorm meetings, the undergraduate students—from diverse backgrounds in material science engineering, food science, and biochemistry—decided to pursue a project centered on engineering cold and freezing adaptation to cyanobacteria. Engineering cold and freezing resistance is important since cyanobacteria are being touted as an increasing viable “green” option for production of chemical commodities and other industrially relevant materials, yet most industrially relevant strains lack any strong resilience to drops in temperature.

Concept of "Frosty the Cyano" project
"Frosty the Cyano" concept.
By iGEM Team MSU

After months of hard work and troubleshooting, MSU’s iGEM team—dubbed Frosty the Cyanos—time had come to prepare for traveling to the international iGEM Jamboree held in Boston, MA. This was where the team would demonstrate to the iGEM community the results of their project. This encompassed a 20-minute presentation to iGEM peers and judges, followed by a questioning session, and nightly talks in front of a poster comprising their research.

After a whirlwind weekend of science, MSU’s Frosty the Cyanos were well received by the iGEM community, and a bronze medal was awarded for the contribution of a brand new cyanobacterial part to the Registry! Part of the bronze medal award included recognition for team’s community outreach at Lansing’s Impression 5 Science Center. Special recognition was also given for the team’s development of a very low-cost, “DIY” cyanobacterial bioreactor for growing cyanobacteria in a continuous culture. Engineering cheaper alternatives to expensive lab equipment is important because it lowers the economic barriers associated with Synthetic Biology and it brings the capacity to do science to communities that might otherwise be priced out.

Reflecting on the experience, MSU’s inaugural iGEM team learned the ropes for making a successful iGEM team and aim to apply these insights towards the team next year. More importantly though, the undergraduate students gained a new appreciation for the developing field of Synthetic Biology and the importance of scientific communication to a wide variety of audiences.

Eric Young

Eric Young is a 4th year graduate student in the Department of Biochemisty & Molecular Biology who works in the Ducat lab. He was an advisor to the 2016 MSU iGEM team.

Top Stories

Plant protein helps control both chloroplast's chemistry and lipid membrane Plant protein helps control both chloroplast's chemistry and lipid membrane

The protein, peroxiredoxin Q, is known to maintain a healthy balance of chemicals and energy levels in chloroplasts. The new research shows the protein also impacts the system that produces chloroplast membranes.

Leaf under attack from bacteria? One way plants stop the spread of infection Leaf under attack from bacteria? One way plants stop the spread of infection

The CAMTA system - which is known to protect plants from cold weather - plays a newly discovered role: when bacteria invade a leaf, CAMTA warns neighboring, unaffected leaves to prepare for invasion.

A protein lulls algae to 'sleep', and what that means for making green fuels A protein lulls algae to 'sleep', and what that means for making green fuels

When algae get stressed, they hibernate and store energy in forms that we can use to make biofuels. Understanding how stress impacts algal hibernation could help scientists lower the cost of biofuels production.