PIPages
Labs

Bradley Olsen

Massachusetts Institute of Technology, MA·Materials Science

Plastics and other materials are hard to design with data, because results are scattered across papers and labs. This problem is especially acute for polymers, which are long-chain molecules that standard chemistry databases describe poorly.

Fields

Materials Science

Chemistry

Engineering

Topics

polymer informatics

cheminformatics

materials data

Grants
2 known grants, through Sep 2030

What they work on

  1. Extend the CRIPT polymer data platform into CRIMaC, a broader chemistry and materials data system, by expanding BigSMILES notation to biochemistry, simulation data and hybrid organic–inorganic materials.
  2. Develop interactive "graph as comment" data visualization using Vega-Lite, letting domain experts discuss shared data directly through graphical objects.
  3. Ensure the trustworthiness of user-contributed data with a four-part validation scheme: rule-based checks, transparent provenance, AI-driven outlier detection and crowdsourced validation.
  4. Synthesize poly(glycolic acid) with controlled architectures and use AI-guided design to propose related degradable polymers for oxygen-barrier packaging.
  5. Establish quantitative links between molecular structure, processing and properties of PGA-based materials, and use genetic algorithms to optimize multilayer flexible packaging for specific applications.

More about the research

The two projects connect data science with materials chemistry. One builds shared infrastructure for chemistry and materials data. The other applies data-driven design to a pressing problem: sustainable food packaging.

Why it matters

Single-use food packaging is a major source of plastic waste. Degradable, high-performance oxygen-barrier materials based on PGA could help replace current packaging while still protecting food. More broadly, a trustworthy shared data platform could help chemists and materials researchers find data faster and feed reliable data into AI, machine learning and automated experiments.

Known grants

From NIH and NSF research grants. Labs often have other funding we can't see.

Frameworks: The Community Resource for Innovation in Materials and Chemistry (CRIMaC)

NSF · Oct 2025 – Sep 2030

MFS-SPEED: Data-Driven Discovery of Oxygen Barrier Materials for Sustainable Packaging

NSF · Sep 2025 – Aug 2028

Closest labs

Brent Sumerlin

University of Florida, FL·Chemistry

Develop pendant squarate esters as a new catalyst-free bond-exchange chemistry for vitrimers, reshapable crosslinked polymers that flow when heated.

Aboulfazl Barati

Troy University, AL·Materials Science

Establish quantitative relationships between internal material architecture and water transport, swelling and mechanical stability in scaffold-confined soft polymer systems made from mixed recycled feedstocks.

James Sheehan

University of Alabama, AL·Materials Science

Measure and model how fast aliphatic and aromatic bio-derived solutes adsorb onto cellulose fibers during supercritical CO2 impregnation, using quartz crystal microbalance (QCM-D) measurements under varied process conditions.

The school

Massachusetts Institute of Technology: 25 labs on PI Pages, $1.1B a year on research, 692 research doctorates a year.

More about Massachusetts Institute of Technology

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