Now "Refer N Earn" Unlimited 🎉 $60 | Introducing "My Training - My Time" Talk or Chat with 24x7 supprt team for more information | Get 100% cashback* on training registrations every week | Save big! 1 year unlimited training for $3499 only!
image

Under-the-Radar Innovations in Chemistry, Part 4: Biobased Polymers – Building a Sustainable Plastics Future

What Are Biobased Polymers?
Biobased polymers (or bioplastics) are derived from renewable resources such as corn, sugarcane, and cellulose. Unlike traditional petroleum-based plastics, these materials often promise a reduced carbon footprint and, in some cases, improved end-of-life options like compostability or chemical recycling.


Why It’s Important

1.    Environmental Benefits: Switching to renewable feedstocks can lower greenhouse gas emissions and reduce fossil fuel reliance.

2.    Circular Economy Alignment: Many biobased polymers are either biodegradable or more easily recycled, aligning with global sustainability targets.

3.    Consumer Demand: Eco-conscious consumers and brand owners increasingly want “green” packaging and products. Meeting these demands can yield significant market advantages.


Real-World Example: NatureWorks and Braskem

·       NatureWorks: Produces PLA (polylactic acid) under the trade name Ingeo, made from corn starch in the U.S. They publish life-cycle assessments indicating that PLA production can emit up to 75% fewer greenhouse gases compared to traditional plastics.

·       Braskem: Manufactures “I’m Green” polyethylene from sugarcane ethanol in Brazil. Independent life-cycle analyses confirm its lower carbon footprint compared to petro-based PE.


Illustrative Example
Picture a consumer goods company looking to reduce the environmental impact of its shampoo bottle packaging. By opting for biobased polyethylene, the company not only cuts CO
emissions during polymer production but also offers marketing claims around sustainability, enhancing brand reputation and consumer loyalty.


Key Takeaway
Biobased polymers represent a compelling avenue for the industry’s transition toward a circular economy. While feedstock costs, infrastructure, and composting regulations remain challenges, successful commercial examples prove that scaling up these materials is both feasible and profitable.