Can we improve the quality of compostable, plant-based plastics?

ChemistryMaterials Science
DOI: 10.18258/17250
$1,936
Raised of $1,636 Goal
118%
Funded on 2/21/21
Successfully Funded
  • $1,936
    pledged
  • 118%
    funded
  • Funded
    on 2/21/21

About This Project

Compostable plastics, such as polylactic acid (PLA) cannot withstand high temperatures compared to traditional plastics. As such, PLA is not used for things such as disposable coffee cups, straws, plates, etc. Combining inorganic compounds with PLA should improve its physical properties, possibly improving heat resistance and overall strength. With this experiment, I will more thoroughly test this new material to establish if it can be a new, greener plastic option for manufacturers.

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What is the context of this research?

Compostable plastics, such as polylactic acid (PLA) cannot withstand high temperatures compared to traditional plastics. This limits the range of applications that PLA can be used for- especially for uses such as disposable food storage. By combining organic compounds (PLA) with natural inorganic compounds such as Calcium Hydroxide, I have developed a promising new material, "hi-temp PLA" or "hPLA". This new material has a higher Glass Transition Temperature point- so it retains its form under higher heat than PLA. This opens up applications for use as food containers and other disposable products. This hPLA material may allow plastics manufacturers to use greener, biodegradable plastics in a variety of applications that were previously off limits.

What is the significance of this project?

More than 300 million tons of plastic are produced per year, and that number is increasing. The same research indicates only 14% of that plastic is recycled- the rest is left to choke our planet's landfills and oceans.

The hope is that hPLA becomes a viable, "greener" alternative to more commonly used plastics that are regularly thrown away. Single-use plastic for packaging represents close to 40% of the total plastic produced. Items such as hot cups, utensils, and microwavable containers are prime applications for hPLA as a replacement for non-compostable plastic.

Beyond plastics, one hopes that this novel method of combining organic and inorganic chemistry can lead to a wide variety of material property manipulation- far beyond the scope of this experiment.

What are the goals of the project?

The goal of this project is to collect rigorous data regarding this new material. I will work with a commercial lab to conduct Differential Scanning Calorimetry. This test will provide data on hPLA's heat resistance, giving us a better understanding of how much heat it can take before losing shape and melting. We will also conduct Tensile Strength analysis to determine the physical strength and flexibility of the material, giving us more data about its brittleness and overall usability. The intent of this data collection is to better understand this new material, and to assess its viability to be used as a "green" alternative for plastic products that encounter higher temperatures - typically the domain of plastics that are not eco-friendly.

Budget

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These tests should determine the viability of this "high temp" PLA material as a medium for food containers and other products. These tests will establish the material's glass transition temperature, melting temperature, tensile modulus, and a few other key physical properties. I have conducted some basic tests with my home lab during the development of this material- but this funding would be used to enlist the help of a more fully equipped facility to collect this data.

Endorsed by

I am excited about this project. If successful, this plastic will fulfill a critical ecological niche - the need for a easily biodegradable plastic. Without such a product society will have to reduce its use of consumable plastics, which would be a huge economic burden. The lead researcher has a proven track record in devising innovative approaches to seemingly intractable technical challenges.

Flag iconProject Timeline

The process to create hPLA has already been established, and this project is primarily focused on data collection around the existing material. I intend to work with a commercial lab to conduct Differential Scanning Calorimetry (DSC) and Tensile strength analysis (TS) around January 2021 and will share the results once they are available.

Jan 22, 2021

Project Launched

Apr 05, 2021

Differential Scanning Calorimetry

Apr 12, 2021

Tensile strength analysis 

Meet the Team

Mark Pilipski
Mark Pilipski
Organic Chemist

Mark Pilipski

Mark Pilipski is a synthetic organic chemist. He did his undergraduate work at William Paterson University and graduate studies at Rutgers the State University of New Jersey. He has held long term positions at Mount Sinai Medical Center, NYC as technical manager of the Clinical and Research Pulmonary Labs and as a Research Associate in the Department of Neonatology of Beth Israel Medical Center, Newark, NJ. He is the author and co-author of several chemical patents aimed at cleaning up our environment. He lives in the rural town of Westbrookville, NY.

Additional Information

If these test results are promising, further experiments at a later date will be conducted to determine hPLA's biodegradability and compostability. The base material, PLA, is known to be compostable. The process to create hPLA uses Calcium Hydroxide (slaked lime), which should not change the compostability of the final material.


Project Backers

  • 25Backers
  • 118%Funded
  • $1,936Total Donations
  • $77.44Average Donation
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