The world of bio-plastics (PLA) is not standing still. Every day, every week, and every month new ideas are developed and new products are created, materials, and methods to make the world more sustainable.
The purpose of the blogs is to familiarize you as a reader with bio-plastics, in particular PLA, and the existing and new applications that exist.
Every day we are busy developing new ways to make our products even better. Together with our partners all over the world, we are making great strides.
There are several other topics that we would like to tell you more about. Some groundbreaking, others more general, but no less important. So keep coming back to the blog page and see what’s new.
The aim of the present PET – PLA bottle HPP treatment study is to assess the use of polylactic acid (PLA) bottles as an alternative to PET ones for high-pressure processing (HPP) of apple juice.
PLA and the circular economy, so-called “waste streams” and products at the end of their useful life form the basis for new ones products, instead of being thrown away.
Bioplastics fit well in a circular economy, especially if they are recycled as much as possible at the end of their lifespan (CE Delft, 2017a). Some bioplastics, such as bio-PET and bio-PE, are already partially recycled.
Dutch tv program about compostable packaging. (Dutch with English subtitle)
We make bottles differently. We use plant-based material. Not the toxic fossil plastic made from oil, sugarcane is our resource.
The study compares the environmental impacts of 500 ml water bottles produced from corn-based polylactide – Poly lactic acid (plant-based bottles) and PET.
Biodegradable water bottles from PLAbottles.eu are, as far as we know, the only bottles that are completely 100% plant-based. We have a bottle, CAP, and label that is made from 100% plant-based material.
The aim of this work is twofold: first, to analyse what might be the best end-of-life (EOL) option for PLA food packaging with food content and second, to determine which life cycle stage has the biggest impact.
This study aims to calculate the water and land footprint of bioplastics in several scenarios where all plastics are bio-based and assume different types of biomaterials and recycling rates.
In this debate it is brought forward that it is still unclear whether the disintegration rate of compostable products would be sufficient to be compatible with the current GFT treatment practice in the Netherlands.
ASTM D6400 is the standard specification for solid material biodegradation (by composting) required for the labeling of plastics designed to be aerobically composted in municipal or industrial facilities.