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IKV has consistently pushed the boundaries of knowledge, fostered interdisciplinary collaboration, and driven progress in the dynamic field of plastics.

Scientists at King’s College London have unveiled a groundbreaking method for recycling single-use bioplastics, commonly found in disposable items like coffee cups and food containers. Published in Cell Reports Physical Science, the chemical recycling approach utilizes enzymes akin to those in biological laundry detergents to swiftly break down landfill-bound bioplastics within just 24 hours.

Research indicates that microplastics induce physiological and behavioral changes in aquatic organisms, impacting reproductive capabilities and overall fitness. Furthermore, microplastics serve as carriers for toxic chemicals, posing additional threats as they traverse through the food web.

McKinsey & Company’s projections indicate a significant challenge on the horizon: the demand for recycled PET is expected to outpace supply by 2030. This forecast raises crucial questions about the industry’s readiness to meet the escalating demand for sustainable packaging and products.

PET is widely used in beverage bottles and packaging, and grapples with persistent challenges in achieving high recycling rates in the United States. Despite its inherent recyclability, PET recycling rates remain relatively low, underscoring a complex interplay of factors.

Aquapak Polymers Ltd, a trailblazer in polymer-based material technologies, recently conducted a comprehensive study involving board directors and senior executives from prominent fashion brands in the UK, US, and Australia. This research provides valuable insights into the industry’s commitment to circular economy initiatives and sustainability leadership.

Experts recognize reusability models in packaging as a solution to minimize waste. McKinsey & Company’s use-case scenarios indicate that there are still challenges to resolve before realizing and scaling up the benefits.

The additive aids biodegradability by changing the polymer structure, converting it into a wax-like material after being exposed to light, water, moisture, and microbes.

Today’s flame-retardant technologies rely strongly on PFAS, but regulations around the globe are pushing the industry to find alternatives that aim to balance fire safety with environmental and health considerations.

Companies that produce Fluoropolymers may try to switch to PFAS-free solutions or ask for an exemption, which could be temporary.