The timing of this development is critical, as plastic pollution has become a significant global issue, with microplastics detected even in clouds.

Details of this new material are published in the journal Advanced Functional Materials, although a timeline for its commercialization remains unclear.

The plastic's ability to be melted into a liquid form and reformed into a solid significantly enhances its versatility and recyclability.

In its solid state, the material features neat cylindrical nanostructures approximately five nanometers thick, which is about twice the width of a DNA molecule.

The research team focused on optimizing 3D-printing techniques to enhance the flow of these liquid polymers, enabling the formation of effective nanostructures.

If the material is as scalable as claimed, it could play a crucial role in manufacturing advanced biomedical devices and wearable electronics.

This innovative plastic's reusability could potentially revolutionize industries that currently face limited recycling options for traditional plastics.

Overall, the ability to melt and reform this plastic presents a promising solution to address issues with current plastic recycling practices.

Researchers have developed an innovative 3D-printed plastic made from a thermoplastic elastomer that is both affordable and flexible.

This elastomer consists of various polymer molecules, resulting in a stretchable and recyclable material.