People

Lithium-ion batteries represent the foundation of modern energy storage systems, powering everything from small electronic devices to electric vehicles (EVs). Their high power density, durability, and efficiency make them indispensable in our increasingly electrified world. Yet, their inherent flammability and potential for explosive reactions under certain conditions pose significant safety risks.

The petrochemical industry, a vital yet often underappreciated player in the global energy landscape, is undergoing transformative changes. This sector is now the fastest-growing demand driver for global energy.

Microplastics, particles measuring less than 5 mm in length, have emerged as a pressing environmental concern, necessitating a detailed examination of their impact and ecological repercussions, but do microplastics in bottled water come from plastic bottles themselves?

The worldwide market for flame retardants has the potential to grow significantly in the constantly evolving field of fire safety, with projected expansion persisting into the near future.

The transition from vehicles powered by internal combustion engines to those propelled by electric machines is a reality, and an increasing number of car manufacturers worldwide are accelerating their transition to meet not only government regulations but also the expectations of their customers.

As scientists, we must look for the truth, but sometimes this truth can be interpreted differently depending on how our investigation scope was developed. I think this is the case of the recent study that found hundreds of thousands of nanoplastics in bottled water.

Companies worldwide are gathering efforts to develop flame retardant systems based on renewable sources providing an eco-friendly alternative to halogenated flame retardants. Additives with flame-retardant properties, such as phosphorus-based compounds, can chemically modify carbon sources like cellulose, chitosan, and lignin. This results in the successful design of intumescent flame retardants for use in many applications.

Plastic materials selection involves choosing materials that meet some important characteristics like performance, cosmetics, and costs. But there is not a playbook for doing materials selection. On the contrary, this means doing some property research, taking into account product lifetime and even in some cases, regulation.

The diagnosis and monitoring of extrusion processes have historically relied on rule-based algorithms. While effective for many years, this conventional approach faces inherent limitations. These limitations include a restricted number of controllable parameters, vulnerability to irrelevant outliers, and heightened complexity in systems with extensive degrees of freedom.

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.

Specialized equipment that enhances skin recovery in chronic wounds usually needs biocompatible, sterilizable, and durable materials. For this reason, Vaporox developed the VHT-200 to foster revascularization and tissue growth in chronic skin wounds using a high-tech polycarbonate. Tailored for clinic and physician office use, the medical device required a robust material for its vaporizer component. Due to the device’s significance, technical support from the plastic supplier was a crucial factor in the decision-making process.

PUMA launches RE: FIBRE program which aims to include materials from a fiber-to-fiber recycling process instead of using recycled PET from other applications. The RE: FIBRE process utilizes textile waste as its main material source.