Aerogels: understanding the lightest materials in the world

Advanced materials shape the modern world with an unceasing quest for lightness and performance. Among them, aerogels hold a remarkable place, representing a fascinating paradox: a solid almost as light as air, endowed with extreme porosity and excellent thermal insulation capabilities. Initially developed in the 1930s, these nanostructured materials now reveal revolutionary potential across numerous … Read more

Thermoelectric materials: recovering energy from lost heat

Thermoelectricity represents a technology with immense potential, offering a tangible solution to convert wasted heat into a sustainable and renewable energy source. In a context where energy efficiency has become a global priority, the ability of thermoelectric materials to convert temperature differences into electricity opens new avenues for energy recovery across various industrial and domestic … Read more

Conductive polymers: when plastics become electric

Conductive polymers represent a major revolution in the field of organic materials. These “electric plastics,” capable of conducting electrical current while maintaining the characteristic flexibility of polymers, open exciting prospects for the future of electronics and advanced technologies. The discovery in the 1970s that certain polymers could become as conductive as metals through a doping … Read more

Liquid crystals: between solid and liquid, understanding their applications

Liquid crystals represent a fascinating area of modern physics, embodying a state of matter at the boundary between solid and liquid states. Their discovery, over a century ago, opened a new era in the understanding of intermediate mesophases, marked by complex molecular order while retaining relative fluidity. These hybrid substances, neither quite liquid nor completely … Read more

Shape memory alloys: understanding smart materials

Shape memory alloys represent a major advancement in the field of smart materials, fascinating researchers and engineers for decades. These materials, capable of returning to their original shape after deformation, not only transform the design of mechanical devices but also push the limits of modern technology, offering innovative solutions in various sectors. In 2025, their … Read more

The piezoelectric materials: converting motion into electricity

Piezoelectric materials embody a fascinating technology at the intersection of motion and electricity, transforming physical phenomena into usable energy sources. In a world seeking sustainable innovation, these substances stand out for their ability to convert mechanical deformations into electrical signals. Since the discovery of the piezoelectric effect by the Curie brothers in 1880, this property … Read more

Metamaterials: controlling light in a way that is impossible in nature

In recent years, the field of metamaterials has revolutionized our understanding and ability to manipulate light in ways that nature itself does not offer. Unlike traditional materials, these artificial composites are designed to possess unprecedented optical properties, thus paving the way for advanced technologies in nano-optics and photonics. Thanks to carefully architected periodic structures, it … Read more

High-temperature superconductors: eliminating electrical resistance

The scientific revolution surrounding high-temperature superconductors is currently at the forefront of energy and electronic technology development. The ability of these materials to eliminate electrical resistance opens up an unprecedented field of innovations. Unlike conventional metals, where resistance leads to energy loss, superconductors allow for the almost perfect transport of electric current, thus ensuring considerable … Read more

Graphene in 2025: Revolutionary applications of the miracle material

Graphene, a material with exceptional properties, establishes itself in 2025 as a true catalyst for the technological revolution. Its unique structure, made up of a single atomic layer of carbon arranged in a hexagonal lattice, gives it extraordinary flexibility, conductivity, and strength. These characteristics pave the way for innovative uses across a multitude of industrial … Read more

Majorana fermions: particles that are their own antiparticles

In the mysterious depths of particle physics, Majorana fermions hold a special place. These particles, unique in their kind, challenge classical understanding by being their own antiparticle — a characteristic that upends the traditional view of matter and antimatter. From the development of their theory by Ettore Majorana in the 1930s to recent experimental advances, … Read more