Technologies

Magnetostrictive materials convert magnetic fields into precise mechanical motion, enabling advances in sensors, actuators, and energy harvesting. Learn how these smart materials outperform traditional systems in reliability, versatility, and performance for industrial and technological applications.

The growth of AI is now limited less by algorithms and hardware, and more by real-world constraints like power, cooling, and networking. This article explores how infrastructure has become the key bottleneck for scaling artificial intelligence and why physical and economic realities now shape the future of AI development.

Silicon carbide (SiC) and gallium nitride (GaN) are transforming power electronics by minimizing energy losses in transport and power grids. Discover how these wide bandgap semiconductors enable lighter, more efficient systems in electric vehicles, renewable energy, and smart grids, paving the way for a sustainable energy future.

Artificial intelligence is reshaping logistics by shifting from centralized management to distributed, self-organizing systems. Through multi-agent models, swarm intelligence, and predictive analytics, logistics networks become more resilient, adaptive, and efficient. This approach delivers real-time optimization, improved scalability, and greater flexibility to meet the challenges of modern, complex supply chains.

Zinc-ion batteries are emerging as a promising alternative to lithium-ion for stationary energy storage. Their unique chemistry offers improved safety, lower costs, and longer lifespans, making them ideal for power grids, renewables, and backup systems. Discover how zinc-ion technology addresses key challenges in modern energy infrastructure.

Ceramic Matrix Composites (CMCs) are transforming aviation, energy, and hypersonics with their exceptional heat resistance and damage tolerance. Unlike traditional ceramics, CMCs combine high-temperature performance with toughness, enabling more efficient, lighter, and longer-lasting engines and turbines. While manufacturing challenges and costs remain, CMCs are quickly becoming essential for next-generation aerospace and power systems.

District heating 4.0 revolutionizes urban energy by combining low-temperature supply, digitalization, and decentralization. This new approach reduces heat loss, enables integration of renewables, and adapts to real demand, making city heating more efficient and sustainable than ever before.

Self-healing materials, including polymers, composites, coatings, and concrete, are redefining durability in engineering by repairing microcracks and damage automatically. This article explores key self-healing mechanisms, their current industrial applications, limitations, and the future of these innovative materials in infrastructure, aerospace, and beyond.

Mechanochemistry is transforming industrial chemistry by enabling solvent-free, energy-efficient reactions driven by friction and pressure. This innovative approach streamlines production, reduces waste, and supports the development of advanced materials, pharmaceuticals, and catalysts while aligning with green chemistry principles. As equipment and methods advance, mechanochemistry is rapidly evolving into a key technology for sustainable chemical manufacturing.