Materials Science

Six‑Layer Graphene Reveals Unusual Quantum States

Carbon Ribbons Break the Metal Ceiling in Microelectronics

Diamond Defects Validate 80-Year-Old Crystal Stress Theory

Nanoscale Alloy Breakthrough: Overcoming Cold Brittleness for Deep-Space Exploration

Molecular Innovations Reveal Mechanics of Crystal Flexibility

Materials Scientists Engineer Synthetic Thermal Insulator Surpassing Natural Limits

Agricultural Residue Reinforces Next-Generation Biodegradable Polymers

Room-Temperature Multiferroicity Unlocked Through Stacked Two-Dimensional Materials

Fifteen Years of Graphene Research Yields Industrial Thermal Fibers

Synthetic Physics Discovery Alters Understanding of Superconducting Materials

Machine Learning Corrects Alloy Calculations To Predict Unexplored Metallic Structures

Subatomic Physics Breakthrough Unlocks Stable Wigner Solids via Targeted Defects

Quantum Leap in Superconductivity Achieved Through Controlled Material Disorder

Vapor-Phase MXene Synthesis Opens New Horizons for Advanced Nanomaterials

Acoustic Breakthrough Accelerates Metal Oxidation Through Ultrasonic Waves

Automated Discovery: Robotic Laboratories Revolutionize Materials Science Through On Demand Optics Experiments

Synthesis of Diamondiyne Yields Revolutionary Carbon Frameworks

Physics Discovery Challenges Orthodox Theories Of Charge Generation On Sliding Droplets

Molecular Innovation Emerges as Osaka Researchers Synthesize Spring-Like Crystals

Microbial Breakthrough Promises Petroleum Free Industrial Adhesives

Thermal Friction Control Achieved Through Mica Heating

Adaptive Crystal Technology Achieves Selective Carbon Capture and Molecular Sorting