Particle.news
Nanotechnology Composite Materials 3D Printing Battery Technology Polymers Adhesives Construction Materials Shape Memory Alloys Metamaterials Carbon Fiber Biomaterials Magnetic Materials Electrochemistry Sustainable Materials Additive Manufacturing Thermal Management Semiconductors Electrolytes Battery Materials Adhesive Technology Recycling Technology Batteries Nanomaterials Thermal Protection Silicon Materials Magneto-Optical Materials Protective Coatings Corrosion Engineering Surface Engineering Wire Technology Aerospace Materials Wooden Structures Coatings Crystal Technology Water Harvesting Liquid Crystalline Elastomers Silicone Materials 2D Materials Memory Devices Organic Electronics Quantum Dots Thermoelectric Devices Textile Engineering Lithium Tantalate Graphene Applications Asphalt Technology Bioinspired Materials Topological Materials Thin-Film Technology Quantum Materials Graphite High Thermal Conductivity Paper Durable Materials Elastic Materials Organic Crystals Self-Healing Materials Advanced Materials Shape Memory Materials Titanium Fabrication Fluidic Circuits Testing Procedures Material Properties Quantum Defects Polymer Engineering Superconducting Materials Carbon Fiber Technology Optoelectronics Semiconductor Materials Thin Films Surface Tension Metallurgy Lunar Materials 3D Printing Materials
The origami-inspired metamaterial demonstrates remote-controlled movement, thermoregulation, and potential for medical and robotics applications.
