Tag: Materials Science
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Quantum Simulation Breakthrough: 1.2-Second H₂ Profiles Using Ising Machines
Overview: A New Pace for Molecular Simulation In the race to make quantum simulations practical for chemistry, a recent study pushes the envelope by producing hydrogen molecule (H₂) profiles in about 1.2 seconds using Ising machines. This marks a notable step forward in quantum-inspired computing, where specialized hardware mimics key aspects of quantum systems to…
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From Rubber to Rockets: Cosmic Coat Shields Medicines in Space
Overview: A Practical Solution for Space Tourism and Exploration As space agencies and private ventures eye extended stays and travel beyond Earth orbit, protecting the integrity of medicines becomes as crucial as safeguarding astronauts. A cross-border collaboration between Sunway University in Malaysia and Monash University Malaysia has introduced a promising material that could preserve the…
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From Rubber to Rockets: Malaysia’s Cosmic Coat Shields Medicines from Space Radiation
From Rubber to Rockets: The Cosmic Coat Breakthrough In a bold stride toward sustainable deep-space exploration, researchers from Sunway University and Monash University Malaysia have unveiled a novel material designed to shield medicines from the harsh radiation of outer space. The project, nicknamed the “Cosmic Coat,” blends advanced polymers with radiation-absorbing additives to create a…
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From Rubber to Rockets: The Cosmic Coat Protecting Medicines in Space
Overview: A New Shield for Spacebound Medicines As humanity maps longer voyages beyond Earth, safeguarding the integrity of medicines becomes as crucial as shielding astronauts. A collaborative effort between Sunway University and Monash University Malaysia has yielded a novel solution: the Cosmic Coat, a radiation-shielding coating designed to protect pharmaceutical products in space environments. This…
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Machine Learning Achieves 95% Accuracy In Optimized K-Point Mesh Generation For Quantum ESPRESSO
Overview: Bridging ML and Quantum ESPRESSO for efficient DFT Density functional theory (DFT) is a cornerstone of modern materials science, enabling researchers to predict properties and behaviors of complex systems. Yet, the accuracy and efficiency of DFT calculations depend heavily on the choice of computational settings, especially the k-point mesh used to sample the Brillouin…
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3D-Printed Helixes Pave the Way for THz Optical Materials in Next-Gen Telecom
Introduction: A Terahertz Gap Gets Narrower Researchers at Lawrence Livermore National Laboratory (LLNL) are advancing a promising solution to the long-standing terahertz (THz) gap that hampers next-generation telecommunications. By designing, optimizing, and 3D-printing helical structures, LLNL scientists are crafting optical materials that can manipulate THz waves with unprecedented control. This approach could unlock faster data…
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3D-Printed Helixes Promise THz Optical Materials for Next-Gen Telecommunication
Overview: 3D-Printed Helixes and THz Photonics Researchers at Lawrence Livermore National Laboratory (LLNL) have made a notable stride in the field of photonics by optimizing and 3D-printing helix-shaped structures as optical materials for terahertz (THz) frequencies. Terahertz technology sits at the boundary between microwave and infrared light, offering the potential to boost data speeds in…
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Breaking Ground: Recycled Sand and Gravel Could Extend Building Lifespans
Rethinking Construction Waste In a world increasingly focused on sustainable development, a breakthrough from Chinese researchers is turning demolition debris into a new backbone for modern buildings. By repurposing sand and gravel recovered from demolished structures, scientists are creating materials that not only reduce waste but also enhance the longevity of new construction. This approach…
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What Makes a Good Proton Conductor? Key Factors for Efficient Proton Transport
Introduction: Why Proton Conductors Matter Proton-conducting materials are central to a range of technologies, from fuel cells and electrolyzers to emerging low-power electronics. The efficiency, durability, and cost of these devices hinge on how well protons can move through a material. A good proton conductor strikes a balance between high proton mobility, chemical stability, and…
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What makes a good proton conductor? Key properties and design principles
Introduction Proton conductors are the backbone of many clean-energy technologies, including fuel cells, electrolyzers, and emerging low-power electronics. A good proton conductor combines high proton mobility with stability under operating conditions. It also maintains compatibility with device architectures, manufacturability, and long-term durability. Here, we unpack the core properties that define effective proton conductors and how…