comparemela.com

Latest Breaking News On - பொருட்கள் அறிவியல் பிரிவு - Page 4 : comparemela.com

Study Reveals Key Atomic-Scale Mechanism Involved in Crystal Growth

Study Reveals Key Atomic-Scale Mechanism Involved in Crystal Growth Written by AZoMMay 27 2021 With attractive shapes and vivid colors, a majority of crystals are undoubtedly the wonders of nature. A few crystals are also wonders of science, with revolutionary applications in optics and electronics. Therefore, identifying an optimal way to grow these crystals is crucial to more advancements. Schematic of microbeam surface X-ray scattering during growth of gallium nitride crystal at high temperature. Image Credit: Argonne National Laboratory. Researchers from the Argonne National Laboratory of the U.S. Department of Energy (DOE), together with three universities, have shed new light on the mechanism behind the growth of gallium nitride crystals at the atomic scale.

Going Beyond Qubits: New Study Demonstrates Key Components for a Qutrit-Based Quantum Computer

Going Beyond Qubits: New Study Demonstrates Key Components for a Qutrit-Based Quantum Computer A team led by physicists at Lawrence Berkeley National Laboratory (Berkeley Lab) and UC Berkeley has successfully observed the scrambling of quantum information, which is thought to underlie the behavior of black holes, using qutrits: information-storing quantum units that can represent three separate states at the same time. Their efforts also pave the way for building a quantum information processor based upon qutrits. The black hole information paradox The new study, recently published in the journal Physical Review X, makes use of a quantum circuit that is inspired by the longstanding physics question: What happens to information when it enters a black hole?

Improved Desalination Process Also Removes Toxic Metals to Produce Clean Water

Date Time Improved Desalination Process Also Removes Toxic Metals to Produce Clean Water UC Berkeley chemists synthesized a flexible polymer membrane incorporating nanoparticles called “porous aromatic frameworks.” The membrane selectively absorbs nearly 100% of metals such as mercury, copper, or iron during desalination, more efficiently producing clean, safe water. The membrane can incorporate a single type of tuned nanoparticle if the metal is to be recovered – or several different types, each tuned to absorb a different metal or ionic compound if multiple contaminants need to be removed in one step. (Credit: Adam Uliana/UC Berkeley) Adapted from UC Berkeley news release by Robert Sanders

© 2024 Vimarsana

vimarsana © 2020. All Rights Reserved.