A Scientific Research Vault
Two-dimensional (2D) semiconductors hold enormous potential to transform the future of electronics. However, their full potential is hindered by a major challenge: interface defects that form between the semiconductors and insulating layers, which degrade overall performance.
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I’m excited to introduce Dr. Fengxin Sun, an Associate Professor at the Key Laboratory of Eco-Textile, Ministry of Education, Jiangnan University in Wuxi, China. Dr. Sun completed his Ph.D. in textile materials at Donghua University in Shanghai in 2017 and spent time as a joint Ph.D. student at the Institute for Frontier Materials, Deakin University in Australia. His research covers a fascinating range of topics, from textile material evaluation and functional textile development to mechanical modeling and simulation of soft materials.
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Globally, electronics engineers are busy developing devices that are flexible, adaptable, and built for high performance. These devices are designed for real-world applications, including – robotics, healthcare and wearable technology. Similar efforts are underway in developing smart textiles as well. Interestingly, these fabrics can detect environmental changes or perform specific functions.
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We are constantly surrounded by electronics. From LEDs to batteries, these electronics have become part of our lives. And so, more advanced and intricate components are needed to make them more efficient and reliable. However, as these components become increasingly sophisticated, getting reliable temperature measurements of specific elements inside an object can be a challenge.
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I’m thrilled to introduce Dr. Boris Goncharov, a distinguished figure in the field of gravitational wave research. Currently, he is a Senior Scientist with the Pulsar Timing Array (PTA) group at the Albert Einstein Institute (AEI) in Hanover, Germany, where he is exploring the fascinating world of nanohertz-frequency gravitational waves.
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Of all the things in movie, Dune, I particularly got fascinated with the idea how the people used those suits to recycle sweat and urine into drinkable water. It got me thinking: why can’t we make this tech a reality? Well, it turns out researchers at Cornell University are on it! They’ve developed a prototype for a new urine collection and filtration system for spacesuits. Isn’t that awesome?
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It is my honor to interview Dr. Artem R. Oganov, a world-renowned scientist whose expertise spans chemistry, crystallography, mineralogy, and materials science. He is the winner of many awards, including the prestigious European Mineralogical Union medal. And since 2017, he has been a proud member of the European Academy of Sciences.
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Super-thin and flexible electronics are here to stay. This tech will not only create but it will also revolutionize the use of gadgets. Since, it leads to unlimited possibilities for innovative and practical applications. Some of the them include but not limited to – wearable tech, portability, healthcare applications, space probes etc.
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Scientists at the Sylvester Comprehensive Cancer Center, part of the University of Miami Miller School of Medicine, have crafted a tiny particle capable of crossing the blood-brain barrier. The team envision to tackle both primary breast cancer tumors and brain metastases in a single treatment. Their investigations indicate that this approach can reduce the size of both breast and brain tumors in lab experiments.
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Entity responsible for powering our cellular functions and in keeping us going is mitochondria. These powerhouses are little sausage-shaped organelles in most types of cells that have a nucleus. These organelles convert chemical energy from the food that we ingest into usable form of energy. This energy is termed as adenosine triphosphate (ATP). ATP is the fuel that we require to carry out the regular activities at cellular level.
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Researchers at the University of Cologne (UoC) have achieved a groundbreaking milestone by creating artificial nucleotides. Nucleotides forms the building blocks of DNA. So, if we go by the research, the innovative development will make way for potential advancements in genetic engineering as well as molecular biology.
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Imagine a world where AI computations are not bound by the limitations of traditional power sources, that is, electricity but by the power of light waves. This is precisely the vision that researchers at the University of Pennsylvania have brought to life with their innovative chip design. This innovation will not only enable the chip to fast-track the processing speed of computers but it will also lessen their energy consumption.
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Researchers at TU Dortmund University have achieved a breakthrough by creating a remarkably resilient time crystal. It exceeds the temporal stability observed in previous trials by millions of times. This accomplishment not only validates a captivating phenomenon proposed by Nobel Prize laureate Frank Wilczek approximately a decade ago but also echoes themes that have fascinated science fiction enthusiasts. The intriguing findings have been officially documented in the prestigious journal Nature Physics.
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Unlike robots, our bodies are super flexible and can make delicate moves effortlessly. Components like muscles, joints, and nerves work in tandem and allow us to make precise and delicate movements with ease. Robots, on the other hand, rely on rigid structures and predefined movements; in contrast, our bodies can adapt and respond dynamically to various situations.
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Quasicrystals are interesting materials since they defy regular atomic pattern. It’s non-repeating structure captivates researchers. Since, it leads to extraordinary properties. Thus, the exotic traits not only challenge the traditional material science views but the same also inspire countless innovations. However, there is a rebel in the family of quasicrystals, the Tsai-type icosahedral quasicrystal (iQC). It is a specific variant of quasicrystal with a unique atomic arrangement characterized by icosahedral symmetry. The symmetry involves a structure that resembles a 20-sided polyhedron.
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