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Material science innovations often dwell in the shadows of mainstream media but their impact on modern society is usually profound. Greater computing speed based on semiconductors has powered innovation such as cell phones, supercomputers, AI, and bitcoin mining. Although the material they created here in this paper is impressive, the hidden star of the show is the novel PROCESS they came up with to build this material - molecular beam epitaxy. This novel process deposits precise amounts of material in precise locations to create highly ordered crystalline structure. This is some impressive applied nanotechnology. Think of it as 3D printing at the atomic level - look for more applications of this process to innovate new directions like wearable nanotech. As for this new created material, ternary tetradymite, this should be another game changer in computing, reducing heat waste and speeding up the flow of electrons to process yet even more information faster. #nanotechnology #materialstodayphysics #wearablenanotech

Nanoelectronics refers to the use of nanotechnology in electronic components. The term covers a diverse set of devices and materials, with the common characteristic that they are so small that inter-atomic interactions and quantum mechanical properties need to be studied extensively. Some of these candidates include: hybrid molecular/semiconductor electronics, one-dimensional nanotubes/nanowires (e.g. silicon nanowires or carbon nanotubes) or advanced molecular electronics. Nanoelectronic devices have critical dimensions with a size range between 1 nm and 100 nm.Recent silicon MOSFET (metal–oxide–semiconductor field-effect transistor, or MOS transistor) technology generations are already within this regime, including 22 nanometers CMOS (complementary MOS) nodes and succeeding 14 nm, 10 nm and 7 nm FinFET (fin field-effect transistor) generations. Nanoelectronics is sometimes considered as disruptive technology because present candidates are significantly different from traditional transistors.Besides being small and allowing more transistors to be packed into a single chip, the uniform and symmetrical structure of nanowires and/or nanotubes allows a higher electron mobility (faster electron movement in the material), a higher dielectric constant (faster frequency), and a symmetrical electron/hole characteristic. Also, nanoparticles can be used as quantum dots. #snsinstitutions #snsdesignthinkers #designthinking

Day 2 Embarking on a journey through the realm of nanoelectronics and nanomaterials is akin to delving into a fascinating world where the rules of classical physics often blur, and the potential for technological innovation seems boundless. Here's a breakdown of what to expect along this captivating voyage: Top to Bottom and Bottom to Top Nanoelectronics: Prepare to explore the intricacies of scaling down electronic components from the top-down approach, where larger structures are miniaturized, to the bottom-up approach, where individual atoms and molecules are manipulated to create nanoscale devices. This journey will involve understanding the challenges and breakthroughs in fabrication techniques. 0D to 2D Nanoelectronics: Transitioning from zero-dimensional (0D) to two-dimensional (2D) nanoelectronics will unveil the versatility and unique properties of nanomaterials. From quantum dots to graphene, this segment of the journey will explore how materials behave differently at the nanoscale, offering unprecedented opportunities for designing novel electronic devices with enhanced functionalities. Nanomaterials Synthesis, Characterization, and Optimization: Dive deep into the synthesis methods of nanomaterials, spanning from chemical vapor deposition to sol-gel processes. Along the way, learn how advanced characterization techniques, such as transmission electron microscopy and atomic force microscopy, provide insights into the structural and electronic properties of nanomaterials. Optimization strategies will be crucial to harnessing the full potential of these materials for various applications. Non von Neumann Computation (Quantum Computing): Brace yourself for a paradigm shift in computing as you explore the realm of non von Neumann computation, particularly quantum computing. Delve into the principles of superposition and entanglement, which form the foundation of quantum mechanics, and grasp how qubits revolutionize information processing by performing multiple calculations simultaneously. This segment promises to challenge traditional notions of computing and inspire futuristic technological advancements. Application of Nanosensors: Conclude your journey by examining the diverse applications of nanosensors, which leverage the sensitivity and specificity of nanomaterials to detect and analyze various physical and chemical phenomena. From biomedical diagnostics to environmental monitoring, nanosensors offer unprecedented capabilities for real-time, high-resolution sensing, paving the way for transformative solutions in healthcare, agriculture, and beyond. In navigating through these realms of nanotechnology, one often encounters references to the International Technology Roadmap for Semiconductors (ITRS). So, buckle up and prepare to embark on a journey where the boundaries of possibility blur, and the horizon of technological advancement stretches ever further. #50daysNanotechnology @ieee eds @ieee nanotechnology

"Cornell scientists have developed a novel technique to transform symmetrical semiconductor particles into intricately twisted, spiral structures—or "chiral" materials—producing films with extraordinary light-bending properties. The discovery, detailed in a paper in the journal Science, could revolutionize technologies that rely on controlling light polarization, such as displays, sensors and optical communications devices. Chiral materials are special because they can twist light. One way to create them is through exciton-coupling, where light excites nanomaterials to form excitons that interact and share energy with each other. Historically, exciton-coupled chiral materials were made from organic, carbon-based molecules. Creating them from inorganic semiconductors, prized for their stability and tunable optical properties, has proven exceptionally challenging due to the precise control needed over nanomaterial interactions." #materialscience #twistedlight

🌟 Exciting News in Nanotech. 🌟 Researchers at Bilkent University have achieved unprecedented nanostructuring inside silicon wafers, a breakthrough with immense implications for electronics and photonics industries. The team's innovative technique, featured in Nature Communications, allows for controlled fabrication of nanostructures buried deep within silicon with remarkable precision. 🧐🔬💡 #Nanotechnology #Physics #Astronomy #Chemistry #Biology #Innovation This groundbreaking research paves the way for new possibilities in nanophotonics, metasurfaces, and information processing applications. The team's approach, based on spatial beam modulation and anisotropic seeding, enables high-resolution nanostructuring beyond the diffraction limit, opening doors to 3D integrated electronic-photonic systems. 🌌🔍🔧 #Research #Technology #Future Prof. Tokel shared his enthusiasm, stating, "Our findings introduce a new fabrication paradigm for silicon." He continued, "The ability to fabricate at the nano-scale directly inside silicon opens up a new regime, toward further integration and advanced photonics. We can now start asking whether complete three-dimensional nano-fabrication in silicon is possible. Our study is the first step in that direction." **3 Reasons This Discovery Could Impact Our Future:** 1. **Revolutionize Electronics:** The ability to fabricate nanostructures inside silicon wafers with unprecedented control could lead to the development of more advanced electronic devices with enhanced capabilities. 2. **Enhance Photonics Technology:** By achieving feature sizes down to 100 nm and enabling precise control over nanostructures, this breakthrough could revolutionize the field of photonics, leading to the creation of novel photonic elements with high diffraction efficiency. 3. **Enable 3D Integrated Systems:** The potential for complete three-dimensional nano-fabrication within silicon opens up possibilities for the integration of electronic and photonic systems in a way that was previously unattainable, paving the way for future advancements in technology and communication. For more details on this groundbreaking discovery, check out the article below originally appearing in Nature Communications: https://lnkd.in/gaH5-gm5 Let's celebrate the power of nanotechnology and the endless possibilities it brings. 🚀💫💻 #NanotechPower #InfinitePossibilities What are your thoughts on this remarkable achievement? How do you think it will impact the future of technology? 🤔💬👩💻

Nanotechnology is a fascinating field that operates at the scale of atoms and molecules, opening up new possibilities in science and innovation. From creating materials with extraordinary properties to advancing medicine, electronics, and energy solutions, it’s reshaping how we approach some of the world’s biggest challenges. The scale might be tiny, but the impact is massive. . . . #Nanotech #FutureTech #Innovation #Nanotechnology #Nanoscience #Nanomaterials #NanoResearch #NanotechTrends #NanoApplications #Semiconductor #Microchip #ExtremeUltraviolet #EUV #Photolithography #SemiconductorIndustry #AI #QuantumComputing #Technology #Computer #Electronics #Biotechnology #Microelectronics #Optoelectronics #SiliconWafer #Intel #DigitalDevice #ChipIndustry #NeutronixQuintel

Nanocircuitry refers to electronic circuits constructed using nanoscale components and materials. It represents a significant advancement in electronics and nanotechnology, enabling the creation of extremely small and efficient circuits with potential applications in various fields, including computing, communications, and medical devices. Nanocircuitry leverages the unique properties of materials at the nanoscale to achieve high performance and integration density that are not possible with traditional microelectronics. Website : sciencefather.com  Nomination : Nominate Now Registration : Register Now Contact us : nanoenquiry@sciencefather.com #Sciencefather#researchawardsProfessor,#Lecturer,#Scientist,#Scholar,#Researcher,#Nanocircuitry#Nanoelectronics#Nanotechnology#Nanoengineering#Nanomaterials#QuantumDots#Graphene#CarbonNanotubes#Nanoscale#Microelectronics#Nanocomponents#AdvancedElectronics#Miniaturization#HighPerformanceComputing#WearableTech#NanoDevices#NanoIntegration#ElectronicInnovation#FutureTech#NanoTechRevolution

🔬 Shattering Silicon's Boundaries: Bilkent's Nanotech Wizardry Unleashed! 🌌 Prepare to have your mind blown, fellow tech enthusiasts! A maverick team from Bilkent ��niversitesi has just pulled off a feat that will redefine the boundaries of nanoengineering within silicon – the backbone of our electronic marvels. Imagine this: intricate, ultra-precise nanostructures not just etched on silicon's surface, but buried deep within its crystalline depths. Yes, you read that right – we're talking about an unprecedented level of three-dimensional control over the most fundamental material in the digital age! How did they achieve this cosmic-level sorcery, you ask? By harnessing the power of specially crafted laser pulses and a phenomenon called "anisotropic seeding," these nanotechnology trailblazers have unlocked the ability to sculpt silicon at scales as tiny as 100 nanometers – an entire order of magnitude beyond current limits! But that's not all, folks! The potential applications of this breakthrough are mind-boggling. From buried nanophotonic elements and metasurfaces to futuristic 3D integrated electronic-photonic systems, the possibilities are virtually limitless. So brace yourselves, tech junkies, because the silicon revolution is about to enter a whole new dimension, courtesy of the masterminds at Bilkent University. Get ready to witness the birth of a new era in nanoengineering and witness the boundaries of the "final frontier" being pushed further than ever before! #NanoEngineering #Semiconductors #SiliconNanotech #BilkentUniversity #3DNanostructures #AnisotropicSeeding #NextGenMaterials https://lnkd.in/esg-sjm5

Electrons in CNTs and Electromagnetic Influence: A Complex Interaction Electrons interacting with electromagnetic fields can influence the positioning and behavior of CNTs.** This interaction is fundamental to many applications of CNTs, particularly in nanotechnology and electronics. Key Mechanisms: * **Electrostatic Forces:** When a voltage is applied across a CNT, electrons are transported through it. This creates an electric field that can interact with other charged particles or objects in the vicinity. * **Magnetic Forces:** Applying a magnetic field to a CNT can induce a current within it, which in turn generates a magnetic field. This interaction can lead to forces that can move or position the CNT. * **Electromagnetic Radiation:** CNTs can interact with electromagnetic radiation, such as light or microwaves. This can result in changes in the CNT's electronic properties or physical structure. Applications: * **CNT-Based Devices:** These interactions are exploited in various CNT-based devices, such as: * **Transistors:** The movement of electrons in CNTs forms the basis of CNT transistors. * **Sensors:** CNTs can be used as highly sensitive sensors for various physical and chemical quantities. * **Actuators:** By controlling the flow of electrons through CNTs, it's possible to create nanomechanical actuators. * **Nanoelectronics:** CNTs are promising materials for future nanoelectronic devices due to their unique electrical and mechanical properties. * **Quantum Computing:** Entangled electrons in CNTs can be used as qubits in quantum computing applications. Specific Scenarios: * **CNT Batteries:** The movement of electrons in a CNT-based battery can generate an electric field that can influence the positioning of other CNTs in the battery. * **CNT-Based Mechanical Structures:** By carefully controlling the flow of electrons through CNTs, it's possible to create nanomechanical structures that can be manipulated using electromagnetic fields. * **Quantum Information Processing:** Entangled electrons in CNTs can be used to perform quantum information processing tasks, such as quantum computation and quantum communication. **In conclusion, the interaction between electrons in CNTs and electromagnetic fields is a complex and multifaceted phenomenon with numerous applications in nanotechnology and beyond.** The ability to control and manipulate these interactions is essential for developing novel devices and technologies.