Ecosystemic Futures’ Post

From Fringe to Frontier: Material Futures from UAP Stanford professor Dr. Garry Nolan reveals how UAP observations can refactor our approach to materials science. In this compelling episode, Dr. Nolan demonstrates how studying anomalous phenomena provides unprecedented insights, reshaping materials research and development. Drawing from his pioneering work in biotechnology and advanced analysis, he illustrates why incorporating UAP insights could accelerate technological breakthroughs in many domains and transform our understanding of what's possible. 📢 https://lnkd.in/eYJwwRRQ Highlights: 📌 How UAP research informs next-generation materials development 📌 Advanced analysis techniques revealing new scientific possibilities 📌 The convergence of materials science and anomalous phenomena 📌 Strategic implications for technological leadership 📌 Breakthrough private sector and academic opportunities in UAP-inspired research   Guest: Garry Nolan, Founder, Apprise Biotech and Nodality; and Rachford and Carlota A. Harris Endowed Professor at Stanford University   Co-Hosts: Anna Brady-Estevez, Co-Chair US Interagency Space Economy & Advanced Manufacturing Working Groups Lawrence Forsley, Chief Technology Officer of Global Energy Corporation Dyan Finkhousen, CEO of Shoshin Works; Ecosystemic Model Advisor for NASA - National Aeronautics and Space Administration and USSF SpaceWERX Series Hosts: Vikram Shyam, Lead Futurist, NASA Glenn Research Center Dyan Finkhousen, Founder & CEO, Shoshin Works #MaterialFutures #UAPresearch #FutureTech #Innovation #BreakthroughScience #AdvancedMaterials #DisruptiveTech #STEM #ecosystems #futures

#UFO materials sciences we refer to as #CTPMATSci. These #CTPtech/CTP technologies are based on completely different sciences and principles than other fields of sciences or other materials sciences. Attachment on my Experience section covers more information. #CTPisDisclosure

From Fringe to Frontier: Material Futures from UAP Stanford University professor Dr. Garry Nolan reveals how UAP observations can refactor our approach to materials science. In this compelling episode, Dr. Nolan demonstrates how studying anomalous phenomena provides unprecedented insights, reshaping materials research and development. Drawing from his pioneering work in biotechnology and advanced analysis, he illustrates why incorporating UAP insights could accelerate technological breakthroughs in many domains and transform our understanding of what's possible. 📢 https://lnkd.in/e62g6vfc Highlights: 📌 How UAP research informs next-generation materials development 📌 Advanced analysis techniques revealing new scientific possibilities 📌 The convergence of materials science and anomalous phenomena 📌 Strategic implications for technological leadership 📌 Breakthrough private sector and academic opportunities in UAP-inspired research   Guest: Garry Nolan, Founder, Apprise Biotech and Nodality; and Rachford and Carlota A. Harris Endowed Professor at Stanford University   Co-Hosts: Anna Brady-Estevez, Co-Chair US Interagency Space Economy & Advanced Manufacturing Working Groups Lawrence Forsley, Chief Technology Officer of Global Energy Corporation Dyan Finkhousen, CEO of Shoshin Works; Ecosystemic Model Advisor for NASA - National Aeronautics and Space Administration and USSF SpaceWERX Series Hosts: Vikram Shyam, Lead Futurist, NASA Glenn Research Center Dyan Finkhousen, Founder & CEO, Shoshin Works #MaterialFutures #UAPresearch #FutureTech #Innovation #BreakthroughScience #AdvancedMaterials #DisruptiveTech #STEM #ecosystems #futures

Happy New Year 🎆 As 2024 comes to a close, I’m reflecting on a year filled with growth, transitions, and exciting opportunities in my professional journey: 👏 Wrapped up a 7-year-long project with NASA - National Aeronautics and Space Administration on Ultra-Strong Composites by Computational Design for deep-space exploration. While it was bittersweet to conclude this chapter, I am incredibly grateful for the wealth of knowledge gained and the professional relationships I built with experts and peers in the field. 🙌 Started a new chapter with a project at Air Force Research Laboratory, focusing on Carbon-Carbon Composites for high-temperature applications. I’m excited to apply my technical expertise to address new challenges and contribute to cutting-edge advancements. 🤙 Authored 4 journal articles, presented my research at 2 conferences, and reviewed 20 manuscripts, continuing to share insights and learn from the vibrant materials science community. 🙌 Organized technical sessions for the 39th American Society for Composites Conference, fostering meaningful connections and building friendships. ❤️ Looking forward to 2025, I’m eager to embrace new research challenges, explore new opportunities and collaborations, and continue making strides in materials science. Let's connect if you’re working on exciting projects or opportunities in this field! Here’s to a new year of innovation and collaboration! 🎉 #MaterialsScience #Research #Collaboration #YearInReview #ComputationalMaterialsScience #Nanotechnology #QuantumComputing #HPC #Simulations #Materials

Excited to share a recent paper titled "On the Origin of the High Star-Formation Efficiency in Massive Galaxies at Cosmic Dawn", which has been submitted to MNRAS and is available on ArXiv as a preprint ( https://lnkd.in/gFrdh8Xm ). In this study, we used the RAMSES cosmological hydrodynamics code ( https://lnkd.in/gJ-SY5G4 ) to explore the physical mechanisms that lead to enhanced star formation efficiency in the massive galaxies of the early Universe, motivated by the abundance of bright galaxies observed by the James Webb Space Telescope. We find that the high densities in this regime naturally leads to efficient star formation because stellar feedback is less effective at driving outflows which remove gas from the galaxy. This work would not be possible without my advisor Prof. Romain Teyssier, co-author Prof. Avishai Dekel, and the support of the DOE Computational Science Graduate Fellowship. If you are interested in learning more, you can read the full paper here ( https://lnkd.in/gFrdh8Xm ). There is also some data available for download through the Princeton Data Service ( https://lnkd.in/gSh-uD72 ). Movies are available on YouTube ( https://lnkd.in/guHvUkpN ).

OpEd "by Lulu Zhao, Assistant Research Scientist in Climate and Space Sciences and Engineering, University of Michigan. Her research focus is the modelling of the acceleration and transport of energetic particles using M-FLAMPA (multiple-field-line-advection-model with particle acceleration). The M-FLAMPA model extract magnetic field lines from the magnetohydrodynamics (MHD) simulations of the background solar wind solution through SWMF (space weather frame work). Along those magnetic field lines, the particle transport and acceleration are modelled by solving the particle transport equations."

The Hubble and James Webb Space Telescopes have both confirmed that the universe is expanding faster than theoretical models predict, providing evidence of the 'Hubble tension.' Researchers used three methods to calculate the expansion rate, around 73 km/s/megaparsec, which contrasts with predictions of 67-68 km/s/megaparsec. The unexplained discrepancy may point to new physics or phenomena like dark energy. Nobel laureate Adam Riess emphasizes the significance of these findings for our understanding of the universe. #HubbleTension #UniverseExpansion #Astronomy https://lnkd.in/gmEZgbST

The Hubble and James Webb Space Telescopes have both confirmed that the universe is expanding faster than theoretical models predict, providing evidence of the 'Hubble tension.' Researchers used three methods to calculate the expansion rate, around 73 km/s/megaparsec, which contrasts with predictions of 67-68 km/s/megaparsec. The unexplained discrepancy may point to new physics or phenomena like dark energy. Nobel laureate Adam Riess emphasizes the significance of these findings for our understanding of the universe. #HubbleTension #UniverseExpansion #Astronomy https://lnkd.in/gmEZgbST

Very interesting and synoptic review of the current state of the art and research directions in QC.

Researchers at the University of Chicago Pritzker School of Molecular Engineering developed a material called a “pluripotent plastic,” which has the ability to take on many forms. The material is made up of polymers containing “dynamic covalent bonds,” which can break and re-form reversibly. This versatility may be useful for engineers working in resource-scarce environments like outer space. To develop the new material, Prof. Stuart Rowan worked with PME assistant professor Shrayesh Patel, graduate student Nicholas B., and colleagues at Argonne National Laboratory, Air Force Research Laboratory, NASA - National Aeronautics and Space Administration, and the National Institute of Standards and Technology (NIST). Learn more at https://lnkd.in/gWirnNxb. #UChicagoPME #Plastics #Materials #MolecularEngineering