Elon Musk smoked pot and drank whiskey on the Joe Rogan podcast and said he’s going to soon announce a new “Neuralink” product that can make anyone superhuman.
Lowell interviews the always fascinating Professor George Church in this new podcast series about aging research. Lifespan.io will be appearing on the show soon too so watch this space bigsmile
Harvard & MIT Professor, author of Regenesis, methods for 1st genome sequence (1994) & 10M-fold improvements (NGS, nanopore), genome editing, writing and recording. In this episode, we get to talk about Genghis Khan, Woolly Mammoth, storing data in DNA, advice for people getting started, and more all in under one hour!
George is one of the most interesting and down to earth people you’ll read about (might be from the future or an alien, but cannot confirm). He is always working to make all of our lives better. Anytime you are looking for inspiration, do what I do, and learn about what he and his team are working on. I always feel like I can do anything after reading or listening to the current things he is working on. I hope to one day contribute like he does! As a side note: I am working on something that was inspired from our discussion, so we shall see how that goes. If anyone is inspired after listening to him talk, please email me and let me know. We can start a fan group around George and scientists in general. Scientists are the unsung superheros of our society! Also, scroll down to the bottom to see the breadth of his work. I felt like it should be put here in it’s entirety. Hyperlinked show notes will go up tonight for this episode and the previous ones that are lacking them!
Yale University researchers have demonstrated one of the key steps in building the architecture for modular quantum computers: the “teleportation” of a quantum gate between two qubits, on demand.
The findings appear online Sept. 5 in the journal Nature.
The key principle behind this new work is quantum teleportation, a unique feature of quantum mechanics that has previously been used to transmit unknown quantum states between two parties without physically sending the state itself. Using a theoretical protocol developed in the 1990s, Yale researchers experimentally demonstrated a quantum operation, or “gate,” without relying on any direct interaction. Such gates are necessary for quantum computation that relies on networks of separate quantum systems—an architecture that many researchers say can offset the errors that are inherent in quantum computing processors.
Intel Corporation’s quantum computing experts Jim Clarke and Anne Matsuura and their partners at QuTech in the Netherlands explain the promises of the emerging technology around quantum computing.
Learn more about Intel’s role in quantum computing: https://newsroom.intel.com/press-kits/quantum-computing/
Continue reading “Changing the World with Quantum Computing | Intel” »
Rice University atomic physicists have verified a key prediction from a 55-year-old theory about one-dimensional electronics that is increasingly relevant thanks to Silicon Valley’s inexorable quest for miniaturization.
“Chipmakers have been shrinking feature sizes on microchips for decades, and device physicists are now exploring the use of nanowires and nanotubes where the channels that electrons pass through are almost one-dimensional,” said Rice experimental physicist Randy Hulet. “That’s important because 1D is a different ballgame in terms of electron conductance. You need a new model, a new way of representing reality, to make sense of it.”
With IBM and others committed to incorporating one-dimensional carbon nanotubes into integrated circuits, chip designs will increasingly need to account for 1D effects that arise from electrons being fermions, antisocial particles that are unwilling to share space.
With threats of sea level rise, storm surge and other natural disasters, researchers from Florida Atlantic University’s College of Engineering and Computer Science are turning to nature to protect humans from nature. They are developing innovative ways to guard coastlines and prevent scouring and erosion from waves and storms using bioinspired materials that mimic mangrove trees found along shores, rivers and estuaries in the tropics and subtropics. Growing from a tangle of roots that twist their way out of the mud, mangrove trees naturally protect shorelines, shelter coastal ecosystem habitats and provide important water filtration. In many cases, these roots trap sediments flowing down rivers and off the land, helping to stabilize the coastline.
Certain mangrove root systems even have the ability to dissipate tidal energy through unique hydrological flows and divert the energy of water in different directions reducing risk of coastal damage. Yet, to date, few studies have examined the fluid dynamics such as flow structure and drag force on mangrove roots.
For a study, published in the American Physical Society’s journal, Physical Review Fluids, researchers singled out the red mangrove tree (Rhizophora mangle) from more than 80 different species of mangroves, because of its robust network of roots that can withstand extreme environmental conditions. The red mangrove provided the researchers with an ideal model for bioinspired shoreline applications.
