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Category: nanotechnology

Good article. I need to highlight that Quantum will most definitely take all of these technologies to a new level of performance and sophistication that we have never seen before. AI (including robotics) will be able to be the independent thinkers and humanoids that we all read about in SciFi or the AI Warning articles and blogs that we read about today. VR will be to interact and predict movements that are at least 20+ steps ahead of the average person; etc. This is why Quantum is the true game changer among all of these.

2 technologies missing that should also be included to this list is nanbots and CRISPR. Just like wearable’s and AI; CRISPR and nanobots are not new; however, they will change our healthcare industry.

It won’t happen overnight but it will happen.

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Very interesting; the article highlights that there was no mention of job losses in 2020 within the IT field instead the writer highlights a shortage of IT resources to fill the jobs. And, thoroughly appreciate that the writer highlighted that Quantum, Nanobots, etc. are making the 4th Industrial Revolution happen; I couldn’t agree more.

To be sure, the Fourth Industrial Revolution is still in its nascent state. But with the pace of change and disruption to business and society so swift these days, the time to join in is now.

Author: Gary Coleman is the Global Industry and Senior Client Advisor for Deloitte Consulting and lead partner in Deloitte’s strategic relationship with the World Economic Forum. Follow him on Twitter@gcoleman_gary. He is participating in the World Economic Forum’s Annual Meeting in Davos.

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Guessing my earlier posting about imagining you’re in a scenario that you must decide to either to have a chip implant v. waiting on a nanobot is not that far fetched. Nonetheless, there are truly careers that will not be replaced by robot such as artist’s works, designers, etc. And, new careers and companies will be created throughout the AI and Quantum evolution. https://lnkd.in/b5i5C-X

Think you are too smart to be replaced by a robot in your job? Think again.

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Imagine: What happens when you’re in 2027 on the job competing with other AI; and there is so much information exposed to you that you’re unable to scan & capture all of it onto your various devices and personal robot. And, the non-intrusive nanobot for brain enhancement is still years away. Do you finally take a few hundred dollars & get the latest chip implant requiring a tricky surgery for your brain or wait for the nanobot? These are questions that folks will have to assess for themselves; and this could actually streamline/ condition society into a singularity culture. https://lnkd.in/bTVAjhb

A mom pushes a stroller down the sidewalk while Skyping. A family of four sits at the dinner table plugged into their cell phones with the TV blaring in the background. You get through two pages in a book before picking up your laptop and scrolling through a bottomless stream of new content.

Information technology has created a hyper-connected, over-stimulated, distracted and alienated world. We’ve been living long enough with internet-connected computers and other mobile devices to have begun to take it for granted.

But already the next wave is coming, and it promises to be even more immersive.

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Was hit by a car when I was younger and broke my leg. This would have been better then a metal rod. Fascinating.

A team of researchers from the University of Michigan has developed a new technique to aid bone repair, using polymer nano-shells to deliver microRNA molecules. The method could one day have a big impact on regenerative medicine, directing cells already present at injury sites to aid healing.

The new study builds on previous research conducted back in 2011, where nanofiber microspheres were used to carry cells to injury sites to help the wounding process. The new work uses the same idea, but rather than transporting foreign cells, focuses on making better use of the cells already at the wound site.

The team developed tiny polymer spheres that are able to easily breach cell walls, carrying microRNA molecules to cells at bone wound sites. The spheres are designed to protect the molecules during transit, degrading once in place in cells at the site of the wound.

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Interesting and could change as well as acellerate our efforts around bot technology and humans as well as other areas of robotic technology.

Like Jedi Knights, researchers at Purdue University are using the force — force fields, that is. (Photo : Windell Oskay | Flickr)

Like Jedi Knights, researchers at Purdue University are using the force — force fields, that is. The team of scientists has discovered a way to control tiny robots with the help of individual magnetic fields, which, in turn, might help us one day learn how to control entire groups of microbots and nanobots in areas like medicine or even manufacturing.

While the idea of controlling microbots might be simple, it’s a deceptively complicated goal, especially if the bots in question are conceivably too small to realistically accommodate a tiny enough battery to power them. This is where the magnetic force fields come into play: they can generate enough energy and charge to move the microbots about — “like using mini force fields.”

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Atoms are the building blocks of all matter on Earth, and the patterns in which they are arranged dictate how strong, conductive or flexible a material will be. Now, scientists at UCLA have used a powerful microscope to image the three-dimensional positions of individual atoms to a precision of 19 trillionths of a meter, which is several times smaller than a hydrogen atom.

Their observations make it possible, for the first time, to infer the macroscopic properties of materials based on their structural arrangements of atoms, which will guide how scientists and engineers build aircraft components, for example. The research, led by Jianwei (John) Miao, a UCLA professor of physics and astronomy and a member of UCLA’s California NanoSystems Institute, is published Sept. 21 in the online edition of the journal Nature Materials.

For more than 100 years, researchers have inferred how atoms are arranged in three-dimensional space using a technique called X-ray crystallography, which involves measuring how light waves scatter off of a crystal. However, X-ray crystallography only yields information about the average positions of many billions of atoms in the crystal, and not about individual atoms’ precise coordinates.

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DNA-based lock-and-key pore design allows for precision delivery of drugs to cancer and other cells (credit: Stefan Howorka and Jonathan Burns/UCL)

Scientists at University College London (UCL) and Nanion Technologies in Munich have developed synthetic DNA-based pores that control which molecules can pass through a cell’s wall, achieving more precise drug delivery.

Therapeutics, including anti-cancer drugs, are ferried around the body in nanoscale carriers called vesicles, targeted to different tissues using biological markers. The new DNA-based pore design is intended to improve that process.

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As we explore opportunities in space to colonized or even expand business opportunities in space such as mining, and discovering materials that could be brought back to earth to use; it will be important for scientists and researchers to look at ways in how technologies like CRISPR, nanobots, synthetic implants, etc. can assist in mitigating the impacts on humans in space.

A new report commissioned by NASA highlights many of the risks connected with one of the agency’s major goals: putting more humans in space for longer periods of time.

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Loving the progress around Quantum.

Today, a group of scientists — John A. Rogers, Eric Seabron, Scott MacLaren and Xu Xie from the University of Illinois at Urbana-Champaign; Slava V. Rotkin from Lehigh University; and, William L. Wilson from Harvard University — are reporting on the discovery of an important method for measuring the properties of nanotube materials using a microwave probe. Their findings have been published in ACS Nano in an article called: “Scanning Probe Microwave Reflectivity of Aligned Single-Walled Carbon Nanotubes: Imaging of Electronic Structure and Quantum Behavior at the Nanoscale.”

The researchers studied single-walled carbon nanotubes. These are 1-dimensional, wire-like nanomaterials that have electronic properties that make them excellent candidates for next generation electronics technologies. In fact, the first prototype of a nanotube computer has already been built by researchers at Stanford University. The IBM T.J. Watson Research Center is currently developing nanotube transistors for commercial use.

For this study, scientists grew a series of parallel nanotube lines, similar to the way nanotubes will be used in computer chips. Each nanotube was about 1 nanometer wide — ten times smaller than expected for use in the next generation of electronics. To explore the material’s properties, they then used microwave impedance microscopy (MIM) to image individual nanotubes.

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