Lifeboat Foundation: Safeguarding Humanity
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Category: cyborgs

Every dad should do this. 😃

French dad and robotics engineer Jean-Louis Constanza has built a robotic suit for his 16-year-old son Oscar that allows him to walk.

Oscar, a wheelchair user, activates the suit by saying “Robot, stand up” and it then walks for him.

Jean-Louis co-founded the company that builds the suit, which can allow users to move upright for a few hours a day.

It is used in several hospitals, but it isn’t yet available for everyday use by individuals and has a price tag of around €150000 (about £127700).

A personal exoskeleton would need to be much lighter, the company’s engineers said.

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#Robotics #BBCNews

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But while science fiction provides military planners with a tantalizing glimpse of future weaponry, from exoskeletons to mind-machine interfaces, the genre is always about more than flashy new gadgets. It’s about anticipating the unforeseen ways in which these technologies could affect humans and society – and this extra context is often overlooked by the officials deciding which technologies to invest in for future conflicts.

Imagined worlds

Like my colleague David Seed, who has studied how fiction impacts on real-life threat assumptions about nuclear terrorism, I’m interested in how science fiction informs our sense of the future. This has given me the opportunity to work with members of the armed forces, using science fiction to query assumptions and generate novel visions of the future.

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Original Article from The New England Journal of Medicine — Neuroprosthesis for Decoding Speech in a Paralyzed Person with Anarthria.

Dr. Moses, Mr. Metzger, and Ms. Liu contributed equally to this article.

A data sharing statement provided by the authors is available with the full text of this article at NEJM.org.

We thank the study participant “Bravo-1” for his dedication and commitment; the members of Karunesh Ganguly’s laboratory for help with the clinical study; Mark Chevillet, Emily Mugler, Ruben Sethi, and Stephanie Thacker for support and feedback; Nick Halper and Kian Torab for hardware technical support; Mariann Ward for clinical nursing support; Matthew Leonard, Heather Dawes, and Ilona Garner for feedback on an earlier version of the manuscript; Viv Her for administrative support; Kenneth Probst for illustrating an earlier version of Figure 1; Todd Dubnicoff for video editing; and the participant’s caregivers for logistic support.

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💠 Japanese researchers have created a “nose” mosquito that can detect odors from tiny droplets of liquid droplets. The research could lead to the creation of Smell-O-Vision for machines and a means of diagnosing early cancer, they say. Japanese researchers have created a “nose” that can detect different odors at the same time. The team used two bubbles, each filled with oil, broken horizontally, to create a squinted figure-eight. They hope to use it to develop an artificial nose in the future.

Researchers have developed a “bionic nose” that can detect odor molecules. The team hopes to use the device as an inexpensive way to diagnose the early stages of illness. Eventually, the team wants to use their bionic nose for cancer and other health issues. They hope to make the device available to the public soon.

Thanks and Enjoy 🔥 🔥
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🎥 #BioEngineering #Mosquitoes #Cells.

Sources:
⚉ https://www.nature.com/articles/nature.2014.14904#:~:text=The%20human%20nose%20has%20roughly, report%20today%20in%20Science1.
⚉ https://www.eurekalert.org/pub_releases/2021-01/uot-hdy011121.php.
⚉ https://advances.sciencemag.org/content/7/3/eabd2013

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Researchers warn of the potential social, ethical, and legal consequences of technologies interacting heavily with human brains.

Surpassing the biological limitations of the brain and using one’s mind to interact with and control external electronic devices may sound like the distant cyborg future, but it could come sooner than we think.

Researchers from Imperial College London conducted a review of modern commercial brain-computer interface (BCI) devices, and they discuss the primary technological limitations and humanitarian concerns of these devices in APL Bioengineering, from AIP Publishing.

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This article is an installment of The Future Explored, a weekly guide to world-changing technology. You can get stories like this one straight to your inbox every Thursday morning by subscribing here.

This month, Stanford researchers brought us one step closer to artificial skin with embedded electronics that can flex and bend with the body.

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Chemical engineer Zhenan Bao and her team of researchers at Stanford have spent nearly two decades trying to develop skin-like integrated circuits that can be stretched, folded, bent and twisted — working all the while — and then snap back without fail, every time. Such circuits presage a day of wearable and implantable products, but one hurdle has always stood in the way.

Namely, “How does one produce a completely new technology in quantities great enough to make commercialization possible?” Bao said. Bao and team think they have a solution. In a new study, the group describes how they have printed stretchable-yet-durable integrated circuits on rubbery, skin-like materials, using the same equipment designed to make solid silicon chips — an accomplishment that could ease the transition to commercialization by switching foundries that today make rigid circuits to producing stretchable ones.

Stanford researchers show how to print dense transistor arrays on skin-like materials to create stretchable circuits that flex with the body to perform applications yet to be imagined.

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A team of researchers from the University of Maryland has 3D printed a soft robotic hand that is agile enough to play Nintendo’s Super Mario Bros. — and win!

The feat, highlighted on the front cover of the latest issue of Science Advances, demonstrates a promising innovation in the field of soft robotics, which centers on creating new types of flexible, that are powered using water or air rather than electricity. The inherent safety and adaptability of soft robots has sparked interest in their use for applications like prosthetics and biomedical devices. Unfortunately, controlling the fluids that make these soft robots bend and move has been especially difficult—until now.

The key breakthrough by the team, led by University of Maryland assistant professor of mechanical engineering Ryan D. Sochol, was the ability to 3D print fully assembled soft robots with integrated fluidic circuits in a single step.

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