You’re more likely to remember something that you read to yourself out loud

http://digest.bps.org.uk/2017/11/30/why-youre-more-likely-to-remember-something-that-you-read-to-yourself-out-loud/

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‘But you can’t do that!’ Why immoral actions seem impossible | Aeon Ideas

So what does explain why we don’t consider the possibility of taking a taxi but not paying? Here’s a radically different suggestion: before I mentioned it, you didn’t think it was even possible to do that. This explanation probably strikes you as too strong, but the key to it is that I’m not arguing that you think it’s impossible now, I’m arguing that you didn’t think it was possible before I proposed it.

https://aeon.co/ideas/but-you-cant-do-that-why-immoral-actions-seem-impossible

Artificial muscles give soft robots superpowers

Artificial muscles give soft robots superpowers

Origami-inspired muscles are both soft and strong, and can be made for less than $1

“Now that we have created actuators with properties similar to natural muscle, we can imagine building almost any robot for almost any task.”

Each artificial muscle consists of an inner “skeleton” that can be made of various materials, such as a metal coil or a sheet of plastic folded into a certain pattern, surrounded by air or fluid and sealed inside a plastic or textile bag that serves as the “skin.”

A vacuum applied to the inside of the bag initiates the muscle’s movement by causing the skin to collapse onto the skeleton, creating tension that drives the motion.

Incredibly, no other power source or human input is required to direct the muscle’s movement; it is determined entirely by the shape and composition of the skeleton.

“Incorporating intelligence into the body (via specific folding patterns, in the case of our actuators) has the potential to simplify the algorithms needed to direct the robot to achieve its goal. All these actuators have the same simple on/off switch, which their bodies then translate into a broad range of motions.”

“Vacuum-based muscles have a lower risk of rupture, failure, and damage, and they don’t expand when they’re operating, so you can integrate them into closer-fitting robots on the human body.”