MIT Human-Centered Autonomous Vehicle

Lex Fridman, MIT, shows how one day your (semi-)autonomous vehicle may ask you to take over if you’re distracted too much, e.g. by texting instead of driving.

Introducing our shared autonomy research vehicle with a demo of voice-based transfer of control based on whether the driver is paying attention to the road and on risk factors detected in the external environment. Our work aims to reimagine the self-driving car as a shared autonomy system built around the human being. Paper describing key ideas will be out shortly.

Paper: https://arxiv.org/abs/1810.01835 Website: https://hcai.mit.edu/hcav/ Semi-Autonomous Tweet: https://bit.ly/2NTL7Bn

Building the first digital life form. Open source.

If the brain is a collection of electrical signals, then, if you could catalog all those those signals digitally, you might be able upload your brain into a computer, thus achieving digital immortality.

While the plausibility—and ethics—of this upload for humans can be debated, some people are forging ahead in the field of whole-brain emulation. There are massive efforts to map the connectome—all the connections in the brain—and to understand how we think. Simulating brains could lead us to better robots and artificial intelligence, but the first steps need to be simple.

So, one group of scientists started with the roundworm Caenorhabditis elegans, a critter whose genes and simple nervous system we know intimately.

http://www.smithsonianmag.com/smart-news/weve-put-worms-mind-lego-robot-body-180953399/?no-ist

42-46210091.jpg__800x600_q85_crophttp://www.openworm.org

OpenWorm aims to build the first comprehensive computational model of the Caenorhabditis elegans (C. elegans), a microscopic roundworm. With only a thousand cells, it solves basic problems such as feeding, mate-finding and predator avoidance. Despite being extremely well studied in biology, this organism still eludes a deep, principled understanding of its biology.