This image depicts visual processing in the fruit fly. Light enters the compound eye of the fly, causing hexagonally arranged photoreceptors to send electrical signals through a complex neural network, enabling the fly to detect motion. A team of researchers from HHMI’s Janelia Research Campus and the University of Tübingen used the fruit fly optic lobe connectome to build a detailed deep mechanistic network simulation of the fly visual system. Credit: Siwanowicz, I. & Loesche, F. / HHMI Janelia Research Campus, Lappalainen, J.K. / University of Tübingen
Jason Reed, University of Notre Dame
It wasn’t that long ago that the Federal Reserve, the central bank for the United States, was worrying that annual...
Researchers from MIT and elsewhere created a system that enables users to have an online, text-based conversation with an AI-generated simulation of their potential future self.
Study co-authors (from left to right) Ajinkya Pandit, Yi Wei, and Shashank Muddu stand with equipment used to develop a technique offering a low-cost, noninvasive particle size probe.
Credits:Photo courtesy of Takeda Pharmaceuticals.
“The move-fast, break-things modus operandi of deploying generative AI models everywhere, and particularly in high-stakes settings, deserves much more thought since it could be quite harmful,” says co-senior author Ashia Wilson.
This image depicts visual processing in the fruit fly. Light enters the compound eye of the fly, causing hexagonally arranged photoreceptors to send electrical signals through a complex neural network, enabling the fly to detect motion. A team of researchers from HHMI’s Janelia Research Campus and the University of Tübingen used the fruit fly optic lobe connectome to build a detailed deep mechanistic network simulation of the fly visual system. Credit: Siwanowicz, I. & Loesche, F. / HHMI Janelia Research Campus, Lappalainen, J.K. / University of Tübingen
Researchers from MIT and elsewhere created a system that enables users to have an online, text-based conversation with an AI-generated simulation of their potential future self.
This image depicts visual processing in the fruit fly. Light enters the compound eye of the fly, causing hexagonally arranged photoreceptors to send electrical signals through a complex neural network, enabling the fly to detect motion. A team of researchers from HHMI’s Janelia Research Campus and the University of Tübingen used the fruit fly optic lobe connectome to build a detailed deep mechanistic network simulation of the fly visual system. Credit: Siwanowicz, I. & Loesche, F. / HHMI Janelia Research Campus, Lappalainen, J.K. / University of Tübingen