Embodied Minds: understanding diverse intelligence in evolved, designed, and hybrid complex systems
Each of us took the remarkable journey from matter to mind. Once we were quiescent egg cells; slowly, gradually, we became human beings capable of advanced metacognition. Our group studies the processes by which intelligence, in myriad conventional and unconventional embodiments, operates in the physical world. We combine developmental biophysics, computer science, and behavioral science to understand how cognition scales up: from the metabolic and physiological competencies of single cells, through the organ-building and repair capabilities of cellular collectives, to the classical behavioral repertoires of whole organisms and swarms. While looking for scale-invariant principles, current work focuses on interrogating non-neural cognition, in particular on the emergence of proto-cognition in cell collectives at both evolutionary and developmental timescales.
We work at the intersection of developmental biology, artificial life, bioengineering, synthetic morphology, and cognitive science. Seeking general principles of life-as-it-can-be, we use a wide range of natural animal models and also create novel synthetic and chimeric life forms. Our goal is to develop generative conceptual frameworks that help us detect, understand, predict, and communicate with truly diverse intelligences, including cells, tissues, organs, synthetic living constructs, robots, and software-based AIs.
Our main model system is morphogenesis: the ability of multicellular bodies to self-assemble, repair, and improvise novel solutions to anatomical goals. We ask questions about the mechanisms required to achieve robust, multiscale, adaptive order in vivo, and about the algorithms sufficient to reproduce this capacity in other substrates. One of our unique specialties is the study of developmental bioelectricity: ways in which all cells connect in somatic electrical networks that store, process, and act on information to control large-scale body structure. Our lab creates and employs tools to read and edit the bioelectric code that guides the proto-cognitive computations of the body, much as neuroscientists are learning to read and write the mental content of the brain.
Our mission is to develop fundamental understanding of how minds of all kinds arise, scale, persist, and change; we seek to use that knowledge to benefit the embodied experience of sentient beings, through biomedicine and beyond.
GurtTractor wrote:This point is that this research will almost certainly yield a net reduction in overall planetary suffering
SpaceGazelle wrote:I'm not sure any of this is a good idea.
SpaceGazelle wrote:Sounds like I'm completely bad mouthing it there but it has plenty of merits too.
The University of Arizona team suggests the moon formed rapidly, leaving it entirely covered with a hot magma ocean at first. As this ocean cooled and hardened, it would have formed the outer layers of the moon, including its mantle and crust. Yet, at lower layers, the infant moon would have still been in turmoil.
Models of moon formation suggest the last remains of this giant lunar ocean crystallized into dense materials including ilmenite, a mineral rich in iron and titanium.
"Because these heavy minerals are denser than the mantle underneath, they create a gravitational instability, and you would expect this layer to sink deeper into the moon's interior," said research leader and former LPL doctoral candidate Weigang Liang, said.
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