This is the discussion that followed the presentation that can be watched by following the link below. http://blip.tv/NH89/alergic-talk-matthew-egbert-the-mind-as-a-temporal-resonator-part-1-of-2-5962659 To discuss or comment on this talk, visit and write on this page Life and Mind blog... http://lifeandmind.wordpress.com/2012/02/13/seminar-the-mind-as-a-temporal-resonator/
Abstract I will present a (very) new computational model of a cognitive system. At the heart of the model is the notion that we (cognitive systems) tend to do what we did before, when we were in a similar situation in the past. When this property is included in a dynamical model of an embedded cognitive system, self-maintaining patterns of behaviour emerge that involve (and depend upon) a wide variety of complicated interactions with environmental features. This occurs in the absence of any sy...
Big Brains, Soft Bodies and Hyper-Redundant Object Manipulation: The-Path-Not-Taken by Vertebrates or Arthropods Frank W. Grasso BioMimetic & Cognitive Robotics Laboratory Dept. of Psychology, Brooklyn College CUNY Modern cephalopods are an evolutionary success story based on brain and body architectures that are fundamentally different from those of vertebrates like mammals, birds and even fish. Large-brained with soft bodies, and sophisticated learning, sensory and motor capabilities their m...
Abstract: Where does my mind stop and the rest of the world begin? Can my conscious experience involve the environment around me? Exponents of the Extended Mind Thesis (EMT) argue that the mind can extend outside the body. One such exponent of EMT is Andy Clark. Clark argues that the machinery responsible for cognition can include objects in the environment but the machinery responsible for consciousness must, as a matter of empirical fact, remain brain bound. I will argue that Clark is correc...
A short screen capture showing a simulation running in Clones. This worm has a neuromuscular system derived from Jordan Boyle's PhD thesis on C.elegans. The body is simulated by a finite element mesh. The muscles are four chains of springs along the margins of the body. ; Their rest length, stiffness and damping are set by nervous stimulation. The muscles also act as stretch receptors for nervous sensation. The yellow spheres are the collision model, attached to the nodes of the boundary mesh....
Lessons from minimal bio-inspired systemsLONG-ABSTRACT: Theoretical discussions and computational models of bio-inspired embodied and situated agents are presented in this seminar capturing in simplified form the dynamical essence of robust and adaptive behaviour. The general problem of how dynamical coupling between internal control (brain), body, and environment are exploited in the generation of behaviour is particularly analyzed.This seminar proposes that the growing consensus about the im...
Soldier Crab Swarming and Dual Neighborhood System modelYukio-Pegio Gunji (Kobe University)Soldier crabs in Japan make a big swarming composed of from hundredsto several thousands individuals. ;>From the observation of soldiercrab behavior we constructed a model for swarming, featuring two kinds of neighborhood. Our model can mimic the wondering behavior of swarms,mass effect to crossing the water, and oscillating behavior in aclosed container (crab clock). It also explains the scale-freecorre...
Mould Intelligence: Computation with Slime MouldSoichiro Tsuda -- University of the West of England BristolA plasmodium of true slime mould Physarum Polycephalum shows various kinds of interesting behaviour, such as multiple cell fusion,autonomous contraction oscillation, and optimised network formation,even though it is just a single-cell organism. The talk will give abrief overview of research on the "primitive intelligence" of this natural swarm intelligence system and how this organism can...
Network dynamics, dopamine and operant control: lessons from the molluskan buccal gangliaAbstractMultielectrode array (MEA) analysis of molluskan nervous systems is an experimental technique recently developed at the University of Sussex (Harris et al., 2010). Here I discuss our current understanding of the molluskan buccal ganglia, with examples from the MEA work, and relate it to more general theories of network dynamics, pattern generation, dopamine-mediated reward and operant control. Vari...
An analysis of why robots constructed of rigid materials fail as biomimetic systems and as embodiment for lifelike intelligence.Examines histology as materials science underpinning biomechanics. Introduces the concept of ‘material embodiment’. Demonstrates that the body is not an assembly of parts, but a single fibro-elastic continuum, that uses hyper-elastic fiber-gels to achieve low friction dynamics and energy conservation. Presents a series of engineering proposals for how to build soft bo...