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Turing redux: Enculturation and computation
Affiliation:1. Laboratory of Cognitive Neuroscience, Brain Mind Institute, Ecole Polytechnique Fédérale de Lausanne, Lausanne, Switzerland;2. Center for Neuroprosthetics, School of Life Sciences, Ecole Polytechnique Fédérale de Lausanne, Lausanne, Switzerland;1. Department of Psychology, University of Milano-Bicocca, Milano, Italy;2. Brain Connectivity Center, C. Mondino National Neurological Institute, Pavia, Italy;3. Department of Brain and Behavioral Sciences, University of Pavia, Pavia, Italy;4. The Laboratory for Visual Neuroplasticity, Department of Ophthalmology, Massachusetts Eye and Ear Infirmary, Harvard Medical School, Boston, USA;1. University of Technology, Sydney, NSW, Australia;2. CSIRO, Sydney, NSW, Australia;3. Florida Atlantic University, FL, USA
Abstract:Many of our cognitive capacities are shaped by enculturation. Enculturation is the acquisition of cognitive practices such as symbol-based mathematical practices, reading, and writing during ontogeny. Enculturation is associated with significant changes to the organization and connectivity of the brain and to the functional profiles of embodied actions and motor programs. Furthermore, it relies on scaffolded cultural learning in the cognitive niche. The purpose of this paper is to explore the components of symbol-based mathematical practices. Phylogenetically, these practices are the result of concerted organism-niche interactions that have led from approximate number estimations to the emergence of discrete, symbol-based mathematical operations. Ontogenetically, symbol-based mathematical practices are associated with plastic changes to neural circuitry, action schemata, and motor programs. It will be suggested that these practices rely on previously acquired capacities such as subitizing and counting. With these considerations in place, I will argue that computations, understood in the sense of Turing (1936), are a specific kind of symbol-based mathematical practices that can be realized by human organisms, machines, or by hybrid organism-machine systems. In sum, this paper suggests a new way to think about mathematical cognition and computation.
Keywords:Enculturation  Mathematical cognition  Computation  Hybrid cognition  Neural plasticity  Embodied cognition  LDP"  },{"  #name"  :"  keyword"  ,"  $"  :{"  id"  :"  k0040"  },"  $$"  :[{"  #name"  :"  text"  ,"  _"  :"  learning driven plasticity  LDBA"  },{"  #name"  :"  keyword"  ,"  $"  :{"  id"  :"  k0050"  },"  $$"  :[{"  #name"  :"  text"  ,"  _"  :"  learning driven bodily adaptability  ANS"  },{"  #name"  :"  keyword"  ,"  $"  :{"  id"  :"  k0060"  },"  $$"  :[{"  #name"  :"  text"  ,"  _"  :"  approximate number system  DNS"  },{"  #name"  :"  keyword"  ,"  $"  :{"  id"  :"  k0070"  },"  $$"  :[{"  #name"  :"  text"  ,"  _"  :"  discrete number system  IPS"  },{"  #name"  :"  keyword"  ,"  $"  :{"  id"  :"  k0080"  },"  $$"  :[{"  #name"  :"  text"  ,"  _"  :"  intraparietal sulcus  vITG"  },{"  #name"  :"  keyword"  ,"  $"  :{"  id"  :"  k0090"  },"  $$"  :[{"  #name"  :"  text"  ,"  _"  :"  ventral inferior temporal gyrus  vOT"  },{"  #name"  :"  keyword"  ,"  $"  :{"  id"  :"  k0100"  },"  $$"  :[{"  #name"  :"  text"  ,"  _"  :"  ventral occipito-temporal area  VWFA"  },{"  #name"  :"  keyword"  ,"  $"  :{"  id"  :"  k0110"  },"  $$"  :[{"  #name"  :"  text"  ,"  _"  :"  visual word form area  VNFA"  },{"  #name"  :"  keyword"  ,"  $"  :{"  id"  :"  k0120"  },"  $$"  :[{"  #name"  :"  text"  ,"  _"  :"  visual number form area
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