The Evolution of Spatial Representation During Complex Visual Data Analysis: Knowing When and How to be Exact

Abstract

How do problem solvers represent visual-spatial information in complex problem solving tasks? This paper explores the predictions of embodied problem solving and a neurocomputational theory for what factors influence internal representation choices. Data are collected from experts and novices in three different, complex visual-spatial problem-solving domains (weather forecasting, submarine target motion analysis, and fMRI data analysis). Internal spatial representations are coded from spontaneous gestures made during cued-recall summaries of problem solving activities. Analyses of domain differences, expertise differences, and changes over time with problem solving suggest that neurocomputational constraints play a larger role than the nature of the visual input or the nature of the underlying real world being examined through problem solving, especially for expert problem solvers. The particular neurocomptuational feature that was found to drive internal representation choice is the required spatial precision of the main goals of problem solving.

Open PDF

Document Details

Document Type
Technical Report
Publication Date
Sep 30, 2005
Accession Number
ADA445030

Entities

People

  • Christian D. Schunn
  • J. G. Trafton
  • Lelyn D. Saner
  • Melanie Shoup
  • Michael Knepp
  • Susan B. Trickett
  • Susan K. Kirschenbaum

Organizations

  • University of Pittsburgh

Tags

Communities of Interest

  • Ground and Sea Platforms
  • Materials and Manufacturing Processes
  • Space

DTIC Thesaurus Topics

  • Cognition
  • Cognitive Science
  • Computer Programming
  • Computers
  • Data Analysis
  • Delphi Method
  • Neural Pathways
  • Personal Information Managers
  • Psychology
  • Reasoning
  • Submarines
  • Three Dimensional
  • Two Dimensional
  • Visualizations
  • Weather Forecasting

Readers

  • Agent-Based Social Robotics and Mobile-Assisted Learning in Virtual Environments.
  • Finite Element Method (FEM) for solving Partial Differential Equations (PDEs)
  • Theoretical Analysis.