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  1. Topological Foundations of Cognitive Science.Carola Eschenbach, Christopher Habel & Barry Smith (eds.) - 1984 - Hamburg: Graduiertenkolleg Kognitionswissenschaft.
    A collection of papers presented at the First International Summer Institute in Cognitive Science, University at Buffalo, July 1994, including the following papers: ** Topological Foundations of Cognitive Science, Barry Smith ** The Bounds of Axiomatisation, Graham White ** Rethinking Boundaries, Wojciech Zelaniec ** Sheaf Mereology and Space Cognition, Jean Petitot ** A Mereotopological Definition of 'Point', Carola Eschenbach ** Discreteness, Finiteness, and the Structure of Topological Spaces, Christopher Habel ** Mass Reference and the Geometry of Solids, Almerindo E. Ojeda (...)
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  • Creating a discoverer: Autonomous knowledge seeking agent. [REVIEW]Jan M. Zytkow - 1995 - Foundations of Science 1 (2):253-283.
    Construction of a robot discoverer can be treated as the ultimate success of automated discovery. In order to build such an agent we must understand algorithmic details of the discovery processes and the representation of scientific knowledge needed to support the automation. To understand the discovery process we must build automated systems. This paper investigates the anatomy of a robot-discoverer, examining various components developed and refined to a various degree over two decades. We also clarify the notion of autonomy of (...)
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  • Learning new principles from precedents and exercises.Patrick H. Winston - 1982 - Artificial Intelligence 19 (3):321-350.
  • Qualitative reasoning about physical systems: A return to roots.Brian C. Williams & Johan de Kleer - 1991 - Artificial Intelligence 51 (1-3):1-9.
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  • Qualitative analysis of MOS circuits.Brian C. Williams - 1984 - Artificial Intelligence 24 (1-3):281-346.
  • Causal model progressions as a foundation for intelligent learning environments.Barbara Y. White & John R. Frederiksen - 1990 - Artificial Intelligence 42 (1):99-157.
  • The use of aggregation in causal simulation.Daniel S. Weld - 1986 - Artificial Intelligence 30 (1):1-34.
  • Reasoning about model accuracy.Daniel S. Weld - 1992 - Artificial Intelligence 56 (2-3):255-300.
  • Fundamental concepts of qualitative probabilistic networks.Michael P. Wellman - 1990 - Artificial Intelligence 44 (3):257-303.
  • Exaggeration.Daniel S. Weld - 1990 - Artificial Intelligence 43 (3):311-368.
  • Comparative analysis.Daniel S. Weld - 1988 - Artificial Intelligence 36 (3):333-373.
  • Qualitatively faithful quantitative prediction.Dorian Šuc, Daniel Vladušič & Ivan Bratko - 2004 - Artificial Intelligence 158 (2):189-214.
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  • Representations for robot knowledge in the KnowRob framework.Moritz Tenorth & Michael Beetz - 2017 - Artificial Intelligence 247 (C):151-169.
  • On stable social laws and qualitative equilibria.Moshe Tennenholtz - 1998 - Artificial Intelligence 102 (1):1-20.
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  • Qualitative rigid-body mechanics.Thomas F. Stahovich, Randall Davis & Howard Shrobe - 2000 - Artificial Intelligence 119 (1-2):19-60.
  • Generating multiple new designs from a sketch.Thomas F. Stahovich, Randall Davis & Howard Shrobe - 1998 - Artificial Intelligence 104 (1-2):211-264.
  • Naive physics.Barry Smith & Roberto Casati - 1994 - Philosophical Psychology 7 (2):227 – 247.
    The project of a 'naive physics' has been the subject of attention in recent years above all in the artificial intelligence field, in connection with work on common-sense reasoning, perceptual representation and robotics. The idea of a theory of the common-sense world is however much older than this, having its roots not least in the work of phenomenologists and Gestalt psychologists such as K hler, Husserl, Schapp and Gibson. This paper seeks to show how contemporary naive physicists can profit from (...)
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  • The roles of associational and causal reasoning in problem solving.Reid G. Simmons - 1992 - Artificial Intelligence 53 (2-3):159-207.
  • Nonmonotonic Reasoning and Causation.Yoav Shoham - 1990 - Cognitive Science 14 (2):213-252.
    It is suggested that taking into account considerations that traditionally fall within the scope of computer science in general, and artificial intelligence in particular, sheds new light on the subject of causation. It is argued that adopting causal notions con be viewed as filling a computational need: They allow reasoning with incomplete information, facilitate economical representations, and afford relatively efficient methods for reasoning about those representations. Specifically, it is proposed that causal reasoning is intimately bound to nonmonotonic reasoning. An account (...)
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  • Chronological ignorance: Experiments in nonmonotonic temporal reasoning.Yoav Shoham - 1988 - Artificial Intelligence 36 (3):279-331.
  • Processes and continuous change in a SAT-based planner.Ji-Ae Shin & Ernest Davis - 2005 - Artificial Intelligence 166 (1-2):194-253.
  • A framework for knowledge-based temporal abstraction.Yuval Shahar - 1997 - Artificial Intelligence 90 (1-2):79-133.
  • Interpolative and extrapolative reasoning in propositional theories using qualitative knowledge about conceptual spaces.Steven Schockaert & Henri Prade - 2013 - Artificial Intelligence 202 (C):86-131.
  • Qualitative system identification: deriving structure from behavior.A. C. Cem Say & Selahattin Kuru - 1996 - Artificial Intelligence 83 (1):75-141.
  • A dynamic systems perspective on qualitative simulation.Elisha Sacks - 1990 - Artificial Intelligence 42 (2-3):349-362.
  • Causal Systems Categories: Differences in Novice and Expert Categorization of Causal Phenomena.Benjamin M. Rottman, Dedre Gentner & Micah B. Goldwater - 2012 - Cognitive Science 36 (5):919-932.
    We investigated the understanding of causal systems categories—categories defined by common causal structure rather than by common domain content—among college students. We asked students who were either novices or experts in the physical sciences to sort descriptions of real-world phenomena that varied in their causal structure (e.g., negative feedback vs. causal chain) and in their content domain (e.g., economics vs. biology). Our hypothesis was that there would be a shift from domain-based sorting to causal sorting with increasing expertise in the (...)
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  • Automated modeling of complex systems to answer prediction questions.Jeff Rickel & Brace Porter - 1997 - Artificial Intelligence 93 (1-2):201-260.
  • Rough intervals—enhancing intervals for qualitative modeling of technical systems.M. Rebolledo - 2006 - Artificial Intelligence 170 (8-9):667-685.
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  • Explaining Emotions.Paul O'Rorke & Andrew Ortony - 1994 - Cognitive Science 18 (2):283-323.
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  • Efficient compositional modeling for generating causal explanations.P. Pandurang Nayak & Leo Joskowicz - 1996 - Artificial Intelligence 83 (2):193-227.
  • Causal approximations.P. Pandurang Nayak - 1994 - Artificial Intelligence 70 (1-2):277-334.
  • A comprehensive methodology for building hybrid models of physical systems.Pieter J. Mosterman & Gautam Biswas - 2000 - Artificial Intelligence 121 (1-2):171-209.
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  • Exploiting patterns of interaction to achieve reactive behavior.D. M. Lyons & A. J. Hendriks - 1995 - Artificial Intelligence 73 (1-2):117-148.
  • Images and inference.Robert K. Lindsay - 1988 - Cognition 29 (3):229-250.
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  • Automated model selection for simulation based on relevance reasoning.Alon Y. Levy, Yumi Iwasaki & Richard Fikes - 1997 - Artificial Intelligence 96 (2):351-394.
  • Diagnosis based on explicit means-end models.Jan Eric Larsson - 1996 - Artificial Intelligence 80 (1):29-93.
  • Scientific discovery, causal explanation, and process model induction.Pat Langley - 2019 - Mind and Society 18 (1):43-56.
    In this paper, I review two related lines of computational research: discovery of scientific knowledge and causal models of scientific phenomena. I also report research on quantitative process models that falls at the intersection of these two themes. This framework represents models as a set of interacting processes, each with associated differential equations that express influences among variables. Simulating such a quantitative process model produces trajectories for variables over time that one can compare to observations. Background knowledge about candidate processes (...)
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  • Data-driven approaches to empirical discovery.Pat Langley & Jan M. Zytkow - 1989 - Artificial Intelligence 40 (1-3):283-312.
  • Envisioning the qualitative effects of robot manipulation actions using simulation-based projections.Lars Kunze & Michael Beetz - 2017 - Artificial Intelligence 247 (C):352-380.
  • Qualitative simulation.Benjamin Kuipers - 1986 - Artificial Intelligence 29 (3):289-338.
  • Reasoning with qualitative models.Benjamin J. Kuipers - 1993 - Artificial Intelligence 59 (1-2):125-132.
  • Higher-order derivative constraints in qualitative simulation.Benjamin J. Kuipers, Charles Chiu, David T. Dalle Molle & D. R. Throop - 1991 - Artificial Intelligence 51 (1-3):343-379.
  • Commonsense reasoning about causality: Deriving behavior from structure.Benjamin Kuipers - 1984 - Artificial Intelligence 24 (1-3):169-203.
  • Causal Reasoning in Medicine: Analysis of a Protocol.Benjamin Kuipers & Jerome P. Kassirer - 1984 - Cognitive Science 8 (4):363-385.
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  • Exciting and Provocative Book, Starting with Chapter Two.Benjamin Kuipers - 2011 - International Journal of Machine Consciousness 3 (02):349-352.
  • Abduction aiming at empirical progress or even truth approximation leading to a challenge for computational modelling.Theo A. F. Kuipers - 1999 - Foundations of Science 4 (3):307-323.
    This paper primarily deals with theconceptual prospects for generalizing the aim ofabduction from the standard one of explainingsurprising or anomalous observations to that ofempirical progress or even truth approximation. Itturns out that the main abduction task then becomesthe instrumentalist task of theory revision aiming atan empirically more successful theory, relative to theavailable data, but not necessarily compatible withthem. The rest, that is, genuine empirical progress aswell as observational, referential and theoreticaltruth approximation, is a matter of evaluation andselection, and possibly new (...)
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  • The development of calibration-based reasoning about collision events in young infants.L. Kotovsky - 1998 - Cognition 67 (3):311-351.
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  • Calibration-based reasoning about collision events in 11-month-old infants.Laura Kotovsky & Renée Baillargeon - 1994 - Cognition 51 (2):107-129.
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  • Analogical model formulation for transfer learning in AP Physics.Matthew Klenk & Ken Forbus - 2009 - Artificial Intelligence 173 (18):1615-1638.
  • Conviction Narrative Theory: A theory of choice under radical uncertainty.Samuel G. B. Johnson, Avri Bilovich & David Tuckett - 2023 - Behavioral and Brain Sciences 46:e82.
    Conviction Narrative Theory (CNT) is a theory of choice underradical uncertainty– situations where outcomes cannot be enumerated and probabilities cannot be assigned. Whereas most theories of choice assume that people rely on (potentially biased) probabilistic judgments, such theories cannot account for adaptive decision-making when probabilities cannot be assigned. CNT proposes that people usenarratives– structured representations of causal, temporal, analogical, and valence relationships – rather than probabilities, as the currency of thought that unifies our sense-making and decision-making faculties. According to CNT, (...)
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