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This presentation examines the connection between behavior analysis and other natural sciences, focusing on the fundamental principles of natural science. It discusses essential themes such as the ontology, epistemology, and mechanisms in behavior analysis as a biological science. Key topics include contingency, biological variation, developmental dynamics, and computational modeling, highlighting the complexity of behavioral variation and interaction with evolution. The goal is to establish a deeper understanding of behavioral analysis in the broader context of natural science.
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THE NATURAL SELECTION:BEHAVIOR ANALYSIS AMONG THE NATURAL SCIENCES M. Jackson Marr School of Psychology Georgia Tech Atlanta, GA 30332-0170 USA mm27@prism.gatech.edu
In understanding behavior analysis as a natural science, we need to examine ties, conceptual and otherwise, between behavior analysis and other natural sciences—this is my overall theme.
SOME ISSUES TO CONSIDER • *1. What is a Natural Science? • *2. Ontology, Epistemology, and Patterns of Explanation. • *3. Behavior Analysis as a Biological Science • 4. Contingency: The Fundamental Explanatory Concept • 5. The Problem of Behavioral Units • 6. The Role of Symmetry • 7. Dynamical Systems • 8. Mathematical Models • 9. Problems of Reductionism • 10. Scientific and Mathematical Verbal Behavior • 11. Creativity in the Sciences and Mathematics • *I plan to discuss these—a bit—today.
ONTOLOGY, EPISTEMOLOGY, AND PATTERNS OF EXPLANATION: Realism vs. Pragmatism, and Contextualism vs. Mechanism
ELEMENTS OF CONTEXTUALISM • 1. The ongoing act in context as the unit of analysis. • 2. Focus on the whole event. • 3. Sensitivity to the role of context in understanding the event. • 4. “Successful working” as a pragmatic truth criterion.
WHAT KINDS OF MECHANISMS: BEHAVIOR ANALYSIS AS A BIOLOGICAL SCIENCE
GENERAL FUND OF BIOLOGICAL EXPLANATION • 1. Molecular (biochemical, biophysical) • 2. Cellular functions • 3. Tissue/organ functions • 4. Morphogenic/developmental • 5. Behavioral/environmental • 6. Species adaptation/evolution
SOME SOURCES OF BIOLOGICAL VARIATION • MEIOSIS PROCESSES (e.g., recombination, linkage distance) • SEGREGATION (e.g., independent assortment, dominance, incomplete dominance, epistasis, pleiotropy) • NON-MENDELIAN PROCESSES (e.g., cytoplasmic inheritance, dependent assortment) • CHROMOSOMAL VARIATIONS (e.g., polyploidy, deletions, duplications, inversions, translocations) • MUTATIONS (e.g., transitions, transversions, tautometric, regulatory effects) • ALTERNATIVE SPLICING • QUANTITATIVE (e.g., polygenic expression, genetic drift, gene-environment interaction)
MORE SOURCES OF BIOLOGICAL VARIATION • DEVELOPMENTAL DYNAMICS (e.g., “evo-devo”) • ALLOPATRIC, PARAPATRIC, AND SYMPATRIC ISOLATION • IN UTERO HISTORY • STOCHASTIC / CHAOTIC PHYSIOLOGICAL PROCESSES
SOME SOURCES OF BEHAVIORAL VARIATION • 1. REFLEX PATTERNS AND THRESHOLDS • 2. SPECIES-SPECIFIC SENSORY / MOTOR PROGRAMS • 3. CONTINGENCIES AND DIFFERENTIAL SENSITIVITY TO THEM • 4. SHAPING: VARIATION AS A RESPONSE CLASS • 5. SELF-ORGANIZATION PROCESSES: “EMERGENCE” • 6. SOCIAL/CULTURAL DYNAMICS • 7. A HOST OF INDIVIDUAL DIFFERENCES RELATED TO ALL THE ABOVE AND MORE
COMPUTATIONAL MODELING • NEURAL NETWORKS • CELLULAR AUTOMATA • DYNAMIC PROGRAMING • DYNAMIC STATE VARIABLE MODELS • GENETIC ALGORITHMS • SIMULATED ANNEALING • MONTE CARLO METHODS • STATISTICAL MECHANICS OF LEARNING
PHYSICS Deterministic Reductive Mechanistic +Immediate Causation SIMPLICITY BIOLOGY Stochastic Emergent Selectionistic +Historical Causation COMPLEXITY PHYSICS VS. BIOLOGY/BEHAVIOR Mayr’s Distinctions
CONSEQUENCE-DRIVEN SYSTEMS Stevo Bozinovski (1995) REINFORCEMENT LEARNING R.S. Sutton & A.G. Barto (1998)