Paul Hoyningen-Huene is a philosopher of science with a PhD in theoretical physics teaching at the Institute of Philosophy at the Leibniz University of Hannover, Germany. He is best known for his book Reconstructing Scientific Revolutions: Thomas S. Kuhn's Philosophy of Science (1993).

• Preface ; 1 Introduction ; 1.1 Historical Remarks ; 1.2 The Question "What Is Science?" in Focus ; 2 The Main Thesis ; 2.1 Science and Systematicity ; A) A Little History ; B) Preliminary Remarks ; 2.2 The Concept of Systematicity ; 2.3 The Structure of the Argument ; 3 The Systematicity of Science Unfolded ; 3.1 Descriptions ; A) Some Preliminaries ; B) Axiomatization ; C) Classification, Taxonomy, and Nomenclature ; D) Periodization ; E) Quantification ; F) Empirical Generalizations ; G) Historical Descriptions ; 3.2 Explanations ; A) Some Preliminaries ; B) Explanations Using Empirical Generalizations ; C) Explanations Using Theories ; D) Explanations of Human Actions ; E) Reductive Explanations ; F) Historical Explanations ; G) Explanation and Understanding in the Humanities in General ; H) Explanations in the Study of Literature ; 3.3 Predictions ; A) Some Preliminaries ; B) Predictions Based on Empirical Regularities of the Data in Question ; C) Predictions Based on Correlations with Other Data Sets ; D) Predictions Based on (Fundamental) Theories or Laws ; E) Predictions Based on Models ; F) Predictions Based on Delphi Methods ; 3.4 The Defense of Knowledge Claims ; A) Some Preliminaries ; B) Non-Evidential Considerations ; C) Empirical Generalizations, Models, and Theories ; D) Causal Influence ; E) The Verum Factum Principle ; F) The Role of Mathematics in the Sciences ; G) Historical Sciences ; 3.5 Critical Discourse ; A) Some Preliminaries ; B) Norms and Institutions ; C) Practices in Science Fostering Critical Discourse ; 3.6. Epistemic Connectedness ; A) Preliminaries: The Problem ; B) Failing Answers ; C) The Concept of Epistemic Connectedness ; D) Revisiting the Examples ; 3.7 The Ideal of Completeness ; A) Some Preliminaries ; B) Examples ; 3.8 The Generation of New Knowledge ; A) Some Preliminaries ; B) Data Collection ; C) The Exploitation of Knowledge from Other Domains ; D) The Generation of New Knowledge as an Autocatalytic Process ; 3.9 The Representation of Knowledge ; A) Some Preliminaries ; B) Examples ; 4 Comparison with Other Positions ; 4.1 Aristotle ; A) The Position ; B) Comparison with Systematicity Theory ; 4.2 Rene Descartes ; A) The Position ; B) Comparison with Systematicity Theory ; 4.3 Immanuel Kant ; A) The Position ; B) Comparison with Systematicity Theory ; 4.4 Logical Empiricism ; A) The Position ; B) Comparison with Systematicity Theory ; 4.5 Karl R. Popper ; A) The Position ; B) Comparison with Systematicity Theory ; 4.6 Thomas S. Kuhn ; A) The Position ; B) Comparison with Systematicity Theory ; 4.7 Paul K. Feyerabend ; A) The Position ; B) Comparison with Systematicity Theory ; 4.8 Nicholas Rescher ; A) The Position ; B) Comparison with Systematicity Theory ; 5 Consequences for Scientific Knowledge ; 5.1 The Genesis and Dynamics of Science ; A) Conceptual Clarifications ; B) The Genesis of a Science ; C) The Dynamics of Science ; 5.2 Science and Common Sense ; A) The Preservation of Common Sense ; B) The Deviations from Common Sense ; C) Additional Remarks ; 5.3 Normative Consequences ; 5.4 Demarcation from Pseudo-Science ; A) A Little History ; B) Systematicity Theory's Demarcation Criterion ; 6 Conclusion ; Notes ; Literature ; Literature

Systematicity constitutes a welcome contribution to the general philosophy of science. The research agenda for general philosophy of science has been shifting over the last three decades as many philosophers of science have focused on issues in the philosophy of the special sciences, philosophy of physics, philosophy of biology, and the like. In Systematicity, Hoyningen-Huene shows that there is still important and interesting work to be done in general philosophy of science. One leaves the book with a deeper appreciation for the nature of science, as the subtitle suggests, and why science rightly holds the important place it does in contemporary Western cultures. The book has the marks of being written by a mature scholar, erudite, wide ranging, and carefully argued.

Paul Hoyningen-Huene is a philosopher of science with a PhD in theoretical physics teaching at the Institute of Philosophy at the Leibniz University of Hannover, Germany. He is best known for his book Reconstructing Scientific Revolutions: Thomas S. Kuhn's Philosophy of Science (1993).

• Preface ; 1 Introduction ; 1.1 Historical Remarks ; 1.2 The Question "What Is Science?" in Focus ; 2 The Main Thesis ; 2.1 Science and Systematicity ; A) A Little History ; B) Preliminary Remarks ; 2.2 The Concept of Systematicity ; 2.3 The Structure of the Argument ; 3 The Systematicity of Science Unfolded ; 3.1 Descriptions ; A) Some Preliminaries ; B) Axiomatization ; C) Classification, Taxonomy, and Nomenclature ; D) Periodization ; E) Quantification ; F) Empirical Generalizations ; G) Historical Descriptions ; 3.2 Explanations ; A) Some Preliminaries ; B) Explanations Using Empirical Generalizations ; C) Explanations Using Theories ; D) Explanations of Human Actions ; E) Reductive Explanations ; F) Historical Explanations ; G) Explanation and Understanding in the Humanities in General ; H) Explanations in the Study of Literature ; 3.3 Predictions ; A) Some Preliminaries ; B) Predictions Based on Empirical Regularities of the Data in Question ; C) Predictions Based on Correlations with Other Data Sets ; D) Predictions Based on (Fundamental) Theories or Laws ; E) Predictions Based on Models ; F) Predictions Based on Delphi Methods ; 3.4 The Defense of Knowledge Claims ; A) Some Preliminaries ; B) Non-Evidential Considerations ; C) Empirical Generalizations, Models, and Theories ; D) Causal Influence ; E) The Verum Factum Principle ; F) The Role of Mathematics in the Sciences ; G) Historical Sciences ; 3.5 Critical Discourse ; A) Some Preliminaries ; B) Norms and Institutions ; C) Practices in Science Fostering Critical Discourse ; 3.6. Epistemic Connectedness ; A) Preliminaries: The Problem ; B) Failing Answers ; C) The Concept of Epistemic Connectedness ; D) Revisiting the Examples ; 3.7 The Ideal of Completeness ; A) Some Preliminaries ; B) Examples ; 3.8 The Generation of New Knowledge ; A) Some Preliminaries ; B) Data Collection ; C) The Exploitation of Knowledge from Other Domains ; D) The Generation of New Knowledge as an Autocatalytic Process ; 3.9 The Representation of Knowledge ; A) Some Preliminaries ; B) Examples ; 4 Comparison with Other Positions ; 4.1 Aristotle ; A) The Position ; B) Comparison with Systematicity Theory ; 4.2 Rene Descartes ; A) The Position ; B) Comparison with Systematicity Theory ; 4.3 Immanuel Kant ; A) The Position ; B) Comparison with Systematicity Theory ; 4.4 Logical Empiricism ; A) The Position ; B) Comparison with Systematicity Theory ; 4.5 Karl R. Popper ; A) The Position ; B) Comparison with Systematicity Theory ; 4.6 Thomas S. Kuhn ; A) The Position ; B) Comparison with Systematicity Theory ; 4.7 Paul K. Feyerabend ; A) The Position ; B) Comparison with Systematicity Theory ; 4.8 Nicholas Rescher ; A) The Position ; B) Comparison with Systematicity Theory ; 5 Consequences for Scientific Knowledge ; 5.1 The Genesis and Dynamics of Science ; A) Conceptual Clarifications ; B) The Genesis of a Science ; C) The Dynamics of Science ; 5.2 Science and Common Sense ; A) The Preservation of Common Sense ; B) The Deviations from Common Sense ; C) Additional Remarks ; 5.3 Normative Consequences ; 5.4 Demarcation from Pseudo-Science ; A) A Little History ; B) Systematicity Theory's Demarcation Criterion ; 6 Conclusion ; Notes ; Literature ; Literature

Systematicity constitutes a welcome contribution to the general philosophy of science. The research agenda for general philosophy of science has been shifting over the last three decades as many philosophers of science have focused on issues in the philosophy of the special sciences, philosophy of physics, philosophy of biology, and the like. In Systematicity, Hoyningen-Huene shows that there is still important and interesting work to be done in general philosophy of science. One leaves the book with a deeper appreciation for the nature of science, as the subtitle suggests, and why science rightly holds the important place it does in contemporary Western cultures. The book has the marks of being written by a mature scholar, erudite, wide ranging, and carefully argued.

Paul Hoyningen-Huene is a philosopher of science with a PhD in theoretical physics teaching at the Institute of Philosophy at the Leibniz University of Hannover, Germany. He is best known for his book Reconstructing Scientific Revolutions: Thomas S. Kuhn's Philosophy of Science (1993).

• Preface ; 1 Introduction ; 1.1 Historical Remarks ; 1.2 The Question "What Is Science?" in Focus ; 2 The Main Thesis ; 2.1 Science and Systematicity ; A) A Little History ; B) Preliminary Remarks ; 2.2 The Concept of Systematicity ; 2.3 The Structure of the Argument ; 3 The Systematicity of Science Unfolded ; 3.1 Descriptions ; A) Some Preliminaries ; B) Axiomatization ; C) Classification, Taxonomy, and Nomenclature ; D) Periodization ; E) Quantification ; F) Empirical Generalizations ; G) Historical Descriptions ; 3.2 Explanations ; A) Some Preliminaries ; B) Explanations Using Empirical Generalizations ; C) Explanations Using Theories ; D) Explanations of Human Actions ; E) Reductive Explanations ; F) Historical Explanations ; G) Explanation and Understanding in the Humanities in General ; H) Explanations in the Study of Literature ; 3.3 Predictions ; A) Some Preliminaries ; B) Predictions Based on Empirical Regularities of the Data in Question ; C) Predictions Based on Correlations with Other Data Sets ; D) Predictions Based on (Fundamental) Theories or Laws ; E) Predictions Based on Models ; F) Predictions Based on Delphi Methods ; 3.4 The Defense of Knowledge Claims ; A) Some Preliminaries ; B) Non-Evidential Considerations ; C) Empirical Generalizations, Models, and Theories ; D) Causal Influence ; E) The Verum Factum Principle ; F) The Role of Mathematics in the Sciences ; G) Historical Sciences ; 3.5 Critical Discourse ; A) Some Preliminaries ; B) Norms and Institutions ; C) Practices in Science Fostering Critical Discourse ; 3.6. Epistemic Connectedness ; A) Preliminaries: The Problem ; B) Failing Answers ; C) The Concept of Epistemic Connectedness ; D) Revisiting the Examples ; 3.7 The Ideal of Completeness ; A) Some Preliminaries ; B) Examples ; 3.8 The Generation of New Knowledge ; A) Some Preliminaries ; B) Data Collection ; C) The Exploitation of Knowledge from Other Domains ; D) The Generation of New Knowledge as an Autocatalytic Process ; 3.9 The Representation of Knowledge ; A) Some Preliminaries ; B) Examples ; 4 Comparison with Other Positions ; 4.1 Aristotle ; A) The Position ; B) Comparison with Systematicity Theory ; 4.2 Rene Descartes ; A) The Position ; B) Comparison with Systematicity Theory ; 4.3 Immanuel Kant ; A) The Position ; B) Comparison with Systematicity Theory ; 4.4 Logical Empiricism ; A) The Position ; B) Comparison with Systematicity Theory ; 4.5 Karl R. Popper ; A) The Position ; B) Comparison with Systematicity Theory ; 4.6 Thomas S. Kuhn ; A) The Position ; B) Comparison with Systematicity Theory ; 4.7 Paul K. Feyerabend ; A) The Position ; B) Comparison with Systematicity Theory ; 4.8 Nicholas Rescher ; A) The Position ; B) Comparison with Systematicity Theory ; 5 Consequences for Scientific Knowledge ; 5.1 The Genesis and Dynamics of Science ; A) Conceptual Clarifications ; B) The Genesis of a Science ; C) The Dynamics of Science ; 5.2 Science and Common Sense ; A) The Preservation of Common Sense ; B) The Deviations from Common Sense ; C) Additional Remarks ; 5.3 Normative Consequences ; 5.4 Demarcation from Pseudo-Science ; A) A Little History ; B) Systematicity Theory's Demarcation Criterion ; 6 Conclusion ; Notes ; Literature ; Literature

Systematicity constitutes a welcome contribution to the general philosophy of science. The research agenda for general philosophy of science has been shifting over the last three decades as many philosophers of science have focused on issues in the philosophy of the special sciences, philosophy of physics, philosophy of biology, and the like. In Systematicity, Hoyningen-Huene shows that there is still important and interesting work to be done in general philosophy of science. One leaves the book with a deeper appreciation for the nature of science, as the subtitle suggests, and why science rightly holds the important place it does in contemporary Western cultures. The book has the marks of being written by a mature scholar, erudite, wide ranging, and carefully argued.