History, Philosophy & Religion Science Studies

Philosophy of Science

How Scientific Knowledge Is Built, Tested, Debated, and Revised

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Quick Course Facts
19
Self-paced, Online, Lessons
19
Videos and/or Narrated Presentations
6.8
Approximate Hours of Course Media
About the Philosophy of Science Course

Philosophy of Science examines how scientific inquiry works, why evidence matters, and how theories earn, lose, or revise their authority. This course helps students understand How Scientific Knowledge Is Built, Tested, Debated, and Revised while developing sharper reasoning skills for evaluating research, expert claims, and public scientific debates.

Examine Philosophy Through The Practice Of Science

  • Learn how philosophers distinguish scientific inquiry from opinion, speculation, and pseudoscience.
  • Explore major ideas from Popper, Kuhn, Lakatos, Feyerabend, Bayesian reasoning, realism, and anti-realism.
  • Understand how evidence, explanation, causation, models, replication, and uncertainty shape reliable knowledge.
  • Apply Philosophy of Science to contemporary research debates, expert disagreement, bias, and public communication.

A practical introduction to Philosophy of Science and the reasoning behind scientific knowledge.

This course guides students through the central questions of Philosophy: What makes an investigation scientific? How do observation and measurement depend on theory? Can scientific generalizations be justified, and how should claims be tested, confirmed, challenged, or revised?

Across focused lessons, students study induction, falsifiability, Bayesian reasoning, scientific explanation, causation, models, idealization, realism, underdetermination, and scientific change. The course also examines science as a human practice, including objectivity, bias, values, replication, reproducibility, uncertainty, and the public consequences of scientific communication.

By the end of Philosophy of Science, students will have a clearer understanding of How Scientific Knowledge Is Built, Tested, Debated, and Revised. They will be better prepared to evaluate scientific claims, recognize the strengths and limits of evidence, and think more carefully about the role of science in research, policy, medicine, society, and everyday life.

Course Lessons

Full lesson breakdown

Lessons are organized by topic area and each includes descriptive copy for search visibility and student clarity.

Foundations of Scientific Thinking

2 lessons

This lesson introduces the problem of demarcation: how philosophers, scientists, and citizens distinguish scientific inquiry from other ways of asking questions. Rather than treating science as a sing…
This lesson examines why scientific observation is not a simple act of passively recording nature. Scientists observe through concepts, instruments, background assumptions, training, and measurement c…

Evidence and Inference

3 lessons

This lesson examines induction: the form of reasoning that moves from observed cases to broader scientific generalizations. Students learn why induction is indispensable to science, why it is not dedu…
This lesson introduces Karl Popper’s account of science as a practice organized around bold conjectures and serious attempts at refutation. Rather than treating science as the accumulation of confirme…
This lesson explains how evidence supports scientific claims without usually proving them outright. Students learn the difference between confirmation and prediction, why surprising successful predict…

Scientific Explanation

2 lessons

This lesson examines what philosophers mean by scientific explanation : not merely predicting that something will happen, but showing why it happens, how it happens, or how it fits into a wider patter…
This lesson examines how scientists reason about causation when explanation requires more than identifying regular patterns. It distinguishes correlation, prediction, mechanism, and causal explanation…

Scientific Representation

1 lesson

This lesson examines why scientific models are not miniature copies of the world, but selective representations built for particular purposes. Students learn how models simplify, idealize, isolate var…

Truth, Reality, and Representation

2 lessons

This lesson examines the central dispute between scientific realism and scientific anti-realism : whether successful scientific theories should be understood as describing a mind-independent reality, …
This lesson examines underdetermination : the problem that available evidence may support more than one theory, model, or explanation. In science, data rarely speak entirely for themselves. Observatio…

Scientific Change

3 lessons

This lesson introduces Thomas Kuhn’s account of scientific change, especially his concepts of paradigms , normal science , anomalies , crisis , and scientific revolutions . Kuhn challenged the idea th…
This lesson explains Imre Lakatos’s methodology of scientific research programmes, a major attempt to improve on both Popper’s falsificationism and Kuhn’s paradigm theory. Lakatos argues that science …
This lesson examines Paul Feyerabend’s challenge to the idea that science advances by following a fixed, universal method. Using examples such as Galileo’s defense of heliocentrism, it explains why Fe…

Science as a Human Practice

2 lessons

This lesson examines science as a human practice: conducted by people, funded by institutions, shaped by professional incentives, and corrected through social mechanisms such as peer review, replicati…
This lesson examines how values enter scientific practice without reducing science to mere opinion. Students distinguish epistemic values, such as accuracy and explanatory power, from social and ethic…

Scientific Practice and Reliability

1 lesson

This lesson examines experimentation as a disciplined way of asking questions of the world, not merely as a procedure for producing dramatic results. Students learn how experiments connect hypotheses,…

Science in Public Life

2 lessons

This lesson examines why the boundary between science and pseudoscience matters in public life, especially when citizens, journalists, educators, courts, and policymakers must evaluate competing knowl…
This lesson examines how uncertainty and expert disagreement function in public scientific communication. Students learn why uncertainty is not a defect in science, how expert disagreement can be prod…

Synthesis and Application

1 lesson

This lesson brings the course together by showing how philosophical tools can clarify contemporary research debates without turning them into simple contests between science and opinion. Students lear…

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About Your Instructor
Professor Samuel Reed

Professor Samuel Reed

Professor Samuel Reed guides this AI-built Virversity course with a clear, practical teaching style.