The Map of Human Meaning

Science builds knowledge by making reality testable.

Science transforms curiosity into shared methods for observing, measuring, explaining, questioning, and revising what humanity understands about the world.

Colorful steaming thermal pool with orange mineral deposits and forested hills

Science in the Field

Color can be evidence.

Thermal pools reveal how temperature, minerals, microorganisms, and light make invisible processes visible.

Original photograph contributed to Symbol Wizards.

Category Introduction

Evidence, uncertainty, institutions, and the creation of knowledge

Science is often described as a collection of facts, but it is more accurately understood as a social and methodological process for producing reliable knowledge. Scientists observe, measure, compare, model, test, criticize, and revise explanations. Popper (1959) emphasized that scientific claims must remain open to testing and possible refutation rather than being protected from challenge.

Scientific knowledge also develops within communities. Kuhn (1962) argued that researchers usually work within paradigms: shared assumptions, examples, methods, and standards that organize what questions can be asked and what counts as a satisfactory answer. Scientific change therefore involves both evidence and shifts in how communities interpret evidence.

Institutions are central to this process. Merton (1973) described scientific norms such as organized skepticism, communal evaluation, and disinterested inquiry. Peer review, replication, conferences, laboratories, journals, universities, and professional organizations create systems through which claims are examined and credibility is established.

Science is also shaped by language, instruments, and social position. Latour and Woolgar (1979) showed how laboratory facts emerge through practical work involving devices, inscriptions, interpretation, and negotiation. Longino (1990) argued that objectivity depends not on the absence of values, but on critical interaction among diverse perspectives capable of identifying hidden assumptions.

Public understanding introduces additional challenges. Scientific findings often involve probability, uncertainty, technical language, and incomplete evidence. Media systems may reward dramatic conclusions, false balance, or oversimplification. Oreskes (2019) argues that public trust is best grounded not in the infallibility of individual scientists, but in the collective and self-correcting character of scientific communities.

For Symbol Wizards, studying science means examining how evidence becomes knowledge and how knowledge becomes public meaning. Scientific communication influences what societies fear, fund, regulate, teach, and imagine. Understanding its methods and institutions helps people evaluate claims without either blindly accepting authority or dismissing expertise altogether.

Future Investigations

Topics coming to the Science section

These investigations will connect scientific knowledge to evidence, institutions, ethics, media, uncertainty, public trust, and social power.

Coming Soon

Scientific Revolutions

How major changes in theories and methods transform what scientists consider possible, meaningful, and true.

Coming Soon

Evidence and Explanation

How observation, measurement, modeling, inference, replication, and uncertainty support scientific claims.

Coming Soon

Paradigms and Worldviews

How communities of researchers share assumptions, questions, methods, and standards for valid knowledge.

Coming Soon

Science and Public Trust

How expertise, institutions, transparency, communication, and historical experience shape public confidence.

Coming Soon

Science, Media, and Misinformation

How complex findings are simplified, framed, exaggerated, disputed, or distorted in public communication.

Coming Soon

Ethics of Discovery

How research involving humans, animals, environments, data, and emerging technologies raises moral responsibility.

Coming Soon

Science and Inequality

How funding, access, representation, colonial histories, and institutional power affect whose knowledge is recognized.

Coming Soon

Citizen Science and Public Knowledge

How communities, patients, activists, and nonprofessional researchers contribute to observation and discovery.

Reflective Inquiry

Seven questions to consider

Use these questions when examining a study, headline, scientific controversy, medical claim, data visualization, expert statement, or public policy debate.

  1. 1

    What counts as evidence in this scientific claim, and how was that evidence produced?

  2. 2

    Which assumptions, models, instruments, or classifications shape what researchers are able to observe?

  3. 3

    How is uncertainty communicated, and does the public message accurately reflect the limits of the research?

  4. 4

    Who has the authority to speak as an expert, and how was that authority established?

  5. 5

    What ethical responsibilities arise from the methods, applications, or possible consequences of the research?

  6. 6

    How do funding, institutions, media systems, and political interests influence which questions receive attention?

  7. 7

    How could scientific knowledge be communicated more clearly without oversimplifying complexity or uncertainty?

Academic sources and further reading

Kuhn, T. S. (1962). The structure of scientific revolutions. University of Chicago Press.

Latour, B., & Woolgar, S. (1979). Laboratory life: The social construction of scientific facts. Sage.

Longino, H. E. (1990). Science as social knowledge: Values and objectivity in scientific inquiry. Princeton University Press.

Merton, R. K. (1973). The sociology of science: Theoretical and empirical investigations. University of Chicago Press.

Oreskes, N. (2019). Why trust science? Princeton University Press.

Popper, K. R. (1959). The logic of scientific discovery. Hutchinson.

Ziman, J. (2000). Real science: What it is, and what it means. Cambridge University Press.