Skip to main content

Definitions by Dumu The Void

Social Sciences of the Laws of Physics

The application of social science disciplines—sociology, anthropology, political science, economics—to the study of how physical laws are discovered, validated, and understood within social contexts. The social sciences of physical laws examine how social forces shape law-discovery: how scientific communities form around law-seeking programs; how status and authority influence which law-claims are accepted; how funding priorities direct attention to some laws rather than others; how cultural assumptions are embedded in our conception of what laws are; how political contexts constrain or enable certain kinds of law-research. They reveal that even the most fundamental physical laws are discovered and validated through social processes—that the community of physicists is a social system with all the dynamics that entails. The social sciences of physical laws don't claim that laws are social constructions (they describe reality), but that our knowledge of them is socially produced.
Social Sciences of the Laws of Physics Example: "His social sciences of physical laws research showed how the search for a theory of everything became a dominant research program not because it was the most promising, but because it captured institutional imagination, funding priorities, and career incentives. The science was real, but the direction was social."

Metascience of the Laws of Physics

The systematic study of physical laws using the frameworks and tools of metascience—the science of science. The metascience of physical laws examines laws as phenomena that cut across physics, asking meta-level questions about how laws are discovered, how they're validated, how they change over time, and how they relate to the social and institutional contexts of physics. It draws on multiple meta-perspectives: the history of laws (how our understanding has evolved), the sociology of laws (how communities establish what counts as a law), the psychology of law-discovery (how scientists reason about laws), the philosophy of laws (their metaphysical status), and the economics of law-research (how funding shapes what laws are pursued). The metascience of physical laws seeks not just to understand laws but to understand the process of law-discovery itself—how physics comes to know what it claims to know about the fundamental rules of reality.
Metascience of the Laws of Physics Example: "Her metascience of physical laws research combined historical analysis of how conservation laws were discovered, sociological studies of how law-claims are validated, and psychological experiments on how physicists reason about symmetry. The goal wasn't just to understand laws but to understand how we come to know them."

Infrascience of the Laws of Physics

A branch of infrascience that examines the infrastructure underlying our knowledge of physical laws—the systems, structures, and conditions that make it possible to discover, test, and understand laws. The infrascience of physical laws investigates what must be in place for law-discovery to occur: experimental infrastructure (particle accelerators, observatories, laboratories) that enables us to probe law-governed behavior; theoretical infrastructure (mathematics, computation, simulation) that allows us to formulate and test laws; institutional infrastructure (funding agencies, research centers, journals) that supports law-seeking communities; and conceptual infrastructure (paradigms, frameworks, assumptions) that shapes what we look for and what we find. It also examines how this infrastructure shapes what laws we discover—how new instruments reveal new aspects of law, how theoretical advances transform our understanding, how institutional priorities direct attention to some laws rather than others.
Infrascience of the Laws of Physics Example: "His infrascience of physical laws research showed how the development of the Large Hadron Collider didn't just test existing laws—it created the possibility of discovering entirely new ones. The infrastructure didn't just enable inquiry; it shaped what could be found."

Science of the Laws of Physics

The empirical study of the laws of physics themselves using scientific methods—treating physical laws as phenomena to be investigated through observation, experiment, and analysis. The science of the laws of physics applies the tools of physics to understand why laws take the form they do, how they relate to each other, what their limits are, and whether they might change. It asks questions like: Are the constants truly constant? Do laws hold in all contexts? Can we derive laws from deeper principles? Are there meta-laws that govern what laws are possible? This approach treats laws not as ultimate givens but as objects of scientific inquiry in their own right—subject to investigation, testing, and potentially revision. The science of laws is physics reflecting on its own foundations, using its own tools to understand its own structure.
Science of the Laws of Physics Example: "Her science of the laws of physics research measured the fine-structure constant over cosmic time—testing whether it had changed since the early universe. The laws themselves became objects of empirical investigation, not just assumptions."

Infraphysics of the Laws of Physics

A branch of infraphysics that examines the infrastructure underlying the laws of physics themselves—the foundational systems, structures, and conditions that make physical law possible and shape what laws can be. Infraphysics of the laws of physics investigates what must be in place for laws to exist: the mathematical frameworks that express them, the conceptual spaces they inhabit, the symmetries that constrain them, the constants that parameterize them, and the meta-laws that govern their form. It also examines how this infrastructure shapes what laws can be discovered—how the tools we use (mathematics, logic, language) constrain what we can express, how our conceptual frameworks determine what questions we can ask, how the very idea of "law" is itself infrastructure that might not be universal. Infraphysics reveals that laws are never just laws—they're always built on infrastructure, and understanding laws requires understanding the foundations that make them possible.
Infraphysics of the Laws of Physics Example: "His infraphysics of physical laws asked whether the mathematical structures we use to describe reality are discovered or invented—and whether different mathematics would reveal different laws. The infrastructure of law might be as contingent as the laws themselves."

Cognitive Sciences of the Scientific Method

The application of cognitive science—psychology, neuroscience, artificial intelligence, linguistics—to the study of how human minds actually practice the scientific method. The cognitive sciences of the scientific method examine the cognitive processes underlying scientific reasoning: how scientists form hypotheses, how they evaluate evidence, how they detect patterns, how they manage uncertainty, how they overcome biases, how they generate insights. They also investigate how scientific thinking can be enhanced—through training, through tools, through collaboration—and how it can go wrong. The cognitive sciences of the scientific method reveal that method is not just a set of rules but a set of cognitive practices—practices that recruit specific mental capacities, that can be learned and improved, and that are shaped by the architecture of the human mind.
Cognitive Sciences of the Scientific Method Example: "His cognitive sciences of the scientific method research used fMRI to study scientists' brains while they evaluated data—showing that even expert physicists show confirmation bias at the neural level. The method can't eliminate bias because the method runs on brains that have bias built in."

Human Sciences of the Scientific Method

The application of human sciences—history, philosophy, literature, arts, and humanities disciplines—to the study of the scientific method. The human sciences of the scientific method examine the human dimensions of methodological practice: the historical development of method, the philosophical assumptions embedded in it, the cultural meanings it carries, the ethical implications of methodological choices, the narratives and metaphors that shape how method is understood and communicated. They treat the scientific method not just as a cognitive or social phenomenon but as a human one—embedded in history, culture, meaning, and value. The human sciences of the scientific method reveal that method is never just technique; it's always also human choice, human meaning, human story.
Human Sciences of the Scientific Method Example: "Her human sciences of the scientific method research traced how the metaphor of 'nature as machine' shaped the development of experimental method—making certain questions seem natural and others unaskable. The method wasn't just logic; it was poetry too, in the deepest sense."