Essay Abstract
This paper endeavors to describe an ability, right in the Being of mathematics, to sustain a dogmatic set of scientific theories along with the very mechanism for their eventual questioning and upheaval by committed individuals. Mathematics is the indisputable foundation upon which our thought and discourse of the physical universe stands. But what if this foundation is inherently cracked? And what if our well-intentioned attempts to create complete and consistent theories of the world merely act to cover up and repress these congenital cracks, only to have them manifest in the form of anomalies that can rupture our closely-held scientific beliefs and worldviews if we choose to interrogate them? This paper brings these possibilities to light by reviewing the development of the axiomatic set-theory that grounds our modern mathematics, and the resulting opportunity for scientific revolution and theory change that it allows for. Our project proceeds through the lens of philosopher Alain Badiou's work on a set-theoretical ontology, and his attempt to use the discourse of set theory to describe the very mechanism of revolution within such afar fields as mathematics, politics, and art. We conclude with a case study of the Einsteinian revolution from within the Newtonian world of physical theories, through crucial innovations in non-Euclidian geometry, as an example of how unquestioned and dogmatically reinforced cracks in a quasi-complete scientific system can bear the fruits of radical change and transformation, and how approaches to set-theory provide the ontological description of these important phenomena.
Author Bio
Glenn Gomes is a graduate of Columbia University with a degree in Biomedical Engineering and minors in Philosophy and Religion. He has worked at UC Davis Medical Center as a research specialist, researching schizophrenia and bipolar disorder through EEG and fMRI imaging. He is currently pursuing both his MD and MPH at Tufts University School of Medicine.