9.3 Medieval universities and scholastic mathematics

3 min readaugust 9, 2024

Medieval universities played a crucial role in advancing mathematics during the Middle Ages. They provided a structured environment for learning and research, combining classical knowledge with new ideas. The curriculum centered on the liberal arts, including mathematical subjects in the .

The , a group of scholars at , made significant contributions to mathematics and physics. They developed new approaches to quantifying motion and change, laying the groundwork for future advancements in calculus and analytical geometry.

Medieval University Curriculum

Liberal Arts Foundation: Trivium and Quadrivium

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Top images from around the web for Liberal Arts Foundation: Trivium and Quadrivium
  • Trivium formed the foundation of medieval university education
    • Grammar focused on Latin language and literature
    • Logic taught formal reasoning and argumentation techniques
    • Rhetoric developed persuasive speaking and writing skills
  • Quadrivium built upon the Trivium with mathematical subjects
    • Arithmetic covered number theory and basic calculations
    • Geometry explored Euclidean principles and spatial relationships
    • Astronomy studied celestial bodies and their movements
    • Music examined mathematical relationships in harmonics and rhythm
  • Liberal arts curriculum prepared students for advanced studies in theology, law, or medicine

Scholasticism: Method and Philosophy

  • Scholasticism emerged as the dominant intellectual approach in medieval universities
  • Emphasized logical reasoning and critical analysis of authoritative texts
  • Utilized dialectical method to reconcile contradictions in philosophical and theological writings
  • Key figures in scholastic tradition included and Peter Abelard
  • Quaestio disputata served as a primary teaching tool
    • Involved formal debates on specific topics
    • Students practiced defending and refuting arguments
  • Scholastic approach influenced mathematical studies
    • Encouraged precise definitions and logical proofs
    • Led to advancements in logic and early foundations of mathematical rigor

Oxford Calculators

Merton College and the Oxford School

  • Merton College at Oxford University became a center for mathematical innovation in the 14th century
  • Group of scholars known as the Oxford Calculators or Merton School emerged
    • Focused on applying mathematical reasoning to physical problems
    • Developed new approaches to quantifying motion and change
  • Notable members included Thomas Bradwardine, , and
  • Merton College provided institutional support for mathematical research
    • Well-stocked library with mathematical and scientific texts
    • Collaborative environment fostered intellectual exchange

Key Figures and Their Contributions

  • made significant advancements in mathematics and
    • Developed early concepts of analytical geometry
    • Proposed graphical representations of variable quantities
    • Explored infinite series and the nature of continuity
  • Thomas Bradwardine applied mathematics to theology and physics
    • Authored "" examining relationships between velocity, force, and resistance
    • Contributed to the development of logarithmic concepts
  • Richard Swineshead, known as "Calculator," wrote influential works on physics and mathematics
    • "" addressed problems of motion, intensity, and infinity
    • Explored concepts of acceleration and deceleration

Mean Speed Theorem and Its Implications

  • , also known as the , represented a major breakthrough in kinematics
  • Stated that a uniformly accelerating body travels the same distance as a body moving at a constant velocity equal to the mean of the initial and final velocities
  • Formulated mathematically as: s=12(v0+vf)ts = \frac{1}{2}(v_0 + v_f)t Where s is distance, v₀ is initial velocity, vf is final velocity, and t is time
  • Theorem laid the groundwork for later developments in calculus and physics
    • Provided a method for calculating distance traveled under acceleration
    • Influenced Galileo's work on falling bodies in the 16th century
  • Application of the theorem extended beyond physics
    • Used in economic calculations and financial modeling
    • Contributed to the development of graphical representations of motion and change

Key Terms to Review (27)

Al-khwarizmi's works: Al-Khwarizmi's works refer to the influential writings of the Persian mathematician and scholar, which laid the foundations for algebra and introduced significant mathematical concepts to medieval Europe. His texts, particularly 'Al-Kitab al-Mukhtasar fi Hisab al-Jabr wal-Muqabala,' not only provided systematic methods for solving equations but also highlighted the importance of algorithmic thinking, which had a profound impact on the development of mathematics in medieval universities and scholastic thought.
Algebraic notation: Algebraic notation refers to the system of symbols and conventions used to express mathematical relationships and operations in algebra. This notation simplifies the communication of complex mathematical ideas, making it easier to manipulate equations and solve problems across different cultures and time periods.
Arabic numerals: Arabic numerals are the ten symbols used to represent numbers in the decimal system, specifically the digits 0 through 9. These numerals originated in India and were transmitted to Europe through Arabic mathematicians during the Middle Ages, revolutionizing mathematics and commerce. Their adoption replaced the more cumbersome Roman numeral system, allowing for easier calculations and greater efficiency in mathematical notation.
Cathedral schools: Cathedral schools were educational institutions established in the early Middle Ages, primarily associated with cathedrals and monasteries, focusing on training clergy and educating boys in various subjects including mathematics, philosophy, and theology. These schools served as a precursor to the later medieval universities, laying the groundwork for higher education and promoting scholasticism, which combined faith and reason.
De natura locorum: De natura locorum, which translates to 'on the nature of places,' refers to a mathematical study that examines spatial relationships and geometrical properties. This concept emerged during the medieval period and played a significant role in the curriculum of medieval universities, particularly in the context of scholastic mathematics, where students explored the properties and definitions of geometric figures and their applications in logic and philosophy.
Dialectic method: The dialectic method is a form of inquiry and discussion that seeks to resolve contradictions through reasoned argumentation and critical dialogue. This approach emphasizes the importance of questioning, refining, and synthesizing ideas to reach deeper understanding and truth. It was particularly influential in the development of scholastic thought in medieval universities, where scholars engaged in rigorous debate and analysis of philosophical and mathematical concepts.
Geometry of the heavens: The geometry of the heavens refers to the mathematical principles and geometric relationships used to understand and model celestial bodies, their movements, and the structure of the universe. This concept was pivotal during the medieval period as scholars sought to reconcile classical knowledge with religious beliefs, leading to advancements in astronomy and navigation.
Liber calculationum: The term 'liber calculationum' refers to a foundational mathematical text from the medieval period, often translated as 'Book of Calculations.' It serves as an important source for understanding the development of arithmetic and algebra in medieval scholastic settings, showcasing how mathematical knowledge was organized, taught, and disseminated within early universities. This book not only represents the mathematical techniques of the time but also reflects the cultural and intellectual environment that fostered scholarly pursuits during the medieval era.
Mean Speed Theorem: The Mean Speed Theorem states that if an object travels over a distance at varying speeds, the average speed for the entire journey can be determined as the total distance divided by the total time taken. This theorem is significant in the study of motion and provides a mathematical approach to understanding speed in both practical and theoretical contexts.
Merton College: Merton College is one of the oldest colleges at the University of Oxford, founded in 1264. It has a rich history in academic excellence, particularly known for its contributions to mathematics and philosophy during the medieval period. The college played a pivotal role in the development of scholastic thought and was home to scholars who made significant advancements in mathematical understanding.
Merton Rule: The Merton Rule is a principle in the history of mathematics that emphasizes the importance of intellectual collaboration and shared knowledge among scholars during the medieval period. It highlights how ideas were built upon collectively, often in university settings, promoting the development of scholastic mathematics through discourse and debate rather than isolated study.
Metaphysics of numbers: The metaphysics of numbers refers to the philosophical study concerning the nature, existence, and significance of numbers beyond their mathematical applications. This exploration often addresses questions about whether numbers are real entities, how they relate to the physical world, and the implications of numerical systems on human thought and logic.
Natural philosophy: Natural philosophy is the study of the nature of the universe, encompassing concepts of science, mathematics, and metaphysics as they were understood before the development of modern scientific methods. This branch of knowledge sought to explain the physical world through reason and observation, laying the groundwork for later scientific inquiry. In the context of medieval universities and scholastic mathematics, natural philosophy played a crucial role in integrating classical knowledge with religious teachings, shaping early educational curricula.
Nicole Oresme: Nicole Oresme was a 14th-century French scholar, mathematician, and philosopher, known for his contributions to the early development of mathematical concepts and his work on the foundations of calculus. He was associated with the University of Paris, where he merged scholastic philosophy with mathematical theories, influencing later thinkers in the transition from medieval to modern mathematics.
Oxford Calculators: Oxford calculators were sophisticated mathematical devices developed in the late medieval period, particularly associated with the University of Oxford. These instruments were used for various calculations, including arithmetic, geometry, and astronomy, reflecting the growing interest in mathematical studies during the era of scholasticism. Their design and functionality contributed to advancements in mathematical education and practice within medieval universities.
Quadrivium: The quadrivium refers to the four subjects of the medieval liberal arts curriculum that included arithmetic, geometry, music, and astronomy. This educational framework was essential for students at medieval universities, laying the groundwork for advanced studies in philosophy and theology. Each subject in the quadrivium contributed to a comprehensive understanding of the universe and human existence, reflecting the interconnectedness of knowledge during this time.
Quantitative reasoning: Quantitative reasoning is the ability to use mathematical concepts and skills to analyze and interpret quantitative information, make decisions based on numerical data, and solve problems. This skill involves critical thinking and logical reasoning applied to real-world situations, which often includes the understanding of ratios, percentages, and data interpretation. In historical contexts, it reflects how mathematical education was integrated into broader academic disciplines, particularly in the context of Medieval universities and scholastic mathematics.
Richard Swineshead: Richard Swineshead was a 14th-century English mathematician and philosopher, known for his contributions to scholastic mathematics and for being a prominent figure in the medieval university system. His work often focused on the concepts of proportion, quantity, and mathematical reasoning, which were essential to the development of mathematical thought during the medieval period. Swineshead's teachings and writings helped bridge the gap between ancient mathematical knowledge and the emerging scholastic traditions of his time.
Robert Grosseteste: Robert Grosseteste was a 13th-century English bishop, philosopher, and scholar known for his significant contributions to the development of scientific thought and the teaching of mathematics in medieval universities. His work emphasized the importance of empirical observation and the use of mathematics as a tool for understanding the natural world, laying the groundwork for later scientific methods. Grosseteste is often credited with bridging the gap between ancient philosophy and medieval scholasticism, influencing subsequent scholars in both mathematics and natural philosophy.
Summa theologica: The 'summa theologica' is a comprehensive theological work written by Thomas Aquinas in the 13th century, which systematically addresses various theological questions and issues. This monumental text reflects the synthesis of faith and reason, integrating Aristotelian philosophy with Christian doctrine, and has had a profound influence on medieval universities and scholastic thought, particularly in mathematics and logic.
The divine order: The divine order refers to the belief that there is a cosmic or moral structure to the universe that reflects divine principles, often guiding human understanding and knowledge. This concept influenced various aspects of medieval life, intertwining religious beliefs with intellectual pursuits, particularly in universities where scholastic mathematics emerged as a way to comprehend this order through reason and logic.
Thomas Aquinas: Thomas Aquinas was a medieval philosopher and theologian known for his synthesis of Aristotelian philosophy with Christian doctrine, significantly influencing scholasticism. His works emphasized reason as a means to understand faith, promoting the idea that faith and reason are complementary rather than contradictory, which became foundational for medieval universities and their mathematical curricula.
Tractatus de proportionibus: The 'tractatus de proportionibus' is a significant mathematical treatise from the medieval period that primarily focuses on the study of proportions and their applications in various fields. This work exemplifies the intersection of mathematics and scholastic thought in medieval universities, where scholars sought to synthesize classical knowledge with contemporary ideas, leading to advancements in mathematical theories and practices.
University curriculum: The university curriculum refers to the structured set of courses, learning experiences, and academic requirements that form the foundation of education within a university. It encompasses the subjects offered to students, the objectives of these courses, and the methods of assessment, all designed to provide a comprehensive education in various disciplines. In the context of medieval universities, the curriculum was heavily influenced by scholastic methods that emphasized logic and dialectical reasoning, intertwining mathematics with philosophy and theology.
University of Oxford: The University of Oxford is one of the oldest and most prestigious universities in the world, located in Oxford, England. Established in the 12th century, it became a center for scholarly activity and played a vital role in the development of medieval education, particularly in the field of mathematics and philosophy during the scholastic period.
University of Paris: The University of Paris was one of the most important medieval universities, founded in the late 12th century and becoming a central hub for scholarly activity in Europe. It played a crucial role in the development of scholastic mathematics and philosophy, influencing a wide range of intellectual disciplines and contributing to the rise of academic institutions across the continent.
William Heytesbury: William Heytesbury was a 14th-century English mathematician and philosopher known for his contributions to scholastic mathematics and the study of the works of Aristotle. He played a crucial role in the development of mathematical thought during the medieval period, particularly through his commentaries on logic and geometry. His works reflect the blending of mathematical inquiry with philosophical analysis, characteristic of the scholastic tradition.
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