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The Scientific Revolution and its Impact on Knowledge

Exploring the transformative ideas of the Scientific Revolution, this content delves into John Locke's theory of knowledge, Francis Bacon's inductive method, and the rise of systematic experimentation. It highlights the methodological innovations of Galileo, the application of mathematics in science, the mechanical philosophy, the establishment of scientific societies, and the Copernican Revolution in astronomy.

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1

, a key figure during the Enlightenment, significantly influenced the theory of knowledge with his ' ______' concept.

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John Locke tabula rasa

2

In his pivotal book, 'An Essay Concerning Human Understanding' (______), ______ claimed that knowledge comes exclusively through ______.

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1689 Locke experience

3

The ______ approach to knowledge, as advocated by Locke, paved the way for future ______ and psychological theories.

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empirical philosophical

4

Inductive reasoning role in science

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Bacon advocated inductive reasoning to build knowledge from specific observations to general theories.

5

Bacon's 'Novum Organum' significance

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'Novum Organum' proposed a new scientific method involving data collection, pattern observation, and hypothesis testing.

6

Impact of Bacon's methodologies

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Bacon's systematic approach to experimentation and observation propelled the Scientific Revolution and shaped modern science.

7

In his work '______ ______,' Bacon highlighted the significance of hands-on research for technological advancement.

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Novum Organum

8

Bacon criticized the dominant ______ and scholastic methods, viewing them as obstacles to genuine scientific advancement.

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Aristotelian

9

Despite his skepticism towards ideas like ______, Bacon's methodology was crucial for the development of modern empirical research.

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heliocentrism

10

Bacon's philosophy was to use science to conquer nature, which is a cornerstone of ______ empirical research.

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modern

11

Significance of 'De Magnete' (1600)

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William Gilbert's 'De Magnete' demonstrated Earth's magnetic nature, challenging Aristotelian views and promoting empirical science.

12

William Gilbert's contribution to science

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Gilbert pioneered systematic experimentation in studying magnetism, shifting from authority-based to empirical methods.

13

Impact of systematic experimentation

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Systematic experimentation during the Scientific Revolution led to verifiable knowledge, moving away from casual observation.

14

______'s insistence on using observable evidence was crucial in developing the ______ scientific method.

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Galileo Galilei modern

15

The integration of experimentation with ______ analysis by Galileo was considered ______.

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mathematical revolutionary

16

Galileo's support for the ______ model of the solar system challenged established ______.

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heliocentric doctrines

17

Galileo's contribution to scientific thought

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Advocated for the mathematical nature of physical laws, shifting focus from qualitative to quantitative analysis.

18

Role of François Viète's algebraic innovations

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Introduced new algebraic methods that enhanced scientific calculations and theoretical developments.

19

Impact of infinitesimal calculus by Newton and Leibniz

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Provided a powerful mathematical tool, promoting the integration of empirical research with mathematical precision.

20

During the ______ Revolution, a philosophy emerged suggesting natural phenomena could be explained by the motion and interaction of ______ particles.

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Scientific material

21

Newton's principles, once ______, became fundamental to physics, separating scientific explanations from ______ or religious ones.

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controversial metaphysical

22

The mechanical philosophy advocated for explanations based on physical interactions, leading to the ______ of science as an independent field.

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autonomy

23

Origins of the Royal Society

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Began from informal gatherings at Gresham College.

24

Purpose of the French Academy of Sciences

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State-supported institution to advance science.

25

Scientific communication norm establishment

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Introduced peer review as a standard practice.

26

During the ______ Revolution, astronomy changed with the acceptance of the ______ model, suggesting the ______, not Earth, was central in the universe.

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Scientific heliocentric Sun

27

The heliocentric model was introduced by ______ and was further supported by the work of ______ and ______.

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Nicolaus Copernicus Johannes Kepler Galileo Galilei

28

The discovery that heavenly bodies were made of the same materials as Earth contradicted the ______ idea of their unalterable nature.

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Aristotelian

29

This shift in perspective significantly altered humanity's self-concept within the ______.

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cosmos

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John Locke's Theory of Knowledge and Tabula Rasa

John Locke, an influential Enlightenment thinker, profoundly impacted the theory of knowledge with his notion of the mind as a "tabula rasa" or blank slate. In his seminal work, "An Essay Concerning Human Understanding" (1689), Locke posited that all human knowledge is derived from experience. He rejected the concept of innate ideas, arguing instead that the mind at birth is devoid of knowledge and that it is through sensory experience and reflection that individuals acquire understanding. This empirical approach to knowledge laid the groundwork for later philosophical and psychological theories.
17th century wooden desk with scientific instruments, brass astrolabe, glass flask, colored powders on parchment, microscope and telescope.

Francis Bacon and the Inductive Method

Francis Bacon, a key figure in the development of modern science, championed the use of inductive reasoning as a means to acquire knowledge about the natural world. His promotion of systematic observation and experimentation formed the basis of what is now known as the scientific method. In his influential work, "Novum Organum" (1620), Bacon outlined a new approach to scientific inquiry that involved gathering data, observing patterns, and forming hypotheses to be rigorously tested. His methodological innovations significantly advanced the Scientific Revolution and had a lasting impact on scientific practice.

Bacon's Pragmatic Approach to Science

Francis Bacon envisioned science as a tool for human advancement, emphasizing its practical applications over purely theoretical considerations. In "Novum Organum," he argued for the importance of empirical research in developing technology and improving the human condition. Bacon was critical of the prevailing Aristotelian and scholastic traditions, which he saw as impediments to true scientific progress. Although he was skeptical of certain contemporary ideas, such as heliocentrism, his overall approach to science as a means to master nature laid the foundation for modern empirical research.

The Rise of Systematic Experimentation

The shift towards systematic experimentation during the Scientific Revolution marked a departure from the reliance on authority and casual observation that characterized much of medieval science. Pioneers like William Gilbert, with his meticulous studies on magnetism documented in "De Magnete" (1600), exemplified this new approach. Gilbert's work, which demonstrated that the Earth behaves like a giant magnet, was a significant step away from Aristotelian natural philosophy and towards a more empirical and experimental methodology in science.

Galileo's Methodological Innovations

Galileo Galilei's contributions to science were instrumental in shaping the modern scientific method. His insistence on the primacy of observable evidence and his integration of experimentation with mathematical analysis were revolutionary. Galileo's work in astronomy and physics, including his support for the heliocentric model of the solar system, demonstrated the power of empirical evidence to challenge established doctrines. His commitment to precise measurement and reproducibility in experimentation set new standards for scientific inquiry.

Mathematics as the Language of Science

The Scientific Revolution was characterized by the increasing application of mathematics to the study of nature, a departure from the qualitative analysis of the past. Galileo's belief in the mathematical nature of physical laws, along with the algebraic innovations of François Viète, transformed scientific thought. The development of infinitesimal calculus by Isaac Newton and Gottfried Wilhelm Leibniz further expanded the mathematical toolkit available to scientists, reinforcing the idea that empirical research should be coupled with mathematical rigor.

The Mechanical Philosophy and Newtonian Physics

The mechanical philosophy that emerged during the Scientific Revolution posited that natural phenomena could be explained by the motion and interaction of material particles, without recourse to inherent qualities or purposes. Isaac Newton's formulation of the laws of motion and the law of universal gravitation exemplified this approach. Although initially controversial, Newton's principles eventually became cornerstones of physics, distinguishing scientific explanations from metaphysical or religious interpretations and fostering the autonomy of science as a discipline.

The Establishment of Scientific Societies

The institutionalization of science during the Scientific Revolution was marked by the creation of formal organizations such as the Royal Society of London and the French Academy of Sciences. These societies provided forums for scientists to share their findings, conduct collaborative research, and establish norms for scientific communication, including peer review. The Royal Society, which grew out of informal meetings at Gresham College, and the state-supported French Academy played pivotal roles in promoting scientific exchange and contributing to the progress of science.

The Copernican Revolution in Astronomy

The field of astronomy was transformed during the Scientific Revolution by the adoption of the heliocentric model, which posited that the Sun, rather than the Earth, was at the center of the universe. Initiated by Nicolaus Copernicus and further substantiated by the observations of Johannes Kepler and Galileo Galilei, this paradigm shift challenged the long-standing geocentric view. The recognition that celestial bodies were composed of the same mutable substances as Earth and not ethereal or unchanging undermined the Aristotelian concept of celestial perfection and revolutionized humanity's understanding of its place in the cosmos.