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Galileusz

1564–1642

Pierwsze przybliżeniecelowe uproszczenie – portret mówi więcej

Przyroda podlega prawom matematycznym, a odkrywamy je, mierząc i eksperymentując, a nie ufając dawnym autorytetom.

Umiejscowienie

Nauki przyrodnicze i nauki o człowieku · Europa Południowa · Nauka, Epistemologia

Księga natury jest napisana językiem matematyki („Il Saggiatore”, 1623): obserwacjami przez teleskop i doświadczeniami nad ruchem pomógł założyć fizykę matematyczno-doświadczalną.

Kluczowe idee

  • Matematyzacja przyrody
  • Eksperyment

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Wpływ

Pod wpływem 4

  • Platon

    pod wpływem

    Galileo’s Dialogo (1632) alludes to Plato’s doctrine of recollection; Koyré read his mathematical physics as Platonism, a thesis many historians qualify (‘Galileo and Plato’, 1943). Galileo, Dialogo sopra i due massimi sistemi del mondo (1632); A. Koyré, “Galileo and Plato”, Journal of the History of Ideas 4 (1943); SEP “Galileo Galilei”

    Źródło: szkic AI

    Platon › 428–348 p.n.e.

  • Jan Filopon

    pod wpływem

    In his early De motu (c. 1590) Galileo cited Philoponus, whose objections to Aristotle’s dynamics of motion in a medium and in the void he partly shared. Galileo, De motu antiquiora (c. 1590); SEP “Philoponus”; R. Sorabji (ed.), Philoponus and the Rejection of Aristotelian Science (1987)

    Źródło: szkic AI

    Jan Filopon › ok. 490–570

  • Jan Buridan

    pod wpływem sporne

    Galileo’s early De motu (c. 1590) used an impressed force close to Buridan’s impetus; whether Paris impetus theory led to his mechanics, as Duhem claimed, is disputed. Galileo, De motu antiquiora (c. 1590); P. Duhem, Études sur Léonard de Vinci, vol. III (1913); SEP “John Buridan”; SEP “Galileo Galilei”

    Źródło: szkic AI

    Jan Buridan › ok. 1300–1360

  • Mikołaj Kopernik

    pod wpływem

    Galileo defended Copernicus’ heliocentric system with telescopic evidence (Sidereus nuncius, 1610) and in the Dialogo (1632), which led to his condemnation in 1633. Galileo, Sidereus nuncius (1610); Dialogo sopra i due massimi sistemi del mondo (1632); SEP “Galileo Galilei”; SEP “Nicolaus Copernicus”

    Źródło: szkic AI

    Mikołaj Kopernik › 1473–1543

Wpływ na 4

  • Tommaso Campanella

    wpływ na

    In his Apologia pro Galilaeo (written 1616, printed 1622) Campanella defended Galileo’s freedom to pursue Copernican astronomy and held it compatible with Scripture. T. Campanella, Apologia pro Galilaeo (written 1616, printed Frankfurt 1622); SEP “Tommaso Campanella”

    Źródło: szkic AI

    Tommaso Campanella › 1568–1639

  • Thomas Hobbes

    wpływ na

    Hobbes visited Galileo in 1636 and, in the dedication of De Corpore (1655), praised him for opening the gate of natural philosophy through the nature of motion. T. Hobbes, De Corpore (1655), Epistle Dedicatory; SEP “Thomas Hobbes”

    Źródło: szkic AI

    Thomas Hobbes › 1588–1679

  • Pierre Gassendi

    wpływ na

    Gassendi corresponded with Galileo and tested his principle of shared motion by dropping stones from a moving ship’s mast (On Motion Impressed by a Moving Mover, 1642). P. Gassendi, De motu impresso a motore translato (1642); SEP “Pierre Gassendi”

    Źródło: szkic AI

    Pierre Gassendi › 1592–1655

  • Isaac Newton

    wpływ na

    Newton credited Galileo with having used the first two laws of motion to find the law of fall and the parabolic path of projectiles (Principia, 1687). I. Newton, Philosophiae naturalis principia mathematica (1687); Galileo, Discorsi e dimostrazioni matematiche intorno a due nuove scienze (1638); SEP “Isaac Newton”

    Źródło: szkic AI

    Isaac Newton › 1643–1727

Krytyka

Krytykuje 1

  • Arystoteles

    krytykuje

    Galileo argued against Aristotle’s physics – that heavier bodies fall faster and the heavens cannot change – in the Dialogue (1632) and Two New Sciences (1638). Galileo, Dialogo sopra i due massimi sistemi (1632), Day 1; Discorsi e dimostrazioni matematiche (1638), Day 1; SEP “Galileo Galilei”

    Źródło: szkic AI

    Arystoteles › 384–322 p.n.e.

Dzieła

Stanowisko

Galileo showed how nature should be studied: by combining precise experiment with mathematical reasoning. The book of nature, he wrote, is written in the language of mathematics, in triangles, circles and other figures. He separated measurable “primary” qualities such as size, shape and motion from “secondary” ones such as colour and taste, which exist only in the perceiver. His laws of falling bodies and his principle of inertia overturned Aristotelian physics. In his Letter to the Grand Duchess Christina he quoted a churchman, usually identified as Cardinal Baronius: the Bible teaches how to go to heaven, not how the heavens go. His conflict with the Church became the lasting emblem of the struggle between science and authority.

Życie i kontekst

Born in Pisa in 1564, Galileo taught mathematics in Pisa and Padua. With a telescope he built in 1609 he discovered the moons of Jupiter, the phases of Venus and mountains on the moon, and became court mathematician in Florence. His defence of Copernicus led to his trial by the Inquisition in 1633; he spent his last years under house arrest near Florence and died in 1642.

Dalsze główne dzieła

  • The Starry Messenger (1610)
  • Letter to the Grand Duchess Christina (1615)
  • The Assayer (1623)
  • Dialogue Concerning the Two Chief World Systems (1632)
  • Two New Sciences (1638)

Źródła: Wikipedia · Wikidata

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