Galileo's Inclined Plane Experiments and Newtonian Physics Insights

ame20216 lab i a2 galileo s inclined plane n.w
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Explore Galileo's inclined plane experiments, Newtonian physics principles, and the analysis of gravity. Discover how measurements and data interpretation align with the historical context of Sir Isaac Newton and Galileo Galilei.

  • Galileo
  • Inclined Plane
  • Newtonian Physics
  • Gravity
  • Data Interpretation

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Presentation Transcript


  1. AME20216 - Lab I A2 Galileo s Inclined Plane 1 AME20216 - Rumbach

  2. A1 Meterstick Measurements 2 AME20216 - Rumbach

  3. Gravity Galileo Galilei 1564 - 1642 Apollo 15 Feather vs. Hammer Inclined Plane 3 AME20216 - Rumbach

  4. A2 Galileos Inclined Plane Galileo empirically found that t x x 4 AME20216 - Rumbach

  5. Interpreting Data Sir Isaac Newton 1642 - 1747 According to Newtonian physics for a ball rolling down an inclined plane: x(t)=1 5 7gsinq t2+v0t + x0 2 5 AME20216 - Rumbach

  6. A2 Galileos Inclined Plane Measure time t to roll distance x. Photogate A Photogate B x 6 AME20216 - Rumbach

  7. A2 Galileos Inclined Plane 7 AME20216 - Rumbach

  8. A2 Extrapolating g x(t)=1 5 7gsinq t2+v0t + x0 2 xfit(t)= p1 t2+ p2 t+ p3 p1=1 5 7gsinq 2 14 g = 5sinqp1 8 AME20216 - Rumbach

  9. A2 Using fit() command = 8.1 14 g = 5sinqp1 Uncertainty in p1 Uncertainty in g 0.5324 m/s2 10.6320 m/s2 0.5114 m/s2 g = 10.2 0.4 m/s2 10.2121 m/s2 0.4904 m/s2 9.7933 m/s2 9 AME20216 - Rumbach

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