Chemical Logarithmic Diagram

Chemical Logarithmic Diagram
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2016-05-05 00:20
This example demonstrates a chemical logarithmic diagram, involving the concept of logarithmic functions. Using GeoGebra commands such as Intersect, Circle, and OrthogonalLine, the geometric representation of the logarithmic diagram is constructed. Suitable for high school mathematics education, particularly for coordinate geometry and function graphing.

GeoGebra Commands & Parameters

  1. Intersect(xAxis, yAxis) → A
  2. Circle(A, 14) → c
  3. Intersect(c, xAxis, 2) → B
  4. Intersect(c, yAxis, 1) → C
  5. OrthogonalLine(C, yAxis) → a
  6. OrthogonalLine(B, xAxis) → b
  7. Intersect(a, b) → D
  8. Segment(C, D) → d_2
  9. Segment(D, B) → e_2
  10. Segment(B, A) → f_2
  11. Segment(A, C) → g_2
  12. Segment(A, D) → h_2
  13. Segment(C, B) → i
  14. Textfield(C_a) → CampEntradaSortida1
  15. Textfield(k) → CampEntradaSortida2
  16. Textfield(p) → CampEntradaSortida6
  17. Midpoint(A, C) → E
  18. Midpoint(C, D) → F
  19. Intersect(m_1, n_1, (5.522878745280339, -2.3010299956639804)) → H
  20. Segment(G, H) → t
  21. Point(h_2) → I
  22. Point(i) → J
  23. Point(n_1) → L
  24. Point(l) → M
  25. Textfield(k_{11}) → CampEntradaSortida3
  26. Textfield(k_{21}) → CampEntradaSortida4
  27. Textfield(k_{31}) → CampEntradaSortida5
  28. Textfield(k_{12}) → CampEntradaSortida7
  29. Textfield(k_{22}) → CampEntradaSortida8
  30. Textfield(k_{32}) → CampEntradaSortida9
  31. Textfield(text11) → CampEntradaSortida10
  32. Point(f_1) → K
  33. Point(g_1) → N
  34. Intersect(f, g, (7.209996129329107, -2.30102999568123)) → O
  35. Segment(P, O) → a_1
  36. Point(h) → Q
  37. Intersect(g, h, (2.16, -2.3010319309864906)) → S
  38. Segment(S, R) → b_1
  39. Point(v) → T
  40. Point(w) → U
  41. Point(d) → V
  42. Point(e) → W
  43. Intersect(v, w, (12.32, -2.3010316812599068)) → A_1
  44. Segment(Z, A_1) → c_1

AI Drawing Prompt Reference

Draw a chemical logarithmic diagram: start with a circle centered at the origin with radius 14, intersecting both axes. From the intersection points on the axes, draw perpendicular lines to the axes; these two lines meet at a point, forming a right triangle with the origin and the axis intercepts. Place multiple text input boxes inside and along the triangle for chemical parameters. Mark midpoints on the triangle sides and connect some of them with auxiliary segments. Below the triangle, draw several horizontal lines that intersect with slanted lines, creating multiple intersection points representing chemical equilibrium concentrations. The overall figure includes the circle, triangle, auxiliary lines, intersection points, and text labels, illustrating logarithmic relationships in chemistry.
The prompt above was compiled from the original drawing commands and is for reference only.