Limits of Function Compositions
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This example demonstrates the concept of limits of function compositions. It involves key mathematical concepts such as functions and limits. Using GeoGebra commands like If, objects f, g, h, etc., it dynamically shows the process of limits of function compositions. Suitable for high school mathematics education and learning.
GeoGebra Commands & Parameters
If(slider ≤ 0.99, (slider - 2, (1.5 * (slider - 2)) + 0.5), (0.99 - 2, (1.5 * (0.99 - 2)) + 0.5)) → JIf(slider > 0.99, (slider - 3, (3 * (slider - 3)) + 1), (-5, -5)) → IIf(slider < 0.99, ((-slider), (-slider) + 1), (-0.99, -0.99 + 1)) → LIf(slider > 0.99, ((-slider) + 2, (-((-slider) + 1)^(2)) + 1), (-5, -5)) → KIf(slider < 0.99, (slider - 1, slider), (0.99 - 1, 0.99)) → NIf(slider > 0.99, (slider - 1, (-(slider - 2)^(2)) + 1), (-5, -5)) → MIf(slider < 0.99, ((-slider) + 1, (-slider) + 2), (-0.99 + 1, -0.99 + 2)) → PIf(slider > 0.99, ((-slider) + 3, (-((-slider) + 2)^(2)) + 1), (-5, 5)) → OIf(slider < 0.99, (slider, slider + 1), (0.99, 1.99)) → RIf(slider > 0.99, (slider, (-(slider - 1)^(2)) + 1), (-5, -5)) → QIf(slider < 0.99, ((-slider) + 2, (-slider) + 3), (-0.99 + 2, -0.99 + 3)) → TIf(slider > 0.99, ((-slider) + 4, (-((-slider) + 3)^(2)) + 1), (-5, -5)) → SIf(slider < 0.99, (slider + 1, slider + 2), (1.99, 2.99)) → VIf(slider > 0.99, (slider + 1, (-slider^(2)) + 1), (-5, -5)) → UIf(slider < 0.99, ((-slider) + 3, (-3 * ((-slider) + 3)) + 10), (-0.99 + 3, (-3 * (-0.99 + 3)) + 10)) → ZIf(slider > 0.99, (slider + 2, -3), (-5, -5)) → WIf(slider < 0.99, (slider - 2, (3 * (slider - 2)) + 1), (0.99 - 2, (3 * (0.99 - 2)) + 1)) → A_1If(slider > 0.99, (slider - 4, (1.5 * (slider - 4)) + 0.5), (-5, -5)) → B_1If(slider < 0.99, ((-slider), (-((-slider) - 1)^(2)) + 1), (-0.99, (-(-0.99 - 1)^(2)) + 1)) → C_1If(slider > 0.99, ((-slider) - 1, (1.5 * ((-slider) - 1)) + 0.5), (-5, -5)) → D_1If(slider > 0.99, (slider - 2, slider - 1), (-5, -5)) → F_1If(slider < 0.99, (slider - 1, (-(slider - 2)^(2)) + 1), (0.99 - 1, (-(0.99 - 2)^(2)) + 1)) → E_1If(slider < 0.99, ((-slider) + 1, (-((-slider))^(2)) + 1), (-0.99 + 1, (-(-0.99)^(2)) + 1)) → G_1If(slider > 0.99, ((-slider) + 2, (-slider) + 3), (-5, -5)) → H_1If(slider < 0.99, (slider, (-(slider - 1)^(2)) + 1), (0.99, (-(0.99 - 1)^(2)) + 1)) → I_1If(slider > 0.99, (slider - 1, slider), (-5, -5)) → J_1If(slider < 0.99, ((-slider) + 2, (-((-slider) + 1)^(2)) + 1), (-0.99 + 2, (-(-0.99 + 1)^(2)) + 1)) → K_1If(slider > 0.99, (slider - 1, slider), (-5, 5)) → L_1If(slider < 0.99, (slider + 1, (-slider^(2)) + 1), (0.99 + 1, (-0.99^(2)) + 1)) → M_1If(slider > 0.99, ((-slider) + 2, (-slider) + 3), (-5, -5)) → N_1If(slider < 0.99, ((-slider) + 3, (-((-slider) + 2)^(2)) + 1), (-0.99 + 3, (-(-0.99 + 2)^(2)) + 1)) → O_1If(slider > 0.99, (slider - 2, slider - 1), (-5, -5)) → P_1If(slider < 0.99, (slider + 2, (-3 * (slider + 2)) + 10), (0.99 + 2, (-3 * (0.99 + 2)) + 10)) → Q_1If(slider > 0.99, ((-slider) + 3, (-((-slider) + 2)^(2)) + 1), (-5, -5)) → R_1If(slider < 0.99, ((-slider) + 4, (-3 * ((-slider) + 4)) + 10), (-0.99 + 4, (-3 * (-0.99 + 4)) + 10)) → S_1If(slider > 0.99, (slider - 1, (-(slider - 2)^(2)) + 1), (-5, -5)) → T_1If(slider < 0.99, (slider + 2, (-(slider + 1)^(2)) + 1), (2.99, (-1.99^(2)) + 1)) → U_1If(slider > 0.99, ((-slider) - 1, (1.5 * ((-slider) - 1)) + 0.5), (-5, -5)) → V_1If(slider < 0.99, ((-slider) + 4, -3), (-0.99 + 4, -3)) → W_1If(slider < 0.99, Segment[(-10, -10), (-9, -9)], Segment[(-3, -4), ((3 * slider) - 6, -4)]) → iIf(slider < 0.99, Segment[(-10, -10), (-9, -9)], Segment[(-3, -4), (-3, (4 * slider) - 8)]) → j