GeoGebra Geometry Construction: Circle and Polygon Integration
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Fraction Division (2018)
This example demonstrates comprehensive geometric construction in GeoGebra. Core mathematical concepts include basic circle properties, polygon construction, perpendicular lines, and point intersections. Construction points: Use Circle command for drawing circles, Polygon for creating polygons, OrthogonalLine for perpendicular lines, Intersect for finding intersections, Sequence for generating series, and LCM for calculating least common multiple. Suitable for middle to high school students as geometry construction practice, and for teachers demonstrating geometric construction methods.
GeoGebra Commands & Parameters
Circle(B, r) → eSegment(A, B) → fOrthogonalLine(A, f) → hOrthogonalLine(B, f) → gIntersect(e, g, 1) → COrthogonalLine(C, g) → iIntersect(h, i) → DLine(E, f) → jCircle(E, f) → kIntersect(k, j, 1) → FOrthogonalLine(E, j) → lOrthogonalLine(F, j) → pCircle(E, r) → qCircle(F, r) → sIntersect(q, l, 1) → HIntersect(s, p, 1) → GPolygon(B, A, D, C) → poly1, b_1, a_1, d_1, c_1Polygon(E, F, G, H) → poly2, e_1, f_1, h_1, g_1Textfield(a) → InputBox1_1Textfield(b) → InputBox2Textfield(c) → InputBox3Textfield(d) → InputBox4Circle(B, (2 * r)) → p_1Intersect(p_1, g, 1) → IOrthogonalLine(I, g) → n_1Intersect(h, n_1) → JCircle(E, (2 * r)) → s_1Intersect(s_1, l, 1) → KOrthogonalLine(K, l) → t_1Intersect(p, t_1) → LSegment(C, I) → f_2Segment(I, J) → g_2Segment(D, J) → h_2Textfield(n) → InputBox5Textfield(m) → InputBox6Polygon(C, D, J, I) → poly3, c_2, d_2, j_1, i_1Circle(B, (3 * r)) → tIntersect(t, g) → M, NOrthogonalLine(M, g) → k_1Intersect(h, k_1) → OPolygon(I, J, O, M) → poly4, i_2, j_2, o, m_1Circle(B, (4 * r)) → q_1Intersect(q_1, g) → P, QOrthogonalLine(P, g) → l_1Intersect(h, l_1) → RPolygon(M, O, R, P) → poly5, m_2, o_1, r_1, p_2Polygon(H, G, L, K) → poly6, h_3, g_3, l_2, k_2Circle(E, (3 * r)) → e_2Intersect(e_2, l) → S, TOrthogonalLine(S, l) → n_2Intersect(p, n_2) → UIntersect(l_2, k_2) → VPolygon(V, L, U, S) → poly7, v, l_3, u, s_2Circle(E, (4 * r)) → q_2Intersect(q_2, l) → W, ZOrthogonalLine(W, l) → r_2Intersect(p, r_2) → A_1Polygon(S, U, A_1, W) → poly8, s_3, u_1, a_2, wPolygon(A, B, B + ((C - B) / b * ((n * b) + a)), A + ((D - A) / b * ((n * b) + a))) → poly9, a_3, b_2, t_2, f_3Polygon(E, F, F + ((G - F) / d * ((m * d) + c)), E + ((H - E) / d * ((m * d) + c))) → poly10, e_3, f_4, i_3, j_3Sequence(Segment[B + ((C - B) / LCM[b, d] * i), A + ((D - A) / LCM[b, d] * i)], i, 1, (n * LCM[b, d]) + LCM[b, d] - 1) → list3Polygon(A, B, B + (((C - B) / d * ((m * d) + c)) * ceil(ans)), A + (((D - A) / d * ((m * d) + c)) * ceil(ans))) → poly11, k_3, m_3, n_3, p_3Sequence(Segment[E + ((H - E) / LCM[b, d] * i), F + ((G - F) / LCM[b, d] * i)], i, 1, (m * LCM[b, d]) + LCM[b, d] - 1) → list4LCM(b, d) → o_2Sequence(Segment[B + ((C - B) / ((b * u_2)) * i), A + ((D - A) / ((b * u_2)) * i)], i, 1, (n * (b * u_2)) + (b * u_2) - 1) → list1Sequence(Segment[E + ((H - E) / ((d * v_2)) * i), F + ((G - F) / ((d * v_2)) * i)], i, 1, (m * (d * v_2)) + (d * v_2) - 1) → list2Sequence(Segment[A + ((D - A) / ((d * v_2)) * i), B + ((C - B) / ((d * v_2)) * i)], i, 1, ((((m * d) + c) * ceil(ans)) * v_2) - 1) → list5Sequence(Segment[A + (((D - A) / d * ((m * d) + c)) * i), B + (((C - B) / d * ((m * d) + c)) * i)], i, 1, ceil(ans) - 1) → list6
AI Drawing Prompt Reference
Draw a figure with multiple concentric circles and polygons. Start by drawing a circle e with point B as the center. Then, draw a segment f between points B and A, and draw perpendicular lines h and g through points A and B, respectively. Find point C at the intersection of circle e and line g, and draw a perpendicular line i through point C. The intersection of line i and h is point D. Next, draw a circle k with point E as the center and line f as the radius, and draw a line j through point E. Draw another circle q with point E as the center and line f as the radius. Find point F at the intersection of circle q and line j, and draw a perpendicular line p through point F. Find point H at the intersection of circle e and line p, and find point G at the intersection of circle k and line l. Draw a quadrilateral poly1 with points B, A, D, and C as vertices, and draw a quadrilateral poly2 with points E, F, G, and H as vertices. Continue this process to draw more concentric circles and polygons.
The prompt above was compiled from the original drawing commands and is for reference only.