Equation Balance Demonstration
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This example dynamically demonstrates the principle of equation balance, visually presenting the symmetric relationship between both sides of an equation; core math concepts include linear functions, polynomial functions, binomial distribution, and 3D vectors; construction highlights from the summary utilize commands/objects like Segment, Point, CountIf, Circle, OrthogonalLine, Polygon, Sum in GeoGebra; suitable for high school and above learners to understand equation balance and function graph transformations.
GeoGebra Commands & Parameters
Segment(V_2, W_2) → j_2Point(j_2) → D_3Point(j_2) → C_3Point(j_2) → Z_2CountIf(x > 0, B27:B29) → B31Segment(E, F) → cPoint(c) → TPoint(c) → SPoint(c) → RPoint(c) → QSegment(C, D) → bPoint(b) → PPoint(b) → NPoint(b) → MPoint(b) → LCountIf(x < 0, B17:B20) → B24Segment(A, B) → aPoint(a) → KPoint(a) → JPoint(a) → IPoint(a) → OCountIf(x > 0, B1:B8) → B14Segment(Q_3, R_3) → k_2Point(k_2) → T_3Point(k_2) → S_3CountIf(x > 0, A28:A29) → A32Segment(A_1, B_1) → iPoint(i) → E_1CountIf(x > 0, A13:A13) → A14Point(i) → D_1Point(i) → C_1CountIf(x > 0, A7:A8) → A10Segment(G, H) → dPoint(d) → ZPoint(d) → WPoint(d) → VPoint(d) → UCountIf(x > 0, A19:A22) → A25Segment(A_2, B_2) → a_1Circle(Q, 0.5) → eCircle(R, 0.5) → fCircle(S, 0.5) → gCircle(T, 0.5) → hCircle(I, 0.5) → kCircle(J, 0.5) → pCircle(K, 0.5) → qCircle(O, 0.5) → rCircle(U, 0.5) → sCircle(V, 0.5) → tCircle(W, 0.5) → c_1Circle(Z, 0.5) → d_1Segment(F_1, G_1) → jOrthogonalLine(C_1, i) → lOrthogonalLine(D_1, i) → mOrthogonalLine(E_1, i) → nPoint(Circle[C_1, 2.000099997500125]) → H_1Polygon(C_1, H_1, I_1, J_1) → poly1, c_2, h_1, i_1, j_1Point(Circle[D_1, 2]) → K_1Polygon(D_1, K_1, L_1, M_1) → poly2, d_2, k_1, l_1, m_1Point(a_1) → J_2Point(a_1) → K_2Point(a_1) → O_1Segment(A_3, B_3) → a_2Point(a_2) → I_3Point(a_2) → K_3Point(a_2) → O_2Segment(A_4, B_4) → a_3Point(a_3) → I_4Point(a_3) → J_4Point(a_3) → O_3Point(Circle[L, 0.8280096617793782]) → N_1Polygon(L, N_1, P_1) → poly3, p_1, l_2, n_1Point(Circle[M, 0.7161005515987262]) → Q_1Polygon(M, Q_1, R_1) → poly4, r_1, m_2, q_1Point(Circle[N, 0.6997142273814358]) → S_1Polygon(N, S_1, T_1) → poly5, t_1, n_2, s_1Point(Circle[P, 0.7211102550927978]) → U_1Polygon(P, U_1, V_1) → poly6, v_1, p_2, u_1Point(xAxis) → W_1Point(xAxis) → D_2Polygon(W_1, Z_1, C_2, D_2) → poly7, w_1, z_1, c_3, d_3Point(Circle[E_1, 2.0502987587178603]) → E_2Polygon(E_1, E_2, F_2, G_2) → poly8, e_1, e_2, f_2, g_2Point(yAxis) → H_2Point(d_3) → I_2Point(yAxis) → L_2Point(d_3) → M_2Segment(L_2, M_2) → b_1Point(d_3) → N_2Segment(L_2, N_2) → f_1Segment(M_2, N_2) → g_1Polygon(L_2, M_2, N_2) → poly9, n_3, l_3, m_3Segment(P_2, Q_2) → b_2Segment(R_2, S_2) → h_2Sum(C3:C6) → C8CountIf(x > 0, C12:C12) → C13CountIf(x > 0, D12:D12) → D13Segment(T_2, U_2) → i_2Point(Circle[Z_2, 1.8080613758656188]) → E_3Polygon(Z_2, E_3, F_3, G_3) → poly10, z_2, e_3, f_3, g_3Point(Circle[C_3, 1.697060394712511]) → H_3Polygon(C_3, H_3, J_3, L_3) → poly11, c_4, h_3, j_3, l_4Point(Circle[D_3, 1.765030632264185]) → M_3Polygon(D_3, M_3, N_3, P_3) → poly12, d_4, m_4, n_4, p_3Point(Circle[S_3, 0.7572989883260863]) → U_3Polygon(S_3, U_3, V_3) → poly13, v_3, s_3, u_3Point(Circle[T_3, 0.7697908875840829]) → W_3Polygon(T_3, W_3, Z_3) → poly14, z_3, t_3, w_3Point(f_1) → C_4Point(d_3) → D_4Polygon(C_4, D_4, 3) → poly15, q_2, r_2, s_2, E_4