Composite Volume Word Problems
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This example demonstrates how to calculate the volume of architectural models composed of two right rectangular prisms. The core math concepts involved are volume calculation of composite figures. Construction highlights include using commands and objects like Shuffle, Element, Textfield, Polygon, Corner, Translate, Circle, Intersect, Segment, Line, Midpoint, Text in GeoGebra. Suitable for 4-5 grade students learning to solve real-world composite volume problems.
GeoGebra Commands & Parameters
Shuffle(Sequence[5]) → randomList1, {1, 3, 4, 5, 2}Element(randomList1, Mod[countQuestion, Length[randomList1]] + 1) → randomNum1Shuffle(Sequence[1, Min[100 / randomNum1, randomNum1 + 5]]) → randomList2, {6, 1, 5, 2, 4, 3}Element(randomList2, Mod[countQuestion, Length[randomList2]] + 1) → randomNum2Shuffle(Sequence[1, Min[100 / ((randomNum1 * randomNum2)), randomNum1 + 5]]) → randomList4, {2, 5, 6, 4, 1, 3}Shuffle(Sequence[1, Min[100 / randomNum1, randomNum1 + 5]] \ {randomNum2}) → randomList3, {2, 1, 5, 4, 3}Element(randomList3, Mod[countQuestion, Length[randomList3]] + 1) → randomNum3Element(randomList4, Mod[countQuestion, Length[randomList4]] + 1) → randomNum4Shuffle(Sequence[1, Min[100 / ((randomNum1 * randomNum3)), randomNum1 + 5]] \ {randomNum4}) → randomList5, {1, 6, 3, 5, 4}Textfield(input1) → InputBox1Element(randomList5, Mod[countQuestion, Length[randomList5]] + 1) → randomNum5Polygon(Zip[PixelsToPoint[Corner[1], Corner[3], Corner[5], A], A, {(pixelsLeft, pixelsTop), (pixelsLeft, y(Corner[5]) - pixelsBottom), Corner[5] - (pixelsRight, pixelsBottom), (x(Corner[5]) - pixelsRight, pixelsTop)}]) → borderBoxCorner(5) → layoutAppSizeTextfield() → InputBox2Corner(5) → AppSizeTranslate(hguideline, Vector[(Vector[Corner[4], Corner[1]] / 500 * 24)]) → hguideline'Circle(A, 4) → cIntersect(c, xAxis) → B, CSegment(A, C) → fCircle(A, modelWidth1) → dIntersect(d, f, 1) → DCircle(C, modelH2) → eIntersect(e, eq1, 1) → ELine(A, eq1) → gLine(E, f) → hLine(D, eq1) → iIntersect(h, i) → FLine(C, G) → jCircle(C, modelL) → kIntersect(k, j, 2) → HLine(H, eq1) → lLine(E, j) → mIntersect(l, m) → ICircle(A, modelH1) → pIntersect(p, g, 1) → JLine(F, m) → nLine(I, f) → qIntersect(n, q) → KLine(J, f) → rIntersect(i, r) → LPolygon(F, E, I, K) → q1, f_1, e_1, i_1, k_1Polygon(F, D, C, E) → q2, f_2, d_1, c_1, e_2Polygon(C, H, I, E) → q3, c_2, h_1, i_2, e_3Line(J, c_2) → sTranslate(L, Vector[C, H]) → L'Translate(D, Vector[C, H]) → D'Polygon({D, D', L', L}) → q4Translate(L', Vector[D, A]) → L''Polygon({J, L, L', L''}) → q5Polygon({J, A, D, L}) → q6Midpoint(A, D) → MMidpoint(C, D) → NText(labelH2, Midpoint[h_1], true, true, 1, 1) → text4Text(labelW1, M, true, true, -1, -1) → text2Text(labelW2, N, true, true, -1, -1) → text3Text(labelH1, Midpoint[A, J], true, true, -1, 0) → text5Text(labelL, Midpoint[C, H], true, true, 1, -1) → text6Circle(D, HintH1) → tIntersect(t, i) → O, PLine(O, h) → aIntersect(a, g) → QPolygon(D, O, Q, A) → q1H, d_2, o, q_1, a_1Translate(O, Vector[D, D']) → O'Polygon(D, D', O', O) → q2H, d_3, d', o', o_1Translate(q5, Vector[J, Q]) → q3HTranslate(D, (0, HintH2)) → D'_{1}Translate(C, (0, HintH2)) → C'Polygon(D, C, C', D'_{1}) → q4H, d_4, c_3, c', d'_{1}Translate(H, (0, HintH2)) → H'Polygon(C, H, H', C') → q5H, c_4, h_2, h', bTranslate(F, Vector[F, D'_{1}]) → F'Translate(E, Vector[F, D'_{1}]) → E'Translate(I, Vector[F, D'_{1}]) → I'Translate(K, Vector[F, D'_{1}]) → K'Polygon(F', E', I', K') → q6H, f', e', i', k'
AI Drawing Prompt Reference
This is a composite volume model consisting of two right rectangular prisms. The figure includes a boundary rectangle, some circles, line segments, and intersection points to represent volume calculations. The construction order involves randomly selecting dimensions, drawing the boundary rectangle, creating circles and line segments, calculating intersection points, and finally drawing some parallelograms. The figure is used for teaching demonstrations to help students understand the concept of composite volume.
The prompt above was compiled from the original drawing commands and is for reference only.