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How tocan I calculate the volume of spatial geometry?

It is easy to calculate its volume using the volume formula:

My current question is whetherIs there is any otheranother method to calculate the volume of the regular quadrilateral prism based on the known conditions in the software and the graph.? That is to say, for any drawn spatial geometry, what method is there to calculate their volume?

Draw the graph of the pyramid according to the following code:


 Clear["Global`*"];
a = {Sqrt[2], 0, 0};
b = {0, Sqrt[2], 0};
c = -a;
d = -b;
o = Mean[{a, b, c, d}]
h = Sqrt[6]/2;
a1 = {Sqrt[2]/2, 0, h};
b1 = {0, Sqrt[2]/2, h};
c1 = {-Sqrt[2]/2, 0, h};
d1 = {0, -Sqrt[2]/2, h};
o1 = Mean[{a1, b1, c1, d1}]
labels = {Text[Style[O, 12, FontFamily -> "Times"], o, {-1, -1}], 
   Text[Style[O1, 12, FontFamily -> "Times"], o1, {-1, -1}], 
   Text[Style[A, 12, FontFamily -> "Times"], a, {-1, -1}], 
   Text[Style[B, 12, FontFamily -> "Times"], b, {1, 1}], 
   Text[Style[C, 12, FontFamily -> "Times"], c, {1, 1}], 
   Text[Style[D, 12, FontFamily -> "Times"], d, {-2, 0}], 
   Text[Style[A1, 12, FontFamily -> "Times"], a1, {3, 0}], 
   Text[Style[B1, 12, FontFamily -> "Times"], b1, {-1, -2}], 
   Text[Style[C1, 12, FontFamily -> "Times"], c1, {0, 1}], 
   Text[Style[D1, 12, FontFamily -> "Times"], d1, {3, 0}]};
dashLines = {Dashed, 
   AbsoluteThickness[2], {Line[{{o, o1}, {d, d1}}]}, {Red, 
    Line[{{c, d}, {a, d}, {b, d}, {a, c}}]}};
realLines = {AbsoluteThickness[2], 
   Line[{{a, b}, {b, b1}, {a1, a}, {b, b1}, {b1, a1}, {c, c1}, {b1, 
      c1}, {c1, d1}, {b, c}, {a1, c1}, {b1, d1}, {a1, d1}}]};
Show[Graphics3D[{dashLines, realLines, labels}, Boxed -> False, 
  ViewPoint -> {2, 3.5, 1.28}], 
 Graphics3D[{Arrow[{{o1 - o, o1 - o + {0, 0, 1}}, {a - o, 
      a - o + {1, 0, 0}}, {b - o, b - o + {0, 1, 0}}}], 
   Text[Style["z", 20, Italic, FontFamily -> "Times"], 
    o1 - o + {0, 0, 1}, {-1, -1}], 
   Text[Style["y", 20, Italic, FontFamily -> "Times"], 
    b - o + {0, 1, 0}, {-2, -1}], 
   Text[Style["x", 20, Italic, FontFamily -> "Times"], 
    a - o + {1, 0, 0}, {2, -1}]}]]

enter image description hereEnter image description here

How to calculate the volume of spatial geometry?

It is easy to calculate its volume using the volume formula

My current question is whether there is any other method to calculate the volume of the regular quadrilateral prism based on the known conditions in the software and the graph. That is to say, for any drawn spatial geometry, what method is there to calculate their volume

Draw the graph of the pyramid according to the following code


 Clear["Global`*"];
a = {Sqrt[2], 0, 0};
b = {0, Sqrt[2], 0};
c = -a;
d = -b;
o = Mean[{a, b, c, d}]
h = Sqrt[6]/2;
a1 = {Sqrt[2]/2, 0, h};
b1 = {0, Sqrt[2]/2, h};
c1 = {-Sqrt[2]/2, 0, h};
d1 = {0, -Sqrt[2]/2, h};
o1 = Mean[{a1, b1, c1, d1}]
labels = {Text[Style[O, 12, FontFamily -> "Times"], o, {-1, -1}], 
   Text[Style[O1, 12, FontFamily -> "Times"], o1, {-1, -1}], 
   Text[Style[A, 12, FontFamily -> "Times"], a, {-1, -1}], 
   Text[Style[B, 12, FontFamily -> "Times"], b, {1, 1}], 
   Text[Style[C, 12, FontFamily -> "Times"], c, {1, 1}], 
   Text[Style[D, 12, FontFamily -> "Times"], d, {-2, 0}], 
   Text[Style[A1, 12, FontFamily -> "Times"], a1, {3, 0}], 
   Text[Style[B1, 12, FontFamily -> "Times"], b1, {-1, -2}], 
   Text[Style[C1, 12, FontFamily -> "Times"], c1, {0, 1}], 
   Text[Style[D1, 12, FontFamily -> "Times"], d1, {3, 0}]};
dashLines = {Dashed, 
   AbsoluteThickness[2], {Line[{{o, o1}, {d, d1}}]}, {Red, 
    Line[{{c, d}, {a, d}, {b, d}, {a, c}}]}};
realLines = {AbsoluteThickness[2], 
   Line[{{a, b}, {b, b1}, {a1, a}, {b, b1}, {b1, a1}, {c, c1}, {b1, 
      c1}, {c1, d1}, {b, c}, {a1, c1}, {b1, d1}, {a1, d1}}]};
Show[Graphics3D[{dashLines, realLines, labels}, Boxed -> False, 
  ViewPoint -> {2, 3.5, 1.28}], 
 Graphics3D[{Arrow[{{o1 - o, o1 - o + {0, 0, 1}}, {a - o, 
      a - o + {1, 0, 0}}, {b - o, b - o + {0, 1, 0}}}], 
   Text[Style["z", 20, Italic, FontFamily -> "Times"], 
    o1 - o + {0, 0, 1}, {-1, -1}], 
   Text[Style["y", 20, Italic, FontFamily -> "Times"], 
    b - o + {0, 1, 0}, {-2, -1}], 
   Text[Style["x", 20, Italic, FontFamily -> "Times"], 
    a - o + {1, 0, 0}, {2, -1}]}]]

enter image description here

How can I calculate the volume of spatial geometry?

It is easy to calculate its volume using the volume formula:

Is there another method to calculate the volume of the regular quadrilateral prism based on the known conditions in the software and the graph? That is to say, for any drawn spatial geometry, what method is there to calculate their volume?

Draw the graph of the pyramid according to the following code:

Clear["Global`*"];
a = {Sqrt[2], 0, 0};
b = {0, Sqrt[2], 0};
c = -a;
d = -b;
o = Mean[{a, b, c, d}]
h = Sqrt[6]/2;
a1 = {Sqrt[2]/2, 0, h};
b1 = {0, Sqrt[2]/2, h};
c1 = {-Sqrt[2]/2, 0, h};
d1 = {0, -Sqrt[2]/2, h};
o1 = Mean[{a1, b1, c1, d1}]
labels = {Text[Style[O, 12, FontFamily -> "Times"], o, {-1, -1}],
   Text[Style[O1, 12, FontFamily -> "Times"], o1, {-1, -1}],
   Text[Style[A, 12, FontFamily -> "Times"], a, {-1, -1}],
   Text[Style[B, 12, FontFamily -> "Times"], b, {1, 1}],
   Text[Style[C, 12, FontFamily -> "Times"], c, {1, 1}],
   Text[Style[D, 12, FontFamily -> "Times"], d, {-2, 0}],
   Text[Style[A1, 12, FontFamily -> "Times"], a1, {3, 0}],
   Text[Style[B1, 12, FontFamily -> "Times"], b1, {-1, -2}],
   Text[Style[C1, 12, FontFamily -> "Times"], c1, {0, 1}],
   Text[Style[D1, 12, FontFamily -> "Times"], d1, {3, 0}]};
dashLines = {Dashed,
   AbsoluteThickness[2], {Line[{{o, o1}, {d, d1}}]}, {Red,
    Line[{{c, d}, {a, d}, {b, d}, {a, c}}]}};
realLines = {AbsoluteThickness[2],
   Line[{{a, b}, {b, b1}, {a1, a}, {b, b1}, {b1, a1}, {c, c1}, {b1,
      c1}, {c1, d1}, {b, c}, {a1, c1}, {b1, d1}, {a1, d1}}]};
Show[Graphics3D[{dashLines, realLines, labels}, Boxed -> False,
  ViewPoint -> {2, 3.5, 1.28}],
 Graphics3D[{Arrow[{{o1 - o, o1 - o + {0, 0, 1}}, {a - o,
      a - o + {1, 0, 0}}, {b - o, b - o + {0, 1, 0}}}],
   Text[Style["z", 20, Italic, FontFamily -> "Times"],
    o1 - o + {0, 0, 1}, {-1, -1}],
   Text[Style["y", 20, Italic, FontFamily -> "Times"],
    b - o + {0, 1, 0}, {-2, -1}],
   Text[Style["x", 20, Italic, FontFamily -> "Times"],
    a - o + {1, 0, 0}, {2, -1}]}]]

Enter image description here

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How to calculate the volume of spatial geometry?

In the square prism ABCD A1B1C1D1, AB=2, A1B1=1, AA1=Sqrt [2], what is the volume of this prism?

It is easy to calculate its volume using the volume formula

In[489]:= v = 1/3 (4 + 1 + 2) Sqrt[3/2]

Out[489]= 7/Sqrt[6]

My current question is whether there is any other method to calculate the volume of the regular quadrilateral prism based on the known conditions in the software and the graph. That is to say, for any drawn spatial geometry, what method is there to calculate their volume

Draw the graph of the pyramid according to the following code


Clear["Global`*"];
a = {Sqrt[2], 0, 0};
b = {0, Sqrt[2], 0};
c = -a;
d = -b;
o = Mean[{a, b, c, d}]
h = Sqrt[6]/2;
a1 = {Sqrt[2]/2, 0, h};
b1 = {0, Sqrt[2]/2, h};
c1 = {-Sqrt[2]/2, 0, h};
d1 = {0, -Sqrt[2]/2, h};
o1 = Mean[{a1, b1, c1, d1}]
labels = {Text[Style[O, 12, FontFamily -> "Times"], o, {-1, -1}], 
   Text[Style[O1, 12, FontFamily -> "Times"], o1, {-1, -1}], 
   Text[Style[A, 12, FontFamily -> "Times"], a, {-1, -1}], 
   Text[Style[B, 12, FontFamily -> "Times"], b, {1, 1}], 
   Text[Style[C, 12, FontFamily -> "Times"], c, {1, 1}], 
   Text[Style[D, 12, FontFamily -> "Times"], d, {-2, 0}], 
   Text[Style[A1, 12, FontFamily -> "Times"], a1, {3, 0}], 
   Text[Style[B1, 12, FontFamily -> "Times"], b1, {-1, -2}], 
   Text[Style[C1, 12, FontFamily -> "Times"], c1, {0, 1}], 
   Text[Style[D1, 12, FontFamily -> "Times"], d1, {3, 0}]};
dashLines = {Dashed, 
   AbsoluteThickness[2], {Line[{{o, o1}, {d, d1}}]}, {Red, 
    Line[{{c, d}, {a, d}, {b, d}, {a, c}}]}};
realLines = {AbsoluteThickness[2], 
   Line[{{a, b}, {b, b1}, {a1, a}, {b, b1}, {b1, a1}, {c, c1}, {b1, 
      c1}, {c1, d1}, {b, c}, {a1, c1}, {b1, d1}, {a1, d1}}]};
Show[Graphics3D[{dashLines, realLines, labels}, Boxed -> False, 
  ViewPoint -> {2, 3.5, 1.28}], 
 Graphics3D[{Arrow[{{o1 - o, o1 - o + {0, 0, 1}}, {a - o, 
      a - o + {1, 0, 0}}, {b - o, b - o + {0, 1, 0}}}], 
   Text[Style["z", 20, Italic, FontFamily -> "Times"], 
    o1 - o + {0, 0, 1}, {-1, -1}], 
   Text[Style["y", 20, Italic, FontFamily -> "Times"], 
    b - o + {0, 1, 0}, {-2, -1}], 
   Text[Style["x", 20, Italic, FontFamily -> "Times"], 
    a - o + {1, 0, 0}, {2, -1}]}]]

enter image description here