3D Gaussian Surface Graph
A smooth bell-shaped surface centered at the origin.
z = exp(-(x^2 + y^2))Quick facts
- Formula: z = exp(-(x^2 + y^2))
- Category: surface
- Tags: surface, calculus, z=f(x,y)
What this graph represents
The value is largest at the center and falls quickly as the distance from the origin grows.
Where it appears in calculus
This is useful for teaching radial symmetry and multivariable limits.
How to use this graph
- Rotate the surface by dragging with your mouse or finger
- Use the Embed button to copy an
<iframe>for your LMS or lesson page - Click PNG to export a classroom-ready image
- Click Formula or LaTeX to copy the equation for your notes
Embed this graph
Use the Embed button in the calculator to copy a ready iframe for blogs, LMS pages, and lesson notes.
Open embed pageTeacher prompt
Question: Where is the maximum value?
Answer: The maximum is at the origin, where x and y are both 0 and z equals 1.
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z = x^2 + y^2A bowl-shaped surface that opens upward.
Inverted Paraboloid
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Monkey Saddle
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Sine Wave Surface
z = sin(x) + sin(y)Two perpendicular sine waves combined into one surface.
Ripple Surface
z = sin(sqrt(x^2 + y^2))Circular waves radiate outward from the center.
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