Basic Examples (2) 

Parameterize the line from {0,1} to {1,1} over the domain[0,1]:

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Parameterize the 3D polygon formed by three points:

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Parameterize the same polygon over the domain[-3,3]:

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Evaluate the above parameterization at t=-1/2:

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Scope (6) 

Parameterize a collection of polygons:

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Find the linear parameterization between a combination of numeric and symbolic points:

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Parameterize a 1D curve:

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Parameterize curves in 4 dimensions or greater:

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The list of points can be substituted with Rectangle instead:

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Substituting with Triangle is also supported:

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Besides Triangle[], the heads Line, Triangle, and Polygon are ignored:

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The resulting piecewise function can be input into ParametricPlot or ParametricPlot3D:

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Pairs of adjacent points that are the same are treated as a single point:

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Options (3) 

Determine if the list of points defines a closed curve:

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Each polygon within a collection is automatically closed:

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Setting "ExactValues" to False causes the output to be imprecise:

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Determine the order of which the points are transversed using the "Orientation" option:

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Curves formed using Rectangle are transversed clockwise by default:

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The curve formed from Triangle[] is transversed counterclockwise by default:

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Applications (5) 

Use the parameterization to analyze a function with 2D domain along a given curve:

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Flatten out the 3D curve to see its output along the parameterization:

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Superimpose the output along the parameterization atop the 3D function curve:

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Visualize the output of a function with three variables along a 3D polygon:

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Plot the polygon with Hue shading corresponding to the value of the function:

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Plot the same function values as a timeline of the parameterization:

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This process can be generalized to find the output of a 4 variable function along a 4D curve:

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Higher-dimensional polygons can be visualized using Norm along their parameterization:

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Linear functions can be generated using the plots of 1D polygons:

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Regular polygons can be parameterized:

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Other named curves can also be parameterized:

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Properties and Relations (1) 

The resource function ColorWinding uses ParameterizePolygon internally and to generate the "PolygonPlot" output:

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Possible Issues (4) 

Plotting functions are more efficient when the parameterization has inexact values:

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Some polygons encounter a precision error that can be resolved by setting "ExactValues" to False:

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Sometimes ParametricPlot will include a connecting line between multiple polygons:

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Increasing the number of PlotPoints will remove extraneous points along the curve:

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Neat Examples (3) 

Plot the parameterization of a cube:

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Create abstract shapes using a single parameterization:

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Applying a function along a 2D parameterization adds a new dimension to the shape:

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