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Cylindrical Equidistant Projection -- from Wolfram MathWorld

The map projection having transformation equations x = (lambda-lambda_0)cosphi_1 (1) y = phi, (2) and the inverse formulas are phi = y (3) lambda = lambda_0+xsecphi_1, (4) The following table gives special cases of the cylindrical equidistant projection. phi_1 projection name 0 degrees equirectangular projection 37 degrees30^' Miller equidistant projection 43 degrees Miller equidistant projection 50 degrees28^' Miller equidistant projection



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Cylindrical Equidistant Projection -- from Wolfram MathWorld

https://mathworld.wolfram.com/CylindricalEquidistantProjection.html

The map projection having transformation equations x = (lambda-lambda_0)cosphi_1 (1) y = phi, (2) and the inverse formulas are phi = y (3) lambda = lambda_0+xsecphi_1, (4) The following table gives special cases of the cylindrical equidistant projection. phi_1 projection name 0 degrees equirectangular projection 37 degrees30^' Miller equidistant projection 43 degrees Miller equidistant projection 50 degrees28^' Miller equidistant projection



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https://mathworld.wolfram.com/CylindricalEquidistantProjection.html

Cylindrical Equidistant Projection -- from Wolfram MathWorld

The map projection having transformation equations x = (lambda-lambda_0)cosphi_1 (1) y = phi, (2) and the inverse formulas are phi = y (3) lambda = lambda_0+xsecphi_1, (4) The following table gives special cases of the cylindrical equidistant projection. phi_1 projection name 0 degrees equirectangular projection 37 degrees30^' Miller equidistant projection 43 degrees Miller equidistant projection 50 degrees28^' Miller equidistant projection

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      Cylindrical Equidistant Projection -- from Wolfram MathWorld
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      Cylindrical Equidistant Projection
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      The map projection having transformation equations x = (lambda-lambda_0)cosphi_1 (1) y = phi, (2) and the inverse formulas are phi = y (3) lambda = lambda_0+xsecphi_1, (4) The following table gives special cases of the cylindrical equidistant projection. phi_1 projection name 0 degrees equirectangular projection 37 degrees30^' Miller equidistant projection 43 degrees Miller equidistant projection 50 degrees28^' Miller equidistant projection
    • description
      The map projection having transformation equations x = (lambda-lambda_0)cosphi_1 (1) y = phi, (2) and the inverse formulas are phi = y (3) lambda = lambda_0+xsecphi_1, (4) The following table gives special cases of the cylindrical equidistant projection. phi_1 projection name 0 degrees equirectangular projection 37 degrees30^' Miller equidistant projection 43 degrees Miller equidistant projection 50 degrees28^' Miller equidistant projection

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      Cylindrical Equidistant Projection -- from Wolfram MathWorld
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      The map projection having transformation equations x = (lambda-lambda_0)cosphi_1 (1) y = phi, (2) and the inverse formulas are phi = y (3) lambda = lambda_0+xsecphi_1, (4) The following table gives special cases of the cylindrical equidistant projection. phi_1 projection name 0 degrees equirectangular projection 37 degrees30^' Miller equidistant projection 43 degrees Miller equidistant projection 50 degrees28^' Miller equidistant projection

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      Cylindrical Equidistant Projection -- from Wolfram MathWorld
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      The map projection having transformation equations x = (lambda-lambda_0)cosphi_1 (1) y = phi, (2) and the inverse formulas are phi = y (3) lambda = lambda_0+xsecphi_1, (4) The following table gives special cases of the cylindrical equidistant projection. phi_1 projection name 0 degrees equirectangular projection 37 degrees30^' Miller equidistant projection 43 degrees Miller equidistant projection 50 degrees28^' Miller equidistant projection
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