ဖော်ပြချက်Polarisation (Linear).svg	Diagram of linear polarisation. The direction of the black line relative to the central axis represents the direction of the electric field of the linearly polarized light at each point in space. The blue and red lines are projections of the black onto two planes which are at right angles. There is an version which is identical to this original with the exception of phase indictors to make the phase relationship of its components clearer. Refer to Other Versions section below.
ရက်စွဲ	12/02/07
ရင်းမြစ်	Own drawing down in Mathematica, edited in the Open Source program Inscape.   This W3C-unspecified vector image was created with Inkscape .
စာရေးသူ	inductiveload
ခွင့်ပြုချက် (ဤဖိုင်ကို ပြန်လည်အသုံးပြုခြင်း)	Public domainPublic domainfalsefalse I, the copyright holder of this work, release this work into the public domain. This applies worldwide. In some countries this may not be legally possible; if so: အကျွန်ုပ်သည် ဤဖန်တီးမှုလက်ရာကို ဥပဒေအရလိုအပ်ခြင်းမရှိသည့် မည်သည့်အခြေအနေမျိုးတွက်မဆို၊ မည်သို့သော ရည်ရွယ်ချက်အတွက်မဆို ၎င်းကို မည်သူမဆို အသုံးပြုပိုင်ခွင့်အား ပေးအပ်သည်။
အခြား ဗားရှင်းများ	Derivative works of this file:  Polarisation (Linear) With.Phase.Indicators.svg Circular polarisation Elliptical polarisation

Mathematica Code

This figure requires the use of Arrow3D, which is not included in the StandardPackages (as of Feb 2007). This can be obtained from Wolfram Research at this location. The required packages are:

<< Graphics`
<< Arrow3D`Arrow3D`

The code is:

wavefunction=ParametricPlot3D[{Sin[4t],-Sin[4t],t},{t,0,5},
    BoxRatios\[Rule]{1,
      1,4},ImageSize\[Rule]400,Boxed\[Rule]False,Axes\[Rule]False,
      PlotPoints\[Rule]60,ViewPoint->{2,2, 2},PlotRange\[Rule]All]

repsi=ParametricPlot3D[{Sin[4t],-1,t,RGBColor[1,0,0]},{t,0,5},
      BoxRatios\[Rule]{4,1,1},ImageSize\[Rule]500,
      Boxed\[Rule]False,Axes\[Rule]False,
        PlotPoints\[Rule]60,PlotRange\[Rule]All]

impsi=ParametricPlot3D[{-1,-Sin[4t],t,RGBColor[0,0,102/255]},{
    t,0,5},BoxRatios\[Rule]{4,1,1},ImageSize\[Rule]500,Boxed\[Rule]False,
      Axes\[Rule]False,PlotPoints\[Rule]60,PlotRange\[Rule]All]

end=ParametricPlot3D[{Sin[t],-Sin[t],0},{t,0,2π},BoxRatios\[Rule]{4,1,1},
    ImageSize\[Rule]500,Boxed\[Rule]False,Axes\[Rule]False,
      PlotPoints\[Rule]10,PlotRange\[Rule]All]

xaxis=Graphics3D[Arrow3D[{0,0,-1},{
  0,0,6},HeadSize \[Rule] UniformSize[.5],HeadColor\[Rule]Black]]

uaxis=Graphics3D[Arrow3D[{0,-1,0},{0,3,0},HeadSize \[Rule] 
    UniformSize[.5],HeadColor\[Rule]Black]]

vaxis=Graphics3D[Arrow3D[{-1,0,0},{3,0,0},HeadSize \[Rule] 
      UniformSize[.5],HeadColor\[Rule]Black]]

plane=Graphics3D[Polygon[{{1.2,1.2,0},{1.2,-1.2,0},{-1.2,-1.2,0},{-1.2,1.2,0}}\
]]

crate=WireFrame[Graphics3D[Cuboid[{1,1,0},{-1,-1,5}]]]

Show[wavefunction,xaxis,uaxis,vaxis,plane,repsi,impsi,end,crate]