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< body bgcolor ="CCFFCC ">
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< center > < h1 > Manual for FermiSurfer</ h1 > </ center >
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- < center > < h2 > Version 1.6 </ h2 > </ center >
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+ < center > < h2 > Version 1.7 </ h2 > </ center >
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< center > < h2 > Mitsuaki Kawamura</ h2 > </ center >
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< hr >
@@ -206,10 +206,9 @@ <h1><a name="introduction">1, Introduction</a></h1>
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an input file for XCrysDen (the bxsf format)
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by using the utility program < code > bxsf2frmsf</ code > .
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</ p >
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- < p > 使い方は次のとおりです.< code > examples/</ code > ディレクトリにある< code > pb.bxsf</ code >
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- ファイルを例として使います.</ p >
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+ < p > The usage is as follow (we use < code > examples/pb.bxsf</ code > as an example.):</ p >
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- < h3 > 5.2.1, For Linuxの場合 </ h2 >
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+ < h3 > 5.2.1, For Linux </ h2 >
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< p > You can launch generated executable as follows:</ p >
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< pre > < code >
@@ -285,7 +284,7 @@ <h3>5.2.2, For Windows</h3>
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FILE* fo;
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int ibnd, ik1, ik2, ik3;
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- fo = fopen(“ sample.frmsf”, “w” );
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+ fo = fopen(" sample.frmsf", "w" );
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ierr = fprintf(fo, "%d %d %d\n", nk1, nk2, nk3);
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ierr = fprintf(fo, "%d\n", iswitch);
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ierr = fprintf(fo, "%d\n", nbnd);
@@ -422,17 +421,38 @@ <h3>5.2.2, For Windows</h3>
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Fig. 3: The Fermi energy is set from 0 Ry to 0.1 Ry
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with < code > Shift Fermi energy</ code > menu</ p >
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- < hr > < h2 id ="background-color "> 6.6, Background color</ h2 >
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+ < hr > < h2 id ="setview "> 6.6, Set view</ h2 >
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+
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+ < p > Changing the view point.</ p >
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+ < dl >
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+ < dt > Scale</ dt >
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+ < dd > < p > Change the size of the figure.</ p >
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+ </ dd >
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+ < dt > Position</ dt >
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+ < dd > < p > Change the xy position of the figure.</ p >
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+ </ dd >
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+ < dt > Rotation</ dt >
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+ < dd > < p > Change angles at x-, y-, z- axis.
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+ Rotaions are performed as z-y-x axis.</ p >
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+ </ dd >
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+ </ dl >
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+ < p > In each menu, first the current value is printed.
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+ then a prompt to input the new value appears (Fig. 4).</ p >
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+
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+ < p > < img src ="figs/setview.jpg " align ="middle " width ="800 " alt ="" />
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+ Fig. 4: Modify the view point by using < code > Set view</ code > menu</ p >
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+
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+ < hr > < h2 id ="background-color "> 6.7, Background color</ h2 >
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< p > The background color is toggled between black and white;
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the edge of the Brillouin Zone is also toggled between white and black
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- (Fig. 4 ).</ p >
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+ (Fig. 5 ).</ p >
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< p > < img src ="figs/background.jpg " align ="middle " width ="800 " alt ="" />
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- Fig. 4 : The background color is toggled with < code > Background color</ code > menu.</ p >
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+ Fig. 5 : The background color is toggled with < code > Background color</ code > menu.</ p >
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- < hr > < h2 id ="color-scale-mode "> 6.7 , Color scale mode</ h2 >
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+ < hr > < h2 id ="color-scale-mode "> 6.8 , Color scale mode</ h2 >
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- < p > It turns color pattern on Fermi surfaces (Fig. 5 ).</ p >
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+ < p > It turns color pattern on Fermi surfaces (Fig. 6 ).</ p >
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< dl >
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< p > Auto(default) : It makes blue as the minimum on Fermi surfaces
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and red as the maximum on them.</ p >
@@ -447,55 +467,55 @@ <h3>5.2.2, For Windows</h3>
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$\rightarrow$ cyan $\rightarrow$ blue $\rightarrow$ magenta $\rightarrow$ red.</ p >
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</ dl >
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< p > < img src ="figs/colorscale.jpg " align ="middle " width ="800 " alt ="" />
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- Fig. 5 : < code > Color scale mode</ code > menu.</ p >
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+ Fig. 6 : < code > Color scale mode</ code > menu.</ p >
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- < hr > < h2 id ="brillouin-zone "> 6.8 , Brillouin zone</ h2 >
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+ < hr > < h2 id ="brillouin-zone "> 6.9 , Brillouin zone</ h2 >
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- < p > You choose Brillouin-zone type as follows (Fig. 6 ):</ p >
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+ < p > You choose Brillouin-zone type as follows (Fig. 7 ):</ p >
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< dl >
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< p > First Brillouin Zone : The region surrounded by Bragg's planes
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the nearest to ${\rm \Gamma}$ point.</ p >
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< p > Primitive Brillouin Zone : A hexahedron whose corner is the reciprocal lattice point.</ p >
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</ dl >
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< p > < img src ="figs/brillouinzone.jpg " align ="middle " width ="800 " alt ="" />
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- Fig. 6 : You can change the type of the Brillouin zone
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+ Fig. 7 : You can change the type of the Brillouin zone
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with < code > Brillouin zone</ code > menu.</ p >
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- < hr > < h2 id ="node-line "> 6.9 , Node line</ h2 >
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+ < hr > < h2 id ="node-line "> 6.10 , Node line</ h2 >
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< p > The line on which the matrix element becomes 0 (we call it node line)
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- becomes enable/disable (Fig. 7 ).</ p >
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+ becomes enable/disable (Fig. 8 ).</ p >
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< p > < img src ="figs/nodeline.jpg " align ="middle " width ="800 " alt ="" />
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- Fig. 7 : Toggling the node line with < code > Node line</ code > menu.</ p >
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+ Fig. 8 : Toggling the node line with < code > Node line</ code > menu.</ p >
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- < hr > < h2 id ="color-bar-onoff "> 6.10 , Color bar On/Off</ h2 >
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+ < hr > < h2 id ="color-bar-onoff "> 6.11 , Color bar On/Off</ h2 >
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- < p > The color bar becomes enable/disable (Fig. 8 ).</ p >
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+ < p > The color bar becomes enable/disable (Fig. 9 ).</ p >
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< p > < img src ="figs/colorbar.jpg " align ="middle " width ="800 " alt ="" />
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- Fig. 8 : Toggling the color bar with < code > Color bar On/Off</ code > menu.</ p >
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+ Fig. 9 : Toggling the color bar with < code > Color bar On/Off</ code > menu.</ p >
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- < hr > < h2 id ="stereogram "> 6.11 , Stereogram</ h2 >
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+ < hr > < h2 id ="stereogram "> 6.12 , Stereogram</ h2 >
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< p > The stereogram (parallel eyes and cross eyes) becomes enabled/disabled
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- (Fig. 9 ).</ p >
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+ (Fig. 10 ).</ p >
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< dl >
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< p > None (Default)</ p >
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< p > Parallel : Parallel-eyes stereogram</ p >
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< p > Cross : Cross-eyes stereogram</ p >
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</ dl >
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< p > < img src ="figs/stereogram.jpg " align ="middle " width ="800 " alt ="" />
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- Fig. 9 : The stereogram becomes enabled/disabled with < code > Stereogram</ code > menu.</ p >
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+ Fig. 10 : The stereogram becomes enabled/disabled with < code > Stereogram</ code > menu.</ p >
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- < hr > < h2 id ="tetrahedron "> 6.12 , Tetrahedron</ h2 >
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+ < hr > < h2 id ="tetrahedron "> 6.13 , Tetrahedron</ h2 >
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< p > You change the scheme to divide into tetrahedra (< code > tetra # 1</ code > as default).
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It is experimental.</ p >
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- < hr > < h2 id ="exit "> 6.13 , Exit</ h2 >
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+ < hr > < h2 id ="exit "> 6.14 , Exit</ h2 >
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< p > This finishes < code > fermisurfer</ code > .</ p >
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- < hr > < h2 > 6.14 , Saving images</ h2 >
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+ < hr > < h2 > 6.15 , Saving images</ h2 >
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< p > < code > fermisurfer</ code > does not have any functions to
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save images to a file.
@@ -504,9 +524,9 @@ <h3>5.2.2, For Windows</h3>
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< hr > < h1 > < a name ="gallery "> 7, Gallery</ a > </ h1 >
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< p > Contributions of each Fermi surfaces to the Hall effect in IrO$_2$
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- (Fig. 10 . Provided by Mr. Wataru Sano in Arita group, RIKEN)</ p >
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+ (Fig. 11 . Provided by Mr. Wataru Sano in Arita group, RIKEN)</ p >
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< p > < img src ="figs/iro2.jpg " align ="middle " width ="800 " alt ="" />
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- Fig. 10 : Contributions of each Fermi surfaces to the Hall effect</ p >
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+ Fig. 11 : Contributions of each Fermi surfaces to the Hall effect</ p >
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< hr > < h1 > < a name ="acknowledgment "> 8, Acknowledgment</ a > </ h1 >
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