I'm using $NO_SIMPLEMATH=1;  and
$HTML_VERSION = "4.0,math,unicode";
in my l2h-init file, and I  have big problems with a jumping baseline in
formulas, which are partly rendered as images.
I wouldn't like to revert to beginner's mode in which the formulas are
rendered completely as pictures.

For the jumping note especially:
the $\lambda_k$ and the $\in$    in inline-mode.

and the correct rendering of
$f''
=\mathbf{U\Lambda U^{\mathrm{T}}}$ in inline-mode, but
incorrect rendering in display-mode.

Please compare the attached files (source in test2.tex, html in
test2.html.).

Ralf Scholl


test2.tex

Title: About this document ...

About this document ...

This document was generated using the LaTeX2HTML translator Version 2K.1beta (1.55)

Copyright © 1993, 1994, 1995, 1996, Nikos Drakos, Computer Based Learning Unit, University of Leeds.
Copyright © 1997, 1998, 1999, Ross Moore, Mathematics Department, Macquarie University, Sydney.

The command line arguments were:
latex2html test2

The translation was initiated by Gaston Gonnet, Institute for Scientific Computing, ETH Z�rich, Switzerland on 2001-09-05

Gaston Gonnet, Institute for Scientific Computing, ETH Z�rich, Switzerland
2001-09-05

images.aux

images.log

images.pl

images.tex

img1.png

img2.png

img3.png

img4.png

img5.png

Title: test2
For a symmetric matrix H $ \in$ $ \mathbb {R}$n×n, we have a decomposition

H = U$\displaystyle \Lambda$UT    

where the diagonal matrix $ \Lambda$ contains the eigenvalues $ \lambda_{{k}}^{}$ and U = (u1,...,un) contains the eigenvectors.

For H symmetric and real, the eigenvalues $ \lambda_{{k}}^{}$ are real and the eigenvectors associated to different eigenvalues are orthogonal, that is UTU = I.

Using the eigenvalue decomposition of the Hessian f'' = U$ \Lambda$UT, we obtain from the Taylor series 



Gaston Gonnet, Institute for Scientific Computing, ETH Z�rich, Switzerland
2001-09-05

labels.pl

/* Century Schoolbook font is very similar to Computer Modern Math: cmmi */
 .MATH    { font-family: "Century Schoolbook", serif; }
 .MATH I  { font-family: "Century Schoolbook", serif; font-style: italic }
 .BOLDMATH { font-family: "Century Schoolbook", serif; font-weight: bold }

/* implement both fixed-size and relative sizes */
SMALL.XTINY		{ font-size : xx-small }
SMALL.TINY		{ font-size : x-small  }
SMALL.SCRIPTSIZE	{ font-size : smaller  }
SMALL.FOOTNOTESIZE	{ font-size : small    }
SMALL.SMALL		{  }
BIG.LARGE		{  }
BIG.XLARGE		{ font-size : large    }
BIG.XXLARGE		{ font-size : x-large  }
BIG.HUGE		{ font-size : larger   }
BIG.XHUGE		{ font-size : xx-large }

/* heading styles */
H1		{  }
H2		{  }
H3		{  }
H4		{  }
H5		{  }

/* mathematics styles */
DIV.displaymath		{ }	/* math displays */
TD.eqno			{ }	/* equation-number cells */


/* document-specific styles come next */
TABLE.equation*		{  }
DIV.navigation		{   }
Title: test2
For a symmetric matrix H $ \in$ $ \mathbb {R}$n×n, we have a decomposition

H = U$\displaystyle \Lambda$UT    

where the diagonal matrix $ \Lambda$ contains the eigenvalues $ \lambda_{{k}}^{}$ and U = (u1,...,un) contains the eigenvectors.

For H symmetric and real, the eigenvalues $ \lambda_{{k}}^{}$ are real and the eigenvectors associated to different eigenvalues are orthogonal, that is UTU = I.

Using the eigenvalue decomposition of the Hessian f'' = U$ \Lambda$UT, we obtain from the Taylor series 



Gaston Gonnet, Institute for Scientific Computing, ETH Z�rich, Switzerland
2001-09-05

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