\ce{H2O -> H2 + 1/2 O2} normally should give me nicely formatted equation of water decomposition. In LyX that I have it returns the text between parenthesis unformatted. And in LaTeX it is working without any problems.
The best way to figure this is out is for you to upload a minimal example that I can try and see if it works for me. Since you are using Ubuntu, I'll be able to give you directions for how to fix something if it comes to it.Sprn wrote:Thanks for the reply.
No, unfortunately there are no subscripts neither in instant preview, nor in generated pdf (export by pdflatex).
If this is not a general problem in LyX, can it be the problem of Lyx installed in my system? If yes, what is the safest way to re-install Lyx in Ubuntu-based distribution?
Code: Select all
%% LyX 2.0.8.1 created this file. For more info, see http://www.lyx.org/.
%% Do not edit unless you really know what you are doing.
\documentclass[english]{article}
\usepackage[T1]{fontenc}
\usepackage[latin9]{inputenc}
\PassOptionsToPackage{version=3}{mhchem}
\usepackage{mhchem}
\usepackage{siunitx}
\usepackage{babel}
\begin{document}
\section{03/03/2016 : GK-Supercaps, pH-effect}
\subsection*{Motivation: }
to test the idea of increasing the cyclability by adjusting pH. Solubility
of the products of $\ce{{MnO-Mn3O4-Mn2O3-MnO2}}$ transitions increases
as pH increasing \cite{Chouaib1981}. So, the tests at different pH
down from the conventional pH=14 (1M NaOH) are planned.
\subsection*{Preparation :}
\subsubsection*{Catalyst:}
The powder was prepapred by GK last year. It was utilized in a numerous
experiments last year (see experiments from 31/07/2015 to 02/10/2015).
\subsubsection*{Electrode:}
Generally, all electrodes are prepared to have 47 $\mathrm{{\mu g/cm^{2}}}$
of oxide per geometric surface area of GC support. The latter is 0.071
$\mathrm{{cm^{2}}}$, which makes 3.37 $\mathrm{{\mu g}}$ of oxide
in the deposit, or, for \SI{34}{\percent} \ce{Mn3O4}-Vulcan-ISAC,% taht would be better
in the deposit, or, for 34\% $\ce{\mathrm{\ce{{Mn3O4}}}}$-Vulcan-ISAC,
9.81 $\mathrm{{\mu g}}$ of the catalyst. The deposition is done from
0.3 mg(oxide)/ml($\ce{{H2O}}$) suspension, thus one needs to deposit
11.23 $\mathrm{{\mu l}}$ of the ink. It is done in 3 steps, with
3.74 $\mathrm{{\mu l}}$ of ink deposited each step. The drop is dried
under $\mathrm{{N_{2}}}$ flow, ca. 10-15 min. After the last step,
a quote of the solution of ionomer (Fukuyama), 2 $\mathrm{{\mu l}}$
is deposited for the layer stability.
\subsubsection*{Electrolyte:}
0.1 M NaOH, 250 ml;
RE is always in 1 M NaOH
\subsubsection*{Results and discussion:}
\paragraph*{1. \label{par:1.-First-CV}First CV cycling to stabilize the sample,
15 cycles, 20 mV/s; }
limits:
1 M NaOH, $\mathrm{{pH}\approx14}$, -0.50 .. 0.30 V MMO
0.1 M NaOH, $\mathrm{{pH}\approx13}$, -0.44 .. 0.36 V MMO
\end{document}