<?xml version="1.0" encoding="ISO-8859-1"?><article xmlns:mml="http://www.w3.org/1998/Math/MathML" xmlns:xlink="http://www.w3.org/1999/xlink" xmlns:xsi="http://www.w3.org/2001/XMLSchema-instance">
<front>
<journal-meta>
<journal-id>0250-5460</journal-id>
<journal-title><![CDATA[Revista Boliviana de Química]]></journal-title>
<abbrev-journal-title><![CDATA[Rev. Bol. Quim]]></abbrev-journal-title>
<issn>0250-5460</issn>
<publisher>
<publisher-name><![CDATA[Universidad Mayor de San Andrés]]></publisher-name>
</publisher>
</journal-meta>
<article-meta>
<article-id>S0250-54602017000400003</article-id>
<title-group>
<article-title xml:lang="en"><![CDATA[NMR Mestrenova, short manual for beginners]]></article-title>
<article-title xml:lang="es"><![CDATA[NMR Mestrenova, pequeño manual para debutantes]]></article-title>
</title-group>
<contrib-group>
<contrib contrib-type="author">
<name>
<surname><![CDATA[Bravo]]></surname>
<given-names><![CDATA[José A]]></given-names>
</name>
<xref ref-type="aff" rid="A01"/>
</contrib>
<contrib contrib-type="author">
<name>
<surname><![CDATA[Vila]]></surname>
<given-names><![CDATA[José L]]></given-names>
</name>
<xref ref-type="aff" rid="A02"/>
</contrib>
<contrib contrib-type="author">
<name>
<surname><![CDATA[Flores]]></surname>
<given-names><![CDATA[Yonny]]></given-names>
</name>
<xref ref-type="aff" rid="A03"/>
</contrib>
</contrib-group>
<aff id="A01">
<institution><![CDATA[,Universidad Mayor de San Andrés UMSA Ciudad Universitaria Cota Cota ]]></institution>
<addr-line><![CDATA[La Paz ]]></addr-line>
<country>Bolivia</country>
</aff>
<aff id="A02">
<institution><![CDATA[,Universidad Mayor de San Andrés UMSA Ciudad Universitaria Cota Cota ]]></institution>
<addr-line><![CDATA[La Paz ]]></addr-line>
<country>Bolivia</country>
</aff>
<aff id="A03">
<institution><![CDATA[,Universidad Mayor de San Andrés UMSA Ciudad Universitaria Cota Cota ]]></institution>
<addr-line><![CDATA[La Paz ]]></addr-line>
<country>Bolivia</country>
</aff>
<pub-date pub-type="pub">
<day>00</day>
<month>00</month>
<year>2017</year>
</pub-date>
<pub-date pub-type="epub">
<day>00</day>
<month>00</month>
<year>2017</year>
</pub-date>
<volume>34</volume>
<numero>4</numero>
<fpage>123</fpage>
<lpage>131</lpage>
<copyright-statement/>
<copyright-year/>
<self-uri xlink:href="http://www.scielo.org.bo/scielo.php?script=sci_arttext&amp;pid=S0250-54602017000400003&amp;lng=en&amp;nrm=iso"></self-uri><self-uri xlink:href="http://www.scielo.org.bo/scielo.php?script=sci_abstract&amp;pid=S0250-54602017000400003&amp;lng=en&amp;nrm=iso"></self-uri><self-uri xlink:href="http://www.scielo.org.bo/scielo.php?script=sci_pdf&amp;pid=S0250-54602017000400003&amp;lng=en&amp;nrm=iso"></self-uri><abstract abstract-type="short" xml:lang="en"><p><![CDATA[This short review presents in a very compact manner the few steps to manipulate 1D and consequently 2D NMR spectra generated in the MestReNova® system. The manual explains how easily we can transform spectral data into different expositive manners. In this sense, we started showing the way to put together 13C and DEPT spectra in the same page with peaks aligned. The way to write, erase or edit the name of spectra is also explained. The way to manipulate ¹H NMR spectra is exposed. The treatment and development of most common use 2D spectra is detailed; this includes COSY/NOESY spectra as well as HSQC/HMBC spectra.]]></p></abstract>
<abstract abstract-type="short" xml:lang="es"><p><![CDATA[La presente breve reseña expone de manera muy compacta los pocos pasos para manipular espectros RMN 1D y, en consecuencia, los espectros RMN 2D generados en el sistema MestReNova®. El manual explica con qué facilidad podemos transformar los datos espectrales en diferentes maneras expositivas. En este sentido, comenzamos a exponer la manera de armar los espectros 13C y DEPT en la misma página con los picos alineados. También se explica la forma de escribir, borrar o editar el nombre de los espectros. La forma de manipular los espectros de ¹H RMN también está expuesta. El tratamiento y desarrollo de los espectros 2D de uso más común se detalla; esto incluye los espectros COSY / NOESY así como los espectros HSQC / HMBC.]]></p></abstract>
<kwd-group>
<kwd lng="en"><![CDATA[NMR]]></kwd>
<kwd lng="en"><![CDATA[MestReNova]]></kwd>
<kwd lng="en"><![CDATA[Short manual]]></kwd>
<kwd lng="en"><![CDATA[COSY]]></kwd>
<kwd lng="en"><![CDATA[HMBC]]></kwd>
<kwd lng="en"><![CDATA[HSQC]]></kwd>
<kwd lng="en"><![CDATA[DEPT]]></kwd>
</kwd-group>
</article-meta>
</front><body><![CDATA[ <p align="right"><font color="#000000" size="2" face="verdana"><b>LOS COMENTARIOS Y/O ART&Iacute;CULOS TE&Oacute;RICOS</b></font></p>     <p align="right">&nbsp;</p>     <p align="center"><font color="#000000" size="4" face="verdana"><b>NMR Mestrenova, short manual for  beginners</b></font></p>     <p align="center">&nbsp;</p>     <p align="center"><b><font size="3" face="verdana">NMR Mestrenova, peque&ntilde;o manual para debutantes</font></b></p>     <p>&nbsp;</p>     <p>&nbsp;</p>     <p align="center"><font color="#000000" size="2" face="verdana"><b>José A. Bravo<sup>1,*</sup>, José L. Vila<sup>2</sup>, Yonny Flores<sup>3</sup></b><sup></sup></font>    <br> <font size="2" face="verdana"><sup>1</sup>Natural   Product Laboratory, Phytochemistry, Chemical Sciences Department, School of   Pure and Natural Science FCPN,    <br>   Universidad Mayor de San Andrés UMSA, P.O. Box   303, Calle Andrés Bello s/n, Ciudad Universitaria Cota Cota,    ]]></body>
<body><![CDATA[<br>   phone +59122792238, La Paz, Bolivia, <a href="mailto:jabravo@umsa.bo">jabravo@umsa.bo</a>, <a href="www.umsa.bo" target="_blank">www.umsa.bo</a>    <br> </font><font size="2" face="verdana"><sup>2</sup>Natural Product Laboratory, Green   Chemistry, Chemical Sciences Department, School of Pure and Natural Science   FCPN,    <br>   Universidad Mayor de San Andrés UMSA, P.O. Box 303, Calle Andrés Bello   s/n, Ciudad Universitaria Cota Cota,    <br>   phone +59122772269, La Paz, Bolivia,   <a href="mailto:jlvila@umsa.bo">jlvila@umsa.bo</a>, <a href="www.umsa.bo" target="_blank">www.umsa.bo</a>    <br> </font><font size="2" face="verdana"><sup>3</sup>NMR Laboratory, Chemical Research   Institute IIQ, Chemical Sciences Department, School of Pure and Natural Science   FCPN,    <br>   Universidad Mayor de San Andrés UMSA, P.O. Box 303, Calle Andrés Bello   s/n, Ciudad Universitaria Cota Cota,    <br>   phone +59122795878, La Paz, Bolivia, <a href="mailto:yflores@umsa.bo">yflores@umsa.bo</a>,   <a href="www.umsa.bo" target="_blank">www.umsa.bo</a>    <br> *Corresponding author: joseabravo@outlook.com<a href="mailto:joseabravo@outlook.com">joseabravo@outlook.com</a>    <br> </font><font color="#000000" size="2" face="verdana"><b>Received</b> 10 22 2017 <b>Accepted</b> 10 28 2017 <b>Published</b> 10  30 2017</font></p>     <p align=center>&nbsp;</p>     ]]></body>
<body><![CDATA[<p align=center>&nbsp;</p> <hr>     <p align="justify"><font size="2" face="verdana"><b>ABSTRACT</b></font></p>     <p align="justify"><font size="2" face="verdana">This short review presents in a very compact manner   the few steps to manipulate 1D and consequently 2D NMR spectra generated in the   MestReNova® system. The manual explains how easily we can transform spectral   data into different expositive manners. In this sense, we started showing the   way to put together <sup>13</sup>C and DEPT spectra in the same page with peaks aligned. The way   to write, erase or edit the name of spectra is also explained. The way to   manipulate <sup>1</sup>H NMR spectra is exposed. The treatment and development   of most common use 2D spectra is detailed; this includes COSY/NOESY spectra as   well as HSQC/HMBC spectra.</font></p>     <p align="justify"><font size="2" face="verdana"><b>Keywords:</b> <i>NMR, MestReNova, Short manual</i>, <i>COSY, HMBC, HSQC, DEPT.</i></font></p> <hr>     <p align="justify"><font size="2" face="verdana"><b>RESUMEN</b></font></p>     <p align="justify"><font size="2" face="verdana">La presente breve reseña expone de manera muy   compacta los pocos pasos para manipular espectros RMN 1D y, en consecuencia,   los espectros RMN 2D generados en el sistema MestReNova®. El manual explica con   qué facilidad podemos transformar los datos espectrales en diferentes maneras   expositivas. En este sentido, comenzamos a exponer la manera de armar los   espectros <sup>13</sup>C y DEPT en la misma página con los picos alineados.   También se explica la forma de escribir, borrar o editar el nombre de los   espectros. La forma de manipular los espectros de <sup>1</sup>H RMN también   está expuesta. El tratamiento y desarrollo de los espectros 2D de uso más común   se detalla; esto incluye los espectros COSY / NOESY así como los espectros HSQC   / HMBC.</font></p> <hr>     <p align="justify">&nbsp;</p>     <p align="justify">&nbsp;</p>     <p align="justify"><font size="3" face="verdana"><b><sup>13</sup>C NMR</b></font></p>     <p align="justify"><font size="2" face="verdana"><u>To put   <st1:metricconverter ProductID="13C" w:st="on">   <sup>13</sup>C and DEPT   together in the same page and with peaks aligned [1]</u></font></p>     ]]></body>
<body><![CDATA[<p align="justify"><font size="2" face="verdana"><i>Opening of files</i>. In MestReNova select “open” in the   toolbar and open the folder containing the   <st1:metricconverter ProductID="13C" w:st="on">   13C data, then open sequentially: “pdata”, “   <st1:metricconverter ProductID="1”" w:st="on">   1” and “1r”; the   <st1:metricconverter ProductID="13C" w:st="on">   13C appears on screen. Select “open” again and open the DEPT data folder and sequentially open: “pdata”, “   <st1:metricconverter ProductID="1”" w:st="on">   1” and “1r”; the DEPT appears on   screen. Also, both spectra in a shorter size appear in the same page at left   under the title “pages”; the DEPT below the13C. The last screen shows:</font></p>     <p align="center"><img src="img/revistas/rbq/v34n4/a03_figura01.GIF" width="329" height="251"></p>     <p align="justify"><font size="2" face="verdana">Click over the shorter size DEPT spectrum at left. It   appears on screen. Chose the same spectral window as the one defined for the     <st1:metricconverter ProductID="13C" w:st="on"> 13C with &ldquo;Manual Zoom&rdquo; in the toolbar. We see:</font></p>     <p align="center"><img src="img/revistas/rbq/v34n4/a03_figura02.gif" width="341" height="263"></p>     <p align="justify"><font size="2" face="verdana"><i>Defining of the spectral   window</i>. To prepare a doubly 1D spectrum   (or two spectra in the same page) we use the same ppm values to define a zoom   by means of the “Manual Zoom” option, in the   <st1:metricconverter ProductID="13C" w:st="on">   13C first, and then in the   DEPT. Hence, click over the shorter size   <st1:metricconverter ProductID="13C" w:st="on">   13C spectrum at left. It appears on screen.   Define a spectral window in ppm with “Manual Zoom” in the toolbar (i.e. 185 ppm   left, 0 ppm right). We see:</font></p>     <p align="center"><img src="img/revistas/rbq/v34n4/a03_figura03.gif" width="351" height="266"></p>     <p align="justify"><font size="2" face="verdana"><i>Accommodation of both spectra   in the same screen, and peak-picking</i>. Click over the shorter size DEPT spectrum at left.   It appears on screen. Click once on the spectrum on the screen, the spectrum   becomes reducible. Using the mouse click on the small green square on top and   slide the mouse downwards until the spectrum is half the size of the original   spectrum. Next, click over the shorter size   <st1:metricconverter ProductID="13C" w:st="on">   13C spectrum at left. It appears on screen.   Repeat the previous operation. Click once on the reduced   <st1:metricconverter ProductID="13C" w:st="on">   13C spectrum. Once selected   this spectrum, “copy” by clicking the right-hand key of the mouse. Click over   the shorter size DEPT spectrum at left. It appears on screen. “Paste” over the   spectrum DEPT on screen by using the right-hand key of the mouse. The view of   the screen now is two overwhelmed or merged spectra in the bottom of the screen   with all peaks aligned: The DEPT and the   <st1:metricconverter ProductID="13C" w:st="on">   13C spectra. We see:</font></p>     <p align="center"><img src="img/revistas/rbq/v34n4/a03_figura04.gif" width="554" height="221"></p>     <p align="justify"><font size="2" face="verdana">Now you’re free to displace any of the spectra   downwards or upwards using the shifting arrows on your PC keyboard. We see:</font></p>     <p align="center"><img src="img/revistas/rbq/v34n4/a03_figura05.gif" width="549" height="428"></p>     ]]></body>
<body><![CDATA[<p align="justify"><font size="2" face="verdana">Once separated one spectrum from each other (i.e. put   the DEPT in the upper region of the screen and the   <st1:metricconverter ProductID="13C" w:st="on">   13C in the downer region of the screen), choose the option “peak picking” in the toolbar. Once unfolded such   option select the option “Manual Threshold”. Place the cursor at the left hand   but close enough of the most deshielded carbon signal (at lowest field), and   below the top of the peak. Press on the left key of the mouse and move it   rightwards until the peak has been covered. The cursor is now at the right hand   of the peak. Release the right key of the mouse. The signal has been picked and   shows its chemical shift value. Repeat this operation with the rest of signals   in the spectrum. Do the same with the   <st1:metricconverter ProductID="13C" w:st="on">   13C spectrum currently in the downer region of   the screen.  Once finished the peak   picking operation click on the “peak picking” option in the toolbar. It will   unroll and show the option “Manual Threshold”. Click on it and the cursor will   return to its basic function and it will not be anymore useful only for the   peak picking operation. To put a title in the screen double click on the DEPT   spectrum (in the upper region of the screen). The window “Properties” appears   on screen. Choose option “common” in the menu. Click option “title” if a title   is desired or unclick if not. If the option “title” is chosen then pick up a   font and then click in option “….” The “Macro editor” option appears and you   can write a title in “Text” and click “OK”. The windows “Properties” appears,   and click in “Apply” and “OK”. The title appears on the left upper corner of   the spectrum.</font></p>     <p align="center"><font size="2" face="verdana"><img src="img/revistas/rbq/v34n4/a03_figura06.gif" width="512" height="392"></font></p>     <p align="justify"><font size="2" face="verdana">Select in the toolbar the option “File”. Select the   option “save as”. A new window named “Save as” appears on the screen. Choose   either the folder containing the   <st1:metricconverter ProductID="13C" w:st="on">   13C   data or the folder containing the DEPT data. The folder “pdata” appears; open   it and sequentially open the folder “   <st1:metricconverter ProductID="1”" w:st="on">   1”.   Name the file and choose the “save” option at the bottom of the current window.   A new file appears using the MestReNova logo. </font></p>     <p align="justify"><font size="2" face="verdana"><i>Transfer of the just   generated screen containing both spectra with aligned peaks</i>. Select “edit” in the toolbar and then select   the “select all” option. The full screen containing both spectra already   displaced and accommodated results selected. Unroll the “edit” option in the   toolbar. Select the “copy” option. Open a new document in <i>Word</i>. “Paste” in the current document of <i>Word</i>. The picture is ready to be manipulated as any figure on that   page of Word. You can rotate it and reduce or enlarge the picture containing   both spectra.</font></p>     <p align="justify">&nbsp;</p>     <p align="justify"><b><font size="3" face="verdana">TITLE</font></b></p>     <p align="justify"><b><font size="2" face="verdana"><u></u></font></b><font size="2" face="verdana"><u>To put, edit or   erase a title of a spectrum [1]</u></font></p>     <p align="justify"><font size="2" face="verdana">The spectrum appears after clicking “open” and   choosing a file or a spectrum (called 1r if 1D or 2rr if 2D). In MestReNova do   double click over the spectrum. The window “Properties” appears on screen.   Choose option “common” in the menu. Click option “title” if a title is desired   or unclick if not. If the option “title” is chosen then pick up a font and then   click in option “….” The “Macro editor” option appears and you can write a   title in “Text” and click “OK”. The windows “Properties” appears, and click in   “Apply” and “OK”. The title appears on the left upper corner of the spectrum. </font></p>     <p align="justify">&nbsp;</p>     <p align="justify"><font size="2" face="verdana"><b><sup><font size="3">1</font></sup><font size="3">H NMR</font></b></font></p>     ]]></body>
<body><![CDATA[<p align="justify"><b><font size="2" face="verdana"><u><sup></sup></u></font></b><font size="2" face="verdana"><u><sup>1</sup>H Peak-picking [1] </u></font></p>     <p align="justify"><font size="2" face="verdana">In the 1H spectrum proceed as explained above for the   <st1:metricconverter ProductID="13C" w:st="on">   13C and DEPT spectra when applying the peak-picking operation. Double click on the spectrum on screen. The window “Properties” appears. Select the options “NMR spectrum” and then the   “1D spectrum” option. Choose in the vertical toolbar at left the option   “peaks”. Mark all four options if not yet done. In the option “peaks” select   the font, the “units” (ppm or Hz), “number of decimals”, and “label position”.   The other options are already marked (“show position”, “show annotations”,   “show tick”). At “label position” chose either “top” or “bottom” or “peak   simple”, “peak crowded”, “peak simple” or “peak groups”. Singlets or doublets   at lowerfield should prefer “peak simple”. Cluster signals of methylene groups   at higher field should prefer “peak crowded”. Once defined these parameters, do   “apply” and OK”. Go to the toolbar and select “Peak-picking” and then “Manual   threshold”. Proceed selecting each peak to be picked in the spectrum. You’re   done. Save as already explained above. </font></p>     <p align="justify"><font size="2" face="verdana"><u><sup>1</sup>H Integration [1] </u></font></p>     <p align="justify"><font size="2" face="verdana">Double click on the spectrum on screen. The window   “Properties” appears. Choose in the vertical toolbar at left the option   “integrals”. Mark on “integrals” and select: Font, decimals, position, margin,   for the “label”. Mark color, position, maximum height for the “curve”. Do   “apply” and “OK”. Go to the tool bar and select “Integrations” and there click   on “manual”. In order to set the number of protons for the integral of a   signal, right-click the mouse on the integral curve on the spectrum. Choose   “edit integral” option. The Integral manager window appears on screen. Choose   in “Normalized” the number of protons for the signal and “apply to all”. You’re   done. Save as explained.</font></p>     <p align="justify">&nbsp;</p>     <p align="justify"><font size="2" face="verdana"><b><font size="3">HOMONUCLEAR 2D   SPECTRA</font></b></font></p>     <p align="justify"><font size="2" face="verdana"> <u>A COSY/NOESY spectrum [1]</u></font></p>     <p align="justify"><font size="2" face="verdana"><i>Opening of files. </i>In MestReNova select “open” in the toolbar   and open the folder containing the COSY/NOESY data, then open sequentially:   “pdata”, “   <st1:metricconverter ProductID="1”" w:st="on">   1”   and “2rr”; the unsymmetrized    COSY/NOESY  appears on screen.   Select “open” again and open the 1H data folder and sequentially open: “pdata”,   “   <st1:metricconverter ProductID="1”" w:st="on">   1” and   “1r”; the 1H appears on screen. Also, both spectra in a shorter size appear in   the same page at left under the title “pages”; the 1H below the COSY/NOESY. We   see:</font></p>     <p align="center"><img src="img/revistas/rbq/v34n4/a03_figura07.gif" width="275" height="212"></p>     <p align="justify"><font size="2" face="verdana"><i>Symmetrizing and choosing   size of crosspeaks in COSY</i>.   Before defining the spectral window it is convenient to symmetrize the COSY   spectrum. Click on the small COSY spectrum at the left of the screen. The COSY   spectrum appears on screen. Click in the COSY spectrum in the screen. Search in   the toolbar the option “processing” then choose “symmetrize” and then the   sub-option “COSY-like”. The COSY spectrum symmetrized appears on screen. Choose   the desired and most fitting intensity of the COSY contour plot by means of the   mouse’s wheel (to increase or decrease the crosspeaks’ size) or by pressing on   the “+” (increase) or “-“ (decrease) keys on your PC keyboard. </font></p>     ]]></body>
<body><![CDATA[<p align="justify"><font size="2" face="verdana"><i>Choosing   size of crosspeaks in NOESY. </i>The   1H spectrum is on the screen. Click over the shorter size NOESY spectrum at the   left of the full screen. The NOESY spectrum appears on screen. Choose the   desired and most fitting intensity of the NOESY contour plot by means of the   mouse’s wheel (to increase or decrease the crosspeaks’ size) or by pressing on   the “+” (increase) or “-“ (decrease) keys on your PC keyboard. We see:</font></p>     <p align="center"><img src="img/revistas/rbq/v34n4/a03_figura08.gif" width="378" height="288"></p>     <p align="justify"><font size="2" face="verdana"><i>Defining of the spectral   window</i>. Click on the   COSY/NOESY spectrum on screen. Select “zoom in” in the toolbar. Select a   spectral window on the COSY/NOESY pressing the left key of the mouse and moving   throughout the spectrum including all pertinent crosspeak. Release the mouse’s   key. The spectral window appears on screen. We see:</font></p>     <p align="center"><img src="img/revistas/rbq/v34n4/a03_figura09.gif" width="318" height="244"></p>     <p align="justify"><font size="2" face="verdana"><i>Plotting the proton projection and applying   the “Contour Plot”</i> <i>option. </i>Check for the vertical toolbar   at the left side of the screen of MestReNova. Look for the “Bitmap Plot” icon.   Click on the two arrows below such icon. An extra icon appears at the right   side of the “Bitmap Plot” icon under the name “Show traces”. Unfold “Show   traces” and choose “Setup”. The window “Setup traces” appears on screen. Click   on the title of the 1H spectrum appearing in the square “Available 1D   spectra:”. Select the horizontal trace by clicking in the corresponding box.   Click again on the title of the 1H spectrum appearing in the square “Available   1D spectra:”. Select the vertical trace by clicking in the corresponding box.   Click OK and the current window disappears. The COSY/NOESY spectrum appears on   screen with both projections (traces). Check for the vertical toolbar at the   left side of the screen of MestReNova. Look for the “Bitmap Plot” icon and   unfold the corresponding menu clicking on the button at right, four options   appear, chose “contour plot”. “Save as” the current COSY/NOESY spectrum. The   window “Save as” appears on screen. Choose the folder containing the COSY/NOESY   data. Open sequentially the folders “data” and “   <st1:metricconverter ProductID="1”" w:st="on">   1” and click on “save” previously giving a name to the file.</font></p>     <p align="center"><font size="2" face="verdana"><img src="img/revistas/rbq/v34n4/a03_figura10.gif" width="418" height="323"></font></p>     <p align="justify"><font size="2" face="verdana">You can zoom on   this spectrum on screen with “zoom in” in the toolbar. Save as: _____ this   zoom. We see:</font></p>     <p align="center"><img src="img/revistas/rbq/v34n4/a03_figura11.gif" width="468" height="362"></p>     <p align="justify">&nbsp;</p>     <p align="justify"><font size="2" face="verdana"><b><font size="3">HETERONUCLEAR 2D   SPECTRA</font></b></font></p>     ]]></body>
<body><![CDATA[<p align="justify"><font size="2" face="verdana"> <u>A HSQC/HMBC spectrum [1]</u></font></p>     <p align="justify"><font size="2" face="verdana"><i>Opening of files. </i>In MestReNova select “open” in the toolbar   and open the folder containing the HSQC/HMBC data, then open sequentially:   “pdata”, “   <st1:metricconverter ProductID="1”" w:st="on">   1”   and “2rr”; the HSQC/HMBC appears on screen. Select “open” again and open the 1H   data folder and sequentially open: “pdata”, “   <st1:metricconverter ProductID="1”" w:st="on">   1” and “1r”; the 1H appears on screen. Select   “open” again and open the   <st1:metricconverter ProductID="13C" w:st="on">   13C   data folder and sequentially open: “pdata”, “   <st1:metricconverter ProductID="1”" w:st="on">   1” and “1r”; the   <st1:metricconverter ProductID="13C" w:st="on">   13C appears on screen. Also,   the three spectra in a shorter size appear in the same page at left under the   title “pages”; the 1H below the HSQC/HMBC, and the   <st1:metricconverter ProductID="13C" w:st="on">   13C below the 1H. we see:</font></p>     <p align="center"><img src="img/revistas/rbq/v34n4/a03_figura12.gif" width="408" height="312"></p>     <p align="justify"><font size="2" face="verdana"><i>Choosing size of crosspeaks   in HSQC/HMBC. </i>The   <st1:metricconverter ProductID="13C" w:st="on">   13C spectrum is on the screen.   Click over the shorter size HSQC/HMBC spectrum at the left of the full screen.   The HSQC/HMBC spectrum appears on screen. Choose the desired and most fitting   intensity of the HSQC/HMBC contour plot by means of the mouse’s wheel (to increase   or decrease the crosspeaks’ size) or by pressing on the “+” (increase) or “-“ (decrease) keys on your PC keyboard. We see:</font></p>     <p align="center"><img src="img/revistas/rbq/v34n4/a03_figura13.gif" width="388" height="301"></p>     <p align="justify"> <font size="2" face="verdana"><i>Defining of the spectral   window</i>. Click on the   HSQC/HMBC spectrum on screen. Select “zoom in” in the toolbar. Select a   spectral window on the HSQC/HMBC pressing the left key of the mouse and moving   throughout the spectrum including all pertinent crosspeak. Release the mouse’s   key. The spectral window appears on screen. We see:</font></p>     <p align="center"><img src="img/revistas/rbq/v34n4/a03_figura14.gif" width="395" height="300"></p>     <p align="justify"><font size="2" face="verdana"><i>Plotting the proton and   carbon projections</i>. Check   for the vertical toolbar at the left side of the screen of MestReNova. Look for   the “Bitmap Plot” icon. Click on the two arrows below such icon. An extra icon   appears at the right side of the “Bitmap Plot” icon under the name “Show   traces”. Unfold “Show traces” and choose “Setup”. The window “Setup traces”   appears on screen. Click on the title of the 1H spectrum appearing in the   square “Available 1D spectra:”. Select the horizontal trace by clicking in the   corresponding box. Click on the title of the   <st1:metricconverter ProductID="13C" w:st="on">   13C spectrum appearing in the   square “Available 1D spectra:”. Select the vertical trace by clicking in the   corresponding box. Click OK and the current window disappears. The   HSQC/HMBC  spectrum appears on screen   with both projections (traces). Check for the vertical toolbar at the left side   of the screen of MestReNova. Look for the “Bitmap Plot” icon and unfold the   corresponding menu clicking on the button at right, four options appear, chose   “contour plot”. “Save as” the current HSQC/HMBC    spectrum. The window “Save as” appears on screen. Choose the folder   containing the COSY/NOESY data. Open sequentially the folders “data” and “   <st1:metricconverter ProductID="1”" w:st="on">   1” and click on “save”   previously giving a name to the file. We see:</font></p>     <p align="center"><img src="img/revistas/rbq/v34n4/a03_figura15.gif" width="530" height="405"></p>     <p align="justify"><font size="2" face="verdana">You can zoom on this spectrum on screen with “zoom in”   in the toolbar. Save as: _____ this zoom. We see:</font></p>     ]]></body>
<body><![CDATA[<p align="center"><img src="img/revistas/rbq/v34n4/a03_figura16.gif" width="550" height="420"></p>     <p align="justify">&nbsp;</p>     <p align="justify"><font size="2" face="verdana"><b><font size="3">REFERENCES</font></b></font></p>     <!-- ref --><p align="justify"><font size="2" face="verdana">1. MNOVA, MESTRELAB.  <b>2010</b>,   MestReNova Manual, MestreNova 6.2.1.</font>&nbsp;&nbsp;&nbsp;&nbsp;&nbsp;&nbsp;&nbsp;&nbsp;[&#160;<a href="javascript:void(0);" onclick="javascript: window.open('/scielo.php?script=sci_nlinks&ref=692293&pid=S0250-5460201700040000300001&lng=','','width=640,height=500,resizable=yes,scrollbars=1,menubar=yes,');">Links</a>&#160;]<!-- end-ref --><p align="justify">&nbsp;</p>     <p align="justify">&nbsp;</p>      ]]></body><back>
<ref-list>
<ref id="B1">
<label>1</label><nlm-citation citation-type="">
<person-group person-group-type="author">
<name>
<surname><![CDATA[MNOVA]]></surname>
<given-names><![CDATA[MESTRELAB]]></given-names>
</name>
</person-group>
<article-title xml:lang="es"><![CDATA[MestReNova Manual]]></article-title>
<source><![CDATA[]]></source>
<year>2010</year>
</nlm-citation>
</ref>
</ref-list>
</back>
</article>
