the new fuels with magnecular structure - Institute for Basic Research

THE NEW FUELS WITH MAGNECULAR STRUCTURE 47
work equally well for the detection of magnecules, resulting in an analysis without
any real scientific value because:
i) the species to be detected may not even have entered the instrument, as it
is routinely the case for small syringes and feeding lines particularly for liquid
magnecules (which can be so big as to be visible to the naked eye, as shown later
on in this book);
ii) the species to be detected may have been destroyed by the measurement
itself, as it is routinely the case for instruments operated at very high temperature,
or flame ionization instruments which, when used for combustible gases with
magnecular structure, cause the combustion of magnecules at the very time of
their detection; or
iii) the detection itself may create magnecules which do not exist in the original
species, as it is the case of peaks with 3 a.m.u. discussed in Fig. 11.
In conclusion, the separation between a true scientific measurement and a
personal experimental belief requires extreme scientific caution in the selection
of the analytic instrument, its use, and the interpretation of the results.
3.2 Unambiguous Detection of Molecules
As it is well known, a gas molecule is identifiable by unique and unambiguous
GC-MS peaks, which are distinctly different from those of any other gas molecule.
In addition, this GC-MS identification can be confirmed by IRD peaks and related
resonating frequencies, which are also distinctly different for different gas
molecule. Additional confirmations are possible using other analytic methods,
such as those based on average molecular weight, chemical reactions and other
procedures.
The advent of the new chemical species of magnecules suggests a re-examination
of these analytic methods and procedures so as to separate personal opinions from
actual scientific identifications. Such a re-examination is warranted by the fact
that, due to extended use, claims of specific molecular identifications are nowadays
generally voiced via the use of only one analytic detector.
As an illustration, most contemporary analytic laboratories conduct chemical
analyses on gases via the sole use of the IRD. However, infrared detectors do
not identify complete molecules, since they can only identify the bond in their
dimers. For instance, for the case of H 2 O, the IRD does not identify the complete
molecule, but only its dimer H–O.