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This page describes mainly a procedure to
determine and evaluate nuclear compounds which
can be useful in future studies always under the
assumptions and concepts depicted in the
previous page._{ } Since the four kinds of Binding Energy were
already stated as B_{et} for the total, B_{eg} for the
group or multitron, B_{ec} for the contact between
groups and B_{eb} as the intrinsic that is for the
ordinary Deuteron, Triton, etc, characteristic
binding Energy, the purpose is now succeed certain
combination of groups that could leave a remainder
Be from the total B_{et} just to bind them properly.
Let define as B_{er} the amount of the remainder Be
then
B_{er} = B_{et}
 S
_{Beg} _{[1]}
where S_{Beg} stands for the sum of all
of the intrinsic
B_{eb} from which the nuclide is composed.
Values of B_{et} can be retrieved from knwn tables
as it is adviced on the previous page.
From this remaining value B_{er} is calculated B_{ec} for
any group fused to three others as stated in the
previous page for a basic minimum of three groups
already fused.
Real nuclides take more than three contacts at the^{ }
innermost but only three at the outermost.
The total number of contacts is calculated after^{ }
the Z number because it represents the true number
value of groups, and is denoted by N_{ct}.
Since the N_{ct} is valid for Z > 3 , it will be N_{ct} = 3 Z  6, taken into account that this value
refers to the pair of contacts of each of the three
points of fusion, the actual number of unilateral
contacts must be doubled in its value, that is
N_{ct} = 2(3Z6)
or
N_{ct} = 6Z  12 _{[2]}
Once B_{er} and N_{ct} are known B_{ec} can be calculated
assuming that B_{er} is distributed over all of the groups
or multitrons,
then
B_{ec} = B_{er} / N_{ct} _{[3]}
A very important datum whose result becomes the
mean value and it also shows that those innermost
multitrons can take more than 3 fusion contacts with
their neighbours while the outermost ones take only
3 contacts, this fact means that there is a saturation
process and so the total B_{ec} for every multitron must
be taken as a constant value proper of the nuclide.
One consequence of this procedure is that when the^{ }
3 B_{ec} value is applied to the A number, at the point
of B'_{et} = B_{et} the
results are:_{ }
3 B_{ec} = B_{e} / nucleon
3 B_{ec} = B_{et} / A _{[4]}
_{}
that is the well known mean B_{e} value._{
}
This result is sensible face to the procedure of_{
} calculi devised, that is there are a true
relationship _{ } between B_{e} /
nucleon and B_{ec} as if in fact all of the
nucleons
play the same role even when the nuclear _{ }
compound is quite achieved._{
}
The nuclear configuration could be calculated _{ } after B_{e} / nucleon nevertheless this is
quite other_{ }
procedure which have not net advantages over _{ }
this one and
results somewhat cumbersome _{
} in other aspects.
Worthy of note is the
fact that Bec refers only_{
}
to the single unilateral energy point of fusion with _{ }
another.
. .

Some essays
This classical nuclide of ^{236}U
whose configuration
is:
6 Protons, 42
Deuterons, 30 Tritons and 14 Quadritrons
with Bet =1790.415 Mev, Be/nucleon = 7.5865 Mev
and Nct = 540, which starts fission and its
first byproducts are :_{}
^{151}I
and^{95}Y _{}
the resulting configuration for the
^{151}I
is :
3 Protons, 12 Deuterons, 32 Tritons and 3 Quadritrons
with Bet =1157.074 Mev, Be/nucleon = 8.20619 Mev
and Nct = 306.
and for the
^{95}Y
is : 6 Protons, 14 Deuterons, 15 Tritons and 4
Quadritrons
with Bet = 817.503 Mev, Be/nucleon = 8.60529 Mev
and Nct = 138.
download nucleus.exe
Nucleus.exe description_{ }
The file starts calculating the basic values of
Deuterons and Tritons even when such data usually
may be far from true ones, these approximations are
useful to yield an idea of magnitude especially for
Tritons as the axis of essays as is depicted
in the info item of the .exe file.
Once entered the attempted quantities of Tritons,
executed to evaluate Protons, Quadritrons, and so on,
a first operation is the Z
number,
that is :
Z = p + D + T + Q + P + Hx + Ht
where :
Z is the atomic number, other symbols mean
quantity of multiplied by its integer.
p : protons, T : Tritons,Q
: Quadritrons, P : Pentatrons,
Hx : Hexatrons,Ht : Heptatrons.
then a second operation for the
A
number,
must be :_{ }
A = p + 2D + 3T + 4Q + 5P + 6Hx +7Ht
Where :
A is the atomic weight, other symbols mean
quantity of multiplied by its integer.
Deuterons have not an input field because they are
precalculus as follows :
D = (A  p  3T  4Q  5P  6Hx 7Ht) / 2 _{ }
so if the result is a fraction or negative value, the
system warns up and so corrections in quantities
must be done.
_{ }
Once achieved the proper results for_{ }
A
and Z
The corresponding equality must be verified if _{ }
B'_{et} = B_{et}
Next step is the calculus of
S
_{Beg
}
which represents the sum of all of the intrinsic
B_{eb}
to be applied to form [1] in order to calculate
B_{er}
,
so after executed form [2] ,
B_{ec}
is calculated
by means of form [3]._{ }
Then the final value of the resulting Bet' is calculated
by:_{ }
B'_{et} = 3 A B_{ec}
By means of different configurations of groups until reach:_{ }
B'_{et} = B_{et}
That is the main objective of this procedure.
. .
