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[mm³] = / 10 [mmHg]

Figure 28

CREATION OF TWO UREA MOLECULES (NH₂)₂CO

The chemical process continues with four NH₂ molecules and two CO₂ (Carbon dioxide) molecules.
Two NH₂ molecules include CO and exclude O Oxigen atom, from CO₂ (Carbon dioxide) molecules.

NH2 + NH2 + CO2 →(NH2)2CO excludes O

NH2 + NH2 + CO2 →(NH2)2CO excludes O

The excluded Oxygen atom has chem. Process O + O → O₂

Creation of two Urea molecules. (see Figure 29)

Figure 29

TRANSFORMATION OF CREATININ MOLECULE IN UREA MOLECULE IS DEMONSTRATED

(See Hypothesis 2)

HAEMOGLOBIN MOLECULE  (FeN₄ CORE)

The chemical process can change with the chemical synthesis of Fe (Iron Atom), and four NH₂ molecules from solidification of the S Creatinin molecule (see Solidification S Creatinin mol.) and CO₂ (Carbon dioxide) molecules.

The four NH₂ molecules include Fe and exclude H₈
The Oxigen atom, from CO₂ (Carbon dioxide) molecules, can form 2H₂O and CH₄.

The chemical process is::

(NH₂)₄ + Fe + CO₂ → FeN₄(Haemoglobin molecule core) excludes CH₄ and excludes 2H₂O

See Ferophorpherin

See Hemoglobin.

Excluded CH₄ and 2H₂O continue the chemical process in direction of creating another S Creatinin molecule.

The chemical process is:

CH₄ + excluded O₂ → CH₄O₂

See Methane

2H₂O → H₄O₂ → H₄ + (O₂ + C ) → CH₄O₂

The chemical process for CH₄ is:

CH₄ + O₂ → 2H₂O excludes C

C + O₂ → CO₂

or

CH₄ + O₂ → CO₂ excludes H₄

H₄ + O₂ → 2H₂O

Figure 30

COMBINATION OF SINGULARITY LAW (ANOTHER DISEASE)

Basic chemical elements for breathing are:

     - O₂ Oxigen molecule
     - C Carbon atom
     - CO₂ Carbon dioxide
     - H₂O Water molecule...Cell contents are more and 90% water

In the breathing process the cell absorbs an O₂ Oxygen molecule and extracts CO2 Carbon dioxide.
The cell in breading process absorb O Oxigen molecule, and extract CO₂ Carbondioxide, H₂O content is unchanged.
This is healthy breathing process.

Failure of the cell breathing process.

With failure of the cell breathing process, the cell absorbs an CH₄ Methane molecule, but extracts a O₂ Oxygen molecule.
This methane molecule is the product of a chemical process:

C + 2H₂O → CH₄ extractes O₂ Oxigen atoms.
This O₂ Oxigen molecule, connects with the C Carbon atom and becomes CO₂ Carbon dioxide.

New chem. reaction.:

CO₂ + CH₄→ C₂ extracte 2H₂O
and vice versa:

CO₂ + CH₄ → 2H₂O extracte C₂

In the first case, the cell increases the Singular number of C Carbon atoms.(see bio amino acid)
In the second case, the cell increases the Singular number of 2H₂O Water molecules.

The cell content (C Carbon) divides into two atoms (1x2=2, 2x2=4, 4x2=8, 8x2=16...?) and C Carbon atoms content in every cell increases in accordance with the singularity low.
This cell is maybe the first cancer cell.

The cell with 2H₂O atoms content is maybe the first leukaemia cell.
Leukaemia can be a product of a normal evolutional process, out of control.
See normal process excluding H₂O and 2H₂O:

see UREA

see UREA - CREATININ DISINTEGRATION

see SOLIDIFICATION PROCESS FOR CREATININE

This process is acknowledgment for Hypothesis 4 see Hypothesis 4

Binary singularity

The excluded O Oxygen atom, from the CO₂ (Carbon dioxide) molecule continues the chemical process, with one of singularity mode:

see Creation of two Urea molecules

see Creation of Urea

see UREA

The three chemical processes are the same all the time; only the number of singularities changes.(see Figure 31)

LIFETIME AND CHEMICAL PROCESS

The number 1-2-4 is the lifetime of a Urea molecule.It is seven singular periods long..
That lifetime is the time in that form. Molecules transform all the time and in that period has UREA form.

The number 8-16-32 is the lifetime for Creatinin molecules. It is 56 singular periods long.
The number 64 is 64 singular periods long, and that is the lifetime for S Creatinin molecule.
The number 128 is 128 singular periods long, and that is the lifetime for Haemoglobins FeN₄ core. (see Hemoglobin).

These numbers (from 1 to 128) were beginning of the singularity in the later period when the singularity had the greatest number of molecules and combinations, this lifetime is the same.
Increases only number of all molecules.(see calculator)

Figure 31

Sin.	Chemical process
	CO2 + 2H2O → CO2 + H4O2→ CH4 + O2 → CH4O2 + N2 → (NH2)2CO [first Urea]  excludes O    excludes O2
	excluded O + 2H2O → H4 + (O2 + C) + O → CH4 + O3 → CH4 + O + N2 → (NH2)2CO [second Urea]  excludes O2
	excluded O2 + C → CO2 + N2H4 → (NH2)2CO [thrd Urea]     excludes O  excluded O2 + C → CO2 + N2H4 → (NH2)2CO [fourt Urea]     excludes O  excluded O + O → O2  excludes O2
	(NH2)2CO + (NH2)2CO + (NH2)2CO + (NH2)2CO → C4H16N8O4 → C4H7N3O  excludes H9N5O3 +   excluded O2
	excluded O2 + C → CO2 + excluded H9N5O3 → CH9N5O3   excludes O2  excluded O2 + C → CO2 + CH9N5O3 → C2H9N5O3   excludes O2  excluded O2 + C → CO2 + C2H9N5O3 → C3H9N5O3   excludes O2  excluded O2 + C → CO2 + C3H9N5O3 → C4H9N5O3 → C4H7N3O  excludes H2N2  excludes 2O2  New Urea branch initiaion is excluded H2N2 + excluded 2O2 → H2N2 + H2O + CO2 + O →(NH2)2CO excludes O excludes O2
	C4H7N3O Solidification excludes C4 + NH3 + H2O + H2N2 and share in:  NH3 + C4H7N3O → C4H8N4 excludes H2O  H2O + H2N2 + CO2 →(NH2)2CO excludes O2  excluded H2O + excluded O2 → H2O + CO2 + H2N2 → (NH2)2CO   excludes O2
	C4H8N4 Solidification excludes C4 excludes (NH2)4  (NH2)4 + CO2 + CO2 → (NH2)2CO +  (NH2)2CO
	(NH2)2 + (NH2)2 + Fe + CO2 → FeN4 excludes CH4 excludes H2O + H2O

The next table calculator can explain , the different evolution phases.(see calculator)

For calculating of evolution phases we can use next calculator for different molecules.

Example:
Write the Urea value 20 mmol/l in first cell, and see haw meny molecules have certain phase.

mmol/l.	Sin.	Chemical process
	1		(NH2)2CO  first Urea molecules
	2		(NH2)2CO  second Urea molecules
	4		(NH2)2CO  fourt Urea molecules
	∞		Number of molecules

Example:
Creatinin value is 1000 mmol/l, this value can be calculated because we know the phase.
We know that blood content is 1000 mmol/l of Creatinin, and we know how many molecules have Creatinin form.
The Creatinin content value is important, and the evolution phase is life cycle for the Creatinin molecule.
Creatinin value is average number of molecules in the while, and that number increases.. (see Law of Singularity)

mmol/l.	Sin.	Chemical process
	8		C4H7N3O first Creatinin molecules
	16		C4H7N3O Creatinin molecules (O cicle)
	32		C4H7N3O Creatinin molecules (Solidification)
	∞		Number of molecules

NEW SINGULARITY BRANCH

Singularity 32 is specific because it contains three chemical processes (see Figure 31 singularity 32).
The content for that singularity is :

          C₄H₇N₃O Creatinin molecules

          C₄H₈N₄  S Creatinin molecules

          (NH₂)₂CO first phase Urea molecules

New Singularity bigins with 1 Creatinin molecule that excludes:

           one NH₃ ammonia molecule
           two NH₃ ammonia molecules

in the Creatinin solidification process.(See Solidification process)

That ammonia connects with another one or two Creatinin molecules and become one or two Singular Creatinin molecules. The one or two Singular Creatinin molecules in the solidification process, exclude 4 or 8 NH₂ molecules.(See S Solidification process)

That creates 2 or 4 (NH₂)₂CO Urea molecules (See Creation two Urea molecules).
Singularity is (1 1 2) and (1 2 4) (Creatinin, S Creatinin, Urea).

The next table calculator can explain Singularity 32.
The previous example for singularity 32 was 571.4285714285714 Creatinin molecules.
In calculating we use (see 1 2 4 Sin. calculator)
The result is in the next table.

mmol/l.	Sin.	Chemical process
	1		C4H7N3O Creatiine molecules
	2		C4H8N4 Singulary Creatinine molecules
	4		(NH2)2CO Urea molecules
	∞		Number of molecules

Singularity 64 is simple, 1 S Creatinin molecule becomes 2 two-phase Urea molecules.

The result of multiplying number is 163.14285714285714 by 2.

    163.14285714285714 * 2 = 326 two phases (NH₂)₂CO Urea molecules. (see front table sin 4)

The 326 two phase (NH₂)₂CO Urea molecules, cannot be created,

if Fe (Iron) content in blood is over the maximum value.(see Singularity 128)

Singularity 128

In Singularity 128 the chemical process can be stopped, if the blood content has more than the maximum number of Fe Iron atoms.
The chemical process has two directions:

 see Creation of Haemoglobin molecule

Chemical process Fe + N₄ → FeN₄ one Haemoglobin molecule core.

Chemical process 2H₂O → H₄ + (O₂+ C) → CH₄O₂ but N₂ is missing to create an Urea molecule

Chemical process CH₄ + O₂ → CH₄O₂ but N₂ is missing to create Urea molecule.

That 2N₂ is connected in the FeN₄ Haemoglobin molecule core, and creation of Urea molecule can be stoped.

CONCLUSION

A singularity is a chemical evolution, and that evolution is normal for all people.
Chemistry elements are missing and chemical process is changing.
This change is an unfavourable chemical process.
The blood must all time contents more than maximum Fe (Iron atoms), and O (Oxygen).
Food must contain Iron. Oxygen can be consumed with physical activity.
Singularity law is a possibility for distribution of evolution phases and the number of molecules and content of different atoms in molecules.(see calculator)

Author

This work has a new point of view for Kidney disease and it is the product of more years of theoretical work.
It is only the beginning of serious scientific exploration of this subject.


   Vladimir Lazic   Denmark   September 2011

------------------------------------------------------------------------------------------------------------------

Part four

ANALYTICAL CHEMISTRY OF THE CREATININ MOLECULE

See Analytical Chemistry

The chemical process can change the content of creatinin molecules, with the chemical synthesis of C₄ atoms.
The Carbon atom connection with another carbon atom, determines the kind of molecules. See Carbon bond

C to C₄ Evolution is the lifetime of the creatinin molecule; the last step is solidification and the beginning of the next singularity.

Evolution of carbon atoms core in creatinin molecule
C	C2	C3	2C2	C4

See Singular and Binary table

See Oxocarbon

ANALYTICAL PROCESS FOR A NONSINGULAR CREATININ MOLECULE  C₄H₇N₃O

Example 1

Singularity one

One Creatinin molecule C₄H₇N₃O disintegrates in: See right side C form

   - C atom See Carbon

   - CH₄ molecule See Methane
   - NH₃ molecule See Ammonia
   - CO molecule See Carbon monoxide
   - CN₂ molecule (See Figure 31A)

C   excludes CH4   excludes NH3   excludes CO   excludes N2

Creatinin molecule content with C atom in Figure 31A

Figure 31A	Molecule content
	C	CH4	NH3	CO	CN2

Chemical multiple synthesis : See Chemical synthesis

C + CH4 + NH3 + CO + CN2 → C4H7N3O

C Creatinin molecule in Figure 31B

Figure 31B

Example 1A

Singularity two

One Creatinin molecule disintegrates in: See right side C₂ form

   - C₂ molecule with a four covalence bond between atoms. See Carbon

   - CH₄ molecule See Methane

   - NH₃ molecule See Ammonia

   - CO molecole See Carbon monoxide

   - N₂ molecule   See Nitrogen

  

C2  excludes CH4   excludes NH3   excludes CN2O

Creatinin molecule content with C₂ atoms in (Figure 32)

Figure 32	Molecule content
	C2	CH4	NH3	CO	N2

See C2 Creatinin molecule

Chemical multiple synthesis : See Chemical synthesis

C2 + CH4 + NH3 + CO + N2 → C4H7N3O

C₂ Creatinin molecule in (Figure 33)

Figure 33

Example 2

Singularity three

One Creatinin molecule disintegrates in: See right side C₃ form

   - C₃ molecules with a two-covalence bond between atoms See Carbon

   - CH₄ molecule See Methane

   - H₂O molecule See Water

   - HN₃ molecule (See Figure 34)

  

C3   excludes CH4   excludes H2O   excludes HN3

Creatinin molecule content with C₃ atoms in (Figure 34)

Figure 34	Molecule content
	C3	CH4	H2O	HN3

Chemical multiple synthesis : See Chemical synthesis

C3 + CH4 + H2O + HN3 → C4H7N3O

C₃ Creatinin molecule in (Figure 35)

Figure 35

Example 2A

One Creatinin molecule disintegrates in:

   - C₃ molecules with a two-covalence bond between atoms. See Carbon

   - CH₄ molecule See Methane

   - NH₃ molecule See Ammonia

   - N₂O molecule See Nitrogen

  

C3 excludes CH4 excludes NH3 excludes N2O

Creatinin molecule content with C₃ atoms in (Figure 36)

Figure 36	Molecule content
	C3	CH4	NH3	N2O

Chemical multiple synthesis : See Chemical synthesis

C3 + CH4 + NH3 + N2O → C4H7N3O

C₃ Creatinin molecule in (Figure 37)

Figure 37

Example 3

Singularity four

One Creatinin molecule disintegrates in: See right side C₄ form

   - 2C₂ molecules with a two-covalence bond between atoms. See Carbon

   - NH₃ molecule See Ammonia

   - H₂O molecule See Water

   - H₂N₂ molecule (see Figure 38)

2C2 excludes NH3 excludes H2O excludes H2N2

Creatinin molecule content with 2C₂ atoms in (Figure 38)

Figure 38	Molecule content
	2C2	NH3	H2O	H2N2

Chemical multiple synthesis: See Chemical synthesis

2C2 + NH3 + H2O + H2N2 → C4H7N3O

2C₂ Creatinin molecule in (Figure 39)

Figure 39

Example 4

See SOLIDIFICATION PROCESS FOR CREATININE

One Creatinin molecule disintegrates in: (See Figure 11)

   - C₄ molecule with a covalent bond between atoms. See Carbon

   - NH₃ molecule See Ammonia

   - H₂O molecule See Water

   - H₂N₂ molecule (See Figure 40)

C4 excludes NH3 excludes H2O excludes H2N2

Creatinin molecule content in (Figure 11 and 40)

Figure 40	Molecule content
	C4	NH3	H2O	H2N2

Chemical multiple synthesis: See Chemical synthesis

C4 + NH3 + H2O + H2N2 → C4H7N3O

C₄ Creatinin molecule in (Figure 41)

Figure 41

Example 4A

See SOLIDIFICATION PROCESS FOR CREATININ

One Creatinin molecule disintegrates in: (See Figure 11)

   - C₄ molecule with a covalent bond between atoms. See Carbon

   - NH₃ molecule See Ammonia

   - H₂O molecule See Water

   - H₂N₂ molecule (See Figure 40A)

C4 excludes NH3 excludes H2O excludes H2N2

Creatinin molecule content in (Figure 11 and 40A)

Figure 40A	Molecules content
	C4	NH3	H2O	H2N2

Chemical multiple synthesis: See Chemical synthesis

C4 + NH3 + H2O + H2N2 → C4H7N3O

C₄ Creatinin molecule in (Figure 41A)

Figure 41A

Example 4B

Two Creatinin molecules:(See Figure 10)

Two Creatinin molecules disintegrate in:    - 2C4 molecule with a covalent bond between atoms. See Carbon    - 4NH3 molecule See Ammonia    - H2O2 molecule See Hydrogen peroxide    - N2 molecule See Nitrogen

ANALYTICAL PROCESS FOR SINGULAR CREATININ MOLECULE  C₄H₈N₄

Example 5

Singularity one

One Creatinin molecule C₄H₈N₄ disintegrates in:

   - C atom See Carbon

   - 2CH₄ molecules See Methane

   - CN₄ molecule See Figure 41B

C   excludes 2CH4   excludes CN4

C Creatinin molecule content in Figure 41B

Figure 41B	Molecule content
	C	CH4	CH4	CN4

Chemical multiple synthesis : See Chemical synthesis

C + 2CH4 + CN4 → C4H8N4

C Creatinin molecule in Figure 41C

Figure 41C

Example 5A

Singularity two

One Creatinin molecule disintegrates in:

   - C₂ molecule with a two-covalence bond between atoms. See Carbon

   - 2CH₄ molecules See Methane

   - N₄ molecule (See Figure 42)

C2 excludes 2CH4 excludes N4

Creatinin molecule content with C₂ atoms in (Figure 42)

Figure 42	Molecule content
	C2	CH4	CH4	N4

Chemical multiple synthesis: See Chemical synthesis

C2 + 2CH4 + N4 → C4H8N4

C₂ Creatinin molecule in (Figure 43)

Figure 43

Example 6

Singularity three

One Creatinin molecule disintegrates in:

   - C₃ molecule with a covalence bond between atoms. See Carbon

   - CH₄ molecule See Methane

   - 2H₂N₂ molecule (See Figure 44)

C3 excludes CH4 excludes 2H2N2

Creatinin molecule content with C₃ atoms in (Figure 44)

Figure 44	Molecule content
	C3	CH4	2H2N2

Chemical multiple synthesis: See Chemical synthesis

C3 + CH4 + 2H2N2 → C4H8N4

C₃ Creatinin molecule in (Figure 45)

Figure 45

Example 6A

One Creatinin molecule disintegrates in:

   - C₃ molecule with a covalence bond between atoms. See Carbon

   - CH₄ molecule See Methane

   - NH₃ molecule See Ammonia

   - HN₃ molecule (See Figure 46)

C3 excludes CH4 excludes NH3 excludes HN3

Creatinin molecule content with C₂ atoms in (Figure 46)

Figure 46	Molecule content
	C3	CH4	NH3	HN3

Chemical multiple synthesis: See Chemical synthesis

C3 + CH4 + NH3 + HN3 → C4H8N4

C₃ Creatinin molecule in (Figure 47)

Figure 47

Example 6B

One Creatinin molecule disintegrates in:

   - C₃ molecule with a covalence bond between atoms. See Carbon

   - 2NH₃ molecules See Ammonia

   - CH₂N₂ molecule (See Figure 48)

  

C3 excludes 2NH3 excludes CH2N2

Creatinin molecule content with C₃ atoms in (Figure 48)

Figure 48	Molecule content
	C3	NH3	NH3	CH2N2

Chemical multiple synthesis: See Chemical synthesis

C3 + 2NH3 + CH2N2 → C4H8N4

C₃ Creatinin molecule in (Figure 49)

Figure 49

Example 7

Singularity four

One Creatinin molecule disintegrates in:

   - 2C₂ molecules with a covalence bond between atoms. See Carbon

   - 4NH₂ molecules (See Figure 50)

2C2 excludes NH2 excludes NH2 excludes NH2 excludes NH2

See S Solidification process

See Creation of two Urea molecules

Creatinin molecule content with 2C₂ atoms in (Figure 50)

Figure 50	Molecule content
	2C2	NH2	NH2	NH2	NH2

Chemical synthesis: See Chemical synthesis

2C2 + 4NH2 → C4H8N4

2C₂ Creatinin molecule in (Figure 51)

Figure 51

Example 7A

One Creatinin molecule disintegrates in:

   - 2C₂ molecule with a covalence bond between atoms. See Carbon

   - 2NH₃ molecules See Ammonia

   - H₂N₂ molecule (See Figure 52)

2C2 excludes 2NH3 excludes H2N2

Creatinin molecule content with 2C₂ atoms in (Figure 52)

Figure 52	Molecule content
	2C2	NH3	NH3	H2N2

Chemical multiple synthesis: See Chemical synthesis

2C2 + 2NH3 + H2N2 → C4H8N4

2C₂ Creatinin molecule in (Figure 53)

Figure 53

Example 8

One Creatinin molecule disintegrates in:

   - C₄ molecule with a covalence bond between atoms. See Carbon

   - 4NH₂ molecules (See Figure 54)

C4 excludes NH2 excludes NH2 excludes NH2 excludes NH2

Creatinin molecule content with C₄ atoms in (Figure 54)

Figure 54	Molecule content
	C4	NH2	NH2	NH2	NH2

Chemical synthesis: See Chemical synthesis

C4 + 4NH2 → C4H8N4

C₄ Creatinin molecule in (Figure 55)

Figure 55

See S Solidification process

See Creation of two Urea molecules

Example 8A

Creatinin molecule disintegrates in:

   - C₄ molecule with a covalence bond between atoms. See Carbon

   - 2NH₃ molecules See Ammonia

   - H₂N₂ molecule (See Figure 56)

C4 excludes 2NH3 excludes H2N2

Creatinin molecule content with C₄ atoms in (Figure 56)

Figure 56	Molecule content
	C4	NH3	NH3	H2N2

Chemical multiple synthesis: See Chemical synthesis

C4 + 2NH3 + H2N2 → C4H8N4

C₄ Creatinin molecule in (Figure 57)

Figure 57

CREATING EQUAL (E) CREATININ MOLECULE:

The solidification process in one Creatinin molecule See Figure 31 (singularity 128) was 50% transformation.

Example from (singularity 128 from Figure 31)

(NH2)2 + (NH2)2 + Fe + CO2 → FeN4 excludes CH4 excludes H2O + H2O

100% transformation of Creatinin molecule, have to four water molecules (4H₂O). See Water

   Singularity example for water:

Example A

- One H₂O molecule See CREATING SINGULARY CREATININ MOLECULE

- Two H₂O molecules See Figure 31 singularity 128

- Four H₂O molecules  See chemical process

Example B

A quark is a result of an empty singularity. See quark

An electron is a result of a quark singularity. See electron

A proton is a result of a quark singularity. See proton

A neutron is a result of a quark singularity. See neutron

A nucleus is a result of a electrons equality. See nucleus

EQUALITY

A hydrogen atom is a result of equality in singularity one.

Equality of (one proton, one neutron, one electron)

   See Hydrogen
   See Hydrogen
   See Hydrogen
  

An oxygen atom is a result of equality in singularity eight.

Equality of (eight protons, eight neutrons, eight electrons (2 and 6) )

   See Oxygen
  

The chemical process singularity one is:

One hydrogen atom + One oxygen atom → HO

H + O → HO

The chemical process singularity two is:

HO + HO → H2O2

Equality of(two hydrogen atoms, two oxygen atoms)

See Hydrogen peroxide

The chemical process Water singularity one is:

H2O2 → H2O   excludes O

The chemical process Water singularity two is:

H2O + H2O → 2H2O

The chemical process Water singularity four is:

2H2O + 2H2O → 4H2O

Creation of Equal (E) Creatinin molecule   C₄H₄O₄

(See Figure 58)

Equality of (four carbon atoms, four hydrogen, four oxygen atoms)

A singular (S) Creatinin molecule includes 4H₂O (four water molecules) and excludes 4NH₃ (four ammonia molecules) and becomes an Equal Creatinin molecule C₄H₄O₄ (See Figure 58)

C4H8N4 + 4H2O → C4H4O4 excludes 4NH3

  

Figure 58

C4H4O4 4NH3

ANALYTICAL PROCESS FOR EQUAL CREATININ MOLECULE   C₄H₄O₄

Equal Creatinin molecule C₄H₄O₄ (See Figure 59)

Figure 59

The chemical process in 50% transformation See chemical process

Example 8B

Singularity one

One Creatinin molecule C₄H₄O₄ disintegrates in:

   - C atom See Carbon

   - CH₄ molecule See Methane

   - 2CO₂ molecules See Carbon dioxide

C   excludes CH4   excludes 2CO2

C Creatinin molecule content in Figure 59A

Figure 59A	Molecule content
	C	CH4	CO2	CO2

Chemical multiple synthesis : See Chemical synthesis

C + CH4 + 2CO2 → C4H4O4

C Creatinin molecule in Figure 59B

Figure 59B

Example 9

Singularity two

(E) Creatinin molecule disintegrates in:

   - C₂ molecule with a covalent bond between atoms. See Carbon

   - CH₄ molecule See Methane

   - CO₂ molecule See Carbon dioxide

   - O₂ molecule see Oxygen

  

C2  excludes CH4   excludes CO2   excludes O2

(E) Creatinin molecule content with C₂ atoms in (Figure 60)

Figure 60	Molecule content
	C2	CH4	CO2	O2

Chemical multiple synthesis: See Chemical synthesis

C2 + CH4 + CO2 + O2 → C4H4O4

C₂ Creatinin molecule in (Figure 61)

Figure 61

Example 10

Singularity three

(E) Creatinin molecule disintegrates in:

   - C₃ molecule with a covalent bond between atoms. See Carbon

   - CO₂ molecule See Carbon dioxide

   - 2H₂O molecules See Water

  

C3   excludes CO2   excludes 2H2O

Creatinin molecule content with C₃ atoms in (Figure 62)

Figure 62	Molecule content
	C3	CO2	H2O	H2O

Chemical multiple synthesis: See Chemical synthesis

C3 + CO2 + 2H2O → C4H4O4

C₃ Creatinin molecule in (Figure 63)

Figure 63

Example 11

Singularity four

(E) Creatinin molecule disintegrates in:

   - 2C₂ molecules with a covalent bond between atoms. See Carbon

   - 2H₂O molecules See Water

   - O₂ molecule See Oxygen

  

2C2 excludes 2H2O excludes O2

Creatinin molecule content with 2C₂ atoms in (Figure 64)

Figure 64	Molecule content
	2C2	H2O	H2O	O2

Chemical multiple synthesis: See Chemical synthesis

2C2 + 2H2O + O2 → C4H4O4

2C₂ Creatinin molecule in (Figure 65)

Figure 65

Example 12

(E) Creatinin molecule disintegrates in:

   - C₄ molecule with a covalent bond between atoms. See Carbon

   - 2H₂O molecules See Water

   - O₂ molecule See Oxygen

  

C4 excludes 2H2O excludes O2

Creatinin molecule content with C₄ atoms in (Figure 66)

Figure 66	Molecule content
	C4	H2O	H2O	O2

Chemical multiple synthesis: See Chemical synthesis

C4 + 2H2O + O2 → C4H4O4

C₄ Creatinin molecule in (Figure 67)

Figure 67

ANALYTICAL PROCESS FOR EQUAL CREATININ MOLECULE   C₄H₄O₄ + 4NH₃

Equal Creatinin molecule (without Carbon atoms) + four Ammonia molecule. (See Figure 68)
The chemical process 100% transformation See chemical process

Chemical synthesis: See Chemical synthesis

HO + HO + HO + HO → 2H2O2

2H2O2 + 4NH3

Figure 68

Example 13

Chemical analysis: See Analytical chemistry

(E) Creatinin molecule disintegrates in:

   - 4H₂O molecules See Water

   - 2NH₃ molecules See Ammonia

   - H₂N₂ molecule.

  

2H2O + O2 + 4NH3   →   4H2O   excludes 2NH3   excludes H2N2

Molecule content in (Figure 69)

Figure 69	Molecule content
	H2O	H2O	H2O	H2O	NH3	NH3	H2N2

Chemical multiple synthesis: See Chemical synthesis

4H2O + 2NH3 + H2N2 → H16N4O4 → 4H4NO

NEW SINGULARITY BEGINNING

	Molecule content
	H2O	H2O	H2N2

H2O + H2O + C → CH4O2 + H2N2 → (NH2)2CO   excludes H2O

See Creation of Urea

	Molecule content
	H2O	H2O	NH3	NH3

H2O + H2O + C → CH4O2 + 2NH3 → (NH2)2CO   excludes H2O   excludes H4

See Creation of Urea

excluded   2H2O + C → CH4O2

excluded   H4 + C → CH4

CONCLUSION

A singularity is a chemical evolution of Carbon atoms, that is an increasing number of mutually connected C atoms , from an initial C form, over transforming C₃,C₃ or 2C₂ forms to the last C₄ form.
The forms and chemistry elements are different for same Creatinin molecule. (see Figure 70, 71, 72)

Figure 70

C4H7N3O   molecule content
C	CH4	NH3				CO	CN2	See C Creatinin molecule
C2	CH4	NH3				CN2O		See C2 Creatinin molecule
C3	CH4	NH3					N2O	See C3 Creatinin molecule
C3	CH4		H2O		HN3			See C3 Creatinin molecule
2C2		NH3	H2O	H2N2				See 2C2 Creatinin molecule
C4		NH3	H2O	H2N2				See C4 Creatinin molecule
C4		NH3	H2O	H2N2				See C4 Creatinin molecule.

Figure 71

C4H8N4   molecule content
C	2CH4	2CH4				CN4	See C Creatinin molecule.
C2	2CH4					N4	See C2 Creatinin molecule.
C3	CH4			2H2N2			See C3 Creatinin molecule.
C3	CH4	NH3			HN3		See C3 Creatinin molecule.
C3		2NH3		CH2N2			See C3 Creatinin molecule.
2C2			4NH2				See 2C2 Creatinin molecule.
2C2		2NH3		H2N2			See 2C2 Creatinin molecule.
C4			4NH2				See C4 Creatinin molecule.
C4		2NH3		H2N2			See C4 Creatinin molecule.

Figure 72

C4H4O4   molecule content
C	CH4	CO2	CO2		See C Creatinin molecule.
C2	CH4	CO2	O2		See C2 Creatinin molecule.
C3		CO2		2H2O	See C3 Creatinin molecule.
2C2			O2	2H2O	See 2C2 Creatinin molecule.
C4			O2	2H2O	See C4 Creatinin molecule.

Different molecules forms and content demonstrate the evolution of the Creatinin molecule.

Author

   Vladimir Lazic   Denmark   September 2012
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Part five

ANALYTICAL PROCESS FOR A SINGULAR AND BINARY UREA MOLECULE (NH₂)₂CO

See Singular and Binary table

See Oxocarbon

See Analytical chemistry

One Urea molecule disintegrates in:

- C atom See Carbon	C	1 atom	1. singularity
- N2 molecule See Nitrogen	N	2 atoms	2. singularity
- H4molecule See Hydrogen	H	4 atoms	4. singularity
- O atom See Oxygen	O	1 atom	8. singularity

Oxygen atom is a result of equality in singularity eight.   Equality of (eight protons, eight neutrons, eight electrons (2 and 6) See Oxygen

Figure 71	Molecule content
	C	2N	2H2	O

Example 14

Monoxide Urea molecule

See Carbon monoxide

See S Solidification process

Chemical multiple synthesis: See Chemical synthesis

H2N + H2N + CO → (NH2)2CO

(NH2)2CO

Urea molecule disintegrates in:

   - C atom See Carbon

   - H₂O molecule See Water

   - H₂N₂ molecule See Figure 72

C   excludes H2O   excludes H2N2

Urea molecule content with C atom in Figure 72

Figure 72	Molecule content
	C	H2O	H2N2

Chemical multiple synthesis: See Chemical synthesis

C + H2O + H2N2 → (NH2)2CO

C Urea molecule in Figure 73

Figure 73

Example 15

Chemical multiple synthesis of Urea molecule (NH₂)₂CO

Chemical multiple synthesis is: See Chemical synthesis

Multiple chemical transformations of Urea molecules.
Urea molecule + Urea molecule → Two Urea molecules in One C₂ molecule.

(NH2)2CO + (NH2)2CO → 2(NH2)2CO

Two Urea molecules

2(NH2)2CO

Two Urea molecule disintegrate in:

   - C₂ molecule See Carbon

   - 2H₂O molecules See Water

   - 2H₂N₂ molecules See Figure 74

  

C 2  excludes 2H2O   excludes 2H2N2

C₂ Urea molecule content in Figure 74

Figure 74	Molecule content
	C2	H2O	H2O	H2N2	H2N2

Chemical multiple synthesis: See Chemical synthesis

C2 + 2H2O + 2H2N2 → 2(NH2)2CO

C₂ molecule (Two Urea) See Figure 75

Figure 75

Example 16

Chemical multiple synthesis of Urea molecule (NH₂)₂CO

Multiple chemical transformations of Urea molecules.
Two Urea molecules + Urea molecule → three Urea molecules in one C₃ molecule.

2(NH2)2CO + (NH2)2CO → 3(NH2)2CO

Three Urea molecules

3(NH2)2CO

Three Urea molecules disintegrate in:

   - C₃ molecule See Carbon

   - 3H₂O molecules See Water

   - 3H₂N₂ molecules See Figure 76

  

C 3  excludes 3H2O   excludes 3H2N2

C₃ Urea molecule content in Figure 76

Figure 76	Molecule content
	C3	H2O	H2O	H2O	H2N2	H2N2	H2N2

Chemical multiple synthesis: See Chemical synthesis

C3 + 3H2O + 3H2N2 → 3(NH2)2CO

C₃ molecule (Three Urea) See Figure 77

Figure 77

Example 17

Chemical multiple synthesis of Urea molecule (NH₂)₂CO

Multiple chemical transformations of Urea molecules.
Three Urea molecules + Urea molecule → four Urea molecules in one C₄ molecule.

3(NH2)2CO + (NH2)2CO → 4(NH2)2CO

Four Urea molecules

4(NH2)2CO

Four Urea molecules disintegrate in:

   - C₄ molecule See Carbon

   - 4H₂O molecules See Water

   - 4H₂N₂ molecules See Figure 78

  

C 4  excludes 4H2O   excludes 4H2N2

C₄ Urea molecule content in Figure 78

Figure 78	Molecule content
	C4	H2O	H2O	H2O	H2O	H2N2	H2N2	H2N2	H2N2

Chemical multiple synthesis: See Chemical synthesis

C4 + 4H2O + 4H2N2 → 4(NH2)2CO

C₄ molecule (Four Urea) See Figure 79

Figure 79

Example 18

Chemical transformations of Urea molecule 4(NH₂)₂CO in Equal Creatinin molecule 4CNHO

4(NH2)2CO → 4CNHO   excludes   4NH3   See Ammonia

Example 19

Chemical transformations of Urea molecule 4(NH₂)₂CO in Equal Creatinin molecule 4CNH

4(NH2)2CO → 4CNH  excludes 4NH3  See Ammonia   excludes 2O2   See Oxygen

3C	CH4	4N
4CNH				→
			2O2
4CNHO
			4NH3
4(NH2)2CO

Example 20

Chemical transformations of Urea molecule 4(NH₂)₂CO in Equal Creatinin molecule 4COH

4(NH2)2CO → 4COH  excludes 4NH3  See Ammonia  excludes 4N   See Nitrogen

3C	CH4	2O2
4COH				→
			4N
4CNHO
			4NH3
4(NH2)2CO

Example 21

Chemical transformations of Urea molecule 4(NH₂)₂CO in Singular Creatinin molecule C₄N₈H₈  (4(NH)₂C)

4(NH2)2CO → C4N8H8   excludes 4H2O   See Water

2NH		4NH		8NH
	C		2C		4C
(NH)2C		2(NH)2C		4(NH)2C		→
	H2O		2H2O		4H2O
(NH2)2CO		2(NH2)2CO		4(NH2)2CO

Example 21A

Chemical transformations of Urea molecule 4(NH₂)₂C in Equal Creatinin molecule 8NH

4(NH2)2C → 8NH   excludes 4C   See Carbon

2NH		4NH		8NH		→
	C		2C		4C
(NH)2C		2(NH)2C		4(NH)2C
	H2O		2H2O		4H2O
(NH2)2CO		2(NH2)2CO		4(NH2)2CO

Example 21B

Chemical transformations of Urea molecule 4(NH₂)₂C in Singular Creatinin molecule C₄N₄H₈

4(NH2)2C → C4N4H8   excludes 4N     See Nitrogen

CNH2		2CNH2		4CNH2		→
	N		2N		4N
(NH)2C		2(NH)2C		4(NH)2C
	H2O		2H2O		4H2O
(NH2)2CO		2(NH2)2CO		4(NH2)2CO

Example 22

Chemical transformations of Urea molecule 4(NH₂)₂CO in Singular molecule N₈O₄

4(NH2)2CO → N8O4   excludes 4CH4   See Methane

O		O2		2O2
	N2		N4		N8
N2O		N4O2		N8O4		→
	CH4		2CH4		4CH4
(NH2)2CO		2(NH2)2CO		4(NH2)2CO

Example 22A

Chemical transformations of molecule N₈O₄ in molecule N₈

N8O4 → N8   See Nitrogen   excludes O4 See Oxygen

O		O2		2O2
	N2		N4		N8	→
N2O		N4O2		N8O4
	CH4		2CH4		4CH4
(NH2)2CO		2(NH2)2CO		4(NH2)2CO

Example 22B

Creation of di-monoxide Urea molecule (NH₂)₂CO   excludes O

See Figure 80

See Carbon dioxide

See S Solidification process

See Creation of two Urea molecules.

Chemical multiple synthesis: See Chemical synthesis

H2N + H2N + CO2 → (NH2)2CO   excludes O See Oxygen

Urea molecule content with C atom and excluded O in Figure 80

Figure 80	(NH2)2CO molecule			excluded O
	C	H2O	H2N2	O

Transformation H₂N₂ in dihydrogen monoxide (H₂O)

Oxygen atom + H₂N₂ molecule → H₂O molecule excludes N₂ molecule. See Figure 80A

O + H2N2 → H2O   excludes N2

Figure 80A

di-monoxide Urea molecule content has two water molecules

Creation of Carbon dioxide Urea molecule   (NH₂)₂CO₂

See Figure 81

See Carbon dioxide

See S Solidification process

Chemical multiple synthesis: See Chemical synthesis

Two H₂N molecules + CO₂ molecule → (NH₂)₂CO₂ Carbon dioxide Urea molecule. See Figure 81

H2N + H2N + CO2 → (NH2)2CO2

Figure 81

Dioxide Urea molecule content has two water molecules

Example 23

Dioxide Urea molecule

(NH2)2CO2

Dioxide Urea molecule disintegrates in:

   - C atom See Carbon

   - 2H₂O molecules See Water

   - N₂ molecule   See Nitrogen

C   excludes 2H2O   excludes N2

Dioxide Urea molecule content with C atom in Figure 82

Figure 82	Molecule content
	C	H2O	H2O	N2

Chemical multiple synthesis: See Chemical synthesis

C + H2O + H2O + N2 → (NH2)2CO2

C Dioxide Urea molecule in Figure 83

Figure 83

;

Example 24

Chemical multiple synthesis of carbon dioxide Urea molecule (NH₂)₂CO₂

Chemical multiple synthesis is: See Chemical synthesis

Multiple chemical transformations of carbon dioxide Urea molecules.
dioxide Urea molecule + dioxide Urea molecule → Two dioxide Urea molecules in one C₂ molecule.

(NH2)2CO2 + (NH2)2CO2 → 2(NH2)2CO2

Two dioxide Urea molecules

2(NH2)2CO2

Two dioxide Urea molecules disintegrate in:

   - C₂ molecule See Carbon

   - 4H₂O molecules See Water

   - 2N₂ molecules See Figure 84

C 2  excludes 4H2O   excludes 2N2

Two dioxide Urea molecule content with C₂ atoms in Figure 84

Figure 84	Molecule content
	C2	H2O	H2O	H2O	H2O	2N2

Chemical multiple synthesis: See Chemical synthesis

C2 + 4H2O + 2N2 → 2(NH2)2CO2

C₂ molecule (Two dioxide Urea) See Figure 85

Figure 85

Example 25

Chemical multiple synthesis of carbon dioxide Urea molecule (NH₂)₂CO₂

Multiple chemical transformations of carbon dioxide Urea molecules.
Two dioxide Urea molecules + dioxide Urea molecule → three dioxide Urea molecules in one C₃ molecule.

2(NH2)2CO2 + (NH2)2CO2 → 3(NH2)2CO2

Three dioxide Urea molecules

3(NH2)2CO2

Three dioxide Urea molecules disintegrate in:

   - C₃ molecule See Carbon

   - 6H₂O molecules See Water

   - N₆ molecule (See figure 86)

  

C 3  excludes 6H2O   excludes N6 molecule   See Nitrogen

C₃ Urea molecule content in Figure 86

Figure 86	Molecule content
	C3	H2O	H2O	H2O	H2O	H2O	H2O	N6

Chemical multiple synthesis: See Chemical synthesis

C3 + 6H2O + N6 → 3(NH2)2CO2

C₃ Urea molecule See Figure 87

Figure 87

Example 26

Chemical multiple synthesis of carbon dioxide Urea molecule (NH₂)₂CO₂

Multiple chemical transformations of Carbon dioxide Urea molecules.
Three dioxide Urea molecules + dioxide Urea molecule → four dioxide Urea molecules in one C₄ molecule.

3(NH2)2CO2 + (NH2)2CO2 → 4(NH2)2CO2

Four dioxide Urea molecules

4(NH2)2CO2

Four dioxide Urea molecules disintegrate in:

   - C₄ molecule See Carbon

   - 8H₂O molecules See Water

   - N₈ molecule See Figure 88

  

C 4  excludes 8H2O   excludes N8   See Nitrogen

C₄ Urea molecule content in Figure 88

Molecule content
C4	H2O	H2O	H2O	H2O	H2O	H2O	H2O	H2O	N8

Chemical multiple synthesis: See Chemical synthesis

C4 + 8H2O + N8 → 4(NH2)2CO2

C₄ Urea molecule See Figure 89

Figure 89

Example 27

Molecule division

Molecule division is the process by which a four Urea molecule divides into 2C₂ molecules See Figure 90
Division is a small part of a larger chemical process. This process is known as binary increasing (C₂ - C₃ - 2C₂ - C₄), by which molecules divide again.
The molecule is permanently transformed into these chemistry cicle Urea - Creatinin - Urea molecule.

Figure 90

Example 28

Chemical multiple synthesis of Methane Urea molecule (NH₂)₂CO

See Methane

See Nitrogen

See Hydrogen

Chemical transformation CH₄ and N₂O molecule See Example 2A

CH₄ molecule + N₂O molecule → Methan Urea molecule See Figure 91

CH4 + N2O → (NH2)2CO

Figure 91	Molecule content
	CH4	N2O

Methan Urea molecule (NH₂)₂CO₂

CH4 + N2O2 → (NH2)2CO2

Example 29

Chemical multiple synthesis of Ammonia Urea molecule (NH₂)₂CO

See Ammonia

See Carbon

See Nitrogen

See Hydrogen

CNHO molecule See Example 18

NH₃ molecule + CNHO molecule → Ammonia Urea molecule See Figure 92

NH3 + CNHO → (NH2)2CO

Figure 92	Molecule content
	NH3	CHNO

Ammonia Urea molecule (NH₂)₂CO₂

NH3 + CNHO2 → (NH2)2CO2

Example 30

Chemical multiple synthesis of Water Urea molecule (NH₂)₂CO₂

See Water

See Carbon

See Nitrogen

Two water molecule + CN₂ molecule → Water Urea molecule See Figure 93

2H2O + CN2 → (NH2)2CO2

Figure 93	Molecule content
	H2O	H2O	CN2

Example 31

Monoxide Urea - Creatinin molecule

See Carbon monoxide

See S Solidification process

Chemical multiple synthesis: See Chemical synthesis

Two H₂N molecules + Carbon monoxide molecule → Monoxide Urea molecule.

2H2N + CO → (NH2)2CO

Four H₂N molecules + two Carbon monoxide molecules → two Monoxide Urea molecules.

4H2N + 2CO → 2(NH2)2CO

Four H₂N molecules + Carbon monoxide molecule → Monoxide Creatinin molecule.

4H2N + CO → CH8N4O

Monoxide Creatinin molecule CH₈N₄O

See Figure 101

Figure 101

Example 32

Dioxide Urea - Creatinin molecule

See Carbon dioxide

See S Solidification process

Chemical multiple synthesis: See Chemical synthesis

Two H₂N molecules + Carbon dioxide molecule → Dioxide Urea molecule.

2H2N + CO2 → (NH2)2CO2

Four H₂N molecules + two Carbon dioxide molecules → two Dioxide Urea molecules.

4H2N + 2CO2 → 2(NH2)2CO2

Four H₂N molecules + Carbon dioxide molecule → Dioxide Creatinin molecule.

4H2N + CO2 → CH8N4O2

Dioxide Creatinin molecule CH₈N₄O₂

See Figure 102

Figure 102

CARBON ATOMS REDUCTION PROCESS FOR A SINGULAR CREATININ MOLECULE C₄H₈N₄

Example 33

See S Solidification process

See Carbon

Singular Creatinin molecule C₄H₈N₄ become CH₈N₄ molecule exclludes C₃ molecule.

C4H8N4 → CH8N4   excludes C3

One Carbon atom creating molecule in chemical synthesis:

4H2N + C → CH8N4

Creatinin molecule CH₈N₄ See Figure 103

Figure 103

Singular Creatinin molecule C₄H₈N₄ become C₂H₈N₄ molecule   excludes C₂ molecule.

See Carbon

C4H8N4 → C2H8N4   excludes C2

Two Carbon atoms creating molecule in chemical synthesis:

4H2N + C2 → C2H8N4

Creatinin molecule C₂H₈N₄ See Figure 104

Figure 104

Creatinin molecule C₄H₈N₄ becomes C₃H₈N₄ molecule   excludes C atom.

See Carbon

C4H8N4 → C3H8N4   excludes C

Three Carbon atoms creating molecule in chemical synthesis:

C3 + 4H2N → C3H8N4

Creatinin molecule C₃H₈N₄ See Figure 105

Figure 105

Example 34

CARBON ATOMS REDUCTION PROCESS FOR A CREATININ MOLECULE C₄H₇N₃O

See Solidification process for Creatinin molecule

See Carbon

Creatinin molecule C₄H₇N₃O become CH₇N₃O molecule excludes C₃ molecule.

C4H7N3O → CH7N3O   excludes C3

One Carbon atom creating molecule in chemical synthesis:

CO + H7N3 → CH7N3O

Creatinin molecule CH₇N₃O See Figure 106

Figure 106

Creatinin molecule C₄H₇N₃O become C₂H₇N₃O molecule   and excludes C₂ molecule.

See Carbon

C4H7N3O → C2H7N3O   excludes C2

Two Carbon atoms creating a molecule in chemical synthesis:

C2 + H7N3O → C2H7N3O

Creatinin molecule C₂H₇N₃O See Figure 107

Figure 107

Creatinin molecule C₄H₇N₃O becomes C₃H₇N₃O molecule   excludes C atom.

See Carbon

C4H7N3O → C3H7N3O   excludes C

Three Carbon atoms creating molecule in chemical synthesis:

C3 + H7N3O → C3H7N3O

Creatinin molecule C₃H₇N₃O See Figure 108

Figure 108

Example 35

CARBON ATOMS REDUCTION PROCESS FOR A CREATININ MOLECULE   C₄H₄O₄

See Solidification process for Creatinin molecule

See Carbon

Creatinin molecule C₄H₄O₄ becomes CH₄O₄ molecule excludes C₃ molecule.

C4H4O4 → CH4O4   excludes C3

One Carbon atom creating molecule in chemical synthesis:

C + 2H2O2 → CH4O4

Creatinin molecule CH₄O₄ See Figure 109

Figure 109

E Creatinin molecule C₄H₄O₄ become C₂H₄O₄ molecule   excludes C₂ molecule.

See Carbon

C4H4O4 → C2H4O4   excludes C2

Two Carbon atoms creating a molecule in chemical synthesis:

C2 + 2H2O2 → C2H4O4

Creatinin molecule C₂H₄O₄ See Figure 110

Figure 110

Creatinin molecule C₄H₄O₄ becomes C₃H₄O₄ molecule   excludes C atom.

See Carbon

C4H4O4 → C3H4O4   excludes C

Three Carbon atoms creating a molecule in chemical synthesis:

C3 + 2H2O2 → C3H4O4

Creatinin molecule C₃H₄O₄ See Figure 111

Figure 111

Example 36

UREA ZERO-POINT (Urea without Carbon and Oxygen atoms)

Carbon and Oxygen atoms do not influence chemical transformation, and theoretically can exclude from Urea molecule.
Creating 2NH₂ molecule in chemical transformation. (See Figure 112)

Urea molecule → (NH₂)₂O molecule excludes Carbon atom.

(NH2)2CO → (NH2)2O   excludes C

(NH₂)₂O molecule → (NH₂)₂ molecule excludes Oxygen atom.

(NH2)2O → (NH2)2   excludes O

Excluded C + O → CO See Carbon monoxide

Figure 112

Chemical transformation of (NH₂)₂ molecule in NH₃O molecule

(See Figure 113)

(NH₂)₂ molecule + water molecule → NH₃O molecule   excludes Ammonia molecule.

(NH2)2 + H2O → NH3O   excludes NH3  See Ammonia

Figure 113

(NH₂)₂ molecule + two water molecules → Hydrogen peroxide molecule   excludes two Ammonia molecules.

(NH2)2 + 2H2O → H2O2   excludes 2NH3  See Ammonia

Hydrogen peroxide molecule See Figure 114

Figure 114

See Hydrogen peroxide
See Water
See Oxygen

Hydrogen peroxide molecule → water molecule   excludes Oxygen atom.

H2O2 → H2O   excludes O  See Oxygen

Chemical transformation of (NH₂)₂ molecule in 2N molecule

See Figure 115

(NH₂)₂ molecule + Carbon atom → 2N molecule   excludes Methane molecule.

(NH2)2 + C → 2N   excludes CH4  See Methane

(NH₂)₂ molecule + O₂ molecule → N₂ molecule   excludes two Water molecules.

(NH2)2 + O2 → 2N   excludes 2H2O  See Water

2N molecule See Figure 115

Figure 115

Example 37

CREATININ ZERO-POINT (Creatinin without Carbon atom)

Chemical process is the transformation of H₂O in NH₃, without Carbon atom See Figure 116

Creating a molecule in chemical synthesis:
Four Nitrogen atoms + four water molecules → 4NH₂ molecules See S Solidification process

4N + 4H2O → 4NH2   excludes 2O2

4NH₂ molecules + two water molecules → four NH₃ molecule See Ammonia

4NH2 + 2H2O → 4NH3   excludes O2

Figure 116

Chemical synthesis:
Four Nitrogen atoms + six water molecules → 4NH₃ molecules excludes 3O₂

4N + 6H2O → 4NH3   excludes 3O2

CH8N4 Creatinin molecule

See Figure 117

CH8N4 → 4NH2   excludes C

Figure 117

CH7N3O Creatinin molecule

See Figure 118

Creatinin molecule → 2NH₂molecule + NOH₃ molecule excludes Carbon atom.

CH7N3O → 2NH2 + NOH3   excludes C See Carbon

Figure 118

NOH₃ molecule + NH₃ molecule → 2NH₂ molecule excludes H₂O molecule.

NOH3 + NH3 → 2NH2   excludes H2O See Water

2NH₂ molecule + H₂O molecule → NOH₃ molecule excludes NH₃ molecule.

2NH2 + H2O → NOH3   excludes NH3  See Ammonia

CH4O4 Creatinin molecule

See Figure 119

Creatinin molecule → 2H₂O₂ molecules   excludes Carbon atom.

CH4O4 → 2H2O2   excludes C See Carbon

Figure 119

See Hydrogen peroxide
See Water
See Oxygen

2H₂O₂ molecules → 2H₂O molecules   excludes O₂ molecule.

2H2O2 → 2H2O   excludes O2

REPEATING CREATININ FORMS C-C₂-C₃-C₄

Example 38

Singularity five

See Singular and Binary table

See Oxocarbon

- Example :

Creates one Carbon atom Creatinin molecule excludes four Carbon molecule :

Creatinin molecule + Carbon atom → Creatinin molecule singularity one,  excludes C₄ molecule singularity four

C4H8N4 + C → CH8N4   excludes C4

Singular transformation of C₄H₈N₄ molecule in CH₈N₄ molecule in Figure 120

Figure 120	C4H8N4	→	CH8N4	excluded
		→
	C4	→	C	C4

C4H7N3O + C → CH7N3O   excludes C4

Singular transformation C₄H₇N₃O molecule in CH₇N₃O molecule in Figure 121

Figure 121	C4H7N3O	→	CH7N3O	excluded
		→
	C4	→	C	C4

C4H4O4 + C → CH4O4   excludes C4

Singular transformation of C₄H₄O₄ molecule in CH₄O₄ molecule in Figure 122

Figure 122	C4H4O4	→	CH4O4	excluded
		→
	C4	→	C	C4

Example 39

Singularity six

See Singular and Binary table

See Oxocarbon

- Example :

Creates two Carbon atoms Creatinin molecule, excludes four Carbon atoms :

Creatinin molecule + two Carbon atoms → Creatinin molecule singularity two,   excludes C₄ molecule singularity four

C4H8N4 + C2 → C2H8N4   excludes C4

C₂H₈N₄ molecule in Figure 123

Figure 123	C2H8N4	excluded
	C2	C4

C4H7N3O + C2 → C2H7N3O   excludes C4

C₂H₇N₃O molecule in Figure 124

Figure 124	C2H7N3O	excluded
	C2	C4

C4H4O4 + C2 → C2H4O4   excludes C4

Singular transformation C₄H₄O₄ molecule in C₂H₄O₄ molecule in Figure 125

Figure 125	C2H4O4	excluded
	C2	C4

Example 40

Singularity seven

See Singular and Binary table

See Oxocarbon

- Example :

Creates three Carbon atoms Creatinin molecule, excludes C₄ molecule :

Creatinin molecule + three Carbon atoms → Creatinin molecule singularity three,   excludes C₄ atoms singularity four

C4H8N4 + C3 → C3H8N4   excludes C4

C₃H₈N₄ molecule in Figure 126

Figure 126	C3H8N4	excluded
	C3	C4

C4H7N3O + C3 → C3H7N3O   excludes C4

C₃H₇N₃O molecule in Figure 127

Figure 127	C3H7N3O	excluded
	C3	C4

C4H4O4 + C3 → C3H4O4   excludes C4

C₃H₄O₄ molecule in Figure 128

Figure 128	C3H4O4	excluded
	C3	C4

Example 41

Singularity eight

See Singular and Binary table

See Oxocarbon

- Example :

Creates four Carbon atoms Creatinin molecule, excludes C₄ molecule :

Creatinin molecule + four Carbon atoms → Creatinin molecule singularity four,   excludes C₄ molecule singularity four

C4H8N4 + C4 → C4H8N4   excludes C4

Singular transformation C₄H₈N₄ molecule in C₄H₈N₄ molecule in Figure 129

Figure 129	C4H8N4	excluded
	C4	C4

C4H7N3O + C4 → C4H7N3O   excludes C4

Singular C₄H₇N₃O molecule in Figure 130

Figure 130	C4H7N3O	excluded
	C4	C4

C4H4O4 + C4 → CH4O4   excludes C4

Singular C₄H₄O₄ molecule in Figure 131

Figure 131	C4H4O4	excluded
	C4	C4

Example 42

Singularity nine

See Singular and Binary table)

See Oxocarbon

- Example :

Creates one Carbon atom Creatinin molecule, excludes eight Carbon molecule :

One Carbon atom Creatinin molecule + eight Carbon atoms → Creatinin molecule singularity one,   excludes C₈ molecule singularity eight

CH8N4 + C8 → CH8N4   excludes C8

Singular CH₈N₄ molecule in Figure 132

<

Figure 132	CH8N4	excluded
	C	C8

CH7N3O + C8 → CH7N3O   excludes C8

Singular CH₇N₃O molecule in Figure 133

Figure 133	CH7N3O	excluded
	C	C8

CH4O4 + C8 → CH4O4   excludes C8

Singular CH₄O₄ molecule in Figure 134

Figure 134	CH4O4	excluded
	C	C8

Example 43

Singularity ten

See Singular and Binary table

See Oxocarbon

- Example :

Creates two Carbon atoms, Creatinin molecule excludes eight Carbon molecule :

Two Carbon atom Creatinin molecule + eight Carbon atoms → Creatinin molecule singularity two   excludes C₈ molecule singularity eight

C2H8N4 + C8 → C2H8N4   excludes C8

C₂H₈N₄ molecule in Figure 135

Figure 135	C2H8N4	excluded
	C2	C8

C2H7N3O + C8 → C2H7N3O   excludes C8

C₂H₇N₃O molecule in Figure 136

Figure 136	C2H7N3O	excluded
	C2	C8

C2H4O4 + C8 → C2H4O4   excludes C8

C₂H₄O₄ molecule in Figure 137

Figure 137	C2H4O4	excluded
	C2	C8

INCREASING CREATININ FORMS   C₅ → ∞

Carbon atoms singularity four + Carbon atoms singularity one → Carbon atoms singularity five

C4 + C → C5

Example 44

Singularity five

See Singular and Binary table

See Oxocarbon

- Example :

Carbon atoms creating a molecule in chemical synthesis:
Singular Creatinin molecule + Carbon atom → C₅ Creatinin molecule.

C4H8N4 + C → C5H8N4

C₅ Creatinin molecule in Figure 138

Figure 138

Creatinin molecule + Carbon atom → C₅ Creatinin molecule.

C4H7N3O + C → C5H7N3O

C₅ Creatinin molecule in Figure 139

Figure 139

Equal Creatinin molecule + Carbon atom → C₅ Creatinin molecule.

C4H4O4 + C → C5H4O4

C₅ Creatinin molecule in Figure 140

Figure 140

- Example :

Singular Creatinin molecule + Urea molecule → C₅ Creatinin molecule   excludes Oxygen atom.

C4H8N4 + (NH2)2CO → C5H12N6   excludes O

Creatinin molecule + Urea molecule → C₅ Creatinin molecule,   excludes Oxygen atom.

C4H7N3O + (NH2)2CO → C5H11N5   excludes O2

Equal Creatinin molecule + Urea molecule → C₅ Creatinin molecule   excludes H₃N₂molecule.

C4H4O4 + (NH2)2CO → C5H5O5   excludes H3N2

Figure 141	C5H12N6	C5H11N5	C5H5O5
	excludes O	excludes O2	excludes H3N2

Example 45

Singularity six

- Example :

Singular Creatinin molecule + two Urea molecule → C₆ Creatinin molecule   excludes two Oxygen atoms.

C4H8N4 + 2(NH2)2CO → C6H16N8   excludes O2

Creatinin molecule + two Urea molecule → C₆ Creatinin molecule   excludes three Oxygen atoms.

C4H7N3O + 2(NH2)2CO → C6H15N7   excludes O3

Equal Creatinin molecule + two Urea molecule → C₆ Creatinin molecule   excludes 2H₃N₂molecules.

C4H4O4 + 2(NH2)2CO → C6H6O6   excludes 2H3N2

Figure 142	C6H16N8	C6H15N7	C6H6O6
	excludes O2	excludes O3	excludes 2H3N2

Singularity seven

- Example :

Singular Creatinin molecule + three Urea molecules → C₇ Creatinin molecule   excludes three Oxygen atoms.

C4H8N4 + 3(NH2)2CO → C7H20N10   excludes O3

Creatinin molecule + three Urea molecules → C₇ Creatinin molecule   excludes four Oxygen atoms.

C4H7N3O + 3(NH2)2CO → C7H19N9   excludes 2O2

Equal Creatinin molecule + three Urea molecules → C₇ Creatinin molecule   excludes 2H₃N₂molecules.

C4H4O4 + 3(NH2)2CO → C7H7O7   excludes 2H3N2

Figure 143	C7H20N10	C7H19N9	C7H7O7
	excludes O3	excludes 2O2	excludes 2H3N2

Singularity eight - Dioxide Urea example

- Example with 4(NH₂)₂CO₂:

Singular Creatinin molecule + four dioxide Urea molecules → C₈ Creatinin molecule  

C4H8N4 + 4(NH2)2CO2 → C8H24N12O8

Creatinin molecule + four dioxide Urea molecules → C₈ Creatinin molecule  

C4H7N3O + 4(NH2)2CO2 → C8H23N11O9

Equal Creatinin molecule + four dioxide Urea molecule → C₈ Creatinin molecule   excludes 4N₂ molecules.

C4H4O4 + 4(NH2)2CO2 → C8H16O12   excludes 4HN2

Figure 144	C8H24N12O8	C8H23N11O9	C8H16O12
			excludes 4HN2

Example 46

Singularity eight - Two Creatinin molecules example

- Example :

Singular Creatinin molecule + Singular Creatinin molecule → C₈ Creatinin molecule  

C4H8N4 + C4H8N4 → C8H16N8

Creatinin molecule + Creatinin molecule → C₈ Creatinin molecule  

C4H7N3O + C4H7N3O → C8H14N6O2

Equal Creatinin molecule + Equal Creatinin molecule → C₈ Equal Creatinin molecule  

C4H4O4 + C4H4O4 → C8H8O8

Figure 145	C8H16N8	C8H14N6O2	C8H8O8

Example 47

Singularity nine -

- Example :

C₈ Singular Creatinin molecule + One Urea molecule → C₉ Creatinin molecule  

C8H16N8 + (NH2)2CO → C9H20N10  excludes O

C₈ Creatinin molecule + One Urea molecule → C₉ Creatinin molecule  

C8H14N6O2 + (NH2)2CO → C9H18N8O3

C₈ Equal Creatinin molecule + One Urea molecule → C₉ Equal Creatinin molecule  

C8H8O8 + (NH2)2CO → C9H12N2O9

Figure 146	C9H20N10	C9H18N8O3	C9H12N2O9

Example 48

Singularity ten -

- Example :

C₉ Singular Creatinin molecule + One Urea molecule → C₁₀ Creatinin molecule  

C9H20N10 + (NH2)2CO → C10H24N12O

C₉ Creatinin molecule + One Urea molecule → C₁₀ Creatinin molecule  

C9H18N8O3+ (NH2)2CO → C10H22N10O4

C₉ Equal Creatinin molecule + One Urea molecule → C₁₀ Equal Creatinin molecule  

C9H12N2O9 + (NH2)2CO → C10H16N4O10

Figure 147	C10H24N12O	C10H22N10O4	C10H16N4O10

Ten Urea molecules example :

10(NH2)2CO → C10H40N20O10

Figure 148	C10H40N20O10
		Chemical Formula:   C10H40N20O10     Molecular Weight (g/mol):   600,553   Energy (kJ/mol):      70.215,101   Estmated Dipole Moment(D): 1,460   Number of Atoms:   80   Number of Bonds:   80

Example 49

Twenty Urea molecules + one thousand Creatinin molecules example.

20(NH2)2CO + 1000C4H7N3O → C20H80N40O20 + C4000H7000N3000O1000 →

→ C4020H7080N3040O1020

Standards of Measurement Etalons (sum of atoms):
singularity	molecule	definitive
1	C4020H7080N3040O1020	- in 1 volume (mmol/l) millimoles per liter

Sum of atoms CHNO in blood is 4020 + 7080 + 3040 + 1020 = 150160 = 100%

Standards of Measurement Etalons ( % ):
atom :	%	condition
Carbon atoms	40,2 %	solid
Oxygen atoms	10,2 %	liquid
Hydrogen atoms	20,4 %
Hydrogen atoms	50,4 %	gas
Nitrogen atoms	30,4 %	gas

Standards of Measurement Etalons (atom):
singularity	atoms	molecule
1	1 Oxygen atom	- in 1 Water molecule
1	1 Oxygen atom	- in 1 Carbon monoxide molecule
1	1 Nitrogen atom	- in 1 Ammonia molecule
1	1 Carbon atom	- in 1 Carbon monoxide molecule
1	1 Carbon atom	- in 1 Carbon dioxide molecule
1	1 Carbon atom	- in 1 Methane molecule
2	2 Nitrogen atoms	- in 1 CN2O and CN2 molecule
2	2 Hydrogen atoms	- in 1 Water molecule
2	2 Oxygen atoms	- in 1 Carbon dioxide molecule
3	3 Hydrogen atoms	- in 1 Ammonia molecule
4	4 Hydrogen atoms	- in 1 Methane molecule
19	Total number atoms for Urea-Creatinin Molecules

Standards of Measurement Etalons (atom):
singularity	singularity	chem elem
1	3	Nitrogen atoms
2

Standards of Measurement Etalons (atom):
singularity	singularity	chem elem
1	3	Carbon atoms
1
1

Standards of Measurement Etalons (atom):
singularity	singularity	chem elem
1	4	Oxygen atoms
1
2

Standards of Measurement Etalons (atom):
singularity	singularity	chem elem
2	9	Hydrogen atoms
3
4

Singularity create number of Methane molecules

Standards of Measurement Etalons (molecule):
singularity	atoms	molecules	Methane molecules
1	1005	Carbon atoms	1005
4	4020	Hydrogen atoms

Singularity create number of Ammonia molecules

Standards of Measurement Etalons (molecule):
singularity	atoms	molecules	Ammonia molecules
1	1020	Nitrogen atoms	1020
3	3039	Hydrogen atoms
2	21

Singularity creates a number of CN₂O molecules

Standards of Measurement Etalons (molecule):
singularity	atoms	molecules	CN2O molecules
1	1005	Oxygen atoms	1005
1	1005	Carbon atoms
2	2010	Nitrogen atoms

Singularity creates a number of CN₂ molecules

Standards of Measurement Etalons (molecule):
singularity	atoms	molecules	CN2 molecules
1	5	Carbon atoms	5
2	10	Nitrogen atoms

Singularity creates a number of Carbon monoxide molecules

Standards of Measurement Etalons (molecule):
singularity	atoms	molecules	Carbon monoxide molecule
1	15	Oxygen atoms	15
1	15	Carbon atoms

Singularity creates a number of C₂ molecules

Standards of Measurement Etalons (molecule):
singularity	atoms	molecules	C2 molecule
1	1990	Carbon atoms	995

Singularity creates a number of missing O₂ molecules

Transformation C₂ moolecule in 2CO₂ molecule.

Standards of Measurement Etalons (molecule):
Singularity	atoms	molecules	Carbon dioxide mol.
1	1990	Carbon atoms	1990
2	3980	Oxygen atoms

Singularity creates a number of missing O₂ molecules

Transformation CH₄ moolecule in CO₂ molecule.

Standards of Measurement Etalons (molecule):
singularity	atoms	molecules	Carbon dioxide mol.
1	1005	Carbon atoms	1005
2	2010	Oxygen atoms

Singularity creates a number of missing O molecule

Transformation CH₄ molecule in CO molecule.

Standards of Measurement Etalons (molecule):
singularity	atoms	molecules	Carbon monoxide mol.
1	1005	Carbon atoms	1005
1	1005	Oxygen atoms

Singularity creates a number of H₂O molecules

Transformation CH₄ molecule in H₂O molecule.

Standards of Measurement Etalons (molecule):
singularity	atoms	molecules	Water molecule
2	2010	Oxygen atoms	2010
4	4020	Hydrogen atoms

Singularity creates a number of missing Haemoglobin cell

Transformation of number Nitrogen atoms in FeN₄ Haemo molecule core.
Nitrogen atoms number divided by four, for number Haemo molecules

Standards of Measurement Etalons (molecule):
singularity	atoms	molecules	Haemo molecules core
1	3040	Nitrogen atoms	760
4	760	N4 atoms

Standards of Measurement Etalons (molecule):
singularity	atoms	molecules	25% damaged Haemo molecules core
1	3040	Nitrogen atoms	253
12	253	4N3 atoms

Nitrogen atoms number divided by sixteen for Haemoglobin cell number.

Standards of Measurement Etalons (molecule):
singularity	atoms	molecules	Haemoglobin cell
1	3040	Nitrogen atoms	190
16	190	4N4 atoms

Standards of Measurement Etalons (molecule):
singularity	atoms	molecules	25% damaged Haemoglobin cell
1	3040	Nitrogen atoms	253
12	253	4N3 atoms

Singularity create number of missing Iron atoms

Transformation of Nitrogen atoms, in Fe core in Haemoglobin cell.
3040/4=760

Standards of Measurement Etalons (molecule):
singularity	atoms	molecules	Haemo molecules Fe core
1	3040	Nitrogen atoms	760
4	760	4Fe atoms

Example 50

See right side ANALYZER

C4H7N3O   molecule content
C	CH4	NH3				CO	CN2	See C Creatinin molecule
C2	CH4	NH3				CN2O		See C2 Creatinin molecule
C3	CH4	NH3					N2O	See C3 Creatinin molecule
C3	CH4		H2O		HN3			See C3 Creatinin molecule
2C2		NH3	H2O	H2N2				See 2C2 Creatinin molecule
C4		NH3	H2O	H2N2				See C4 Creatinin molecule
C4		NH3	H2O	H2N2				See C4 Creatinin molecule.

Author

   Vladimir Lazic   Denmark    March  2013


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Part six

NEW SINGULARITY BRANCH (Phosphorus atom as central atom)

PHOSPHATE MOLECULES   PO₄; HPO₄; H₂PO₄; H₃PO₄; H₄PO₄; H₅PO₅.....

The chemical process can change the content, with the chemical synthesis of the Phosphorus atom.
The Carbon or Phosphorus atoms, as central atoms, determine the kind of molecules.

The beginning of the next singularity is determined by the number of electrons. See Figure 149

Figure 149

	Molecule content
	Periphery atoms			Central atoms
atom
atom	Hydrogen	Oxygen	Nitrogen	Carbon	Phosphorus
electrons	1	2 - 6	2 - 5	2 - 4	2 - 8 - 5
mising electrons	7	2	3	4	3
singularity	1	2	3	4	5

The electron bond is the sum of electron number + missing electrons number = 8.

The singularity number is the distance from the zero point.

ANALYTICAL CHEMISTRY OF THE PHOSPHATE MOLECULE

NEXT

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