Pi triangle by squaring the circle
Of ferman: Fernando Mancebo Rodriguez--- Personal page. ----Spanish pages

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COSMIC and ATOMIC MODEL ||| Video: Cosmic and atomic model
Double slit and camera obscura experiments: ferman experiment ||| Type of Waves: Questions of Quantum Mechanics
The socurces of gravity. ||| In favour of the cosmos theory of ferman FCM ||| Theory of Everything: summary
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Stellar molecules ||| Static and Dynamic chaos||| Inversion or Left-right proof ||| Scheme approach TOE
Chart of atomic measures||| The main foundations of the Cosmos' Structure ||| Unstable particles in accelerators
Short summary atomic model ||| Positive electric charges reside in orbits.||| Mathematical cosmic model based on Pi.
Inexactness principle in observations ||| Einstein and the gravity ||| The Universal Motion ||| Atomic particles
Cosmic Geometry ||| Bipolar electronic: semiconductors ||| Multiverse or multi-worlds||| Light and photons
Quantum explanation of Gravity ||| Real physics versus virtual physics ||| The window experiment
Atomic Density ||| Linkin: Coeficients Lcf Mcf ||| Atomic nuclei structuring: Short summary
Few points about Cosmic Structuring.||| What is Time||| Simultaneity ||| The Cosmic tree ||| The Cosmic entropy
Interesting and short life of neutrons ||| Leptons field ||| Macro Microcosm, the same thing.
Fourth dimension of space.||| The way to get a unity theory||| UHECR Ultra-high-energy-cosmic-rays
Magnetic or entropy forces: types or classes||| Time observation and time emission ||| The universe expansion
Planetary Mechanics : Short summary ||| Easy explanation of the Planetary model||| State and type of Particles
Higgs boson and fields: wrong way ||| The positron proof: main types of magnetic fields ||| The gravity proof
Current state of cosmology ||| Electromagnetic charges: reason and procedure ||| Neutron: The short and interesting life of
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Direct formula for Pi: The Squaring Pi. ||| The pyramids of Squaring Pi. ||| Functions of Pi ||| Integration formulas Pi.
Squaring the Circle ||| Cocktail formula for Squaring Pi.||| Orbital coordinates in motion: Summary
Oscillating function: Cartesian oscillators ||| The ciclo as unit of angular speed ||| Squaring circles ruler and compass |||
Video: Squaring circles ruler and compass ||| The number Phi and the circumference.speed |||
The The extended Pi ||| Angles trisection||| Squaring the Circle regarding Phi||| Video of the two squares method
Discusion about the Pi as transcendental number|||: Not transcendental Pi||| The chained sets|||
Properties of equalities in limits||| The Phi right triangles ||| Pi and the Circumscription Theorem
Pi triangle by squaring the circle : Vedeo Pi triangle ||| Squaring Pi demonstration by circumscription Theorem LatexPdf
Doubling the cube ||| Framing the circle ||| Phi and Pi: relation formula
Squaring circle with Phi (to 0.000005 of ideal ruler and compass)||| Sbits: Static and dinamic orbital coordinates
Squaring Pi and the Floating Point
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Hydrocarbons, water and vital principles on the Earth. ||| Cosmos formula : Metaphysics
Ubiquity Principle of set.||| Positive electric charges reside in orbits.
Chaos Fecundity. Symbiosis: from the Chaos to the Evolution.||| Speed-Chords in galaxies.
The ancient planets Asteron and Poseidon.||| The man and the testosterone.||| Toros say ||| The essence of life
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Creation: Highlights||| First steps in metaphysics ||| A personal experience
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First author considerations:
My thoughts on squaring the circle:

I understand that the difficulty in squaring the circle does not come from that mathematical postulate that considers that "because Pi is a transcendental number, its square root and therefore its exact quadrature is not possible."
No, I think that this circumstance would occur at infinity, but for a digit before infinity, that root could occur and therefore that squaring.
The possibility of squaring the circle I think exists, but there is also a big problem, and it is that the direct operational relationship between Pi and the radius of the circumference only occurs at a relationship of powers and roots of Pi^17, (Pi^17 = 2Squrt.2 x 10 ^ 8) and therefore almost impossible for me to perform these operations with segments.
Not bostante here a very approximate method is exposed, that can be considered correct from a point of view of practical measurements on the drawing paper.


In this work we proceed to square the circle in a very approximate way, but with the ultimate purpose of using this method as a constructor element of the Triangle of Pi, with which we can build a simple work tool (Bevel ruler tool), which can be used as a general tool for squares of a circle, since its angles allow us to superimpose this tool on a given circle, and immediately obtain the side of the square (Sqrt.Pi) for squaring the circle. Fig. 6


Fig. 1


To square the circle in a practical way, we will use the known requirement: only a ruler and a compass (preferably and for greater cleanliness and speed, we can use a double needle compass, together to the ruler).

To begin we proceed to define or obtain a circle (Fig. 2) to which we must find its quadrature, and at the same time and above all, we are going to build the triangle of Pi which will be the best product resulting from the quadrature.



Fig. 2

Well, once the circle has been built for its quadrature, and the horizontal and vertical diameters have been marked, we think about the theory that we are going to apply and the triangle (AHB= Pi triangle) that we are going to rely on.


1.- The first thing will be (fig. 2) to mark two perpendicular points (B, B') with the compass from the horizontal diameter, (points that we intuit will be approximate to the ones that let us build the Pi triangle and inscribed rectangle described above).
These points B and B' are key for the development of the quadrature, since point B' helps us to place and align the ruler in (O-B'), and point B helps us to measure and equalize the segments (a) and (a') with the compass.

[HOTLIST] Fig. 1

Fig. 3

2.- Once these two points have been marked (fig. 3), we align and fix the ruler with the center of the circle (O) and the point (B ').
Now with the compass we take from points (B to C) the measure of segment (a) and draw an arc towards the ruler in order to check if this segment (a) is the same as segment (a').
As it does not usually coincide in the first test, we gently turn the ruler in the proper direction (see fig. 3) and take the measurement again: Steps 1 and 2.


Fig. 4

3.- Once the measurement matches us and we verify that (a = a ') (fig. 4) we mark finally the point (B) on the circumference, and we will have managed to square the circle, since by drawing the line (AB) we verify that is equal to the side of the square sought, that is, square root of Pi (Sqrt.Pi).

Easy procedure and summary

For a quick and clean development, we can use a compass with two needles and once we have fixed point B on the circumference we can mark it and proceed by drawing all the elements of the quadrature.
As a practical rule, we can hold and fix the ruler on points O (center circumference) and point B' with one hand.
With the other hand we move the compass following the points indicated above, (1,2,3,4) and when we equalize the segments (a = a') we can mark point B and complete the entire quadrature.



Below is the drawing of the Pi triangle, bevel tool, which due to its construction angles, the hypotenuse represents the square root of Pi (which will be the side of the square sought for squaring the circle) and the largest leg will be half of Pi.
As is logical in this triangle the angles are invariable as detailed in the drawing, but the sides can vary depending on whether we want to make a larger or smaller triangle.
Well, by positioning the larger leg (pi/2) on the diameter of the circle to be squared from one end (A), the hypotenuse will cut the circumference at point (B), resulting a segment (AB) that will be the side of the searched square for the quadrature.



As shown in the general drawing (figure 1), this procedure is not a totally exact method, but it delineates, draws and situate in its correct place to the Pi triangle, (true product and main reason for the procedure).
However and surprisingly, if we use the appropriate thickness of the needles (or marking pencil), an extraordinary accuracy is obtained in the results.
That is, if for example we are drawing, checking and squaring a 10-20 cm circle of diametre on paper, with the normal thickness of the needles or marking pencil (1-2 mm), the result of the quadrature can be considered as exact, and within the margins of error that any practical drawing has.