When a ray of light strikes a crystal, the splendor of the colors spreads around it, shattering it into a multicolored space! How many mysteries lie hidden behind this simple phenomenon, yet representing it on a canvas or in an environment is a complex task. Color has always been an inspiring source for artists of all times – an enigma not yet fully unraveled!
Light stirs our emotions, whether on a sunny winter afternoon or during an intense summer. The power radiating from a simple glance can transform our mood as if it were its owner. Understanding these variations and their stimuli to provoke them in the viewer is one of the objectives of painting.
Accustomed to the light of the tropics and being able to work with its vibrant colors has always fascinated me. However, I couldn't understand the logic of its harmony, realizing that there must be a system governing it . After researching and studying in vain almost all the published theories on the subject, it seemed to me that the harmonious combination of colors was a secret that artists kept to themselves – under lock and key!
A lover of watercolor art, where the blending of colors without losing transparency is extremely important, I embarked on my own research. I acquired all types and colors of pigments available on the market and, by mixing them together, I tried to recreate the magic of nature. But the more I tried, the more frustrated I became, as the mixture of pigments resulted only in dirty and opaque tones.
One day , a friend who closely followed my odyssey gave me a copy of a work republished in London, about the studies of the Greek philosopher Pythagoras - The Secrets Teachings of all Ages by the Philosophica Research Society-LA. It was a very rare manuscript by the philosopher who lived in 400 BC, and among his theories of Geometry, Astronomy and Music, he also made some reference to colors. He was a profound observer and student of nature; for him, everything began and ended in it. One fact that caught his attention was in relation to harmonic sounds: musical dissonances and consonances. He was the one who created the system of seven musical notes: do, re, mi, fa, sol, la, si, assigning each one a specific color from the solar spectrum. The primary colors: yellow, orange, red, magenta, violet, blue, and green. He also created the entire foundation of musical harmony – the law of octaves and the diatonic scale. Because music has a very defined and proven theory ,
Perhaps I could lean on it, drawing inspiration from its harmony. It was merely a relationship between musical notes and colors, but for me it was an enlightenment – a new avenue of research that opened up.
At the time, my daughter was taking piano lessons with an American conductor, Mr. Georg Byrd, based in Germany , with whom I began taking music theory lessons, but while he spoke of musical chords, I only thought of colors. I soon noticed that music was underpinned by mathematics, therefore colors should be too, and they are!
At first, I confess, it was just curiosity to understand its mechanism, but I quickly found points of convergence between them and fell in love!... I eagerly awaited the lessons, which were like opening Pandora's box!......... Realizing I was on the right track, I began to look for other likely followers of this idea. The relationship between tones or sounds and a specific color already appeared in antiquity, precisely in the Middle East. During the Renaissance, Leonardo da Vinci, a creator in various branches of art, stated: "Music and painting are sisters because both depend on the same principle – that of Harmony." Pomponius Gauricus, in 1503, in his writings "De Scultura," mentions the precise harmony of the human body and its relationship with geometry and music. Michelangelo, painter and poet, wrote Madrigals, and for him, too, poetry and music walked in parallel. According to Rudolf Wittkower in his book "Architectural Principles in the Age of Humanism," London, 1952 - " The knowledge of Pythagorean harmonic proportions passed through music to all other arts." But this relationship only appeared in Europe during the Renaissance with the development of its art and the refinement of its artists. In Romanticism, the musical aspect is discovered with Correggio, whose work is compared to that of the musician Pergolesi, as both used high and bright tones to represent light and low and dark tones for shadows. The high point of this encounter occurred in Impressionism, when musicians and painters like Delacroix imitated nature with its tones and colors as inspiration for their works. What are the secrets of good color? Are there rules to be followed? If there is a proven theory of music, would giving color to the notes be the solution to the problem? Would the notes of a chord transformed into colors also be harmonious? And what is the secret of the marvelous colors of the seabed? With all these questions bubbling in my head, I immersed myself in this research and with each step I felt I was on the right track!
Knowledge is a cumulative process acquired by observing natural phenomena, which, when interpreted by the conscious mind, allows the unconscious to act intuitively."
I began to apply it to my watercolors, remembering a phrase Paul Klee said when he first painted under the tropical light in Tunisia, Africa, exclaiming: "
Now I have become a painter!" And I thought, Eureka!
In 535 BC, Pythagoras went to Egypt, where he was accepted as a priest in the temple of Diospolis. He was initiated into all the mysteries of ancient doctrines and also into Brahmins, the ancient Freemasonry. In 525 BC, the king of Persia, Cambyses, invaded Egypt, and he was taken prisoner and sent to Babylon. In 520 BC, he returned to Samos, his birthplace, the Cambyses had died, and then went to Croton in southern Italy to study law. There he founded a school that was called – "The Semicircle". He is considered the father of Esotericism and the first to be called a "philosopher," a name he himself created, meaning : "One who dedicates himself to deciphering the mysteries of nature." Women could also become philosophers, and he married one, Theano, the first female mathematician and philosopher in history. Pythagoras was a great scholar of the universe, of good and evil, of beauty and ugliness, stating that: "an artist is any sensitive individual who educates, interprets, and applies their perceptions derived from natural phenomena." He also said that men know what they desire, but few know what they need , and he explained God as a compound of substances of light and truth, the cause and intelligence of everything. He considered a rational understanding of the Universe essential, and one of his favorite sayings was: "We must avoid showing ourselves superior, amputating with fire and sword and by all other means the diseases of the soul – ignorance; of the belly – lust; of the city – tumult; of the family – discord; and of all other things – excesses." He had few disciples, to whom he taught the mysteries that had been revealed to him, the study of geometry, music, and astronomy, with classes that always began with singing, which he considered therapeutic. Because of his teachings and discoveries, he gained many enemies who murdered him. There are different accounts of his death, in which many of his followers were also said to have been killed. He created the current foundations of mathematics, astrology, and music, considering this triangular tripod the basis of current arts and sciences, which, thanks to his wife and disciples, have been perpetuated.
Upon returning home, he made a wooden frame on the wall, with regular intervals, where he installed four metal strings. He hung a twelve-pound weight on the first string, a nine-pound weight on the second, an eight-pound weight on the third, and a six-pound weight on the fourth. These weights correspond to the same weights, compositions, and sizes used by the blacksmith, applying different tensions to the stretched wire. With this experiment, he discovered that the first and fourth sounds played were the same. They produced the same sound, the harmony of an octave; that is, by doubling or dividing the weight, he achieved the same effect—the same sound in a higher or lower timbre. The tension of the first string was twice that of the fourth, and so on. The note C, played in different octaves on the piano, echoes the same sound, although higher, lower, deeper, or sharper, changing only its timbre. In studying musical sounds on stretched strings under the same tension, he discovered the relationship between the pitch and timbre of the emitted note and the length of the string. To explain further – of all the sounds of musical notes emitted, only seven can be differentiated by our ears, since the eighth is a repetition of the first – lower or higher, which he calledtheOCTAVE! Similarly, only seven colors can be distinguished by our eyes. The first note, C, on the piano has twenty-four vibrations; for a scale to be complete, it must end on the next C, which has double the vibrations, that is, forty-eight vibrations, and so on… He then created the seven musical notes of the octave: C, D, E, F, G, A, and B, attributing to them the seven colors of the celestial spectrum: red, orange, yellow, green, blue, and violet.
, he calmed down and left. Upon learning of the power of music over emotions, the Catholic Church decreed that musical compositions could only be created by the Church, and disobedience could be punished even by death. Confirming Pythagoras' laws, the chemist John A. Newlands (1837-1898), in London, applied the law of octaves as a model for chemical elements. He ordered the chemical elements in ascending order of their atomic weights, as in the musical scale, and discovered that every eighth chemical element was a repetition of the properties of the first. This contributes to the creation of periodic laws, a law known as the law of octaves in modern chemistry.
Since it was proven that harmony is not determined by intuition and perceptions, but by mathematical reasons, Pythagoras called it the Canon. The principle of the canon is that of a motif or theme repeated or played against itself. This happens when voices or the same main motif are copied several times. In music, this happens in various ways, and is also called a FUGUE, eg, in children's songs. In art, in print designs where the same motif is repeated in an orderly fashion.
In geometry, he added the sphere to the solid forms already known in antiquity – the most perfect of them. These are: tetrahedron, cube, icosahedron, dodecahedron, pentagon, and sphere. In arithmetic, several discoveries are attributed to Pythagoras: the properties of integers and their classification into prime and composite, even and odd; the greatest and least common divisor.
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At the beginning of Christianity, another way of seeing and understanding the universe emerged. Pope Gregory the Great, in the 7th century, ordered the creation of a simple and perfect melody for church rituals. These creations bear his name – Gregorian chants, a music of clear, calm, transparent sounds and quite typical modulations, called melismas. The effects produced by different forms of composition were known, from which emotions such as anger, peace, passion, etc., arose. Gregorian chant was not born from the Western spirit, but it was a bridge between Eastern and Western cultures. It is a system that admits not a relationship between tones, but rather a kinship between them. Benedict of Nursia, who founded the monastery of Monte Cassino in 529 AD, adopted Gregorian chants for church rituals, which are still used today. Its root is modality, the proportion or equidistance between the tones of the Pythagorean diatonic scale . Modality, in the sense of the word, refers to modes or different aspects of something. There is a similarity between the ancient Greek musical modes and Gregorian chants because of modality. Modality was and always remains the richest basis of music of all time. The principle of the modality is diatonicism, which is the 7-note scale with five intervals and two semitones of Pythagoras.
Diatonicism also appeared in the Greek system, the richest basis of ancient and modern music. It does not admit alterations, but it also does not take chromaticism into account. The musical system of antiquity corresponds to the white keys of the piano and has the form of the purest melodic nature. Gregorian music is not only a prayer, but above all a magnificent art form, a perfect musical expression. The study of Gregorian chants allows us to follow the evolution of the forms contained in the ancient chants of the church. These are different modes of color, which gives the composer the possibility of other modulations, different from the tonal system.
Music in the Middle Ages was like a painting in shades of gray; only its tonal value, that is, chiaroscuro, was considered.

Musical compositions did not consider chromaticism, color in itself; harmony occurred through the degree of color on a scale from grays to black, called the melodic scale of the monochromatic scale. If we close our eyes and compress our forehead towards our nose, when observing colors, we will see that they all have their tonal value.Andreas Werckmeister (1645/1706), a German organist, music theorist, and composer of the Baroque era, divided the octave.of Pythagoras (7 notes/colors)divided into 12 equal parts and ordered the number of vibrations from semitone to semitone using the multiplier 1.05946, the frequency of C/DO, a division that Bach also adopted in the construction of the piano.
I can only consider lemon yellow as a mid-tone when mixed with the cool greens, golden yellow towards the warm reds, purple towards the cool side, and magenta towards the warm side.Next, I can only use Prussian blue, as A/LA, which is the exact tuning reference. The difference between the semitones is that the cool semitone moves counter-clockwise and the warm semitone moves clockwise. I consider it a chord when the mixture of the colors that compose it results in black or gray.
Functional harmony was introduced to Brazil by Hans-Joaquim Koellreuther, a German who became a naturalized Brazilian. According to him, the main function of the chord lies in the TONIC, which gives it its name; its function is one of rest—the same as the complementary color. The function of approach is that of the dominant—of greater area—and the function of recession is that of the subdominant. These functions, according to him, allow for the creation of a temporal perspective. In classical music concerts, the grand finale usually occurs with the linking of the dominant plus the tonic—this means the sum of the two complementary colors—always resulting in BLACK! My intention is to use music theory to develop a new theory of colors, adapting it whenever possible. I also adopt the root tones of Andreas Weckmeister, resulting in 12 tones in colors.
THE MUSIC OF CLASSICISM
The piano keyboard can also be thought of as each octave in shades of gray, starting with the lightest, the series of the highest notes F, and the darkest—the lowest notes B. This correspondence can also be represented by colors, considering their tonal value.


White is the sum of the mixture of all colors in light, but in pigments it is black, which is its complementary color. It is initially divided into 3 root colors: magenta, blue, and yellow, as in the example below, which, when mixed together, gives us the 12 colors of Andreas Weckmeister.
In the graph below, I show how complementary colors are distributed across each octave of the piano keyboard. In music, this is called the interval of... Fair fifth. The distance between two complementary notes. These two notes/colors are considered a perfect consonance because they merge into total harmony.

TRIAD 
In the example of the parrot : the turquoise blue casts the reddish-orange color, its complement, onto the edge of the next color, which in turn casts its turquoise-blue complement onto it, and the sum of these results in a moss green, which are the feathers between the two colors of the body and tail.
CLAUDE DEBUSSY




B or H is the only note that can be altered or flattened without making any difference to the diatonic system. They are always read ascending, while the Greek modus are read descending, and these are the intervals that constitute the mode.
Transposition is done by modulation on the fourth or fifth note, counting from its tonic. Thus we have protus in D, A and G with B flat. Deuturus in E, A flat, and B or H sharp. Tritus in F, B flat and C. Gregorio) – hexa-chord of six notes – had a fixed interval pattern.
He frequented other churches and religions, such as Islam and occultism, a neo-pagan belief predating Christianity that affirms the existence of the supernatural and of physical and spiritual principles. The symbol of this belief was the pentagram, which for esotericists and pagans represents the five elements: earth, air, water, fire, and spirit.
In geometry, the pentagram is the name given to the regular star pentagon, used as a talisman by the Pythagoreans, which is, followed in the rules of life attributed to Pythagoras.
Leonardo da Vinci's illustration for the book "The Divine Proportion," by the Italian Franciscan monk and mathematician Luca Pacioli, shows the geometric relationships between man and the universe. The so-called "Vitruvian Man" represents the pentagram beneath a human figure.
Although the pentagram has always been associated with beauty and goodness, in the 19th century the inverted pentagram took on a connotation related to "evil." Éliphas Lévi (1810 – 1875) claimed that the lower point of the pentagram towards hell, indicating the "kingdom of Satan."
The pentagram is a five-pointed star derived from the pentagon and was used as a symbol in esoteric doctrines, while the musical staff is a musical stave formed by five parallel horizontal lines, which form four spaces between them, where musical notes are written.
The Coltrane cycle, as his harmony is called, according to theorists and researchers, is a circle with a pentagram inside. His interest in the chromatic relationships of thirds with musical symmetries and geometry is said to have been inspired by religion and spirituality, but the division into five fifths of Pythagoras , "die Pythagoräische Komma," was already used in Baroque music, with the last tone of the fifth being chosen randomly.
This rosette is from a tonal system he created, in which I simply added the colors of the notes; we can see the staff ordering the musical notes.
The tonal system is not simply a set of distinct notes or colors, but a system that possesses a relationship, almost a familial kinship (DNA); because the notes that make up the chromatic scale are under...the same temperature..
I started this blog, almost as a draft, researching ancient artwork, the use of two colors or two notes (mantras), three colors or three notes (chords), four colors or notes (tetrachords), and I stopped at the fifth chord, researching the jazz music of John Coltrane. Besides using Pythagorean fifths, already used in Baroque music where the fifth note or color is random, capable of changing from one system to another, called modulation, in a harmonic and new way... His system changed the entire conception of music theory, even serving as inspiration for bossa nova.
The world we live in is colorless; it's in shades of gray and black. This is because the colors of matter, objects, etc., are produced in our brain through three rods—yellow, red, and blue—that connect to another part of it: the macula. The macula is the central part of the retina, containing photoreceptors that receive light rays and transform them into electrical impulses.
Some time passed, and although I didn't add anything to it, my head continued to ask me questions, always trying to understand and explain the path to the harmonious use of colors... While sunbathing, almost daily, even with my eyes closed, I saw colors moving in my mind. I always knew that there is light and color in the brain, many blind people affirm this, so I decided to paint these colors, always remembering that it is difficult to reproduce colors on a computer.
I noticed that it always starts with a strong color in a small area, increases with another color, then another slightly larger one, and then another, but it never goes beyond five colors, starting all over again with new colors. The most interesting thing is that the color of the smallest area, which would be the tonic color, always has its complement in the fourth color, and the fifth serves as a modulation for another system... I realized that this is a natural connection of our brain, since I had my eyes closed and wasn't looking at anything...
Scientists claim that we have a little-known gray matter area in the brain called the zona incerta, which plays an important role in learning and memory. It functions like a network of traffic lights that optimizes brain traffic, not by exciting neurons, but by inhibiting them. This inhibition creates an optimization of the flow of connections to other areas.
I tried using this color harmony system in a self-portrait and I liked it; it was a different and new way of thinking, but it seemed harmonious to me.
Since it deals with light rays in their various applications, I was drawn to the 2023 Nobel Prize awarded to scientists Alain Aspect, John Clauser, and Anton Zellinger for their experiments on the entanglement of subatomic particles, known as the quantum dot, which gave them color.
We know that matter filters light rays according to its density, like a kitchen filter, either finer or very closed. The color of the object or matter is the one that is emitted, as the others are absorbed. Light rays were considered straight and direct, but scientists discovered that they form a tangle and mix, like colors on a palette in new colors or in the case of connections. They were able to observe how this connection operates and also how the system repeats itself.


The arrangement of colors in the spectrum and musical notes requires a different system to preserve their proper tone and color analogies. Certain differences were observed between ancient and classical music. The main difference relates to the number of light and dark tonal notes in a musical composition.
The concept of the golden ratio determines how to divide a given area into harmonic proportions between the larger and smaller areas, applying the knowledge of pi (pi). It describes the perfectly symmetrical relationship between two proportions, a shape with a ratio of approximately 1 to 1.618.
I've already talked about the famous PI and the golden cut on this blog, so I'll just show the results without going into the mathematical calculations.
According to Fibonacci, at the end of the 12th century, a succession of numbers in a numerical sequence began with 0 and 1 and is infinite. They can also be used to calculate quantities or spaces.
It is present in various natural phenomena, living organisms, and events in our daily lives. The following numbers are always the sum of the two preceding numbers, like an arithmetic progression.
Fn = Fn - 1 + Fn - 2
1 + 1 = 2
2 + 1 = 3
3 + 2 = 5
5 + 3 = 8
By transforming these numbers into squares and arranging them geometrically, one can construct a rectangle with specific characteristics, called the Golden Rectangle. This is a geometric shape with the following property: If we divide it into a square and a rectangle, the new rectangle will have an appearance similar to the original.
The Golden Ratio is illustrated in the image using a Golden Rectangle: a large rectangle consisting of a square (with sides equal in length to the shorter length of the rectangle) and a rectangle.
A sphere for studying curved space as described by Einstein.
Size of the area of each color in a work of art.
I've been studying the golden ratio rule, used since the beginning of time by artists and scholars. Although I can use and understand it, when it comes to the proportion of color areas in a work of art, I get lost.
I studied Pythagoras' tetrahedron triangle, Einstein's color wheel, and also compared it to the musical staff of John Coltrane, the creator of jazz.
In all mathematical studies on these rules, we use the sphere as a starting point, representing the perfect form, that of planet Earth. I used musical theory to understand the harmonious combination of colors, since each musical note corresponds to a color, and I managed to create a system that works, at least for me. From the beginning, I mentioned that in addition to research, I allowed my thoughts to be free to draw my own conclusions.
Since everything in art works with proportions, to use a set of colors that are not only harmonious with each other, we have to consider the amount of area each color occupies in a visual field. I used the famous Pi (pi), did calculations, and didn't arrive at any satisfactory results. Then the idea of the colors contained in the rainbow came to me, which are 7, like musical notes. I tried to verify their areas, although in nanometers.
Red: 750/620 Orange 620/590 Yellow 590/570 Green 570/520 Turquoise 520/450 Indigo 450/420 Violet 420/400. Some say 750 or 780.
Subtracting the values we have: - Red 130, orange 30, yellow 20, green 50, turquoise 70, indigo 30, violet 20. It's clear that this is where the mathematical progression comes from - 30+20=50, 50+20=70 and then it decreases in the same proportion.
In working with colors, their complementary colors are fundamental, so I decided to add them: orange 30 + indigo 30, yellow 20 + violet 20, but turquoise 70 doesn't match, since its complementary color is red, which should be 70 and not 130, and the complementary color of green 50 is still missing, which is magenta, an eighth color.
I've always heard and read that human eyes don't have the capacity to see all colors or hear all sounds, and I believe it. I've always heard complaints from composers and artists about the semitone F/B - yellow/violet. Nobody gets along with that...
Well, for me, thinking about working with colors and not wanting to create any controversy, magenta is missing. The value of red cannot be 130, but 70 as its complement. Therefore, magenta can only be 50 like green. So in terms of colors, everything matches up...
Going back to the time of Pythagoras, they only had the rainbow to study, could it be that everything started there? In that case, studying the rainbow with its colors, the one that connects the increasing and decreasing parts is magenta. Perhaps because of its intensity, human eyes cannot see it... (nor can machines?) I don't know...
Anyone who has had the opportunity to read this work must have noticed that for a large part of my research I did it directly online and published it immediately afterwards. In fact, I almost always used my notebook as a draft.
I tried combining 2 complementary colors between 3, 4, 5, 6, 7 and now I'm stopped at 8 colors. Although these combinations are valid, if we use an arithmetic progression, if we get closer to the combinations used in different eras and styles of music. For example, Jazz and Bossa Nova, which is where I wanted to get to from the beginning.
I'll go even further: Bach's famous fugues—we take a progression like 3-5-8-12 and return to the 11-7-4 and 2 colors. Could that be it?




































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