Rectangle is actually a spiraling

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The Golden Mean is the ideal moderate position between two extremes. It plays a huge role in the universal cosmetic language called Sacred Geometry. The Golden Mean can be found anywhere from art and architecture to the simplest things in nature such as flowers and ladybugs. To sum it up, the Golden Mean basically boils down to proportions. The Golden Proportion is 1x1.618 and all the way into infinity. This proportion stands alone from all the other rectangular proportions in the universe. The picture to the right is a visual representation of how exactly the Golden Mean Rectangle looks. The Golden Mean Rectangle is extremely fascinating because if you take a square and put it over the end, you get another smaller, but vertical, Golden Mean Rectangle. This process can continue on and on into infinity. If you think about it, the Golden A drawing that I made in Adobe Illustrator CC 2014 to Rectangle is actually a spiraling display what the Golden Mean Rectangle looks like. fractal. A fractal is a curve or geometric figure, each part of which has the same statistical character as the whole. Fractals are useful in modeling structures (such as eroded coastlines or snowflakes) in which similar patterns recur at progressively smaller scales, and in describing partly random or chaotic phenomena such as crystal growth, fluid turbulence, and galaxy formation (Dictonary.com). The Golden Mean is a major building block in all aspects of the universe. It is also quite often referred to as the Divine Proportion. Along with the Golden Mean, The Golden Ratio and The Golden Mean Rectangle, there is also the Phi Spiral. According to Sacred Geometry, the Phi Spiral or Golden Spiral is a logarithmic spiral whose growth factor is φ, the golden ratio. That is, a golden spiral gets wider (or further from its origin) by a factor of φ for every quarter turn it makes. This is an example of what the Phi or Golden Spiral looks like. I laid it over the Golden Mean Rectangle to display how they are directly correlated. This image was created using Adobe Illustrator CC 2014

The Golden Mean can be looked at in two different ways. First, as a form of pure mathematics constructed together threw a long string of numbers called phi. Phi is an irrational number, also known as a transcendental number, which is equal to 1.6180339 and continues into infinity. Therefore phi can never be resolved. Secondly, the Golden Mean can be looked at as a pure sacred geometric form. Through this viewpoint there are two major aspects to the Golden Mean; The Golden Mean Rectangle and the Golden Mean Spiral. Like phi, both are irrational transcendental forms. They naturally expand and contrast into infinity. This is a visual example I found online of the Golden Mean Ratio Formula with the pictures URL included below. http://jwilson.coe.uga.edu/emt669/student.folders/may.leanne/leanne's%20page/golden.ratio/image6.gif As you can tell, according to the picture above, there is actually a geometric formula that creates the Golden Mean Proportion- The Golden Mean Ratio Formula. To do this you must start with a square (A,B,C,D). First, you divide the baseline of the square in half (C and D). The midpoint (E) becomes the center of a circular arch that becomes the top two corners of the square (A and B). Next, you extend the base line of the square (A,B,C,D) until it bisects the arch of the circle (F). Now, measure the new length and compare it to the old length and you will get phi, as seen above. If you extend line AB so that it will be equal to line DF and then connect all the points, you will notice that you now have a Golden Mean Rectangle (A,G,D,F). Some of the most famous pieces of art work, actually almost all of them, are within the means of the Golden Ratio. The Golden Ratio in art is used mainly to generate composition and design. Luca Pacioli once said, Without mathematics there is no art, (GoldenPih.net Golden Ratio in Art Composition and Design). Just like how the Golden Mean can be found in architecture and in the design and beauty of nature, it can also be used to create beauty and balance in the art of design. The Golden Ration is no necessarily a rule, but can be more looked at as a tool to create beautiful art work. One example of how the Golden Mean Ratio is used in art is in Leonardo Da Vinci s The Last Supper. Da Vinci exclusively used the Golden Mean Ratio. All of the

key dimensions in the room of The Last Supper, the table and the ornamental shields, are based on the Golden Ratio. During the Renaissance time period, the Golden Mean was known as the Divine Proportion. Leonardo Da Vinci did not only use the Divine Proportion in The Last Supper, but it was also used in his piece known as The Annunciation. The brick wall of the courtyard, in The Annunciation, is in the exact golden ratio proportions in relation to the top and the bottom of the painting. Even the fine details of the emblems on the table appear to have been positioned based on golden proportions of the width of the table (GoldenPih.net Golden Ratio in Art Composition and Design). Leonardo Da Vinci was not the only artist who used the Golden Mean Ration in his work. Another famous artist who implemented it into their work was Michelangelo. This can be seen it the painting he did of The Creation of Adam on the ceiling of the Sistene Chapel. Look at the section of the painting to the right that is highlighted by the red Golden Mean Rectangle, where God and Adam are apparent. The finger of God touches the finger of Adam specifically at the golden ratio point of the width and height of the area that contains them both. Artist don t use the Golden Mean in their art just to say that the used it. They use it to balance things out and to establish proportion. Not only that but the Golden Mean, when used correctly, gives artwork a harmonious feeling. This is probably the most difficult math that an artist will have to deal with in their career. Sense it was first considered in any degree of precision in the Greek times, creators ranging from architects to painters have applied the Golden Ratio over centuries. Even if you are not necessarily good at math, as you saw earlier, the basics of the Golden Ratio are easy to understand. The idea is that the design is to be slightly asymmetrical; this is more pleasing to the human eye. Another place you can find the Golden Mean in use is in architecture. Mankind has used phi and the Golden Section for centuries in the development of architecture. The use of if the Golden Section in architecture started perhaps as early as the Ancient Egyptian in the design of the pyramids. When the basic phi relationships are used to create a right triangle, it forms the dimensions of the great pyramids of Egypt. The geometry behind this can be seen in the image to the left. The use of the Golden Mean can also be found in the creation of The Parthenon. The Parthenon was started in 447 BC and completed in 438 BC. The beauty and balance in its design http://www.goldennum ber.net/architecture/ The Creation of Adam superimposed with the Golden Rectangle. http://www.goldennumber.net/art-composition-design/ was achieved through the proper use of the Golden Mean. Although there is some argument that the Golden Mean was not

used in the creation of The Parthenon, aspects of if it are very apparent in its design. The Golden Mean also naturally occurs in nature as well. When talking about the Golden Mean in nature, most people know it as the Fibonacci sequence. The idea of this natural occurring sequence has fascinated mathematicians, artists, designers and scientists for centuries. Its ubiquity and astonishing functionality in nature advocates its prominence as a fundamental characteristic of the Universe. This is an image that I took back in 2013 that I superimposed the Phi Spiral and the Golden Mean Rectangle on to in order to convey how things in nature naturally align themselves to create beauty and proportion. The image was taken using a Nikon D3500 and I created the Phi Spiral and Golden Mean Rectangle using Adobe Illustrator CC 2014. The first place that the Fibonacci sequence naturally occurs in nature is in flower petals. The number of petals on a flower dependably follows the Fibonacci sequence. Some examples would be the lily, which has three petals, and also buttercups, which have five petals. Also there is the chicory, which has 21 petals, and the daisy, which has 34 petals. The Fibonacci sequence is actually apparent in all petals, but those four are the easiest to identify. Phi appears in petals on account of the ideal packing arrangement as selected by Darwinian processes; each petal is placed at 0.618034 per turn (out of a 360 circle) allowing for the best possible exposure to sunlight and other factors (http://io9.com/5985588/15-uncanny-examples-of-the-golden-ratio-in-nature). Another place that the Golden Mean is extremely apparent in nature is in snail shells. This is one that cannot be mistaken because the shape of the shell is in act the same as the Phi Spiral. The same thing can also be seen in the horns of certain goats, and in the shape of certain spider s webs. The next example also might not be that big of a surprise. Spiral galaxies also follow the recognizable Fibonacci pattern. The Milky Way, our own galaxy, actually has

several spiral arms, each of which follow the Phi Spiral of about 12 degrees. Therefore, spiral galaxies appear to defy Newtonian physics. As early as 1925, astronomers realized that, since the angular speed of rotation of the galactic disk varies with distance from the center, the radial arms should become curved as galaxies rotate. Subsequently, after a few rotations, spiral arms should start to wind around a galaxy. But they don't hence the so-called winding problem. The stars on the outside, it would seem, move at a velocity higher than expected a unique trait of the cosmos that helps preserve its shape (109: Welcome to the Future, 15 Uncanny Examples of the Golden Ratio in Nature). Everywhere you look you see different examples of the Golden Mean; or the Phi Spiral, the Golden Mean Rectangle, the Golden Ratio, or the Fibonacci sequence, what ever you want to call it. It s everywhere from the flower petals in nature to the pyramids made by the Ancient Egyptians. Weather you look at it as being mathematics or pure sacred geometric form, it creates a slightly asymmetric beauty everywhere. The Golden Mean is a major building block in all aspects of the universe.