Golden Ratio = Mind Blown!

DavidsonArtOnline
4 Jun 201809:45

Summary

TLDRThis video script delves into the Golden Ratio, also known as 'Phi,' a mathematical phenomenon found in design and nature. It explains the Fibonacci sequence as a numeric representation of the Golden Ratio, which approximates a 1:1.6 ratio. The script highlights the ratio's prevalence in natural occurrences, human anatomy, and artistic designs, suggesting it contributes to aesthetic appeal and functionality. It challenges viewers to recognize the Golden Ratio in everyday life, hinting at a deeper connection between mathematics and the world around us.

Takeaways

  • 📚 The Golden Ratio, also known as 'Phi', is a mathematical and design phenomenon that is represented by the Fibonacci sequence.
  • 🔢 The Fibonacci sequence is generated by starting with 0 and 1, and each subsequent number is the sum of the two preceding ones (e.g., 0, 1, 1, 2, 3, 5, 8...).
  • 🌀 The Golden Ratio is approximately 1.6, and it is observed when the ratio of two quantities is consistent with the sequence's expansion rate.
  • 🌿 The Golden Ratio is prevalent in nature, influencing the growth patterns of plants, the arrangement of seeds, and the number of petals in flowers.
  • 🌪 The ratio is also found in large-scale natural phenomena such as the spirals of storms and the structure of galaxies.
  • 💪 The human body exhibits the Golden Ratio in various proportions, from the length of limbs to the spacing of teeth and the structure of the eye.
  • 🎶 The Golden Ratio has been used in music, with the arrangement of piano keys reflecting the Fibonacci sequence.
  • 🏛 In architecture and art, the Golden Ratio has been employed to create aesthetically pleasing and harmonious designs, as seen in ancient Greek temples.
  • 🎨 Famous artists like Leonardo da Vinci and Michelangelo incorporated the Golden Ratio into their works for balance and visual appeal.
  • 🏢 The ratio is used in modern design, from logos and branding to product design, as it is considered pleasing to the eye.
  • 🔍 The speaker encourages viewers to observe and identify the Golden Ratio in everyday life and nature, suggesting it can enhance design awareness and potentially change one's perspective.

Q & A

  • What is the Golden Ratio also known as?

    -The Golden Ratio is also referred to as 'Phi'.

  • How is the Golden Ratio related to the Fibonacci sequence?

    -The Golden Ratio is the ratio that emerges from the Fibonacci sequence, which is a series of numbers where each number is the sum of the two preceding ones, starting from 0 and 1.

  • What is the basic formula to generate the Fibonacci sequence?

    -The basic formula to generate the Fibonacci sequence is to start with 0 and 1, and then for each subsequent number, add the last two numbers in the sequence together (e.g., 0+1=1, 1+1=2, 1+2=3).

  • What is the approximate ratio of the Golden Ratio?

    -The approximate ratio of the Golden Ratio is 1 to 1.6.

  • How does the Golden Ratio manifest in nature?

    -The Golden Ratio manifests in nature through the growth patterns and spirals of plants, the seed patterns, the number of petals in flowers, and even in the spirals of storms like tornadoes and hurricanes.

  • How is the Golden Ratio reflected in the human body?

    -The Golden Ratio is reflected in the human body in the proportions of limbs, such as the distance from the shoulder to the elbow compared to the elbow to the fingertips, and also in the spacing of knuckles and the proportions of the face and body.

  • What role does the Golden Ratio play in the design of musical instruments?

    -The Golden Ratio plays a role in the design of musical instruments by influencing the arrangement of keys on a piano and the alignment of musical scales and notes, which align with the Fibonacci sequence.

  • Which ancient texts are believed to incorporate the Golden Ratio in their design measurements?

    -Ancient Biblical texts, such as the design measurements of Noah's Ark and the Ark of the Covenant, are believed to incorporate the Golden Ratio.

  • How has the Golden Ratio been used in art and architecture?

    -The Golden Ratio has been used in art and architecture to create aesthetically pleasing compositions, as seen in the design of Greek temples like the Parthenon and in the works of artists such as Leonardo da Vinci and Michelangelo.

  • Why do artists avoid centering everything in their artwork when using the Golden Ratio?

    -Artists avoid centering everything in their artwork when using the Golden Ratio because it is believed to create more dynamic and visually interesting compositions, which are more pleasing to the eye.

  • How is the Golden Ratio used in modern product design, logos, and branding?

    -The Golden Ratio is used in modern product design, logos, and branding because it is considered pleasing to the eye and can serve as a template for solving various design problems, enhancing the visual appeal of products and brands.

Outlines

00:00

📐 Introduction to the Golden Ratio

This paragraph introduces the Golden Ratio, also known as 'Phi', as a fundamental concept in math and design. The speaker explains the Fibonacci sequence as a numeric representation of the Golden Ratio, which is generated by adding the last two numbers to get the next in the sequence (e.g., 0, 1, 1, 2, 3, 5, 8...). The ratio is approximately 1 to 1.6 and is observed in various natural phenomena, including plant growth, seed patterns, and even the spirals of galaxies. The speaker emphasizes the prevalence of the Golden Ratio in everyday life, suggesting its importance in design and aesthetics.

05:01

🌀 The Golden Ratio in Nature and Human Anatomy

The second paragraph delves into the ubiquity of the Golden Ratio in nature and human anatomy. It discusses how the ratio is found in the proportions of the human body, from the length of limbs to the spacing of teeth and the structure of the eye's pupils. The speaker also touches on the role of the Golden Ratio in sound wave patterns and its presence in the DNA helix and heartbeat rhythms. Furthermore, the paragraph explores the ratio's significance in ancient texts and religious artifacts, suggesting a divine design in the universe. The speaker encourages the audience to observe and appreciate the Golden Ratio in their surroundings and in their own bodies.

Mindmap

Keywords

💡Golden Ratio

The Golden Ratio, also known as 'Phi', is a mathematical concept that represents an aesthetic proportion approximately equal to 1.6180339887. It is considered to be the most aesthetically pleasing ratio and is found frequently in nature, art, and architecture. In the video, the Golden Ratio is the central theme, illustrating how it appears in the Fibonacci sequence, natural phenomena, human anatomy, and design elements.

💡Fibonacci Sequence

The Fibonacci Sequence is a series of numbers where each number is the sum of the two preceding ones, typically starting with 0 and 1. It is closely related to the Golden Ratio, as the ratio of two successive Fibonacci numbers approximates the Golden Ratio as the sequence progresses. The video uses this sequence to explain the emergence of the Golden Ratio in various contexts, such as plant growth patterns and artistic compositions.

💡Phi

Phi is the Greek letter representing the Golden Ratio. It is used in the video to denote the specific mathematical constant that is approximately 1.618. Phi is integral to the discussion of the Golden Ratio's prevalence in natural and designed forms, as it is the precise value that the ratio approaches in various phenomena.

💡Aesthetics

Aesthetics refers to the study of beauty and the principles that make something visually pleasing. The video emphasizes the role of the Golden Ratio in aesthetics, particularly how it is used in art and design to create compositions that are considered more harmonious and attractive to the human eye.

💡Nature

The term 'nature' in the video refers to the natural world and its phenomena, which are shown to exhibit the Golden Ratio in various forms. Examples include the spiral patterns of plants, the proportions of the human body, and the shapes of galaxies, illustrating the universal presence of the Golden Ratio.

💡Human Anatomy

Human Anatomy is the study of the structure of the human body. The video script highlights how the proportions of the human body, from the length of limbs to the spacing of the fingers, often adhere to the Golden Ratio, suggesting an inherent harmony with this mathematical principle.

💡Art

Art in the video is discussed in the context of its historical and ongoing use of the Golden Ratio. It is mentioned that artists like Leonardo da Vinci and Michelangelo incorporated the Golden Ratio into their works, and it continues to be used in modern design for its aesthetic appeal.

💡Design

Design is a broad term encompassing the creation of visual and functional elements in various fields. The video discusses how the Golden Ratio is applied in design to achieve balance and visual appeal, from the layout of ancient Greek temples to modern product and logo design.

💡DNA

DNA, or deoxyribonucleic acid, is the molecule that carries the genetic instructions for the development, functioning, and reproduction of all known living organisms. The video mentions that the Golden Ratio is found in the helix structure of DNA, indicating its fundamental role even at the molecular level of life.

💡Acoustics

Acoustics is the study of sound and its behavior in different environments. The video mentions that the Greeks used the Golden Ratio to achieve ideal acoustics in their architecture, suggesting that the ratio has an impact not only on visual but also on auditory aesthetics.

💡Piano

The piano is a musical instrument that is mentioned in the video as an example of how the Golden Ratio is used in the design of musical instruments. The ratio of black to white keys on a piano is said to reflect the Fibonacci sequence, demonstrating the integration of the Golden Ratio in musical harmony.

Highlights

Introduction of the Golden Ratio, also known as 'Phi', and its significance in math and design.

Explanation of the Fibonacci sequence as a numeric representation of the Golden Ratio.

The basic formula to generate the Fibonacci sequence and its relation to the Golden Ratio.

The consistent ratio of approximately 1 to 1.6 observed in the Fibonacci sequence.

Visual representation of the Golden Ratio as a rectangle and its expansion into a spiral.

The prevalence of the Golden Ratio in nature, including plant growth and storm patterns.

The occurrence of Fibonacci numbers in the seed patterns and the number of petals of flowers.

The Golden Ratio's presence in the human body's proportions and its relation to our neural system and DNA.

The aesthetic appeal of the Golden Ratio in art and architecture, including Greek temples and iconic paintings.

Leonardo da Vinci and Michelangelo's fascination with the Golden Ratio in their artwork.

The use of the Golden Ratio in modern product design, logos, and branding for visual appeal.

The challenge to observe the Golden Ratio in everyday life and its potential impact on personal aesthetics.

The Golden Ratio's role in ancient Biblical texts and its match with the measurements of Noah's Ark and the Ark of the Covenant.

The connection between the Golden Ratio and musical scales, as seen in the piano's black and white keys.

The importance of the Golden Ratio for human brain function, sense organs, and lung system.

The sound waves' passage through the ear in a perfect golden spiral, illustrating the ratio's omnipresence.

Transcripts

play00:00

When I learned about this math ratio, it changed my life.

play00:16

Okay, so I'm going to explain in this video a math and design phenomenon called the Golden Ratio. It's

play00:23

also referred to as "Phi." So what is the Golden Ratio? Well, to help explain it, I'm

play00:29

going to put out the sequence of numbers called the Fibonacci sequence, which is

play00:35

really just the Golden Ratio in a sequenced, numeric form. Now to arrive

play00:41

at this Golden Ratio sequence of numbers, we just need to follow a basic math

play00:45

formula. And I'm not a math person, so we're just going to keep this very

play00:49

simple. Okay, so you just start with 0+1=1. And now to get to the

play00:55

next number in the sequence, you take the sum of that simple equation and add it

play01:00

to the last number in the equation. So 1+1=2

play01:04

and then 1+2 = 3. And it's around this point that the ratio

play01:11

actually starts showing up. As we continue to do this formula, we start

play01:15

arriving at a set of numbers: 2, 3, 5, 8... and you see what we're doing-- we're

play01:21

adding the sum of the equation to the last number in the equation, and we

play01:26

arrive at this sequence of numbers. It's interesting that this sequence and

play01:31

ratio actually remains consistent no matter how long you follow this

play01:36

mathematical formula. And so this sequence continues to expand outward

play01:42

around the rate and the ratio of 1 to 1.6. Now to help give you an idea of what

play01:51

a 1 to 1.6 ratio is compare it to a 1 to 1 ratio so to make a 1 to 1.6 ratio, you just

play02:01

envision a little more than half of the initial line added to the line of the

play02:05

other side. Alright so this ratio 1 to 1.6

play02:09

This is the ratio that's called the Golden Ratio a 1 to 1.6 ratio. So this

play02:17

is what the Golden Ratio looks like as a rectangle 1 to 1.6. And if we were to start

play02:24

making incremental Golden Ratio points within that, we can get an idea of what a

play02:30

spiral looks like when it expands outward at the same measured sequence.

play02:36

Now this is all well and good, but what does that have to do with everyday life?

play02:40

Well, a lot actually. And that's because when we look to nature, we see that so

play02:46

many things flourish when they go to the golden ratio design and when they follow

play02:51

this sequence. Growing and expanding to the rate of the golden ratio spiral

play02:57

allows the maximum amount of rain to be directed down to the roots of many

play03:02

plants. And remarkably when you study nature, you see the golden Fibonacci

play03:08

numbers like 3, 5, 8, 13, all of that again and again in the seed patterns and spirals

play03:14

of plants, as well as in the number of petals.

play03:17

Next time you're bored and have a sunflower, try counting the number of

play03:21

seeds in the sunflower spiral-- the Golden Ratio! Or maybe try something else with a

play03:27

spiral, like a pinecone or pineapple. So we can spend all day counting the seeds

play03:33

of flowers, and plants, and fruit... I mean, you get the idea. But we don't just see

play03:39

this Golden Ratio sequence on a small scale. This ratio is the mathematical

play03:45

sequence in the spirals of our storms. Tornadoes, hurricanes-- these all spin in

play03:51

this golden sequence 1 to 1.6! Even the waves can be measured using this ratio.

play03:58

But it doesn't stop there-- modern technology continues to be mystified by

play04:03

the far-reaching scope of the Golden Ratio. From the alignment of the planets

play04:08

to the spirals of our Milky Way galaxy, as well as the spirals of other ratios

play04:15

of planets. Now let's take this closer to home, I

play04:20

want you to hold out your arm and look at the distance between your

play04:25

shoulder and your elbow. And then from your elbow to your fingertips.

play04:29

Notice how your elbow from your shoulder to your elbow is "1" and then from your

play04:35

elbow to your fingertips is "1.6." Pretty crazy huh? but doesn't stop

play04:40

there. Now take that further the distance from

play04:44

your fingertips to your wrist is "1" and from your wrist to your elbow is "1.6"

play04:50

Keep it going-- from the furthest tip of your finger to the

play04:56

bottom of your fingers is "1" and from the bottom of your fingers to your wrist

play05:01

is "1.6." Now check out the spacing of your knuckles 1 to 1.6. Are you

play05:09

getting freaked out yet? Think about this: the head to your belly button "1" and

play05:16

then belly button to your feet "1.6." From your toes to your knees, and

play05:21

from your knees to your hips-- Golden Ratio! Ever wonder why your two front

play05:26

teeth are so much bigger? Golden ratio! The pupils of your eyes-- I mean, you name

play05:31

it, your whole body is the symphony of the Golden Ratio! In fact, as you are

play05:36

listening to this video, the sound waves are passing through your ear in a

play05:40

perfect golden spiral. Scientists have discovered that the golden ratio pattern

play05:46

is necessary for the human brain, the neural system, our sense organs, and our

play05:51

lung system. The golden ratio sequence is even in the helix of our DNA, and it

play05:57

forms the very rhythm of our heartbeat pattern!

play06:01

This is pretty amazing if you ask me! The universe is an incredible place, and to

play06:07

think that these beautiful intricacies of the world all hang on a stacked, razor

play06:12

edge with the incomprehensible fine-tuning of all these precise

play06:17

constants and quantities which allow the universe to begin to exist.

play06:22

I mean it's unfathomable! No wonder we are a naturally bent to worship a higher

play06:28

creative power. I mean, we are fearfully and wonderfully made, and we live in a

play06:32

universe that is designed and hardwired to be life permitting. And speaking of

play06:38

which, I think it's interesting that the Golden Ratio also comes up in the

play06:43

ancient Biblical texts. Scholars have noted that wouldn't you consider

play06:47

design measurements of things like Noah's Ark and the Ark of the Covenant,

play06:50

the Golden Ratio is an exact match to the measurements. Pretty interesting... Okay,

play06:57

so we've seen how the Golden Ratio is embedded into our life and even into our

play07:02

own heartbeat. So naturally, it's going to affect our aesthetics and the arts.

play07:08

It is believed that the Greeks used the Golden Ratio to achieve ideal acoustics,

play07:14

and many instruments are actually designed with the ratio. When you look at

play07:20

the amount of black keys and white keys on a piano,

play07:22

it should be no surprise that you see the Golden Ratio. And that's because

play07:27

the musical scales and notes align with the Fibonacci sequence. So

play07:33

scientists, mathematicians, and artisans have been aware of the Golden Ratio and

play07:37

have been incorporating it into their architectural and artistic designs

play07:41

throughout history. For some reason, designs tend to look better when

play07:46

composed and designed with the Golden Ratio. Look at iconic ideal Greek temples

play07:53

like the Parthenon in Athens-- you can see that they use the ratio again and again.

play07:58

Painters have also been incorporating the golden ratio into their artistic

play08:03

designs because it gives the composition a "je ne sais quoi" ("I don't know what.") Leonardo da Vinci was

play08:10

obsessed with it, so was Michelangelo. Even in the 20th

play08:14

century, you see the ratio being used in painting-- whether it be in the dimensions

play08:18

of the canvas, or the placement of the focal point. And by the way, the Golden

play08:23

Ratio is one of the reasons artists don't like to line everything up in the

play08:26

center. But you don't have to go to Greece or to the Louvre to appreciate

play08:31

the Golden Ratio in human design. I mean, just look around your house or go to the

play08:36

grocery store. The golden ratio is used in product

play08:40

design, logos, and in branding all the time. It's a ratio that, for some reason,

play08:45

is pleasing on the eye, and it can be a great template for solving multiple

play08:51

design problems. I remember when I first started learning about the golden ratio,

play08:55

I began to see it everywhere, and it's really remarkable with how it comes up

play09:01

in nature and in the design world, and and how artists can greatly improve

play09:05

their designs by using its sequence. So now that you know about this mysterious

play09:11

sequence that pops up again and again, now go out, and I want to challenge you

play09:17

to go and look and find places where you see this ratio. You don't necessarily

play09:22

have to take around a measuring stick, but but take pictures, and

play09:26

notice where you see this ratio come up in design and in nature. And I think you

play09:32

will be surprised-- and perhaps, even, this newfound awareness it might even change

play09:37

your life.

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Etiquetas Relacionadas
Golden RatioFibonacciPhiNatureDesignAestheticsMathematicsArtArchitectureHuman BodyDNA
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