Understanding The Fibonacci Spiral

RestoreThePlanet
20 Jan 201403:59

Summary

TLDRGareth Manfred from 'Restore the Planet' introduces the Fibonacci sequence, a series of numbers found in nature, starting with 1, 1, 2, 3, 5, and so on. He demonstrates how to create a Fibonacci spiral using graph paper and simple geometry, illustrating the sequence's connection to natural forms like galaxies and sunflowers. The tutorial shows how to draw squares based on the sequence and construct a spiral using circles, reflecting the universe's intricate patterns.

Takeaways

  • 🔢 The Fibonacci sequence is a series of numbers starting with 1, 1, 2, 3, 5, 8, 13, and so on, where each number is the sum of the two preceding ones.
  • 🌿 This sequence is found throughout nature, from the arrangement of galaxies to the pattern of seeds in sunflowers.
  • 📐 To visually represent the Fibonacci sequence, one can start by drawing squares on graph paper, with each square's side length corresponding to a number in the sequence.
  • 🎨 The squares are connected to form a larger square, and this process can be repeated to create a pattern that reflects the growth seen in the Fibonacci sequence.
  • 🌀 By using circles and a cross to guide the drawing, one can create a spiral that mimics the curves found in natural phenomena, such as the shape of galaxies.
  • 📏 Each square in the Fibonacci pattern should occupy one quarter of the circle used to draw the spiral, ensuring that the spiral's shape is consistent with the mathematical sequence.
  • 🖌️ Artists have various methods to draw the Fibonacci spiral, but the method shared in the script aims to closely align with natural forms.
  • 🌐 The completed Fibonacci spiral closely resembles the spiral patterns seen in galaxies, showcasing the connection between mathematics and the cosmos.
  • 📝 The script is an educational resource, aiming to help viewers understand the Fibonacci sequence and its applications in geometry and nature.
  • 🌟 The presenter, Gareth Manfred, encourages viewers to have a great day, emphasizing the positive and educational nature of the content.

Q & A

  • What is the Fibonacci sequence?

    -The Fibonacci sequence is a series of numbers where each number is the sum of the two preceding ones, usually starting with 0 and 1. It goes 0, 1, 1, 2, 3, 5, 8, 13, and so on, continuing indefinitely.

  • How is the Fibonacci sequence generated?

    -The Fibonacci sequence is generated by adding the last two numbers in the sequence. For example, starting with 1 and 1, the next number is 2 (1+1), then 3 (1+2), then 5 (2+3), and so on.

  • Why is the Fibonacci sequence significant in nature?

    -The Fibonacci sequence is significant in nature because it appears in the arrangement of many natural structures, such as the spirals in galaxies, the pattern of seeds in sunflowers, and the branching of trees.

  • How does the Fibonacci sequence translate into physical geometry?

    -The Fibonacci sequence translates into physical geometry by using squares whose sides are the Fibonacci numbers. These squares can be arranged to form larger patterns, such as spirals, which mimic natural forms.

  • What is the purpose of using graph paper when drawing the Fibonacci sequence?

    -Using graph paper when drawing the Fibonacci sequence helps ensure that the squares are evenly and symmetrically placed with consistent measurements, which simplifies the process of creating accurate geometric representations.

  • How are the squares connected to form a Fibonacci spiral?

    -The squares are connected by drawing lines that form perfect squares, with each subsequent square having a side length that is the next number in the Fibonacci sequence.

  • What is the role of circles in constructing the Fibonacci spiral?

    -Circles are used to construct the Fibonacci spiral by drawing a circle that is divided into four equal parts by a cross, with each arm of the cross being the length of the current square. The spiral is then drawn within one quarter of this circle.

  • Why is the method of using circles to construct the spiral considered to closely match nature?

    -The method of using circles to construct the Fibonacci spiral is considered to closely match nature because it replicates the organic, curving patterns found in natural phenomena such as the spirals in galaxies and the arrangement of leaves on a stem.

  • What is the significance of the cross when drawing the Fibonacci spiral?

    -The significance of the cross when drawing the Fibonacci spiral is to ensure that the circle used for the spiral is properly aligned with the square, with each arm of the cross being the length of the square's side, ensuring that the spiral fits within the square.

  • How does the completed Fibonacci spiral relate to the twisting motions of a galaxy?

    -The completed Fibonacci spiral relates to the twisting motions of a galaxy by mimicking the logarithmic spiral patterns observed in the arms of galaxies, which are believed to be influenced by the arrangement of stars and interstellar matter.

Outlines

00:00

🌱 Introduction to Fibonacci Sequence and Spiral

Gareth Manfred introduces the Fibonacci sequence, a series of numbers starting with 1, 1, 2, 3, 5, 8, and so on, where each number is the sum of the two preceding ones. He explains that this sequence is not just a mathematical concept but is also found in nature, from the structure of galaxies to the pattern of sunflower seeds. Gareth then demonstrates how to visually represent the Fibonacci sequence using graph paper and squares, showing how to construct a pattern that reflects the growth seen in nature. He also explains the process of adding curving lines to the squares to create a Fibonacci spiral, which closely resembles the spiral patterns found in galaxies.

Mindmap

Keywords

💡Fibonacci Sequence

The Fibonacci Sequence is a series of numbers where each number is the sum of the two preceding ones, usually starting with 0 and 1. It is a fundamental concept in mathematics and appears in various natural phenomena. In the video, the Fibonacci Sequence is introduced as a simple yet profound mathematical pattern that nature uses to construct forms, such as the spiral patterns found in galaxies and sunflowers.

💡Spiral

A spiral is a curve that emanates from a central point, getting progressively farther as it revolves around the point. In the context of the video, spirals are used to illustrate the geometric representation of the Fibonacci Sequence. The artist demonstrates how to create a Fibonacci spiral by drawing squares based on the sequence and then connecting them with curved lines, which resemble the spiral structures found in nature.

💡Graph Paper

Graph paper is a type of paper marked with a network of lines forming squares, used for drawing graphs or geometric shapes. In the video, the presenter suggests using graph paper as a starting point for drawing the Fibonacci Sequence because it provides a grid of evenly spaced squares that can be used to represent the sequence's numbers visually.

💡Square Units

Square units refer to the individual squares that make up the grid on graph paper. Each square unit represents a unit of measurement. In the video, the presenter uses square units to draw the Fibonacci Sequence, where each number in the sequence corresponds to the side length of a square, and these squares are then used to construct the spiral.

💡Perfect Square

A perfect square is a number that can be expressed as the product of an integer with itself. In the video, the presenter constructs perfect squares by drawing squares with side lengths corresponding to the numbers in the Fibonacci Sequence, such as a 5x5 square for the number 5 and an 8x8 square for the number 8.

💡Zero Curvature

Zero curvature refers to a straight line or a flat surface with no bending or curving. In the video, the term is used to describe the initial straight lines drawn to form the squares of the Fibonacci Sequence before the addition of the curving lines that create the spiral effect.

💡Galaxy

A galaxy is a massive, gravitationally bound system consisting of stars, stellar remnants, an interstellar medium of gas and dust, and an important but poorly understood component tentatively called dark matter. In the video, the presenter mentions that the Fibonacci spiral closely resembles the twisting motions of a galaxy, highlighting the connection between mathematical patterns and astronomical structures.

💡Sunflowers

Sunflowers are flowering plants in the genus Helianthus, and their seeds often grow in a spiral pattern. The video mentions sunflowers as an example of how the Fibonacci Sequence appears in nature, specifically in the arrangement of seeds in the flower's head.

💡Cross

In the context of the video, a cross refers to a shape formed by two intersecting lines at right angles to each other. The presenter uses a cross to divide a circle into four equal parts, which is a step in constructing the Fibonacci spiral. This method helps to ensure that the spiral's curvature matches the proportions of the squares in the sequence.

💡Artistic Representation

Artistic representation refers to the way in which an artist visually interprets or portrays a concept. In the video, the presenter discusses different methods artists use to draw Fibonacci spirals and shares a preferred method that closely aligns with natural forms, demonstrating how mathematical concepts can be artistically expressed.

Highlights

The Fibonacci sequence is a series of numbers starting with 1, 1, 2, 3, 5, 8, and so on.

Each number in the sequence is the sum of the two preceding ones.

The sequence can be visualized using a square grid with each square representing a number in the sequence.

The Fibonacci sequence is found in various natural forms, such as galaxies and sunflowers.

To create a Fibonacci spiral, start by drawing a square on a graph paper.

Connect squares with lines to form larger squares, representing the next numbers in the sequence.

Duplicate the process to create a series of squares that grow according to the Fibonacci sequence.

Add curving lines to the squares to create a more natural, spiraling shape.

Use a cross to divide a circle into four equal parts, with one part corresponding to the current square.

Erase the unnecessary parts of the circle to focus on the quarter that will form the spiral.

Repeat the process, adding spirals in each quadrant to create a Fibonacci spiral.

The completed Fibonacci spiral closely resembles the structure of a galaxy.

The Fibonacci sequence and its spiral are examples of mathematics found in nature.

The spiral is a visual representation of the mathematical sequence, demonstrating its practical application.

The process of creating a Fibonacci spiral is a blend of mathematics and art.

The video provides a step-by-step guide to drawing a Fibonacci spiral.

The Fibonacci sequence is a fundamental concept in mathematics with wide-ranging applications.

The video concludes with an encouragement to understand and appreciate the universe.

Transcripts

play00:00

this is Gareth Manfred graph with

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restore the planet and today I'm here to

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share with you about the Fibonacci

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sequence and spiral the Fibonacci

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sequence is a series of numbers that go

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from one to 1 to two to three to five to

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8 and then to 13 and 21 and on and on in

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fact it will continue like that forever

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you might wonder is this some sort of

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Arcane mathematics that doesn't make any

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sense

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absolutely not this number sequence is

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very easy to understand you simply add

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back the last two numbers for example we

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start with one the smallest total unit

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that we can have there's nothing before

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one so we simply have to duplicate it so

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we get another one but the next time we

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perform this process we get one and one

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which makes two to perform this process

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again you'll have to add two and one to

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produce three then two and three to

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produce five then three and five to make

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eight and eight and five to make 13 and

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so on unto Infinity nature uses this

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extraordinarily simple number sequence

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to construct so many of her forms

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everything from galaxies to sunflowers

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and now I'm going to show you how this

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number sequence translates into actual

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physical geometry if you're just

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starting out it's best to begin with a

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surface like graph paper meaning that

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it's easiest if you draw on something

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that has evenly and symmetrically placed

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square units of measurement that are all

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of the same size to make it simple we'll

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have one of these units represent one

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and we'll trace it out in red then we

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need another one unit so we'll draw that

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one next to the first one then on the

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top or in this case the bottom we can

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can draw a line connecting both of the

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two squares that we made we can then

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duplicate that line three more times and

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produce a perfect square then we can

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duplicate that process as many times as

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we like or as many times as the canvas

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that we're using will allow and as you

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can see the 5 square is 5 units by 5

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units the 8 square is 8 units by 8 units

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and so on now I'm going to show you how

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to add the more feminite curving lines

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there are various ways that I've seen

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different artists do this but I'm going

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to show you the method that I like the

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best because I feel that it most closely

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matches nature this method allows you to

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use circles to construct the spiral to

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begin with draw a perfect cross whose

play02:48

every arm is the exact length of the

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square that you're working in the center

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of this cross should be placed furthest

play02:57

from where the spiral will end up being

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now all you've got to do is draw a

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perfect circle which by virtue of its

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size and positioning is cut into four

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equal pieces by the cross this means

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that the square that you're working on

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should take up one quar of the circle

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that you're using to produce a spiral

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within it now all we've got to do is

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erase the other 3/4 that we don't need

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but in this case either side is the same

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so we can simply add back in one quarter

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now all we've got to do is repeat this

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process again and again until all of the

play03:36

zero curvature scaffolding for our

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Fibonacci spiral is filled and as you

play03:41

can see in its completed form it very

play03:44

closely matches the twisting motions of

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a galaxy thanks so much for watching and

play03:50

wanting to understand our universe have

play03:53

by far the absolute best day ever

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Связанные теги
FibonacciGeometryNatureSpiralArtMathematicsGalaxiesSunflowersGraph PaperEducational
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