INTRODUCTION
In this report I will discuss the Golden Ratio and the Fibonacci sequence .I will provide work done on the exercises and give data and information from the exercises. This report will be based on 3 exercises given to me :
(1) Get Golden Ratio with derived Formula.
(2) Get Golden Ratio using successive approximation technique.
(3) Get Golden Ratio from Fibonacci series.
[1]The Golden Ratio according to Hom.E(2013) “is a special number found by dividing a line into two parts so that the longer part divided by the smaller part is also equal to the whole length divided by the longer part.”
[1]“This special number has a unique symbol of phi which is a Greek letter.”
[1]“The value of this number is 1.618.The golden ratio is often displayed or
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The program had to compute y=x^2-x-1 for x = -2 to x=+2
Assumptions made were that a u shaped graph would appear due to the type of equation given.
Exercise 3
The problem to be solved in this exercise is to get the Fibonacci sequence in the right order to get the first 50 values.
The relationship given in order for us to get the sequence was :
“fn=fn-1+fn-2”
“f0=0 and f1=1”
The program had to generate the first 50 values for the sequence.
Input/Output data (Exercise 1)
The data type necessary for this exercise is Float as we will expect decimal places and not whole numbers.
The Output data for this =“Phi”.
For this exercise there was no input data needed as we were given all the values.
There was a data range of a number between 1-2.
Exercise 2
The data type used for this exercise was double float
The Output = y .Due to the range of -2 to 2 the value of y will have 5 different values.
There was a range of -2 to 2 when substituting x.
Exercise 3
The data type used was integer
The Output = Fn. The Input = F2=F1+F0,n=1.
Table 1 (Exercise 1)
Variable Data Type Value Range Description X Float 1 – 2 This is “Phi”
Table 2 (Exercise
Problems #65 - #94 from page 311. Please provide your answer after each problem and submit the file with your answers through Blackboard.
In “The Divine Proportion: A Study in Mathematical Beauty,” H.E. Huntley writes about how math is related to basically everything and provides a frame. Math is important to things like art, science, music, and many other things. Huntley was a professor who studied the divine proportion or also known as the “golden ratio.” It is used in math, art, and science.
This produces a 106% error causing a very large range of possible values causing our results to be very imprecise.
Examples include the Brahmagupta- Fibonacci identity, the Fibonacci search technique, and the Pisano Period. Beyond mathematics, namesakes of Fibonacci include the astroid 6765 Fibonacci and the art rock band, The Fibonaccis.
(TCO 1) You work for a local construction firm, “DeVry Engineering Group” and your supervisor wants to test your knowledge and skills with Microsoft Excel and has instructed you to develop a spreadsheet to calculate
For problems requiring computations, please ensure that your Excel file includes the associated cell computations and/or statistics output; this information is needed in order to receive full credit on these problems.
Maximum Possible Points: The maximum number of points you may earn for this assignment is 50.
Knowing this information, you need to first tell me, and then show this in your graph:
We will assume that Number Name where name is not unique (i.e., there may be more than one “John Smith”, each with a different student number). Then the functional dependencies are:
0 7 188 0.085 1,067 0.48 207 236 — 417 300 2.2 0.4 59.3 10.1 0.24 64.4 1,241 539 2.5 4,026 97,000 625 17 21 5 20 — 1,065 642 10,643 69
Fibonacci sequence can have a connection with piano scales. Fibonacci sequence is 1, 1, 2, 3, 5, 8, 13, 21, 34, 55, 89………… The C scale has 13 keys. The ratio is close to 0.618, this is known as the golden rule.
2.22 0.54 69.91 7.39 99.07 54.00 116.51 113.84 3.01 1.03 0.63 0.54 6.32 1.49 38.21% 15.70% 8.59% 10.50% 23.85%
This is approximately 1.618. The further down the Fibbonacci sequence one goes, the closer the ratios of two successive numbers get to the value of the golden ratio. \vspace{12pt}
Happy numbers are a part of recreational maths. I will also talk about happy cube numbers, they are the same as happy numbers, but instead of squaring the digits of the original number, the digits are cubed. Furthermore, I will also explore happy prime numbers, these are prime numbers which are also happy. Additionally, I will mention unhappy numbers, these are numbers that do not end in 1 instead they loop in a cycle around number 4. Lastly, I will explore the history and real life uses of happy numbers, such as in computer programming and encryptions.