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Application of mathematics in our every day life
Contribution of math in our daily life
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For this exploration, I have decided to focus my research on a subject I find quite interesting and intriguing, and that topic is Graham’s number. The reason I find this topic to be so fascinating is because it’s a very large number. Quite literally. Its size is less than infinity, but the number itself is so large, that if a person tried to imagine it in his/her head, their head would collapse on itself and form a black hole. This is actually not a hyperbole, it’s a fact. It is hard to believe, but it’s a fact. This number is so huge, that if all matter in the universe becomes paper and ink, it still wouldn’t be enough to write all of the number down. That’s why I like this topic (Graham’s Number, Numberphile).
Ronald Lewis Graham is an American mathematician who comes from California, and who was born in 1935. His work revolves around looking for patterns in chaotic systems, and so he pursued a pattern involving joining up four points with six lines, all red or all blue, in a tube of many dimensions. This pattern is repeated many times in an all-blue cube, but Graham changed the color of individual edges, trying to avoid the pattern in just one color. His aim was to see if avoidance of the pattern in blue would force it to pop up in red. This doesn't happen in three, four, or even five dimensions. The number of dimensions required to guarantee this pattern turns out to be Graham's number. This part of mathematics is called Combinatorics, and Graham started looking into a more specific field of it, called Ramsey’s Theory. This theory could be explained the following way; this is an example of where complete disorder is impossible. In any large system, you've got to have a smaller set that has a lot of structure to it....
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...for modelling large management and scheduling problems. These include the optimization of flight schedules, the scheduling of staff, and the planning of equipment maintenance. Combinatorics is also used in areas as miscellaneous as cryptography (which is a necessity for top secret government issues, among other government-related matters, as to prevent hacking), planning an efficient layout of a factory floor, electronic security, improving telecommunications signals, and synchronizing traffic lights. One could clearly see the major effect this part of mathematics has on our modern, advanced world. It really is an important topic that is quite often overlooked at by many. Some job titles it offers are: Software Developer; Research analyst; Consultant; Application developer; and Quality assurance analyst. (Combinatorics and Optimization, The University of Waterloo).
philosophy, deal with the subtleties of infinite numbers and the fact that exist not just one, but at least two and potentially an
Infinity has long been an idea surrounded with mystery and confusion. Aristotle ridiculed the idea, Galileo threw aside in disgust, and Newton tried to step-side the issue completely. However, Georg Cantor changed what mathematicians thought about infinity in a series of radical ideas. While you really should read my full report if you want to learn about infinity, this paper is simply gets your toes wet in Cantor’s concepts.
Benoit Mandelbrot (1924-2010), scientist and mathematician who also worked at IBM, is known as the father of fractal geometry. Mandelbrot coined the word fractal in the late 1970s. Before the invention of computers, Fractals have come up as an important question. Fractal is a set, which is self–similar under magnification.[27] It is, however, remarked that many of the fractals and their similes go back to traditional mathematics and mathematicians of the past like George Cantor(1872), Giuseppe Peano(1890), David Hilbert(1891), HelgeVon Koch(1904), Waclaw Sierpinski(1916), Gaston Julia (1918), Felix Hausdorff (1919) and others.
Our world is full of mathematics. Math is very important to our daily lives. We use math for many different reasons, for things required as well as those that people are just interested in finding out. Math can be used for personal aspects in our lives as well as professional reasons.
"Every planar map is four colorable," seems like a pretty basic and easily provable statement. However, this simple concept took over one hundred years and involved more than a dozen mathematicians to finally prove it. Throughout the century that many men pondered this idea, many other problems, solutions, and mathematical concepts were created. I find the Four Coloring Theorem to be very interesting because of it's apparent simplicity paired with it's long, laborious struggle to be proved. There is a very long and eventful history that accompanies this theorem.
It was the Ancient Greeks to first invent this field of mathematics and it has had drastic influences on the world today because without it many of the buildings and architecture around the world could not be built.One could find it hard to build without no mathics, if one doesn’t have the mathics involved with building a strong base for the military, It will not and can’t stand a blast from enemy fire.
Smoot is the author to more than 200 science papers and his own book titled, “Wrinkles in Time.” The book focuses on Smoot’s discovery; the “seeds” the universe grew from and the journey it took him on, for 20 years, to find the “Holy Grail of Science.” The research within his book eventually lead to him winning the Nobel Prize and his book being reprinted with a quote from Stephen Hawking saying “the scientific discovery of the century, if not all time.”
» Part 1 Logarithms initially originated in an early form along with logarithm tables published by the Augustinian Monk Michael Stifel when he published ’Arithmetica integra’ in 1544. In the same publication, Stifel also became the first person to use the word ‘exponent’ and the first to indicate multiplication without the use of a symbol. In addition to mathematical findings, he also later anonymously published his prediction that at 8:00am on the 19th of October 1533, the world would end and it would be judgement day. However the Scottish astronomer, physicist, mathematician and astrologer John Napier is more famously known as the person who discovered them due to his work in 1614 called ‘Mirifici Logarithmorum Canonis Descriptio’.
...t. The Chaos Game can be applied to create other fractals and shapes, and is a major part of an entirely separate area of study: chaos theory. The fact that the Sierpinski Triangle transcends the boundaries of fractal and number theory proves that it is an important part of mathematics. Perhaps the Sierpinski Triangle still holds secrets that, if discovered, will change the way we think about mathematics forever.
These researchers have studied the births and deaths of stars, the motions of planets and space bodies, the unbelievable natural phenomena of the heavens that, in their spectacular magnitude and power, seem to bring our universe back down to where is feels more real.
Fibonacci also known as Leonard of Pisa was born in the early 1770’s AD, and has had a huge impact on today’s math world. He made his mathematical discoveries along the Meditterainean coast by learning from the locals. With inspiration from the Hindi-Arabic numerical system, Fibonnacci created the decimal system that we still use today. One of his most famous of discoveries is known as the Fibonnacci sequence: 1, 1, 2, 3, 5, 8, 13, 21, 34, 55, 89, 144, and so on. He discovered this sequence through the analysis of a rabbit population. His ananlysis lead him to realizing that if you add the last two numbers together you get the next one.
Carl Friedrich Gauss was born April 30, 1777 in Brunswick, Germany to a stern father and a loving mother. At a young age, his mother sensed how intelligent her son was and insisted on sending him to school to develop even though his dad displayed much resistance to the idea. The first test of Gauss’ brilliance was at age ten in his arithmetic class when the teacher asked the students to find the sum of all whole numbers 1 to 100. In his mind, Gauss was able to connect that 1+100=101, 2+99=101, and so on, deducing that all 50 pairs of numbers would equal 101. By this logic all Gauss had to do was multiply 50 by 101 and get his answer of 5,050. Gauss was bound to the mathematics field when at the age of 14, Gauss met the Duke of Brunswick. The duke was so astounded by Gauss’ photographic memory that he financially supported him through his studies at Caroline College and other universities afterwards. A major feat that Gauss had while he was enrolled college helped him decide that he wanted to focus on studying mathematics as opposed to languages. Besides his life of math, Gauss also had six children, three with Johanna Osthoff and three with his first deceased wife’s best fri...
With regard to Heisenberg’s Uncertainty Principle, Albert Einstein famously said, on several occasions, that, “God does not play dice with the universe.”1 Like many great rational thinkers––and perhaps the human mind more generally––Einstein was remiss to believe that, at a fundamental level, nature could be as random as the throw of a die. Unfortunately for Einstein, much of quantum mechanics posits the inherent randomness of nature’s most basic elements. However, Einstein and the devout can take some solace in prime numbers about which the famous number theorist Carl Pomerance once remarked, “God may not play dice with the universe, but something strange is going on with the prime numbers.”
Wallin, Nils-Bertil. "The History of Zero." How was zero discovered?. (2002): n. page. Print. .
Fifteen billion years ago, give or take five billion years, the entirety of our universe was compressed into the confines of an atomic nucleus. Known as a singularity, this is the moment before creation when space and time did not exist. According to the prevailing cosmological models that explain our universe, an ineffable explosion, trillions of degrees in temperature on any measurement scale, that was infinitely dense, created not on fundamental subatomic particles and thus matter and energy but space and time itself. Cosmology theorists combined with the observations of their astronomy colleagues have been able to reconstruct the primordial chronology of events known as the big bang.