Sonia A Montiel
Student atNassau
Community College
Multivariable Calculus
29 March 2007
Dream for The Best Success: Enlightenment, Tragedy and Success
I am Carl Friedrich Gauss; I was born in
Germany on the April 30, 1777. I am a mathematician and a physicist. I graduated fromGeorge-August
University. I am known as the “prince of mathematics” (Wikipidea). I have been extremely careful and precise in all my work. I am the person who always completes my proofs before I publish them. I was a very intelligent child. At the age of three, I was able to correct my father in an arithmetical error. At school, my teacher gave me a problem of summing the integers from 1 to 100 to keep us busy. I recognized that if I sum up 1 + 100, it will be 101, 2 + 99, it will be 101, and so on. The sum of the integers would be 5,050 (wikipidea).
In college, I independently discovered important theorems such as “The number theory, analysis, differential geometry, geodesy, magnetism, astronomy, optics and electromagnetism.” (Judson Knight, “Science and Its Times: Understanding the Social Significance of Scientific Discovery”, 252-253).
My father, Gebhard, was a laborer and merchant. My mother, Dorothea, was a servant woman. “I was the only son of uneducated lower-class parents” (Wikipidea). My parents never recorded the date of my birth. However, my mother remembered that it was eight days after the Catholic Feast of the Ascension in 1777—April 30. I earned my doctorate in 1801 from theUniversity of
Helmstedt, and two years later, I published my thesis called “Disquisitiones arithmeticae”.
I got married with Johanna Osthoff in 1805, but a big tragedy struck me in 1810, when she died and my third child died soon after his birth. (Wikipidea). I fell into a depression from which I could not recover from. Years later, I got married with Friederica Waldeck. I had three children, and unfortunately she died from tuberculosis (Judson Knight, “Science and Its Times: Understanding the Social Significance of Scientific Discovery”, 252-253).
I never wanted any of my sons to be a mathematicians or scientists for “fear of sullying the family name” (wikipidea). I published a number of journals, including the journal of the Royal Society of Göttingen. When I was 19, I demonstrated a method for constructing a heptadecagon using a straightedge and a compass. I explained that a regular polygon of “n” sides can be constructed using a compass and straightedge. “Only if “n” is of the form 2p (2q+1)(2r+1) … , where 2q + 1, 2r + 1, … are prime numbers” (Paula, Byers. “Encyclopedia of World Biography”, 240-242). This was a major discovery in the field of mathematics.
In 1801, when I was 23, I heard about Piazzi’s work and his discovery of the asteroid Ceres. After three months of intense work, I calculated its orbit and successfully was able to discover the precise location of this asteroid for the following year for which I wrote the “Theoria motus corporum celestium.” This explained the “motion of planetoids disturbed by large planets” collected from the asteroid’s data. ( Paula, Byers. “Encyclopedia of World Biography”, 240-242).
Someone asked me how I predicted the trajectory of Ceres with such accuracy, and I said, “I used logarithms…Who needs to look… tables?….I calculate them in my head!” When I was 24, I published my first work called “Disquisitiones Arithmeticae,” showing how “complex numbers could be represented on an (x, y) plane” (G.H. Miller “Non-Euclidean Geometry.” Gale Encyclopedia of Science. , 2785-2787).
In this book you can find the first proof of the law of quadratic reciprocity. I was the first who “approach the infinite series, 1 + ab/c x + a (a + 1) b (b + 1)/c(c + 1) x2/2!..” in which I established the conditions for the convergence of this series (Moore, Shirley. “Gauss-Seidel Method.”, Math World). I became the first to prove the quadratic reciprocity law. This remarkable law determined the solvability of any quadratic equation. I also proved the “fundamental theorem of algebra,” which states that every polynomial has a root of the form a+bi and that any polynomial equation has solutions. Every natural number can be represented as the product of primes in only one way.
A complex number contains two parts; a real part and an imaginary part. Real numbers are positive numbers, negative numbers, and zero. For example, “5 + 3i is a complex number; 5 is the real part, and 3i is the imaginary part” (Byers Paula, Encyclopedia of World Biography, p240-242. 23). A polynomial equation with complex coefficients has at least one complex solution. A polynomial equation of degree less than five can be solved by addition, subtraction, multiplication, and division. (Stacey R. Murray,”Science and Its Times: Understanding the Social Significance of Scientific Discovery”, 208-210).
I was interested in electric and magnetic phenomena and in 1830, I was involved in a research in collaboration with Wilhelm Weber. We invented the electromagnetic telegraph in which I made studies of “terrestrial magnetism and electromagnetic theory”. I found the representation of magnetism in terms of mass, length, and time in electricity. This invention helped me to be “connected with the observatory and institute for physics in Göttingen” (Wikipidea). And finally, one of my last works in mathematics and physics was the contribution to potential theory and the development of the principle of conservation of energy. All my life I struggled to be the best proving that hard work and overcoming obstacles, are the key to success.
References
Black, Noel and Moore, Shirley. “Gauss-Seidel Method.” From Math World–A Wolfram Web Resource, created by Eric W. Weisstein. http://mathworld.wolfram.com/ArithmeticSeries.html.
Carl Friedrich Gauss. Wikipidea. 02:05, 4 April 2007.Wikimedia foundation, Inc. http://en.wikipedia.org/wiki/Carl_Friedrich_Gauss.
Karl Friedrich Gauss, Encyclopedia of World Biography. Ed. Paula, Byers. Vol. 6. 2nd Ed.
Detroit: Gale, 1998. p240-242. 23 vols.
Carl Friedrich Gauss. Sherry Chasin Calvo. Science and Its Times: Understanding the Social Significance of Scientific Discovery. Eds. Josh Lauer and Neil Schlager. Vol. 5: 1800 To 1899.
Detroit: Gale, 2000. p251-253. 8 vols.
Non-Euclidean Geometry. G.H. Miller. Gale Encyclopedia of Science. Eds. K. Lee Lerner and Brenda Lerner. Vol. 4. 3rd ed.
Detroit: Gale, 2004. p2785-2787. 6 vols.
Carl Friedrich Gauss. Judson Knight. Science and Its Times: Understanding the Social Significance of Scientific Discovery. Eds. Josh Lauer and Neil Schlager. Vol. 4: 1700 To 1799.
Detroit: Gale, 2000. p252-253. 8 vols.
Solving Quintic Equations. Stacey R. Murray. Science and Its Times: Understanding the Social Significance of Scientific Discovery. Eds. Josh Lauer and Neil Schlager. Vol. 5: 1800 To 1899.
Detroit: Gale, 2000. p208-210. 8 vols.