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  1. n \times (n + 1) = even \times odd = even. n×(n+ 1) = even×odd = even. Similarly, if n n is odd, then n + 1 n+1 is even and hence. n \times (n + 1) = odd \times even = even. n×(n+ 1) = odd ×even = even. Therefore, the numerator is always even and \frac {n (n + 1)}2 2n(n+1) is always a positive integer.

  2. Jan 18, 2021 · Gauss Summation. The Gauss Summation is named for Johann Karl Friedrich Gauss. He was a German mathematician. Gauss is one of history’s most influential mathematical thinkers. A legend suggests that Gauss came up with a new method of summing sequences at a very young age.

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  4. Example: Solving Systems of Equations Using a Calculator. Solve the system of equations. \begin {array} {r}\hfill 5x+3y+9z=-1\\ \hfill -2x+3y-z=-2\\ \hfill -x - 4y+5z=1\end {array} 5x+3y+9z = −1 −2x+ 3y−z = −2 −x− 4y+5z = 1. Answer: Write the augmented matrix for the system of equations.

  5. Carl Friedrich Gauss. Solving math problems in a unique way! Step-by-step by clicking Played automatically Showing all Just the solution What do I need to know? Born: April 30, 1777, Braunschweig, Germany. Died: February 23, 1855, Göttingen, Germany. Education: University of Helmstedt, University of Göttingen, Braunschweig University of ...

  6. To find the generic solution, return to one of the original equations and solve for [latex]y [/latex]. [latex]\begin {array} {l}3x+4y=12\hfill \\ \text { }4y=12 - 3x\hfill \\ \text { }y=3-\frac {3} {4}x\hfill \end {array} [/latex] So the solution to this system is [latex]\left (x,3-\frac {3} {4}x\right) [/latex].

  7. Solve the system of equations. 3x + 4y = 12 6x + 8y = 24. Perform row operations on the given matrix to obtain row-echelon form. \displaystyle {\left [\matrix { {1}&- {3}& {4}& {\mid}& {3}\\ {2}&- {5}& {6}& {\mid}& {6}\\- {3}& {3}& {4}& {\mid}& {6}}\right]}

  8. What you’ll learn to do: Use matrices to solve a system of equations. German mathematician Carl Friedrich Gauss (1777–1855). Carl Friedrich Gauss lived during the late 18th century and early 19th century, but he is still considered one of the most prolific mathematicians in history.

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