Scowart

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Username
Scowart
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24
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Member
Points
6
  • Eigenranking

    My team matrix: [

      [0, 1, 1, 3, 1],

    [2, 0, 2, 2, 2],

    [3, 4, 0, 1, 4],

    [1, 4, 1, 0, 2],

    [4, 3, 2, 3, 0]

    ]

    The ranking for the league was:

    Team 3: rating = 0.5616064344284055
    Team 5: rating = 0.5279808500356232
    Team 2: rating = 0.4002177984108782
    Team 4: rating = 0.3946242396754421
    Team 1: rating = 0.29988640866168415
    

    Team 3 was the best.

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  • Modeling a steady state heat distribution in 2D


    Based on my assigned parameters, the temperature in the lower right corner of the bar after reaching steady-state is 0.90877.

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  • Modeling 2D Heat Flow

    Given my specific domain and parameters, the temperature at $t=1s$ near the midpoint of the insulated edge of the triangle is $0.57228$.


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  • Random heat evolution problem

    A metal bar of length 1 lies along the unit interval. Its temperature distribution is given by

    $$g(x) = 5x^2 - 1x.$$

    At time $t=0$, its left end is set to temperature $0$ and its right end to $-3$. Sketch the temperature distribution at times

    $$t=0, t=0.01, t=0.1, t=10.$$


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  • Steady state heat flow with source

    The heat flow equation with a constant internal heat source I was given is

    $$u_t=u_{xx}+5.$$

    My boundary conditions are

    $$u(0,t)=-4\mbox{ and }u(1,t)=5.$$

    To find the steady state temperature distribution we set the partial derivative of the function $u(x,t)$ with respect to time equal to zero, that is $u_t=0$, and then integrate in succession, yielding

    $$u(x,t)=-\frac{5}{2}x^2+c_1x+c_2.$$

    Using the given boundary conditions, $u(0,t)=-4$, $u(1,t)=5$, we determine $c_1=\frac{23}{2}$ and $c_2=-4$. Thus the steady state temperature distribution is represented by

    $$u(x,t)=-\frac{5}{2}x^2+\frac{23}{2}x-4.$$

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