I need the python code for this system of differential equations. have the octave code.m 1995, 21 wolves were initially released in the Yellowstone park and their numbers have risen. In 2007,biologists estimated their number to get to 171. Study the interaction with elks.dE0.0325E 0.8EWdtMP-0.6W+0.05 EWdtE(t), W(t) elk/wolf population at time t, we sét 0 to be 1995E(0) = 18.0, W(0) = 0.021The estimated growth rate for.elks will be r= 0.0325.This is the Octave code, I need it converted in python.>> function xdot = f(x,t)xdot(1)=0.0325 * x(1) - 0.8* x(1) * x(2);%3Dxdot(2) = -0.6* x(2) + 0.05 * x(1) * x(2):endfuriction>> x = 15ode (f (18, 0021), (t- iinspace (0, 50, 200));>> plot (tx)

According to the question, We have to write python code for following equation:

heed the python code for this system of differential equations. I have the octave code. m 1995, 21 wolves were initially released in the Yellowstone park and their numbers have risen. In 2007, biologists estimated their number to get to 171. Study the interaction with elks. dE 0.0325 E-0.8EW %3D dt dW = -0.6W +0.05EW dt E(t), W(t) elk/wolf population at time t, we set O to be 1995 E(0) = 18.0, W (0) = 0.021 %3D %3D The estimated growth rate for.elks will be r3D 0.0325. This is the Octave code, I need it converted in python. >> function xdot = f(x,t) xdot(1) = 0.0325 x(1) - 0.8 x(1) * x(2); %! xdot(2) = -0.6 x(2) + 0.05 x(1) * x(2); endfunction >>x= 1sode ("f", (18; 0.021), (t linspace (0, 50, 200))): plet (tv

heed the python code for this system of differential equations. I have the octave code. m 1995, 21 wolves were initially released in the Yellowstone park and their numbers have risen. In 2007, biologists estimated their number to get to 171. Study the interaction with elks. dE 0.0325 E-0.8EW %3D dt dW = -0.6W +0.05EW dt E(t), W(t) elk/wolf population at time t, we set O to be 1995 E(0) = 18.0, W (0) = 0.021 %3D %3D The estimated growth rate for.elks will be r3D 0.0325. This is the Octave code, I need it converted in python. >> function xdot = f(x,t) xdot(1) = 0.0325 x(1) - 0.8 x(1) * x(2); %! xdot(2) = -0.6 x(2) + 0.05 x(1) * x(2); endfunction >>x= 1sode ("f", (18; 0.021), (t linspace (0, 50, 200))): plet (tv

Database System Concepts

7th Edition

ISBN:9780078022159

Author:Abraham Silberschatz Professor, Henry F. Korth, S. Sudarshan

Publisher:Abraham Silberschatz Professor, Henry F. Korth, S. Sudarshan

Chapter1: Introduction

Section: Chapter Questions

Problem 1PE

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USE MATLAB AND TYPE THE CODE
Only on matlab
The equations given below are the mathematical models of the three mixed tanks that are connected in series. Solve the following equations using MATLAB programme using numerical methods and plot the graphics (C, t) for all tanks. Data: Q=constant= 300 L/min, V= constant= 50 000 L, t=0; C=Co, Differential equations : dCA1 / dt = -0.006 CA1 (CA1 - CA2 ) = 167 (dCA2 /dt) d CA3 /dt = 0.006 (CA2 - CA3 )
Please do the following questions with the full python coding and explanation below each question typed
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USE MATLAB AND TYPE THE CODE
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