Please do in MATLAB PLEASE

Please do in MATLAT PLEAE USE MATLAB

CHEN 3170- APPLIED MATH METHODS MAASE, SPRING 2019 A common correlation for the drag aerodynamic drag of smooth spheres is NOTE- Write, test and validate the equations /model to calculate drag coefficients as an independent function program and then use the function in your longer program!) Where Re is the Reynolds number he- Pwd and is the dynamic viscosity of the air. Because the properties ofar (eg, and p) are temperature-dependent, the terminal velocity will vary with temperature. To investigate this dependence, we will assume that air is an ideal gas, giving where R - 287.0 J/kg-K is the gas constant for air, P is the absolute air pressure in Nin' and Tis the temperature in Kelvin. Use the following correlation for viscosity: E-Write, test and validate this as an independent function program and then NOTE- Write, test and validate this as an i use the function in your longer program) where the viscosity is given in kg/m-s with respect to temperature given in Kelvin and bi-2.156954157 x 1014, b2 -5.332634033 x 1011, b3-7.477905983 x 108 and b4 2.527878788 x 107. Assuming standard atmospheric pressure (P 101300 Nr),m 0.5 kg, and d-15 cm, compute and plot the terminal velocity of the sphere over the temperature range from -60C to 60C. Once you have the plots you can re-compute a number of intermediate variables to help you rationalize that your solution makes physical sense. In particular, you should also generate a series of curves for vs. T, vs. T, Re vs. T, and Cd vs. T. Are all of these plots reasonable? Do they help justify the behavior observed for v vs. 7? Explain. 2) Falling Drops Imagine a solid sphere of diameter, d, falling through the air. After its release, the sphere accelerates until it reaches its terminal velocity. The terminal velocity is obtained when the drag force due to air friction, Fa, balances the weight of the sphere, W. The weight of the sphere is simply its mass, m, times acceleration due to gravity (g 9.8 m/s2) Wmg and the drag force can be computed as where Ca is a dimensionless empirical drag coefficient, p is the density of the air, v is the velocity of the sphere, and A r"d2/4 is the frontal area of the falling sphere. 1 of 4 CHEN 3170- APPLIED MATH METHODS MAASE, SPRING 2019 A common correlation for the drag aerodynamic drag of smooth spheres is NOTE- Write, test and validate the equations /model to calculate drag coefficients as an independent function program and then use the function in your longer program!) Where Re is the Reynolds number he- Pwd and is the dynamic viscosity of the air. Because the properties ofar (eg, and p) are temperature-dependent, the terminal velocity will vary with temperature. To investigate this dependence, we will assume that air is an ideal gas, giving where R - 287.0 J/kg-K is the gas constant for air, P is the absolute air pressure in Nin' and Tis the temperature in Kelvin. Use the following correlation for viscosity: E-Write, test and validate this as an independent function program and then NOTE- Write, test and validate this as an i use the function in your longer program) where the viscosity is given in kg/m-s with respect to temperature given in Kelvin and bi-2.156954157 x 1014, b2 -5.332634033 x 1011, b3-7.477905983 x 108 and b4 2.527878788 x 107. Assuming standard atmospheric pressure (P 101300 Nr),m 0.5 kg, and d-15 cm, compute and plot the terminal velocity of the sphere over the temperature range from -60C to 60C. Once you have the plots you can re-compute a number of intermediate variables to help you rationalize that your solution makes physical sense. In particular, you should also generate a series of curves for vs. T, vs. T, Re vs. T, and Cd vs. T. Are all of these plots reasonable? Do they help justify the behavior observed for v vs. 7? Explain. 2) Falling Drops Imagine a solid sphere of diameter, d, falling through the air. After its release, the sphere accelerates until it reaches its terminal velocity. The terminal velocity is obtained when the drag force due to air friction, Fa, balances the weight of the sphere, W. The weight of the sphere is simply its mass, m, times acceleration due to gravity (g 9.8 m/s2) Wmg and the drag force can be computed as where Ca is a dimensionless empirical drag coefficient, p is the density of the air, v is the velocity of the sphere, and A r"d2/4 is the frontal area of the falling sphere. 1 of 4