For this challenge we first make a cylinder of diameter 20 mm and length of 50 mm. Next, we create a new flow simulation project using the wizard. We change the analysis type to external and make it time-dependent. Next we add water as the liquid. Next we initiate the velocity in X direction as 1.54 m/s for the baseline…

#Code for linear polynomial fit import numpy as np import matplotlib.pyplot as plt from scipy.optimize import curve_fit #curve fit function def func(t,a,b): return a*t+b #Read data file def read(): temp = [] cp = [] for line in open('data','r'): values = line.split(',') temp.append(float(values[0])) cp.append(float(values[1]))…

*********** Comments by Grader ************ GOOD JOB!!   SUGGESTION : The other thing that you can do is to attach the code and images in projects.skill-lync.com  and paste the link over here. If you have any doubts please ask us on WHATSAPP…

%Calculating the drag force against a cyclist clc clear all close all %inputs rho = 1.225; %density of air in kg/m^3 A = 0.5; %frontal area of average cyclist in m^2 v = 0:2:16; %velocity range of cyclist in m/s^2 %Co-efficient of drag for various shapes cd = [0.04 0.09 0.42 0.47 0.5 0.80 0.82 1.05 1.15]; %Creating a meshgrid…

First make a pipe with following dimension: Internal Diameter: 18 mm Outer Diameter: 20 mm Length: 1000 mm Lines are drawn across the length of the pipe at 850 mm, 900 mm and 950 mm from the inlet side of the pipe. These lines will be used as line probes in results. Create a lid using the Flow Simulation module in Solidworks…

import matplotlib.pyplot as plt import math import numpy as np #.......................................................# #Checking if the file with the given name exists try: file = open('engine_data.out', 'r') except IOError: print('The file does not exist') raise SystemExit #.......................................................#…

A valve train is used in engines to control the opening and closing of the inlet valve of air-fuel mixture as well as the exhaust valve. A cam is designed as per the geometry and the valve timings required and is coupled directly or indirectly with the crankshaft to change the timings as per the engine speed. The cam is…

Let  `f(x,y)=5-(x-2)^2-2(y-1)^2` `g(x,y)=x+4y-3=0`        (1)   We solve, `∇f=λ ∇g` To simplify, we introduce ‘Lagrangian function’, L and calculate its critical points `L=f-λg`     `∴L=5-(x-2)^2-2(y-1)^2+λ(x+4y-3)`  …

Objective: Create a 3D model of Internal Geneva Mechanism using the 2D CAD Drawings. Perform motion analysis on the same for following scenarios: 10 RPM without precise contact 10 RPM with precise contact 20 RPM without precise contact 20 RPM with precise contact NOTE: The RPM is the speed of the driver wheel in the mechanism.…

import numpy as np from scipy.integrate import odeint import matplotlib.pyplot as plt import math plt.rcParams.update({\'figure.max_open_warning\': 0}) #ODE function def model(theta,t,b,g,l,m): theta1 = theta[0] theta2 = theta[1] dtheta1_dt = theta2 dtheta2_dt = -(b/m)*theta2-(g/l)*math.sin(theta1) dtheta_dt = [dtheta1_dt,dtheta2_dt]…

%stalagmite.m %stalagmite function function val = stalagmite(input_vector) a = input_vector(1); b = input_vector(2); f1x = (sin(5.1*pi*a+0.5))^6; f1y = (sin(5.1*pi*b+0.5))^6; f2x = exp(-4*log(2)*((a-0.0667)^2)/0.64); f2y = exp(-4*log(2)*((b-0.0667)^2)/0.64); val = -f1x*f2x*f1y*f2y; end %Optimisation_using_genetic_algorithm.m…

#Otto cycle simulator import math import matplotlib.pyplot as plt def piston_kinematics(bore,stroke,con_rod,cr,start_crank,end_crank): #Geometry a = stroke/2 R = con_rod/a #End volumes V_s = math.pi*(1/4)*pow(bore,2)*stroke V_c = V_s/(cr-1) sc = math.radians(start_crank) #Starting crank angle ec = math.radians(end_crank)…

#Plotting h vs pressure table for alpha = 1 import math import matplotlib.pyplot as plt def f(p,h,b,r,rho): return pow(p,3)*(1-pow(b,2)) + pow(p,2)*(0.4*h*pow(b,2)-rho*pow(h,2)/pow(r,2)) + p*pow(rho,2)*pow(h,4)/3/pow(r,4) - pow(rho*pow(h,2)/3/pow(r,2),3) def f_prime(p,h,b,r,rho): return 3*pow(p,2)*(1-pow(b,2))+2*p*(0.4*h*pow(b,2)-rho*pow(h,2)/pow(r,2))+pow(rho,2)*pow(h,4)/3/pow(r,4)…

Model: An airfoil shape curve was created from xyz co-ordinates of Boeing 103 Airfoil found in the NACA database. The unit system used is MKS system. The curve was converted into sketch entity using convert entity feature. The sketch was closed and extruded (0.5 m) to form a solid model of the airfoil. Simulation: A time-based…

MBD simulation on Piston assembly is to be done. For this we need to make parts such as follows: Piston Head     Wrist pin       Connecting rod       End cap         Crank       All the above parts are assembled as required.     Motion…

The following inputs were used for designing the Planetary Gear Ring Gear Module = 2.5 (metric system) Number of teeth = 46 Sun Gear Number of teeth = 14 Input Speed of the Gear = 200 rpm. Number of planet gears = 4     Calculating the number of teeth in planet gear: (Module is same for all gears) Pitch…