Week 9 - Attachment Feature Creation - Challenge 2

Title of the project- Advanced Sheet Metal Design Using NX Cad Challenge_7_Metal bracket-II Objective- This is a project to learn the step by step procedure to create a Bracket with a gusset from the given 2D drawing. Learn the user interface and basic features of Sheetmetal application in NX-12 like Contour flange,…

Title of Project -Advanced Sheet Metal Design Using NX Cad (Bracket Design) Objective- To design a bracket using sheetmetal workbench of NX cad  Introduction-  In this challenge we have to create the sheet metal part with the help of given inputes. using the sheetmetal workbench from nx , we will create…

TITLE- CREATING ODD SHAPED ENCLOSURE WITH NX SHEET METAL: OBJECTIVE: To create Sheet metal part from a solid body and create features on the Sheet metal part. Also to create the flat pattern of the Sheet metal model so formed.   INTRODUCTION: In this project we focused on creating a Sheet Metal part from a solid body…

DESIGN OF A BOX ASSEMBLY USING NX CAD Objective The main objective of this project is to design a sheet metal Box assemblyin Siemens NX-cad. Then Drawing sheet is to be created for the designed sheet metal Box. INTRODUCTION In our box design challenge, we will design a box model by using different tools in NX CAD. We will…

Title of the Project :Advanced Sheet Metal Design Using NX Cad Casing Design Objective:  The main objective of this project is to design a sheet metal casing in NX cad sheet metal application workbench. Also to perform the drafting for the casing part. Introduction: Casing can protect the sensitive inner components…

from the above challenge firstlw we are able to get to know the various type of mounting used for the car back door mounting Types of back door  Top Mounted Door Side mounted Door Bottom Door Design consideration for the back door Rear Visibility Criteria Luggage area Hinge And Gas stay reinforcement Latch and Striker…

from the above input we have to calculate the wheel arch gap between the wheel and the fender to do that firstly we have created a sketch which is normal to the wheel outer part then we have made the lines according to the point on which we have to measure the arc and then we have also created the line parallel to the…

from the above input we start preparing the roof firstly we have created the outer panel in which we create the flate surfaces for the sopt welding purpose with all side to do that fistly we trim the part into two portion and then we made the low extension trim and edge blend commmmand to make the desire output according…

for  this challenge we have made the hood design of the part as a input for this challlenge  firstly we made the intersection of the given part of inner panel and outer panel then we project the 3D curve into 2D curve then we have appliied the trim and extend command for the requre surface to create the close…

firstly we get the input file from the challenge we get input files and we start to work on it  we create the first offset of the outer profile and start working on it. we create the drip area first we made the profile and made the extend the sheet and then made the law extension at the desire the desire angle according…

for the given input we firstly start to make the Inner panel for the given input file. we made the offset for the outer paner with non-assosiative to outer part or we can go with anoter methord of making copy of input file and change the name  of file and we have go to new and select the assembly. we have  imported…

for the given input firstly we have created a assembly and then imported all the part in assembly workbench then we have fistly assemble the restrainer with the shaft part and the screw are constrained with the holes and the shaft and restrainer and alll the constrained assembly is move toward the main body. we have made…

Car body coating is a process of applying a protective layer of paint to the exterior of a car. The coating serves to protect the car body from damage caused by exposure to the elements, as well as normal wear and tear. It also gives the car a glossy finish that helps to enhance its aesthetic appeal. Car body coating can…

Hyundai Venue: The Hyundai Venue is powered by a 1.0-litre turbocharged petrol engine, which is mated to a 6-speed manual or an optional 7-speed DCT automatic gearbox. The Venue is offered with a host of features such as a panoramic sunroof, wireless charging, air purifier, and a wireless Apple CarPlay/Android Auto. Maruti…

  The master section and  all the required inputes are given according to the mastersectionall the class a surface are created in seperate part.all class a surface is converted into thick surface by creating the class b and class c surface  before creating the thick surface the class a surface is check with the draft analysis…

  The master section and  all the required inputes are given according to the mastersectionall the class a surface are created in seperate part.all class a surface is converted into thick surface by creating the class b and class c surface  before creating the thick surface the class a surface is check with…

All the assembly files and drawing are attach to the challenge and all the screenshort are attach to the challenge

the given class  a surface is firstly check by taking draft analysis,after draft analysis the class b surface is created also the class c surface is created by taking the class a surface as a base  the class a and c is joint wich are trim with class b . the trimed close body is converted into the close surface …

The draft analysis for the class a surface is made by making the extraction of the class a surface one face and then the  point is plot by the point command and made line on the point this line is consider as a tooling axis for the given class a surface made the draft analysis is made othen the class b and class c…

for the given class a surface  firstly i have created the draft analysis for the given class  a surface. created  the tooling axis for the surface by extracting the given flat surface and then create a point on flat then created the line which is perpendicular for the extracted surface and the draft analysis…

 IN this given challenge the screw boss and ribs are made by using the given class a surfacce format . the thickness for the part is consider as 3 mm and the close bode is made. The draft analysis for the class a surface is made by making the extraction of the class a surface one face and then the  point is plot…

as the challenge is given all the file and screen short are attach to the report for the given surface we have made the core and cavity surfaces of the part with the help of  geometric surface and part designe   for the given class a surface firstly the draft analysis is done to get to know that the class a surface…

as the challenge is given all the file and screen short are attach to the report draft analysis for the given surface  for the given class a surface firstly the draft analysis is done to get to know that the class a serface is ok to make the class b surface the given serface is check by taking the tooling axis and…

draft analysis for the given surface  as we as made the given class A,B,C surfsce and trime the given surface to get the close body. draft analysis is done on the close body to get to know that it is possible to  makre the part for core and cavity designe or we have to work on it for getting the correct draft…

According to the the given challenge the tooling axis is made by bisecting methord the first step in ploting the point on the base surface then the axis system is place on the point. the intersect 3D element command is use to the get the outer line of the class a surface. biasecting line are use for two plane to get the…

According to the given class A surface we have firstly made the drft analysis for the surface. The hole of the class A surface taken to made the tooling axis  with the help of class a surface boundaries. then we create class B surface with class A surface . The sweep comand is used to make the class C surface. we…

import math import matplotlib.pyplot as plt import numpy as np file_name=input("Enter file name :") try: all_data=open(file_name,'r') print('file open succesfully') except: print('file not found') exit() line_count=1 parameters=[] for line in open(file_name): if '#' in line: parameters.append(line.split()) nc=len(parameters[1])…

#case 1 # Linier Curve fitting import math import matplotlib.pyplot as plt import numpy as np from scipy.optimize import curve_fit def read_file(): temperature=[] cp=[] for line in open('data','r'): a=line.split(',') temperature.append(float(a[0])) cp.append(float(a[1])) return[temperature,cp] temperature,cp=read_file()…

from tkinter import W, Y import numpy as np import math import matplotlib.pyplot as plt from scipy.integrate import odeint 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] return dtheta_dt b=0.05 g=9.81 l=1…

import math import matplotlib.pyplot as plt def engine_kinematices(bore,stroke,con_rod,cr,start_crank,end_crank): a=stroke/2 R=con_rod/a #volume parameter vs=math.pi*(1/4)*pow(bore,2)*stroke vc=vs/(cr-1) #volume parameter vs=math.pi*(1/4)*pow(bore,2)*stroke vc=vs/(cr-1) sc=math.radians(start_crank) ec=math.radians(end_crank)…

  clear all close all clc disp('process1-2 :Isentropic Expansion in the Turbine'); disp('Process 2-3 : Constant Pressure Heat Rejection by the condencer'); disp('process 3-4 :Isentropic Expansion in the Pump'); disp('Process 4-1 : Constant Pressure Heat Addition by the Boiler') %imput parameters t1=400; p1= 30; p2=0.5;…

%% MAIN PROGRAM clear all close all clc f1= fopen('THERMO.dat','r'); for i=1:5 a=fgetl(f1); end % q=fgetl(f1); % A=strsplit(fgetl(f1),' '); % low_temp = str2num(A{2}); % Mid_temp = str2num(A{3}); % High_temp = str2num(A{4}); for i=1:53 header=fgetl(f1); a=strsplit(header,' '); species_name= a{1}; l_low=str2num(a{end-3});…

clear all close all clc x=linspace(0,0.6,150); y=linspace(0,0.6,150); %creating 2Diamensional mesh [xx,yy]=meshgrid(x,y); [x,fval]= ga(@stalagmite,2) for i=1:length(xx) for j=1:length(yy) input_vector(1)=xx(i,j); input_vector(2)=yy(i,j); f(i,j)=stalagmite(input_vector); end end surfc(xx,yy,f) shading interp subplot(2,1,1)…