Week 11 - Final project

Advanced Tractor Design and Assembly in SolidWorks Objective: The objective of this project was to design and assemble a fully functional tractor model using SolidWorks, demonstrating the application of various CAD tools and features for precision in mechanical engineering. Introduction: The project embarked…

Google DRive Link: https://drive.google.com/file/d/1TboMy1dcPzP6SObyFvVy2zRa2TpycLXC/view?usp=sharing 1. Radar Mast. 2. Yacht Assembly. REPORT:- Project Objective: The aim of this project is to utilize SolidWorks software to design and assemble a yacht along with its various components.   Introduction: A yacht…

Google Drive link: https://drive.google.com/file/d/1DliDl_lpEW_UFSRV-i_9EIl0D4GqOl6L/view?usp=sharing   Photorealistic Rendering of an American Chopper using SolidWorks   Objective: The objective of this project is to design and model each component required to assemble an American Chopper in SolidWorks,…

Title of the Project: Designing an L-Shaped Bracket with Gusset using Siemens NX Sheet Metal Application Objective: The primary objective of this project is to provide a step-by-step guide on creating an L-shaped bracket with a gusset based on a given 2D drawing using Siemens NX Sheet Metal Application. The project aims…

Title of the Project: Comprehensive Sheet Metal Component Modeling using Siemens NX CAD   Objective: The primary objective of this project is to meticulously model a sheet metal component utilizing the tools and features offered by Siemens NX CAD. This report aims to provide a detailed explanation of the design process,…

 Title: Odd-Shaped Enclosure Sheet Metal Modeling   Objective: The objective of this project is to demonstrate the conversion of an odd-shaped solid model into a sheet metal component using Siemens NX Sheet Metal tools. The project aims to showcase the versatility of sheet metal design by utilizing features such…

 Title: Garbage Box Assembly in Sheet Metal Design Using NX CAD     Objective: The objective of this project is to design a garbage box assembly using sheet metal and NX CAD, applying various sheet metal modeling tools.   Introduction: This project involves the design of a garbage box assembly using…

Sheetmetal Casing Design using Siemens NX Objective:The objective of this project is to create a detailed and accurate 3D model of a sheet metal casing using Siemens NX Sheetmetal application. The model will include various features such as bends, flanges, cutouts, holes, and dimples. The primary goal is to showcase…

 3D model of the butterfly valve assembly               GD&T drawing of the butterfly valve assembly   FOR FURTHER REFERENCE PART FILE AND PDF FILE ARE ATTACHED:

Backdoor of Vehicle: When referring to a vehicle, the backdoor refers to the component that is located behind the rear compartment, which, in the case of an SUV, MUV, etc., houses the boot and the rear passenger area. The term "backdoor" also refers to the tailboard, which provides access to load and unload goods from…

The complete snapshots of measurements and results are added into the ppt attached below.

( presentation ppt is in the uploaded folder ) The Section Modulus is a geometric property of a cross-sectional shape that measures its resistance to bending or flexure. It is defined as the ratio of the Moment of Inertia (I) of the cross-sectional shape to the distance (y) between the neutral axis and the farthest point…

Under-body coating is a protective layer applied to the underside of a vehicle to prevent corrosion and damage caused by exposure to road debris, salt, and water. This coating is especially important for vehicles that are driven in areas with harsh weather conditions or on roads that are frequently treated with salt or…

For Mr. D.S. Pughazhyendhii's requirements, we recommend the following cars that are available in the Indian market: a) Mahindra XUV300 - Priced between 8 to 10 lakhs, this car is a perfect fit for Mr. Pughazhyendhii's family of five. It has a 1.2-liter turbo-petrol engine and a 6-speed manual gearbox. It is also equipped…

AIM To create a door interior part from the inputs of class A surface along with the master section by following the design rules. OBJECTIVES Create a sketch by using a Positioned sketch All the should be sketches should be Iso-Constrained Ensured Proper Tree Structure Create thickened part using master section for reference…

AIM To create a door interior part from the inputs of class A surface along with the master section by following the design rules. OBJECTIVES Create a sketch by using a Positioned sketch All the should be sketches should be Iso-Constrained Ensured Proper Tree Structure Create thickened part using master section for reference…

Model drawing 1       Model Drawing 2                                    

Aim :        To create the A Pillar Design with the master section given as the intersection sketch with the Class A surface and create the tooling axis and perform the Draft analysis for the final solid part. Class-A Surface : Tooling Axis   Draft analysis : 3 Degrees is the nominal Draft angle…

Aim: To Create the Door trim lower component through the given Class-A surface. Procedure class A surface Tooling Axis creation: To create a tooling axis, a plane surface from class A is extracted and a point is created on it. Then a line is created through that point in the y direction. Draft Analysis on class A We perform…

AIM To Create the Dog House for the Door Trim consider the thickness of the part to be 2.5 mm and the design rules to create dog house. PROCEDURE: CREATING TOOLING AXIS DRAFT ANALYSIS ON CLASS A CREATING B SURFACE CREATING DOG HOUSE DRAFT ANALYSIS ON DOG HOUSE FINAL BODY  

AIM: To Create the Door Handle Component from the given Class-A surface. To Create the tooling axis for the given Class-A Surface meeting the requirements of the draft angle. To Attach rib and screw boss in the component. To perform the Draft analysis on the final model.   STEPS: CREATING TOOLING AXIS  DRAFT…

AIM: To Create the Core and cavity blocks for the switch bezel component. DESCRIPTION:   1. CREATING TOOLING AXIS -                       The Tooling Direction is basically the direction in which the mold pulls apart. The mold is built in two separate…

Aim : To create the class B surface, C surface, and tooling axis also publish it as well as close the surface of the given door trims. Objectives : Create the Door Trim Plastic component through the given Class-A surface with a thickness of the component to be 2.5 mm Class A : Draft Analysis B surface :  C surface…

AIM: to make a model from the provided class-A surface. DRAFT ANALYSIS FINAL MODEL  draft analysis on the model

COIN HOLDER AIM To create a coin holder plastic component by closed method with reference to the class A surface and do the draft analysis for the component. Steps followed The class A surface is checked for the connectivity of the surface and ensure it is completely joined and there will be no gap between the surfaces.…

solid model Class-A surface final plastic component

Screenrecording of the matlab window is uploded with this. Main Code clear all close all clc % Rankine Cycle Simulator disp(' Rankine Cycle'); disp('1-2 is Isentropic Expansion in Turbine\n'); disp('2-3 is constant pressure heat removal\n'); disp('3-4 is Isentropic Compression in Pump\n' ); disp('4-1 Constant pressure…

 Screenrecording of the matlab window is uploded.   clear close clc f=fopen('THERMO.dat','r'); for i=1:5 fgetl(f); end for j=1:53 %extraction of local temperature a=fgetl(f); b=strsplit(a,' '); z=length(b); species_name=b{1}; local_low=str2num(b{z-3}); local_high=str2num(b{z-2}); local_mid=str2num(b{z-1}); %extraction…

Report   MAIN CODE clear all close all clc n=150; x = linspace(0,0.6,150); y = linspace(0,0.6,150); %creating two dimensional grid [xx, yy] = meshgrid(x,y); tic %evaluating the stalagmite function 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);…

1) REPORT   MAIN CODE clear close clc %Step1 %Given data %variable defenition b=0.05; %damping coefficient g=9.8; %acceleration due to gravity l=1; %length of pendulum string m=1; %mass of bob %Step2 %initial condition theta_0=[0;3]; %Time duration for simulation t_span=linspace(0,20,100); %Step4 %solving the differential…

REPORT code clear close clc step : 1 defenition of length of  link l1 &l2 l1 = 1; l2 = 0.5; step :2 definition of angles theta1 = linspace (0, 60, 10); theta2 = linspace (0, 90, 10); ct = 1; assuming fixed angles %theta1 = 60; %theta2 = 30; naming i & j for i = 1:length(theta1) Theta1 = theta1(i);   for j = 1:length(theta2)…