Benchmarking

GENETIC ALGORITHMGenetic algorithms are a type of optimization algorithm, meaning they are used to find the optimal solution(s) to a given computational problem that maximizes or minimizes a particular function. Genetic algorithms represent one branch of the field of study called evolutionary computation, in that they…

  Objective- To write a program that solves the following ODE. This ODE represents the equation of motion of a simple pendulum with damping.   Damping – In physical systems, damping is the loss of energy of an oscillating system by dissipation. Damping is an influence within or upon an oscillatory system…

Objective- Write a program in Matlab to simulate the forward kinematics of a 2R Robotic Arm.MATLAB SCRIPT SYNTAX % Forward Kinematics of a 2R Robotic Arm clear close all clc % Inputs % Length of arms l1=1; % Length of first arm l2=0.5; % Length of second arm % Angular positions of arms theta1=linspace(0,90,15); %…

Project 2   Objective - Route the Wiring harness on Given car body and Prepare flatten view drawing in CATIA V5. Application of all Packaging rules, Industry best practices studied in this course shall be demonstrated in design. Apply Protection coverings as required.   STEP 01 : CREATE CONTEXT ASSEMBLY  …

Project 1   Objective - Route the Wiring harness on Given Engine and Prepare flatten view drawing in CATIA V5. Application of all Packaging rules, Industry best practices studied in this course shall be demonstrated in design. Apply Protection coverings as required.   STEP 01 : CREATE CONTEXT ASSEMBLY  …

Wiring harness design in CATIA V5 Flattened view on drawing sheet   HARNESS ASSEMBLY MODEL     STEP 01 : HARNESS FLATENNING PARAMETERS   STEP 02 : EXTRACT HARNESS ASSEMBLY   STEP 03 : FLATTEN   STEP 04 : PROJECTION IN DRAWING SHEET   FINAL DRAWING SHEET   =============================================

WIRING HARNESS DESIGN IN CATIA V5   STEP 01 : CAD DATA IMPORT   HARNESS-B DEVICES   HARNESS-A DEVICES   STEP 02 : CREATE GEOMETRICAL PARAMETERS CONNECTOR CONNECTION POINT CONNECTOR CONNECTION AXIS BUNDLE CONNECTION POINT   HARNESS B : DEVICES   HARNESS A : DEVICES     STEP 03 : DEFINE…

WIRING HARNESS DESIGN IN CATIA V5   STEP 01 : CAD DATA IMPORT   PART 01 : C-DT06 – 08SA   PART 02 : C-DT06-6S   PART 03 : C-DT06-4S   PART 04 : C-DT06-2S   STEP 02 : CREATE GEOMETRICAL PARAMETERS CONNECTOR CONNECTION POINT CONNECTOR CONNECTION AXIS BUNDLE CONNECTION POINT   STEP…

DEFINE ELECTRICAL COMPONENTS USING ELECTRICAL PART DESIGN WORKBENCH   PART 01 : P CLAMP   CAD DATA IMPORT   DEFINE GEOMETRICAL PARAMETERS 1. ENTRY POINT   2. EXIT POINT   3. ENTRY PLANE   4. EXIT PLANE   5. BASE PLANE   DEFINE PART AS SUPPORT (ELECTRICAL DEVICE) FIRST ENTRY/EXIT…

DEFINE ELECTRICAL COMPONENTS USING ELECTRICAL PART DESIGN WORKBENCH   PART 01 : Deutsch DT06 – 08SA   CAD DATA IMPORT   CREATE GEOMETRICAL PARAMETERS 1. CONNECTOR CONNECTION POINT 2. CONNECTOR CONNECTION AXIS 3. BUNDLE CONNECTION POINT   DEFINE PART AS CONNECTOR (ELECTRICAL DEVICE)   DEFINE…

TITLE : Advanced Sheet Metal Design Using NX Cad - Metal bracket-II   OBJECTIVE – Understanding Advanced sheet metal design. Modelling a Metal Bracket in sheet metal workbench from 2D drawing. Using advanced sheet metal features to design Metal Bracket.   INTRODUCTION – The sheet metal application…

TITLE : Advanced Sheet Metal Design Using NX Cad - BRACKET   OBJECTIVE – Understanding Advanced sheet metal design. Modelling a Bracket in sheet metal workbench from 2D drawing. Adding advanced sheet metal features to Bracket. INTRODUCTION – The sheet metal application provides an environment for…

TITLE : Advanced Sheet Metal Design Using NX Cad - Odd Shaped Enclosure   OBJECTIVE – Understanding Advanced sheet metal design. Modelling sheet metal part from a solid body. Modelling Odd Shaped Enclosure using advanced sheet metal features   INTRODUCTION – The sheet metal application provides…

TITLE : Advanced Sheet Metal Design Using NX Cad - Box Assembly     OBJECTIVE – Understanding Advanced sheet metal design. Modelling of sheet metal Box Assembly on SiemensNX. Create uniform thickness sheet metal parts using features such as tabs, flanges, cut-outs, dimples, beads etc. INTRODUCTION…

TITLE - Advanced Sheet Metal Design Using NX Cad    OBJECTIVE – Understanding Advanced sheet metal design. Modelling parts with sheet metal workbench of SiemensNX. Create uniform thickness sheet metal parts using basic features such as tabs, flanges, cut-outs, etc. INTRODUCTION – The sheet metal application…

AUTOMOBILE BACKDOOR   Introduction – A Backdoor or Tailgate is the door at the rare most end of the car which encloses the boot space. It also has the Wiper Motor mounted on it, along the Tail Lamp, Gas Stay and Latch & Striker. The backdoor is the rearmost part of the automobile which opens upwards, downwards, and sideways…

AUTOMOBILE ROOF   Introduction An automobile roof or car top is the portion of an automobile that sits above the passenger compartment, protecting the vehicle occupants from sun, wind, rain, and other external elements. The car ceilings are typically coated with headliners that provide insulation against heat and…

FENDER DESIGN (VEHICLE) Introduction : Fender is a plastic or metal curved panel over the wheels on the side of a car, extending from the front bumper of the car to the door. A fender is the part of a car that frames or covers a wheel well. The main purpose of fenders is to keep dirt, mud, and other debris off of the tires…

WHEEL ARCH CALCULATION Fender Wheel Arch Regulations Japan Regulation Requirements European Regulation Requirements US Regulation Requirements Japan Regulation Requirements Measure clearance L of tire, hub, cap & fender in three different positions within area K and produce clearance check chart to validate. Clearance…

Section Modulus – Section Modulus is the geometric property of the given cross-section of any structural member. It is the direct measure of the strength of the shaft section or the beam section. Higher the section modulus of a structure, the more the resistive it becomes to bending. It is a geometric property used…

HOOD ASSEMBLY DESIGN   The Structure of Hood Panel A car hood panel is one of the most important components of the BIW (body in white), it is considered as the closure sheet-metal component. A hood panel consists of two panels that are hemmed together to form the automotive hood assembly. The inner panel of the hood…

UNDER BODY COATING   DESCRIPTION – Underbody coating is usually a dense cladding (often based on rubber) applied uniformly to the undercarriage of the automobile. It is normally sprayed or painted on when the car is just out of the dealership and is clean. The coating is the formulation of spray that is applied to the…

BENCHMARKING Benchmarking is a process of measuring the performance of a company’s products, services, or processes against those of another business considered to be the best in the industry. The point of benchmarking is to identify internal opportunities for improvement. Benchmarking is the competitive edge that…

1.QUICK RETURN MECHANISM (QRM) CREATION OF PARTS – BODY-1   BODY – 2 BODY -3 BODY – 4 BODY – 5     2.CONSTANT VELOCITY JOINT (CVJ)   CREATION OF PARTS – BODY – 1 BODY-2 BODY – 3 ===============================

TOOLING AXIS CREATION Tooling axis defines the movement of tooling (core & cavity). First seek for the best possible direction for tooling axis. Generally tooling axis is either in X, Y or Z direction whichever is best for tooling clearing. In this case, FOR MAIN TOOLING AXIS -  A surface from the class A model…

TOOLING AXIS CREATION Tooling axis defines the movement of tooling (core & cavity). First seek for the best possible direction for tooling axis. Generally tooling axis is either in X, Y or Z direction whichever is best for tooling clearing. In this case, FOR MAIN TOOLING AXIS -  A surface from the class A model…

TOOLING AXIS CREATION Tooling axis defines the movement of tooling (core & cavity). First seek for the best possible direction for tooling axis. Generally tooling axis is either in X, Y or Z direction whichever is best for tooling clearing. In this case, FOR MAIN TOOLING AXIS -  A flat surface from the class A…

TOOLING AXIS CREATION Tooling axis defines the movement of tooling (core & cavity). First seek for the best possible direction for tooling axis. Generally tooling axis is either in X, Y or Z direction whichever is best for tooling clearing. Bisecting method is used for creating a line as tooling axis between two possible…

TOOLING AXIS CREATION Tooling axis defines the movement of tooling (core & cavity). First seek for the best possible direction for tooling axis. Generally tooling axis is either in X, Y or Z direction whichever is best for tooling clearing. Bisecting method is used for creating a line as tooling axis between two possible…

TOOLING AXIS CREATION Tooling axis defines the movement of tooling (core & cavity). First seek for the best possible direction for tooling axis. Generally tooling axis is either in X, Y or Z direction whichever is best for tooling clearing. A surface at the upper side of the class A is selected for creating a point…

TOOLING AXIS CREATION Tooling axis defines the movement of tooling (core & cavity). First seek for the best possible direction for tooling axis. Generally tooling axis is either in X, Y or Z direction whichever is best for tooling clearing. Bisecting method is used for creating a line as tooling axis between two possible…

SCREENSHOTS DRAFT ANALYSIS CLASS A SURFACE ------------------ FINAL COMPONENT ============== TOOLING AXIS =================== CLASS B SURFACE ============= CLASS C SURFACE ================ FINAL COMPONENT =============================

SCREENSHOTS DRAFT ANALYSIS CLASS A SURFACE ------------------ FINAL COMPONENT ============== TOOLING AXIS CLASS A SURFACE ------------- FINAL COMPONENT =================== CLASS B SURFACE ============= CLASS C SURFACE ================ FINAL COMPONENT ================================

PROJECT : SYNTAX - clear allclc% READING THE EXCEL FILE TO LOAD THE DATAVI = xlsread('VI.xlsx')V = VI(:,1) % VOLTAGE VALUESI = VI(:,2) % CURRENT VALUESir = -17.3:0.1:0.9; % RANGE TO PERFORM INTERPOLATIONInD1 = interp1(V,I,ir,'spline'); % PIECEWISE CUBIC SPLINE INTERPOLATIONInD2 = interp1(V,I,ir,'pchip'); % SHAPE-PRESERVING…