• Learn to simulate the performance of your designs without costly prototypes • Addresses all the essential tools of mechanism design with Creo • Guides you through the assembly and analysis of a slider-crank mechanism • Describes types of simple and special connections, servos, and motor functions • Allows you to learn the basics of mechanism design in about two hours Creo 8.0 Mechanism Design Tutorial neatly encapsulates what you need to know about the essential tools and features of Mechanism Design with Creo: how to set up models, define analyses, and display and review results. If you have a working knowledge of Creo Parametric in Assembly mode, this short but substantial tutorial is for you. You will learn to create kinematic models of 2D and 3D mechanisms by using special assembly connections, define motion drivers, set up and run simulations, and display and critically review results in a variety of formats. This includes creating graphs of important results as well as space claim and interference analyses. Common issues that arise during mechanism design are briefly addressed and extra references listed so you can work through them when encountered. In Detail If you ever need to model a device where parts and subassemblies can move relative to each other, you will want to use the world-renowned mechanism functions in Creo. Creo’s Mechanism Design functions allow you to examine the kinematic properties of your device: range of motion and motion envelopes, potential interference between moving bodies, and kinematic relationships (position, velocity, acceleration) between bodies for prescribed motions. With these functions, you will better predict the actual performance of the device and create design improvements without the expense of costly prototypes, saving you time, money and worry. With this tutorial, you will assemble and analyze a simple slider-crank mechanism. Each chapter has a clear focus that follows the workflow sequence, and parts are provided for the exercise that include creating connections, servos, and analyses. This is followed by graph plotting, collision detection, and motion envelope creation. You can choose to quickly cover all the essential operations of mechanism design in about two hours by following the steps covered at the beginning of chapters 2-5, or you can complete the full chapters or come back to them as needed. Plenty of figures, screenshots and animations help facilitate understanding of parts and concepts. Once you have completed chapters 2-5 and the slider-crank mechanism, chapter 6 familiarizes you with special connections in Mechanism Design: gears (spur gears, worm gears, rack and pinion), cams, and belt drives. The final chapter presents a number of increasingly complex models (for which parts are provided) that you can assemble and use to explore the functions and capability of Mechanism Design in more depth. These examples, including an In-line Reciprocator, Variable Pitch Propeller and Stewart Platform, explore all the major topics covered in the book. Topics Covered • Connections: cylinder, slider, pin, bearing, planar, ball, gimbal, slot, rigid/weld, general • Servos and motor function types: ramp, cosine, parabolic, polynomial, cycloidal, table, user defined • Tools for viewing analysis results: trace curve, motion envelope, user defined measures, animations, collision/interference detection; analysis problems • Special connections: spur gear, worm gear, rack and pinion, cams and belts Table of Contents 1. Introduction to Creo Mechanism Design 2. Making Connections 3. Creating Motion Drivers 4. Setting up and Running an Analysis 5. Tools for Viewing Results 6. Special Connections 7. Exercises List of Animations

Mechanism Design with Creo Elements/Pro 5.0 is designed to help you become familiar with Mechanism Design, a module in the Creo Elements/Pro (formerly Pro/ENGINEER) software family, which supports modeling and analysis (or simulation) of mechanisms in a virtual (computer) environment. Capabilities in Mechanism Design allow users to simulate and visualize mechanism performance. Using Mechanism Design early in the product development stage could prevent costly redesign due to design defects found in the physical testing phase; therefore, contributing to a more cost effective, reliable, and efficient product development process. The book is written following a project-based learning approach and covers the major concepts and frequently used commands required to advance readers from a novice to an intermediate level. Basic concepts discussed include: model creation, such as body and joint definitions; analysis type selection, such as static (assembly) analysis, kinematics and dynamics; and results visualization. The concepts are introduced using simple, yet realistic, examples. Verifying the results obtained from computer simulation is extremely important. One of the unique features of this textbook is the incorporation of theoretical discussions for kinematic and dynamic analyses in conjunction with simulation results obtained using Mechanism Design. The theoretical discussions simply support the verification of simulation results rather than providing an in-depth discussion on the subjects of kinematics and dynamics.

Mechanism Design and Analysis Using PTC Creo Mechanism 4.0 is designed to help you become familiar with Mechanism, a module of the PTC Creo Parametric software family, which supports modeling and analysis (or simulation) of mechanisms in a virtual (computer) environment. Capabilities in Mechanism allow users to simulate and visualize mechanism performance. Capabilities in Mechanism allow users to simulate and visualize mechanism performance. Using Mechanism early in the product development stage could prevent costly redesign due to design defects found in the physical testing phase; therefore, contributing to a more cost effective, reliable, and efficient product development process. The book is written following a project-based learning approach and covers the major concepts and frequently used commands required to advance readers from a novice to an intermediate level. Basic concepts discussed include: model creation, such as body and joint definitions; analysis type selection, such as static (assembly) analysis, kinematics and dynamics; and results visualization. The concepts are introduced using simple, yet realistic, examples. Verifying the results obtained from computer simulation is extremely important. One of the unique features of this textbook is the incorporation of theoretical discussions for kinematic and dynamic analyses in conjunction with simulation results obtained using Mechanism. The theoretical discussions simply support the verification of simulation results rather than providing an in-depth discussion on the subjects of kinematics and dynamics.

Mechanism Design and Analysis Using PTC Creo Mechanism 5.0 is designed to help you become familiar with Mechanism, a module of the PTC Creo Parametric software family, which supports modeling and analysis (or simulation) of mechanisms in a virtual (computer) environment. Capabilities in Mechanism allow users to simulate and visualize mechanism performance. Using Mechanism early in the product development stage could prevent costly redesign due to design defects found in the physical testing phase; therefore, it contributes to a more cost effective, reliable, and efficient product development process. The book is written following a project-based learning approach and covers the major concepts and frequently used commands required to advance readers from a novice to an intermediate level. Basic concepts discussed include model creation, such as body and joint definitions; analysis type selection, such as static (assembly) analysis, kinematics and dynamics; and results visualization. The concepts are introduced using simple, yet realistic, examples. Verifying the results obtained from computer simulation is extremely important. One of the unique features of this textbook is the incorporation of theoretical discussions for kinematic and dynamic analyses in conjunction with simulation results obtained using Mechanism. The theoretical discussions simply support the verification of simulation results rather than providing an in-depth discussion on the subjects of kinematics and dynamics.

Mechanism Design and Analysis Using PTC Creo Mechanism 3.0 is designed to help you become familiar with Mechanism, a module of the PTC Creo Parametric software family, which supports modeling and analysis (or simulation) of mechanisms in a virtual (computer) environment. Capabilities in Mechanism allow users to simulate and visualize mechanism performance. Capabilities in Mechanism allow users to simulate and visualize mechanism performance. Using Mechanism early in the product development stage could prevent costly redesign due to design defects found in the physical testing phase; therefore, contributing to a more cost effective, reliable, and efficient product development process. The book is written following a project-based learning approach and covers the major concepts and frequently used commands required to advance readers from a novice to an intermediate level. Basic concepts discussed include: model creation, such as body and joint definitions; analysis type selection, such as static (assembly) analysis, kinematics and dynamics; and results visualization. The concepts are introduced using simple, yet realistic, examples. Verifying the results obtained from computer simulation is extremely important. One of the unique features of this textbook is the incorporation of theoretical discussions for kinematic and dynamic analyses in conjunction with simulation results obtained using Mechanism. The theoretical discussions simply support the verification of simulation results rather than providing an in-depth discussion on the subjects of kinematics and dynamics.

Creo 7.0 Mechanism Design Tutorial neatly encapsulates what you need to know about the essential tools and features of Mechanism Design with Creo: how to set up models, define analyses, and display and review results. If you have a working knowledge of Creo Parametric in Assembly mode, this short but substantial tutorial is for you. You will learn to create kinematic models of 2D and 3D mechanisms by using special assembly connections, define motion drivers, set up and run simulations, and display and critically review results in a variety of formats. This includes creating graphs of important results as well as space claim and interference analyses. Common issues that arise during mechanism design are briefly addressed and extra references listed so you can work through them when encountered. In Detail If you ever need to model a device where parts and subassemblies can move relative to each other, you will want to use the world-renowned mechanism functions in Creo. Creo’s Mechanism Design functions allow you to examine the kinematic properties of your device: range of motion and motion envelopes, potential interference between moving bodies, and kinematic relationships (position, velocity, acceleration) between bodies for prescribed motions. With these functions, you will better predict the actual performance of the device and create design improvements without the expense of costly prototypes, saving you time, money and worry. If you ever need to model a device where parts and subassemblies can move relative to each other, you will want to use the world-renowned mechanism functions in Creo. Creo’s Mechanism Design functions allow you to examine the kinematic properties of your device: range of motion and motion envelopes, potential interference between moving bodies, and kinematic relationships (position, velocity, acceleration) between bodies for prescribed motions. With these functions, you will better predict the actual performance of the device and create design improvements without the expense of costly prototypes, saving you time, money and worry. With this tutorial, you will assemble and analyze a simple slider-crank mechanism. Each chapter has a clear focus that follows the workflow sequence, and parts are provided for the exercise that include creating connections, servos, and analyses. This is followed by graph plotting, collision detection, and motion envelope creation. You can choose to quickly cover all the essential operations of mechanism design in about two hours by following the steps covered at the beginning of chapters 2-5, or you can complete the full chapters or come back to them as needed. Plenty of figures, screenshots and animations help facilitate understanding of parts and concepts. Once you have completed chapters 2-5 and the slider-crank mechanism, chapter 6 familiarizes you with special connections in Mechanism Design: gears (spur gears, worm gears, rack and pinion), cams, and belt drives. The final chapter presents a number of increasingly complex models (for which parts are provided) that you can assemble and use to explore the functions and capability of Mechanism Design in more depth. These examples, including an In-line Reciprocator, Variable Pitch Propeller and Stewart Platform, explore all the major topics covered in the book. Topics Covered • Connections: cylinder, slider, pin, bearing, planar, ball, gimbal, slot, rigid/weld, general • Servos and motor function types: ramp, cosine, parabolic, polynomial, cycloidal, table, user defined • Tools for viewing analysis results: trace curve, motion envelope, user defined measures, animations, collision/interference detection; analysis problems • Special connections: spur gear, worm gear, rack and pinion, cams and belts

• Learn to make your design process more cost effective, reliable, and efficient • Teaches you how to prevent redesign due to design defects • Covers the basic concepts to advance from novice to intermediate SOLIDWORKS Motion user • Concepts are introduced using simple, yet realistic results • Simulation results are verified with those obtained from theoretical results Motion Simulation and Mechanism Design with SOLIDWORKS Motion 2024 is written to help you become familiar with SOLIDWORKS Motion, an add-on module of the SOLIDWORKS software family. This book covers the basic concepts and frequently used commands required to advance readers from a novice to intermediate level in using SOLIDWORKS Motion. SOLIDWORKS Motion allows you to use solid models created in SOLIDWORKS to simulate and visualize mechanism motion and performance. Using SOLIDWORKS Motion early in the product development stage could prevent costly redesign due to design defects found in the physical testing phase. Therefore, using SOLIDWORKS Motion contributes to a more cost effective, reliable, and efficient product design process. Basic concepts discussed in this book include model generation, such as creating assembly mates for proper motion; carrying out simulation and animation; and visualizing simulation results, such as graphs and spreadsheet data. These concepts are introduced using simple, yet realistic examples. Verifying the results obtained from the computer simulation is extremely important. One of the unique features of this book is the incorporation of theoretical discussions for kinematic and dynamic analyses in conjunction with the simulation results obtained using SOLIDWORKS Motion. Verifying the simulation results will increase your confidence in using the software and prevent you from being fooled by erroneous simulations.