In this class, we will take you on a tour of Autodesk® Product Design Suite 2013. We will show you what you can do with this flexible set of tools that are specialized in 3D mechanical design, simulation, tooling, electrical design, visualization, documentation, and collaboration. Using the design suite tools, you can evaluate and optimize machines while exchanging information with others throughout the design workflow. You will learn what you can accomplish by combining the Digital Prototyping capabilities of Autodesk® Inventor® software with enhanced design, visualization, and cloud services tools to reduce development costs and get machine designs to your clients faster and with less rework.

Have you heard great things about iLogic but never really learned about how or when to use it? This hands-on lab will cover key concepts and techniques, with minimal expectations of programming experience. You’ll leave with an understanding of how you can be more efficient with Inventor software by using iLogic to automate routine tasks. We will begin with the basics: What are rules and when do rules fire? Samples and exercises will illustrate the extents of what you can do with rules—in parts, assemblies, and drawings. We’ll work with iLogic forms, which let you make a user interface without programming. We’ll use rules in different circumstances and scenarios—for parameter validation, for updating iProperties on file open/save. Finally, you’ll get some exposure to more-advanced capabilities like external rules and using the Inventor API.

We typically see robotic arms being used in welding or pick-and-place applications on production lines. This class will cover some lesser-known uses that are becoming more relevant in manufacturing, with a focus on subtractive machining. Though not as commonly used as traditional computer numerical control (CNC) machines, they offer versatility by enabling attachment of various end effectors, such as CNC tool spindles, additive extruders, and even grinders or polishers. They can therefore be used as subtractive, additive, and postprocessing machines. The PowerMill Robot plug-in takes advantage of PowerMill software’s innovative 3- and 5-axis toolpaths and the toolpath editing features to apply them to a wide range of supported robots. We will primarily cover subtractive manufacturing in both industrial and artistic settings. Attendees will learn the workflow, from setting up a robot cell, calculating toolpaths, and optimizing robot motion for efficiency and safety.

As engineers, we’re asked to make decisions on a daily basis, so come join us and let’s put your experience to the test. This hands-on lab will give you introductory experience with Autodesk Nastran In-CAD software and equip you with some of the tools for making better decisions going forward.

Modeling in 3D can be easy. Learn how to use new and enhanced AutoCAD® software functionality to apply your 2D AutoCAD experience to the world of 3D modeling. In this class, I will show you how to take your ideas from concept to completion by creating and editing solid objects; creating smooth free-form shapes using meshing tools; and tapping into the power of surface modeling. Take advantage of new context-sensitive PressPull and surface curve extraction capabilities. I will also explain the differences between history- and non-history-based solids and show how you can use add-ins like Autodesk® Inventor® Fusion software to directly manipulate 3D AutoCAD models. If you thought 3D in AutoCAD was just too hard, think again.

Post processing results from finite element analysis (FEA) solutions is essential to understanding whether your design passes or fails based on your engineering criteria. There are many options available for checking the design integrity, such as different types of stress plots. There are also several contour options such as nodal, elemental, max, and average. During this course we'll explain the importance of all these options and what to look out for to make sure the results are accurate.

In this session, we’ll outline the setup of a new machine shop to design and manufacture complete chassis and powertrain components for the National Hot Rod Association’s (NHRA) Top Fuel and Funny Car Drag Racing team. We’ll cover the evaluation of computer numerical control (CNC) machines and software to purchase, and review the reason for choosing the package from Autodesk, Inc. We’ll discuss the application of software to create fabrication shop fixtures for chassis construction, and the design of powertrain components to reduce weight and increase stiffness. We’ll also cover the use of hardware security models (HSM) software to create CNC programs in minimal time to meet tight deadlines for a race-season debut of a new car. This session features Inventor HSM Pro and Inventor Professional.

When computer numerical control (CNC) machining parts, it is often desirable to create parts with a fine or smooth surface finish. This becomes even more important when machining for the mold-making or die-making industries. This class will provide tips and strategies for getting the highest-quality surface finishes from your CNC machining. Some areas of discussion will include tooling and holders for maximum rigidity, mill and control parameters to check for optimum surface finish, CAM (computer-aided manufacturing) software parameters and strategies that lead to better finishes, and milling tolerance and point distribution. This class is designed to capture the best practices for the industry, and would be applicable whichever CAM product you are using, such as Delcam’s PowerMILL and FeatureCAM software, HSMWorks add-in, Inventor HSM software, or Fusion 360 software. This session features PowerMill and FeatureCAM.

Learn how to do more with your CNC mill or lathe by utilizing macro programming and probing. Let your machine make decisions and interpret data to make more parts, better! Macro programming lets CNC machine programmers create logic inside of NC programs that use variables and commands to perform actions not otherwise possible with normal G and M codes. In this class, we will go over the basics of NC macro programming (using FANUC G-code) and in-process probing, as well as look at real-world examples that can increase productivity and process reliability. We will show how to integrate these practices within the Fusion 360 CAM environment.

Learn to extend the power of Autodesk, Inc.'s, fully integrated CAM Solution for Fusion 360 software. In this class you will see just how easily you can program a lathe part. This class is designed for users interested in lathe functionality for Fusion 360 software; and it will also focus on tips, tricks, and training so users can get the most out of CAM for Fusion 360 software, the integrated CAM Solution driven by the same kernel behind HSMWorks software and Inventor HSM software.

This is a demonstration presentation, in which we'll discuss the purpose behind Fusion 360's new Data Interop Platform and relevant workflows. We will discuss the following: problems with collaborative design across foreign formats; what this new Interop Platform offers and how it helps design teams cut time to market using best in class tools of choice; a demonstration of the Platform; different workflows; and what's next. We will finish with a question-answer session and we will address feedback.

As more multiaxis machine tools are adopted into production, there is sometimes a disconnect between what is happening in the CAM software and the G-code results and how that affects machine behavior. This session is designed to provide clarity in understanding various programming concepts that not only make programming more simplified, but, more importantly, demystify the resultant code produced from CAM software—whether the application is a 4- or 5-axis milling machine, a multifunction lathe with live tooling, or even Swiss-style machines. These concepts can be applied to any CNC-controlled application. Having a better understanding of these concepts not only will help avoid potentially damaging collisions of the machine tool, it will also help select a machine tool and control combination when purchasing new equipment.

This Turning Class covers the basics for programming your 2 Axis CNC Lathe Machine using Inventor HSM. Turning toolpaths include face, rough, profile, groove, drilling, thread and parting. 

Manufacturing companies have a headache about visualising their designs. They need to revise their printed catalogues as their designs get changed. What if there is an automated way to overcome this obstacle? In this class, we will be presenting you solution to have a fully automated 3d catalogue using Autodesk Vault, Inventor and Forge. Learn how to leverage Robotic Process Automation to create dynamic data on your own website.

Sit down with the HSM CAM development team to discuss the current road map and share your needs and requirements for the HSM-based CAM (computer-aided manufacturing) offerings at Autodesk, Inc. We will cover HSMWorks software, Inventor HSM software, and Fusion 360 software. This session features Inventor HSM and Fusion 360.

This class is designed to communicate how multiaxis milling machines can improve the efficiency of subtractively manufacturing your parts. We will then explain many of the common problems experienced by computer numerical control (CNC) programmers or owners of these machines, followed by a series of short demonstrations where we will explain how PowerMill software could provide solutions to these problems. This class will be useful for anyone involved in multiaxis milling. There are no prerequisite skills required, nor is knowledge of PowerMill required.

The iLogic component of Inventor software is a powerful tool that you can utilize to automate the design process, improving efficiency and quality of work. This hands-on lab will look at the ability of iLogic to automate the design process, making it easier for end users to create designs. In this class you will create iLogic Rules and code that will turn an Inventor software model into a “Design Master Model” to churn out many different variations of the “Design Master Model” for production / manufacturing use. We will touch on API code to generate user parameters and code structure that will automate the design by reading data from an embedded spreadsheet. At the end of this class, you will be able to apply the principles learned to generate ideas to automate designs for your company. This session features Inventor Professional.

Come and discover what the Inventor Product Development Team is working on for future releases of Inventor software and related offerings to help you in the future of making things. This session will feature Inventor Professional software.

Are you responsible for all things electrical in your galaxy? If so, this class is for you. We'll cover all aspects of guarding your AutoCAD Electrical implementation. We'll cover symbol and database management, environment configuration, templates, standards, and best practices. We'll also discuss planning out an implementation and upgrades.

On your mark, get set-GO! Back by popular demand, this fast-paced class will keep you on your toes with brand-new, rapid-fire tips and tricks and all-time favorites to help you get the most out of your time in AutoCAD Electrical software. So hold on tight, it's going to be a wild ride!