While Electronics Cooling in Fusion 360 software helps you understand the thermal performance of printed circuit boards (PCBs) and electronics enclosures, did you know you can use it to understand other airflow type problems. Things like the flow in a conference room or even over a building can be better studied and understood using this same technology.

Are you an Industrial Designer looking to add light or color or sound to an object?Are you a mechanical engineer looking to add sensors or motion control to a system?Are you an architect looking to transform spaces by controlling the room around you?If so, this course is for you!

This course is an intro to electronics design using Autodesk EAGLE and focuses on practical electronics for the non-EE.Spend 60 minutes learning about the design and fabrication of the most fundamental of elements in any electronic system, the Printed Circuit Board (PCB).In this course, we will learn what a PCB is and even design our own PCBs from scratch.We will learn the range of modular electronics options available which simplify electronics design and make design accessible for non-engineers.

Many of the products we design and finally use are developed in mechanical CAD software. However, in almost all products, you’ll also find an electronic part. Without them, most products would be pointless. With the two Autodesk programs Fusion 360 software and EAGLE software, these two worlds grow together. This class will provide insight into the world of electronics. We intend to explain very basic things: What is a printed circuit board (PCB) and how is it manufactured? Which electronic components are used? How is an electronic layout created in EAGLE and how can a mechanical engineer use, change, and create a layout in Fusion 360? These basic questions will be explained using some illustrative examples.

Looking for an easy way to add wireless communications to a project? Wi-Fi, Bluetooth, Zigbee? Wireless electronics is considered by many to be a dark art, even electrical engineers! However, today’s modular hardware and simplified software resources has made it possible for even nonelectrical engineers to successfully add wireless communications to their designs. This course is for mechanical engineers, industrial designers, architects, and software engineers looking to control objects wirelessly or gather data from devices or systems remotely. Spend time with us learning to add Wi-Fi to your next project! Using Eagle, we will build a small sensor-based system that posts data to the cloud and responds to commands from your browser. Some familiarity with embedded software platforms, including Arduino, Raspberry Pi, or similar will be helpful but is not required. Familiarity with breadboarding concepts will also be helpful.

This class will try to give an introduction to the new features within Fusion 360 software regarding electronics cooling simulation. A real model can be simplified in Fusion 360, and then taken through the whole workflow of setting it up, running simulations, and analyzing results. The class will also capitalize on the other capabilities from Fusion 360, to combine the design optimization with Fusion Mechanical simulation and Generative Design in Fusion 360.

We invite customers who have a need to simulate thermal management of electronics to attend this roundtable. We plan on discussing and discovering common electrical computer-aided design (ECAD) and mechanical computer-aided design (MCAD) workflows, going from ideation, conceptual layout, and final design. Thermal management fits in this design process throughout and we will present some mockups on how we see the next generation of simulation fitting into the design process. We hope to gain insight from the roundtable regarding how participants currently manage the ECAD data and use it along with MCAD data to perform thermal simulation, where their struggles are, and what could be done to make everything easier. This session features CFD, Forge, and Fusion 360.

Engineers and designers are constantly pressed to deliver greater performance while simultaneously cutting costs and using up less space. This phenomenon requires many design revisions, and the designer and engineer must work together to arrive at the best possible solution that meets the design criteria. This class will start by demonstrating how to create simulation-ready geometry within the Fusion 360 Simplify workspace. Iterating seamlessly between Fusion 360 software and Autodesk CFD software, this class will dive into setting up rapidly prototyped electronics-board configurations and evaluating its thermal performance. Stepping through electronics-cooling best practices, postprocessing simulation results, and evaluating multiple designs—you will learn not only how to validate the original design, but also how to innovate and land on the best possible design. You will learn the effectiveness of iteration CAD modifications and up-front simulation, and master rapid prototyping workflows.

The challenge that all electronic designers encounter is acquiring or building components that will be used in their products. The added variant to this already elaborate process is building or generating 3D models that need to be associated for effective mechanical modeling. For this presentation, we will be showing techniques used to build electronic component footprints with associated 3D models. We will also teach you how to create 3D models of electronic components using Fusion 360 software.

Inventor software is Autodesk's top tool for mechanical design. Fusion 360 software provides the electronics designer with a great tool for printed circuit board (PCB) design. In agile product development, it is important that these two very different engineering disciplines work closely together, especially because more and more products are made up of PCBs in addition to mechanical components. In this session, you will learn how to set up an effective workflow for mechanical and electrical design.

In this instructional demo, we’ll show how Fusion 360 Electronics software can be maximized with Fusion 360 strong modeling tools to produce a distortion-effect pedal end to end. We'll discuss the design of the effect in detail, as well as how having an integrated workflow between electronics and mechanical tooling simplifies and expedites the design process. Throughout the demo, we will be highlighting the specific features in Fusion 360 that enabled us to go from idea to completed prototype.

Electronics can be difficult to design due to the reliance on various assembly components. Add to that the occasional need to swap between various software applications when designing specific components, such as the PCB, it can become difficult to get everything sync’d up and a more wholistic picture of the design. This class will showcase how a part designer can use Fusion 360 for everything from part design, PCB design, and even manufacturability.

In this class, we'll use the case study of designing a lab power supply. This is a common tool in electronics and by working through its design, we'll highlight how the electronics workspace, e-cooling simulation, and mechanical modeling can all be capitalized on to simplify and expedite the production of this product. As we go through the case study, we'll clearly demonstrate the benefits of having all of these tools in one application—namely, faster product development with fewer rework cycles.

With products becoming smarter and more connected, the need for an integrated Printed Circuit Board (PCB) is paramount. This class will introduce the first-ever cloud connected ECAD to MCAD workflow. We will discuss how EAGLE and Fusion 360 can work side by side to create schematics and generate board layouts from 3D CAD geometry and accurate 3D representations of PCBs to create enclosures within Fusion 360.

During Autodesk University 2021, we shared a developed workflow for how designers can bring data together through designing the part, the PCB, and even how to manufacture the plastic components. With the complexity of electronic part designs, there are often various aspects that need to be considered for the part to both work and perform as expected. In this class, we will demonstrate how the Fusion 360 workflow has matured to incorporate mechanical engineering aspects to smooth this product design workflow. We will use a sample product, the Autodesk University Digital Badge, to demo how to integrate mechanical design requirements and simulation into the product design process.

This course will present a novel framework and development works for enhancing building asset management, particularly operations and maintenance (O&M), by visually intuitive integration among Building Information Modeling (BIM), asset management (AM), and various electronics systems. A newly developed BIM-AM system provides an intuitive way to access heterogeneous O&M information of assets such as photos, attributes, equipment relationships, manuals, drawings, maintenance records, live views of closed circuit television (CCTV) systems, real-time sensing data from building management systems (BMS) and wireless ad-hoc sensors, as well as location information from a real-time location system (RTLS) in an integrated mobile platform. All of this information is accessible simply by asset repository, the maneuvering throughout a BIM model, or even a handheld radio frequency identification (RFID) scanning tool. The results have successfully demonstrated the use of BIM in O&M workflow, responsive incident handling, and enhancing building sustainability.

Access to electronic component information is a key competitive advantage in the design and manufacturing process. In this class, a founder of Octopart, the leader in electronic part search, shares tips and tricks to search more effectively for component pricing, availability, technical specs, compliance status, and more. We dive into specific examples of how new search technology opens up access to data and improves workflow efficiency in a variety of use cases. We also present how-tos for using Octopart applications with Autodesk® PLM 360. Attendee participation is encouraged at this roundtable session.

Have you heard about Simulation CFD software? Do you want to see how easy it is to get started? Would you like to play with a new software system? Come on down to the hands-on lab. Pick which scenario you want to explore, whether it is electronics cooling, airflow in a room, or wind loading on a structure. Choose what type of results you are interested in. Explore and learn.

Heretofore, learning small satellite was open to a limited number of people such as those who are undergraduate or graduate students majoring in Aerospace. On top of that, there was a hurdle to comprehend it unless you have an engineering background because of its complexity. Moreover, it required a significant amount of time to go through. The features of Fusion 360 enabled us to develop small satellite training that everyone can learn in a short period of time. In HEPTA-Sat training, a training to understand the design and development of small satellite, we utilize Team of Fusion 360 to share information, design, and simulate modeling. Moreover, we adjust electronic board and CAE, and add elements of Generative Design. We will demonstrate how Fusion 360 streamlines processes, fosters innovation, and improves learning.

Solar energy is clean and limitless, and the operational costs are close to nothing once you’ve installed a solar panel as no fuel is needed to create a considerable amount of energy. And a single kerosene wick burns an estimated 80 liters of fuel, producing more than 250 kilograms of carbon dioxide per year. To help people living in remote places with limited access to electricity, we made a low-cost solar light bulb as a replacement to a harmful kerosene lamp. We will share the technical workflow while creating the solar lamp inside the Fusion 360 Electronics and Modeling workspace, demonstrating an effective ECAD—MCAD collaboration.

A fully optimized computer case was designed, validated, and manufactured using Fusion 360 integrated workflows. The enclosure serves to showcase various Fusion 360 technologies including Electronics Cooling Simulation, Generative Design, Generative Fluid Design, Additive Manufacturing, and Netfabb integration. Join us and learn how each one of these connected workflows contributes to the overall design and performance of the workstation. Our journey begins with the basic design and layout of the workstation and attempts to address common industry shortfalls. Advanced Fusion 360 technologies enable us to investigate novel designs for the internal case structure and flow-optimized ductwork, and then validate them with powerful, accessible simulation tools.