For over two decades Neoscape has been working on visualizing architecture to make things faster, more efficient and painless for our clients and artists. The challenge is with designers that have been trusting us for over a decade as our partners to raise the bar visually and technically. One of the best examples is with Boston based world renowned Safdie Architects. Every time we start a new project, we ask ourselves “how do we make this better and faster?” VRAY has been Neoscape render engine of choice for well over a decade. Now with Nvidia’s GPU rendering, Vray Next and Project Lavina we see a future where we can move faster and more efficiently. Something both us and our clients have been dreaming of for a long time. I will walk you through the promise in the future of design and visualization a future where we will collaborate and focus on what is really important. After 20 years waiting, Real time design visualization is here.

The class will be a lecture on the EQ house, the actually built architecture that AI and IoT deployed. It was completed in March of 2019. Installed with advanced IoT technology and AI, EQ House is expected to be attached by the owner as if it were life-like architecture. It is installed with varied sensors to perceive environmental status and accumulates data about the owner’s preference by means of “like” buttons from the smart watch. The experimental design, inspection, and fabrication process was also needed to actually realize the futuristic architecture of the EQ House. By using the optimization process, the design period to determine the pattern of the facade decreased by 60% and through the inspection using BIM 360 Docs software and mixed reality decreased 20%, and the fabrication by 25%.

Berkeley Group has been constructing residential properties in the UK for more than 40 years using traditional approaches. Berkeley Modular is a startup that will deliver off-site manufactured housing products, but at levels of productivity normally associated with other sectors such as automotive. This off-site manufactured housing product is intended to be safe, high performing, high quality, and comfortable where actual performance matches designed intent. The class will chart the development of a new factory build and cover lessons learned, including planning of the layout, specifying the flexible manufacturing system and development of productive workflow, and the development of a technology platform that supports the concept of mass customization and uses conversion velocity. The digitally enabled agile manufacturing platform includes BIM 360 software as the CDE, as well as a suite of integrated manufacturing systems based on Vault software, Inventor software, coBuilder Collaborate, Oracle Fusion, and Siemens MES.

This year’s Design Computation Symposium will feature a number of different presentations from accomplished researchers, practitioners, and educators who will focus on the fascinating relationship between mathematical, geometrical, and architectural form.

Implementing Simulation software early and often in the design process helps to reduce prototypes, get to market more quickly, and optimize your design for better performance. Designs are all around you—some that have used Simulation software, and some that could benefit from this optimization. In fact, most products require the use of multiple Simulation software products to achieve their best design. I know, I know . . . so where does the kegger come in to play? It might seem strange, but something as simple as a keg can be used to perfectly demonstrate nearly every Simulation software product. In this class, you will learn a bit of Simulation for Fusion 360 software, Autodesk CFD software, Autodesk Nastran In-CAD software, Simulation Mechanical software, Moldflow software, and Moldflow Design software. So, if you’re interested in how you can optimize your designs, or just want to grab a beer in one of the most entertaining classes of Autodesk University, this is the place for you! This session features Fusion 360 and CFD.

Computing power is increasing exponentially, however, structural engineers are only starting to realize its power for design automation. This talk will focus on how this can be used to provide optioneering in early project stages, and investigate a computational scheme design tool. The talk will deconstruct the tool and its logic to demonstrate the integration between the various Autodesk packages and how this is formed into a cohesive product to provide valuable information for design teams. The tool provides metrics such as material cost, embodied C02, and program implications, while utilizing the Atkins Human-Centered Design toolkit to ensure a holistic appreciation of project requirements. The talk will feature exemplar uses of the tool on pilot projects and will quantify the increased value achievable over conventional design approaches. We will then discuss future improvements to the tool and how computational design could be used in other ways to improve structural design.

In the structural engineering industry, one of the challenges is to reduce manual and tedious design tasks. Computational design tools such as Dynamo give structural designers, engineers, and detailers the possibility to automate the creation of their deliverables to build structures with minimal energy. That way, they spend less time on the repetitive tasks and more energy on the important parts of the design. In this class, you’ll learn how Dynamo can support design automation and computational modeling workflows for structural analysis and design of concrete and steel structures. You’ll learn about the appropriate packages to perform automation in your own daily workflows, and you’ll receive a set of teaching examples.

Custom-tailored software has never been easier to achieve in Robot Structural Analysis software. If you’re writing, or willing to write, add-ins for Robot Structural Analysis to expand its capabilities, this is the perfect place to get to know the subject and meet the people who use the Robot Structural Analysis API.

An increasing number of designers, architects, and engineers are using graph-based visual programming and scripting techniques to generate and optimize design solutions. The Design Computation Symposium is a forum for presenting the results of this new approach to design and for discussing the development and use of computational design tools. With conventional computer-aided design, the designer uses interactive and direct modeling techniques to create or edit the design. By comparison, a computational designer uses scripting and other graph-based programming techniques. The script essentially captures the logic of the design and its execution generates the design solution, or indeed generates numerous design alternatives. This year's symposium features a number of different presentations from accomplished researchers, practitioners, and educators which focus on the fascinating relationship between logic, geometry, architectural form, analysis, simulation, and digital fabrication.

In this session, a customer will share the problems and productivity challenges faced when designing steel to concrete (S2C) connections. Hilti and IDEA StatiCa will show how to overcome these challenges in the future, and discuss where they stand in this exciting journey. Problem 1: methods and tools for design. You will discover background information on the ACI 318 requirement of a rigid base plate (and how to judge), and hear about AISC DG1, as well as the innovative component-based finite element model (CBFEM) method to solve this problem in a holistic way covering all design proofs also for complex connections. Problem 2: workflow integration. You will see workflows from Robot Structural Analysis software via Hilti PROFIS Engineering into Revit software, and will also learn about further plans (RISA Connection, SAP2000, and so on). This class will open the eyes of structural engineers, BIM and CAD experts, and managers in the construction industry, and it will unleash huge productivity and safety potential (recent case studies with more than 400 engineers showed savings of more than 60 minutes PER connection)

In the structural engineering industry, one of the challenges is reducing manual and tedious design tasks. Computational design tools such as Dynamo software give structural designers, engineers, and detailers the possibility to automate the creation of their deliverables to build structures with minimal energy. By doing so they spend less time on the repetitive tasks and more energy on the important parts of the design. In this class, you’ll learn how Dynamo can support design automation and computational modeling workflows for structural analysis and design of concrete and steel structures. You’ll learn about the appropriate packages to perform automation in your own daily workflows, and you’ll receive a set of teaching examples.

Autodesk is famed for having robust and reliable simulation tools. On the other hand, we have Generative Design in Fusion 360 software—the technology that revolutionizes the engineering world and the ways we design things. Autodesk development teams have been working on capitalizing on these proven simulation solvers as well as the latest technologies in a generative design. As a result, a new tech preview feature named Experimental Solvers is enabled in Fusion 360. This means every user of the generative design feature will also see new outcomes with new sophisticated shapes, in addition to the existing traditional solutions. This technology brings new functionalities and delivers forms optimized in a new way, opening doors that have been closed previously. In addition to showing how to use the new technology of Generative Design in Fusion 360, above all, we will present how the new functionalities empower the new applications using real-world examples.

This session will be a hands-on introduction to Dynamo as a visual programming tool. Knowledge of Dynamo combined with a little knowledge of Python is all you need to help create, compute, and manipulate complex design forms. Learn how to control curtain panels and place adaptive components. Learn how to use basic geometry to create complex surfaces, and how to use parametrics to place adaptive components. Learn how Dynamo can help you with solar studies when using parametric panels and components to design with optimum use of sunlight and energy.

This class will provide basic to intermediate understanding of the Civil 3D Toolkit package in Dynamo for Civil 3D software. Learn how to capitalize on the Civil 3D Toolkit when solving basic to complex dynamo graph.

Generative Design has brought a paradigm shift in the way we design. In early 2019 we launched a Proof of Concept for this new approach, taking advantage of our BIM and Station concept expertise. Having disseminated state-of-the-art Generative Design knowledge among our technical team, we began an ‘awareness phase’ and chose a subject for Proof of Concept from a range of study cases. The test application that we present today aims to help architects in Functional Program of Metro Station. We would like to share with you our experience from the last 12 months of experimentation.

For the last couple of years, the speaker has taught generative design classes at Autodesk University. The first years, we did an “Introduction to Generative Design” lecture; last year we did a lab showing the process and setup for applying a generative design to a part. This year we want to look at the results that you get from running the part and talk about how to interpret the information that you get back. We also want to look at how to download the desired result as a solid model, modify the file for any needed cleanup, and use it in an assembly. We are going to start by submitting a file to Generative Design in Fusion 360 software, then we’ll look at the results that are returned for strength, weight, and even cost. We will review sorting the results to get the best possible option for what we want, then we will download the file and talk about what you can do with the file. We’ll finish up by talking about changes to Generative Design in Fusion 360 that have come out this year.

How cool to watch or drive a drone! Well, there is a cooler way to think drones: You’ll be able to create a drone chassis after attending this hands-on lab! Fusion 360 software is an amazing product, with lots of environments to master. Generative Design in Fusion 360 is also available. Using the power of Generative Design, you can discover lots of details on how to use Fusion 360 to create a specific product. No matter if you’re a beginner or a seasoned veteran, this will be a detailed course that everyone can understand. Come along for an action-packed 90 minutes of learning, and find out how to create a design using Generative Design in Fusion 360!

While it's not directly shown, it's likely that the teachers at Hogwarts used a lot of magic to make quick work of the mundane prep for their classes. This session will review applications of generative design from the standpoint of the graph author rather than the user. Using Generative Design in Revit software, we'll use our own brand of magic to find the optimal seating chart in potions (Revit integration), lay out the care of magical creatures OWL on the Hogwarts grounds (FormIt 360 software), and design the layout for the campgrounds at the Quidditch World Cup (Civil 3D software). This magic may not be as old as what the students at Hogwarts learn, but it will still help move your Revit, FormIt 360, and Civil 3D work to the next level via Generative Design in Revit!

Integrating building performance analysis results in the early stage of conceptual design supports effective design exploration and decision making. Such integration requires domain expertise and can be technically challenging, time consuming, and computationally expensive. Machine learning demonstrates great potential for building seamless workflows that provide faster analysis feedback. However, one of the challenges in the architecture domain is the lack of diverse data sets to train effective prediction models. This talk will provide a brief overview of the potential of machine learning in building analysis-prediction models and demonstrate how we can capitalize on generative design to compensate for the lack of data. We will present a workflow where generative design features for Revit software, Dynamo software, and Insight software are used to generate a synthetic data set for training a machine-learning model for energy-analysis prediction.

The South China University of Technology (SCUT) robotic team never stop seeking brand-new solutions for improved efficiency and quality workflow from design to manufacturing. Zhen-Po led his team, the South China Tigers, to a first-place RoboMaster 2019 regional championship through the adoption of generative design tools in Fusion 360 software. Zhen-Po was hired by the RoboMaster’s organizer, DJI, an electronics manufacturer in China after graduation. Combining 27 parts to only a single part for the stabilizer mount achieved a final weight of 170 grams—a 42% weight reduction compared to the original computer numerical control (CNC) process. Reducing the material waste while enhancing the strength by generativity adding support, therefore reducing the mass of the robot while ensuring structural integrity, the mechanical team’s entire iterative cost was reduced by 80%, which would not have been possible before.