Стояла цель создать комплексную BIM модель реконструируемой золото извлекающей фабрики с последующим внедрением эксплуатационных характеристик технологического производства. Основная сложность, с которой мы столкнулись – это насыщенность инженерных систем, уникальность каждого элемента, а также сложность технологического процесса. Для данной задачи была задействована связка Autodesk ReCAP, Autodesk Revit, Inventor, Autodesk CFD, Plant 3D, Autodesk Civil 3D. В процессе работы было создано...

Оценка энергетических процессов проектируемого объекта на самых ранних стадиях помогает не только сократить затраты на проектирование и строительство, но и сэкономить при дальнейшей эксплуатации. Для решения данной задачи применяются технологии BEM и CFD. Материал построен на основе многолетнего опыта компании ""БЮРО ТЕХНИКИ"" в энергетическом моделировании и создании комфортной среды в проектируемом объекте.

Autodesk недавно выпустила новую коллекцию продуктов Product Design and Manufacturing Collection (PDMC), предлагающую пользователям беспрецедентный уровень функционала для решения сложнейших инженерных задач. Добавив в набор продуктов Autodesk Nastran In-CAD, Autodesk открыла пользователям коллекции дверь в расширенные мульти-физические расчеты, соединив в одном продукте инструменты анализа напряжений (FEA), вычислительной гидрогазодинамики (CFD) и моделирования процессов литья из пластмасс...

The integration of artificial intelligence (AI) into design and engineering is revolutionizing the development process by accelerating development cycles. AI driven processes empower designers and engineers to create, evaluate, and optimize products with unparalleled efficiency: Better products faster.

Autodesk CFD это простой и мощный инструмент, который позволяет решать множество задач, стоящих перед проектантами строительной сферы. Например внешняя аэродинамика зданий и целых кварталов и сооружений при разных погодных условиях. Это позволяет оценить уровень ветровой нагрузки на элементы конструкции, определить комфорт пешеходных зон, найти зоны застоя - "ветровые тени", энергоэффективность зданий и множество других задач. Применим Autodesk CFD и для решений задач "внутренней" аэродинамики. Именно это даст возможность решить задачи эффективной вентиляции, оптимизировать температурные режимы и правильно разместить оборудование для отопления или охлаждения

Повышение инновационности проектов с помощью предварительных виртуальных испытаний; С помощью предварительных виртуальных испытаний конструкторы и инженеры по всему миру способны выбирать наилучшие из возможных решений. «Future of Making Things» будет требовать от проектных команд максимальной подвижности, чтобы быстро меняющиеся требования заказчиков могли быть оперативно учтены и интегрированы в их ведущие разработки без критических затрат и задержек вывода продукта на рынок...

One of the main development efforts regarding Autodesk CFD software has been to reduce time that users spend on the tasks of altering geometry and meshing. There have been several new major features and tools added to the product as part of this focus. The aim of this class is to inform and teach about how to gain productivity and greatly reduce your model-preparation time using these new tools. This class will include instructional demonstrations on how to use the new Surface Wrap tools, Model Assessment Toolkit, and SimStudio Tools for Autodesk CFD software. We will show a live demonstration of these tools in action. There will also be some demonstration of further enhancements for geometry and meshing available in the Autodesk CFD 2017 Beta software scheduled to be available at the time of Autodesk University 2015.

Energy efficiency, safety, and technology integration are fundamental aspects in architecture, engineering, and construction (AEC) design and analysis. Explore how Autodesk and Ansys are advancing innovation in AEC through highly effective tools that streamline the application of powerful modeling and simulation technologies. By integrating AutoCAD and Revit with Ansys's simulation offerings, complex simulations are accelerated and simplified. Advancements in numerical simulation—like graphics processing unit (GPU) acceleration and new computational codes—boost computational fluid dynamics (CFD) and electromagnetic (EM) analyses, enabling more-detailed simulations and full-field EM solutions. We'll look at how these integrated solutions improve domain-specific applications, including HVAC system optimization, atmospheric modeling, indoor air-quality assessments, and 5G/6G channel predictions, showcasing the benefits of the Autodesk and Ansys collaboration for accuracy and interoperability in AEC and health and safety.

Join Mika Kazassoglou—an 18-year-old high school student from Liverpool, England—in exploring the use of software such as Autodesk Fusion, Revit, Autodesk CFD, and Dynamo to craft a unique solution for a local housing project. This session will offer a glimpse into his growth as a young, aspiring engineer, showcasing how he used these powerful tools to hone his skills. His project draws inspiration from sustainable design principles, incorporating elements from Passive House methodology to tackle energy efficiency and elevate living standards. He'll showcase the intricacies of his design process, looking at how Dynamo facilitated the creation of a distinctive roof model and how CFD analysis was used to assess its performance. Above all, this session will serve as a testament to the transformative potential of technically driven education, supported by Autodesk. It's a narrative of learning from mistakes, refining skills, and, ultimately, evolving into a more adept engineer.

In this class, we will present the use of Autodesk CFD for a new building project with a goal for net-zero energy compliance. The building and construction industries are responsible for about 40% of the global energy use and about 30% of the global carbon emissions, contributing to climate change. Energy-optimized building design is one of the green building principles that, by 2030, could reduce the carbon footprint and achieve reduction of building-related emissions by 50%—and deliver net-zero buildings by 2050. In an endeavor to design energy-efficient buildings, adoption of new technologies for enhancing indoor environment quality, thermal quality, and lighting quality are imperative. And implementation of such technologies needs validation for performance. Modeling and simulation software such as Autodesk CFD could be used to estimate the performance of the built environment and compare different design decisions in order to realize the opportunity to reduce energy consumption and, therefore, carbon emissions.

How can large, multidisciplinary projects be delivered in a streamlined and efficient way? Using the example of a recently delivered design of a 96,000-seat stadium featuring an enormous cable net roof, Mark will outline a unique approach to planning and implementing robust and efficient workflows that embrace the latest technological developments. The project was anchored in Autodesk Revit and Revit’s flexibility and openness was exploited to document and communicate a fully integrated building design with highly complex and irregular geometry. The class will introduce the application of “mass bespoke” thinking to a construction design project outlining how a change of mindset can demonstrably increase productivity and resilience to change. This class will change the way you think about design.

In this class, we will cover applications of Autodesk CFD Simulation software for sustainable design in the architecture, engineering, and construction (AEC) industry. You will learn how Autodesk CFD is used in the AEC design process. We will cover case studies involving the following: energy-efficient ventilation design for a large sports stadium facility; indoor thermal comfort using energy-efficient displacement ventilation for a large convention center foyer occupied by people; wind-loading analysis to simulate wind pressure and resultant structural loading on an airport façade and roof; and optimization of storm-water roof-drainage design using free surface flow. You will learn how the air flow and thermal simulations capabilities of Autodesk CFD are used to demonstrate performance for sustainable design.

The interoperability between Autodesk Revit and Autodesk CFD can be challenging in a number of areas. Most Revit design models typically contain a high level of detail for construction, gaps in geometry, clashes, and other unresolved conflicts that can create issues when imported to the CFD environment. In this session, participants will learn how to develop and maintain a Revit model for geometry creation suitable for Autodesk CFD analysis using industry best-practices, and review examples of the type of Revit geometry that can be repurposed and what should be replaced. The session will also present methods of leveraging Revit's powerful data, visualization, coordination, and documentation functionality to enhance CFD development, design coordination, data management, and reporting.

Static and mobile laser scanning technologies capture millions of points and provide photorealistic interactive virtual sites known as point clouds. With ReCap 2014 software, you can work with millions of points to extract vital information. ReCap provides a streamlined approach to processing and preparing reality capture data. Join Chad Studer and 2 other reality capture experts as they demonstrate the most common and advanced innovative technology-led workflows with real-world examples. We use Building Design Suite to illustrate scan-to-BIM workflows, CFD analysis, and rapid energy modeling. In Factory Design Suite, we use point clouds for interactive equipment layout in AutoCAD® Architecture software and Inventor® software and for clash detection in Navisworks® software. In Infrastructure Design Suite, we demonstrate importing a project into InfraWorks™ for conceptual site design

3ds Max software has a unique ability in that it can consume and output more data than any other application within the Autodesk, Inc., portfolio. In this class, we will explore how we can use 3ds Max software as a design hub. We will import real-world content from applications such as InfraWorks software and others. Then we will create physically accurate wind simulations using Autodesk CFD software (formerly known as Simulation CFD software). We will send these simulations to 3ds Max software for visualization purposes. Lastly, we will send everything to Stingray game engine to create an interactive and immersive experience. This session features 3ds Max and Autodesk Stingray.

In this round-table discussion we will briefly give an overview of the Autodesk, Inc., engagement in the various industry consortia and the existing interfaces for the process plant industry and the oil and gas industry. We would like to learn which interfaces and data formats you're using when you exchange PIDs, line lists, bills of materials, 3D piping, steel, and equipment models with all the associated data. Which interface are you using to receive data from FEED (front end engineering design) and to hand over to stress calculation, project management, and procurement system? Which standards are useful, which have obstacles? What can Autodesk and other software vendors do to enable a better collaboration? Which industry activities and standards should we support? Come and let us know.

This class will walk though techniques for preparing geometry for simulation. We'll cover hints that will help you to identify potentially problematic areas, and then we'll show you how to quickly repair models, remove unneeded detail, and optimize the geometry in a way that will help you to create a high-quality finite element analysis (FEA) or computational fluid dynamics (CFD) mesh.

This class will work through the process of using Simulation CFD software and Simulation Mechanical software to generate engineering data throughout the product development process in order to optimize the design. You will discover that you don't need to be an analyst or expert in finite element analysis (FEA) or computational fluid dynamics (CFD) to use the Simulation software as many engineers still believe today. We will walk through the entire process of setting up and running simulations that examine how the effects of wind may directly affect mechanical properties, performance, and product design.

In this class, we start with an overview of how simulation can be used during the complete design process. Simulation enables our customers to stand out from their competition because they can be more innovative and get to market faster while ensuring product quality. We cover several tools, including Autodesk® Force Effect™ and Dynamic Simulation in Inventor® 3D CAD software. We look at sloshing by performing a CFD analysis with Autodesk® Simulation CFD software, and we use Autodesk® Simulation Mechanical software to analyze vibrations.

This class will walk though techniques for preparing geometry for simulation using SimStudio Tools. We'll cover hints that will help you to identify potentially problematic areas, and then we'll show you how to quickly repair models, remove unneeded detail, and optimize the geometry in a way that will help you to create a high-quality finite element analysis (FEA) or Computational Fluid Dynamics (CFD) mesh.