Draw, Design, and Document Your Structural Projects

In this lecture, you will explore the central component of Revit's user interface known as the ribbon. The ribbon organizes tools thematically to streamline your workflow, similar to Microsoft Office applications. This structure groups related tools into panels under various tabs, making it easier to locate and use specific functions for different disciplines.

Focusing on structural design, you will navigate to the Structures tab where tools for drawing elements like beams, columns, and reinforcement foundations are found. Understanding how the ribbon groups these tools will help you efficiently identify where to find the functionalities needed for your projects.

Additionally, you will learn about ribbon features that improve usability, such as tooltips with descriptions, usage examples, and keyboard shortcuts. You'll also discover how to minimize and restore the ribbon size to optimize your workspace, especially on smaller screens.

Key topics covered in this lesson:

• The purpose and structure of the ribbon interface in Revit.

• Locating and using panels and tools within the Structures tab.

• Using tooltips and keyboard shortcuts to improve speed and understanding.

• Managing ribbon size with the minimize panel functionality.

Practical value for structural design with Revit:

• Quickly access structural modeling tools organized by discipline.

• Save workspace space on different screen resolutions by managing the ribbon.

• Enhance efficiency through keyboard shortcuts and contextual help.

By the end of this lecture, you will be familiar with navigating the ribbon interface, allowing you to efficiently locate and use the essential tools for structural projects within Revit.

This lecture continues exploring the user interface of Revit Structure, focusing on key components that facilitate efficient modeling and project management. It highlights essential interface elements such as the application menu (the "R" button), the properties panel, workspace, and project browser, explaining their roles and how to interact with them.

The interface workflow centers on how these components interconnect to provide a seamless experience when creating and managing structural models. Learners are introduced to property management of both instance and type parameters for structural elements like beams, as well as navigation techniques in 2D and 3D views to improve modeling precision and control.

Understanding how Revit automatically synchronizes views and supports both typical and analytical models is emphasized, preparing learners to effectively use BIM workflows in structural design.

Key topics covered in this lecture:

• Use of the Revit application menu and its commands for file management.

• Properties panel navigation and editing instance versus type parameters.

• Workspace navigation tools including 2D pan, zoom, and 3D rotation.

• Project Browser overview for managing views like levels, elevations, and 3D models.

• Differences between typical and analytical structural views in Revit.

Practical value for structural design using Revit:

• Gain confidence navigating Revit's user interface efficiently.

• Learn to control properties of structural elements for precise modeling.

• Understand how to switch between visual and analytical models for accurate structural analysis.

• Develop skills to manage multiple views and coordinate BIM data seamlessly.

By the end of this lesson, learners will understand the fundamental components of the Revit user interface relevant to structural design. They will be able to confidently navigate the workspace, manage element properties, and utilize both typical and analytical views to enhance their BIM modeling workflow.

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In this lecture, you will learn how to effectively apply a structural template within the Revit environment to prepare your project for structural design. Establishing the correct template at the start is essential as it sets the default parameters specifically tailored for structural work, differentiating these from other templates like electrical or mechanical installations.

The workflow includes locating the template files on your system, adding new custom templates, and understanding the importance of using a structural analysis template for projects focused on building structures. This foundation allows you to streamline the design process by ensuring all key structural elements and parameters are automatically configured.

Once the structural template is applied, you will explore how Revit distinguishes structural plans from architectural ones and how the software provides both volumetric and analytical views. The analytical view simplifies structural analysis through a 2D and 3D representation of beams, supports, and load positions.

Key topics covered in this lecture:

• Locating and adding structural templates in Revit

• Selecting the Structural Analysis Default Metric template

• Renaming and saving templates for easy identification

• Creating new projects based on structural templates

• Understanding structural versus architectural project plans

• Using analytical views for beams and load positions

Practical value for structural project design:

• Ensures correct setup of structural parameters from the project start

• Facilitates seamless integration of structural analysis tools

• Improves workflow efficiency by using predefined templates optimized for structures

• Enables clear differentiation between architectural and structural components in the model

By the end of this lesson, you will be able to confidently apply and manage structural templates in Revit, setting your projects up for accurate design and analysis using the correct parameters and views essential for structural engineering workflows.

This lesson covers how to create construction grids and levels in a new Revit project using a pre-existing Structural Analysis template. Starting from the basic setup, you will learn to lay out construction lines along the X, Y, and Z axes, which are essential for defining the project's structural framework.

The process begins by creating and naming grid lines on the horizontal plane, ensuring proper alignment and spacing based on project data. After establishing the grids, you will verify and adjust their distances using dimensioning tools. Next, the course guides you through switching project units from millimeters to meters to match your reference files.

Finally, the lesson explains how to set up elevation levels along the Z axis, creating multiple levels and configuring their heights to suit the structural design requirements. All steps include practical use of Revit shortcuts and tips for clarity and organization within the project environment.

Key topics covered in this lecture:

• Creating and naming construction grids on X and Y axes

• Using the Grid tool and managing grid annotation bubbles

• Dimensioning and verifying grid spacing with the Align tool

• Changing project units from millimeters to meters

• Setting up elevation levels along the Z axis

• Adjusting level heights to match design specifications

• Organizing elevations for better visualization

Practical value for structural project design:

• Define accurate structural construction lines for project layout

• Ensure consistent measurement units aligned with project data

• Use dimension tools to maintain precise grid spacing

• Create multiple elevation levels to represent building floors

• Enhance project organization through effective view management

By the end of this lesson, you will be able to efficiently set up construction grids and levels in Revit according to your project’s design data, ensuring a solid foundation for structural modeling and documentation.

In this lecture, you will learn the essential first step in structural modeling by placing columns in your project using Revit. Understanding how to position columns accurately is critical, as they form the backbone of your building's structure and influence the overall design workflow.

The lecture guides you through using the column placement tools available within Revit's Architecture and Structure tabs, focusing on the difference between structural and architectural columns. You will explore the features of placing both vertical and inclined columns while managing their levels and heights.

You'll also learn how to work efficiently with multiple column placements at grid intersections and customize column types, such as changing dimensions to fit specific project requirements. This hands-on session ensures you understand how to control the analytical and conceptual aspects of columns in your modeling process.

Key topics covered:

• The distinction between structural and architectural columns in Revit.

• Using the structural column tool and accessing it via keyboard shortcuts.

• Understanding and applying placement options such as depth, height, and inclined columns.

• Utilizing the contextual tab and status bar for precise column positioning.

• Placing multiple columns along grid intersections.

• Editing and duplicating column types to modify dimensions.

• Working with concrete and steel column profiles.

Practical value for structural design projects:

• Accurately place and modify structural columns to create an effective analytical model.

• Optimize your workflow by using multiple placement tools and keyboard shortcuts.

• Customize column sizes to suit varied structural needs in your projects.

• Improve project documentation with precise structural element placement.

By the end of this lesson, you will understand how to efficiently place, configure, and customize structural columns in Revit, setting a strong foundation for your structural project modeling and analysis.

After placing the structural columns, the next important step in your project workflow is to place the horizontal elements, starting with the beams. This lecture guides you through the beam placement tools found in the structure tab, explaining key options such as different structural uses and visualization modes available in Revit.

You will explore practical functionalities like 3D snapping and the chain option, which streamline beam placement by linking multiple beam segments efficiently. The lecture also covers how to switch between different viewing modes—analytical and architectural level views—to understand how beams are visually represented and why this matters for your design and documentation.

Additionally, you will learn how to place beams on grids automatically and adjust their types and structural uses for clarity in your model. The tutorial demonstrates changing beam profiles, for example, transforming steel profiles into concrete sections, and adjusting beam elevations to align correctly with columns across levels.

Key topics covered:

• Accessing and using the beam placement tool and shortcut keys.

• Understanding structural use options for beams, including girder, bracing, joist, and purlin.

• Working with 3D snapping and chain command for efficient beam drawing.

• Distinguishing between analytical and architectural views of beams.

• Placing beams on grids and verifying their types.

• Changing beam profiles and adjusting their elevation levels.

• Using selection filters to modify beam properties efficiently.

Practical value for structural project design:

• Enhances accuracy and speed in placing horizontal structural elements in Revit.

• Improves model clarity by properly categorizing beam types and structural roles.

• Facilitates correct 3D visualization and documentation alignment with real-world construction levels.

• Supports better integration with structural analysis software through correct analytical modeling.

By the end of this lecture, you will understand how to effectively place and manage beams in your Revit structural model, ensuring accurate representation and alignment with project requirements. You will be equipped to create structurally sound beam layouts that integrate seamlessly with vertical elements and prepare your model for further analysis and documentation.

This lecture introduces the tool for creating beam systems in Revit, a fundamental feature for designing structural belts with rib slabs or steel girders. To begin, the process involves customizing concrete beam profiles to fit typical construction dimensions, such as altering the height and thickness to suit project requirements. This setup ensures the beam system accurately reflects real-world structural elements.

After adjusting beam profiles, we explore multiple ways to generate beam systems, including automatic creation by selecting existing beams and manual sketching using drawing tools. Focus is given to the automatic method, explaining how beams are placed according to selected spacing, justification, and profile options. Customizing distribution features, such as fixed distances aligned with block sizes, helps achieve precise layout control.

Visibility options for analyzing the created beam systems in 3D views and structural calculations are covered, highlighting how Revit represents both modeling and analytical elements. The editing capabilities for beam systems allow modifications to profiles, spacing, and justification, ensuring flexibility in adapting designs as needed.

Key topics covered:

• Customizing concrete beam profiles for structural use

• Automatic versus manual beam system creation

• Configuring beam spacing, justification, and profile choices

• Understanding modeling and analytical beam elements in Revit

• Editing beam system parameters post-creation

• Visualizing beam systems in 3D views

Practical value in structural design:

• Efficiently create rib slab and steel girder beam systems

• Adjust beam layouts to match standard block and construction sizes

• Use beam systems to streamline structural modeling and documentation

• Ensure analytical accuracy for structural calculations

By the end of this lecture, learners will be able to set up and customize beam systems in Revit to represent real structural components accurately, improving the efficiency and precision of their structural designs.

In this lecture, we focus on creating horizontal panels that represent the floors of a structure using Revit's structural floor tools. You will learn how to select the appropriate floor type for your project, including structural floors that may have metallic soffits or solid concrete, ensuring they meet your design requirements.

We explore the process of customizing floor thickness by duplicating and editing floor types to suit specific structural needs, such as reducing thickness from 30 cm to 10 cm. The lesson also covers creating floor edges by drawing lines, forming shapes, and selecting supporting elements like beams to define the floor boundaries accurately.

Additionally, you will understand how to adjust floor placement with precise offsets and verify the floor’s correct relationship with supporting beams in both 3D and analytical views. The lecture concludes with creating sectional views to confirm the proper integration of floor joists and slab elements in your structural model.

Key topics covered:

• Structural floor tool types and selection in Revit.

• Duplicating and modifying floor types for customized thickness.

• Creating floor boundaries by drawing and selecting supporting beams.

• Applying offsets for accurate floor positioning.

• Inspecting floors in 3D and analytical views.

• Generating sectional views to check floor-beam connections.

Practical application in structural design:

• Efficient floor creation tailored to structural requirements.

• Accurate placement and thickness adjustment of floors.

• Seamless integration of floors with structural beams for modeling accuracy.

• Verification techniques to ensure structural integrity in BIM projects.

By the end of this lecture, you will be able to create and customize structural floors, place them accurately within your model, and verify their connections and alignment with supporting elements using Revit's tools, enhancing your ability to produce precise structural documentation.

In this lecture, you will learn how to add bracing elements, also known as transverse stiffeners, to your structural projects using Revit. This step is essential for creating stability in your porch structures by either placing braces in 2D or 3D views, depending on your design workflow. The brace tool is conveniently located in the Structures tab under the structure panel, allowing you to place stiffeners precisely at different levels.

The instructor guides you through the process of sketching braces starting from the base of a column at level one to the top of level two, while explaining how to configure offsets and select appropriate profiles such as preloaded double angular profiles. You will also see how to verify the placement and analyze the analytical and model views, understanding potential mismatches due to offsets and beam placements, which are normal and indicate correct functionality.

Beyond simple placement, this lecture covers advanced options such as creating concentric bracing frames with midpoint snapping tools and using keyboard shortcuts to align braces correctly. The instructor also demonstrates how to use snap tools within the 3D view to place braces accurately in three dimensions, which can be particularly helpful when working with complex structures.

Key topics covered in this lecture:

• Locating and using the transverse stiffeners (brace) tool in Revit.

• Placing braces in both 2D and 3D views.

• Configuring offsets and selecting brace profiles for design.

• Understanding analytical vs. model view mismatches and their significance.

• Using midpoint snapping and keyboard shortcuts (like S and Tab keys) for precise brace placement.

• Working with concentric braces and verifying placements.

• Using the Manage tab to access and understand snapping settings.

Practical value in structural design:

• Enhances structural stability by correctly adding transverse braces.

• Improves precision and efficiency in placing braces using snapping tools and shortcuts.

• Facilitates three-dimensional bracing placement for complex structural elements.

• Helps in verifying and troubleshooting bracing connections via analytical views.

By the end of this lesson, you will be proficient in adding and managing bracing elements in your Revit structural projects, utilizing both 2D and 3D views and snapping techniques to ensure structural accuracy and design efficiency.

In this lesson, you will learn how to place trusses and lattices within your building model using Revit. The session begins with an overview of different truss types already loaded into the project file, including Fink, Howe flat, Howe gable, 8-panel plat flat, and Warren trusses. You will explore the process of placing a truss by accessing the Structure tab and selecting the truss option from the structure panel.

The lecture guides you through important parameters for truss placement, such as selecting the correct level or placement plane and drawing the truss’s lower chord line. Specific properties such as truss height and type are explained in detail, including how to customize profiles for the top chords, vertical webs, diagonal webs, and bottom chords. You will also see how to configure rotation angles and degrees of freedom for each element.

Further, you will learn how to edit a truss family to customize internal components like chords and webs within the Revit family editor. After modifying a truss design, you'll see how to load it back into the project and observe the changes applied in the 3D analytical view.

Key topics covered in this lecture:

• Accessing and placing different types of trusses in Revit

• Setting placement levels and drawing placement lines

• Adjusting truss height and type properties

• Customizing structural framing profiles for chords and webs

• Editing truss families to modify internal components

• Loading edited trusses back into the project

• Reviewing trusses in analytical 3D views

Practical value for structural design:

• Enable precise placement of trusses aligning with project levels

• Customize truss components to fit specific structural requirements

• Enhance design flexibility by editing and creating truss family components

• Improve visualization and verification of truss configurations in 3D views

By the end of this lecture, you will be able to place, customize, and modify trusses within your structural projects using Revit. You will understand how to control truss parameters and edit families to tailor truss designs according to your needs, enhancing the quality and accuracy of your structural models.

In this lecture, you will learn how to create and place structural walls in Revit, a key component for structural projects. These walls are an extension of the standard wall tool used in architecture but include parameters specifically designed for structural applications like load-bearing and shear functions. The focus is on understanding the structural wall settings and how they differ from architectural walls within the software.

The workflow emphasizes configuring the wall properties correctly, including levels and heights that suit structural requirements, and working efficiently within the analytical model view. This ensures that the walls behave correctly in structural analysis and interoperability when exporting the model to calculation software.

You will also explore how to visualize and manage structural walls in both plan and 3D analytical views, giving you the tools to ensure your structural model is consistent and integrated with the rest of the project.

Key topics covered in this lecture:

• Difference between architectural and structural walls in Revit

• How to set structural wall parameters via the Structure tab

• Configuring initial and top levels for structural walls

• Using the analytical model to place and review walls

• Changing structural wall usage types: bearing, shear, and combined

• Export considerations for structural walls in calculation programs

• Adding and coupling multiple structural walls in the analytical model

Practical value in structural BIM design:

• Enables precise placement and configuration of structural walls aligned with structural engineering requirements

• Facilitates accurate analysis in Revit’s analytical model and downstream calculation software

• Improves documentation of structural elements with distinction from architectural walls

• Supports integration of structural data for workflow efficiency and project consistency

By the end of this lesson, you will understand how to effectively create and manage structural walls in Revit, ensuring they are properly set up for analysis and export. This foundational skill enhances your ability to deliver comprehensive structural models suitable for professional structural project workflows.

This lecture focuses on using Revit's structural tools to create a comprehensive foundation system. You will learn how to model essential foundation components, including pedestals and isolated footings, and explore the associated workflow practices during their placement and configuration.

Starting from setting up the appropriate levels related to foundations, we address the creation and adjustment of elevation views and grids to align with the substructure needs. Key attention is given to managing foundation depths and dimensions in accordance with practical structural guidelines.

Additionally, the lecture covers best practices in preparing a foundation plan within Revit, highlighting how to effectively duplicate views and adjust view ranges to visualize all foundation elements properly before exporting or plotting the plan for documentation.

Key topics covered in this lecture:

• Creating and managing foundation levels such as pedestal and footing in elevation views.

• Configuring grid adjustments to align with new foundation levels for accurate placement.

• Modeling structural columns (pedestals) and isolated footings with customized dimensions.

• Placement of brace beams and integrating them into the foundation system.

• Duplicating floor plans and modifying view ranges to display footings and beams correctly.

• Preparing the foundation plan for plotting and export using Revit's tools.

Practical value in structural design using Revit:

• Enables efficient modeling of detailed foundation systems adhering to engineering depth criteria.

• Improves accuracy when placing pedestals, footings, and brace beams on construction grids.

• Facilitates the creation of comprehensive foundation plans suitable for professional documentation and project coordination.

• Supports better visualization and control over substructure elements through customized view management.

By the end of this lesson, learners will understand how to set up foundation levels, accurately model foundations and brace beams, and prepare detailed foundation plans in Revit. This sets a solid groundwork for subsequent structural modeling and analysis tasks in your projects.

In this detailed lecture, you will learn how to introduce metallic reinforcements into concrete structural elements using Autodesk Revit Structure. The lesson begins by exploring the 3D model containing various elements like columns, slabs, walls, and footings, setting the stage for applying reinforcements effectively. The instructor emphasizes the importance of creating a section view that cuts through the middle of an element to better visualize reinforcement placement.

We then navigate through Revit’s interface, particularly the Structure tab under the Reinforcement panel, gaining hands-on access to tools designed for metal reinforcement placement. One of the first technical considerations covered is the rebar cover, which is the distance from the outer face of the concrete element to the steel reinforcement. This cover varies depending on environmental factors such as terrain contact or corrosive conditions, and the instructor shows how to define and customize these settings to comply with project requirements.

The core part of the class focuses on using the Structural Rebar tool, which is one of Revit’s most powerful options for placing reinforcement bars. Learners will see how to select from a variety of standard rebar shapes, including common configurations like transverse stirrups (MT1) and longitudinal bars with different hooks (90 and 180 degrees). The lecture covers various placement options such as parallel or perpendicular to work planes and how to control bar layout with spacing settings — including fixed number, maximum spacing, and minimum clear spacing.

There is also practical guidance on adjusting rebar diameters to meet regional standards. The instructor demonstrates how to duplicate existing bar types and customize their diameter, switching between European and imperial nomenclature, which ensures flexibility and regional adaptation of the reinforcement details. Strategies for filtering and selecting specific rebar types within the model are also shown for efficient workflow management.

Next, the lesson introduces area reinforcement for longitudinal elements like walls or wall-like pedestals. The process involves switching to the correct orthogonal view and defining hook types, bar sizes, spacing, and coverage. This automated method simplifies mesh-like reinforcement placement, especially for large planar surfaces such as slab foundations.

The course also touches on structural fabric area reinforcement for electro-welded meshes. Learners see how to place these meshes both at the bottom and top of slabs, specifying mesh spacing and ensuring proper location with respect to the slab thickness. This method is useful for providing uniform reinforcement across slabs with minimal manual input.

Finally, the lecture covers structural path reinforcement, an advanced tool for placing reinforcement bars along paths such as slab corners or wall edges. Learners will practice customizing bar lengths, spacing, and diameters for these specialized reinforcements, expanding their ability to model complex reinforcement layouts efficiently. The class concludes by showing a practical example of placing stirrups and longitudinal bars inside column sections, demonstrating the speed, accuracy, and quantification capabilities that Revit provides for structural reinforcement modeling.

Key Topics Covered:

• Understanding the 3D structural model with various concrete elements

• Using section views to facilitate reinforcement placement

• Defining and customizing rebar cover according to environmental conditions

• Working with Structural Rebar tool and the Rebar Shape Browser

• Placement options: parallel, perpendicular, fixed number, and spacing controls

• Customizing rebar types and diameters for regional standards

• Applying area reinforcement for walls and slabs

• Using structural fabric area for electro-welded mesh reinforcement

• Implementing structural path reinforcement for slab corners and edges

• Reinforcing column sections with stirrups and longitudinal bars

Practical Value in Structural BIM Design:

• Enables precise modeling of metal reinforcement within concrete elements

• Improves compliance with environmental and construction standards through customizable cover settings

• Simplifies complex reinforcement configurations with intuitive placement tools

• Facilitates regional adaptation of reinforcement specifications by modifying bar types and diameters

• Enhances project detailing with area and fabric reinforcement methods for slabs and walls

• Supports advanced reinforcement layouts such as structural paths to reinforce critical zones

• Quantifies reinforcement automatically, streamlining documentation and material estimation

• Integrates smoothly within BIM workflow to support structural design accuracy and efficiency

After completing this lecture, you will be proficient in placing and customizing metallic reinforcements for a wide range of concrete structural elements using Revit Structure. You will understand how to optimize reinforcement placement for durability and code compliance, manage various bar types and spacing, and apply different reinforcement strategies suited to both simple and complex structural needs. This knowledge will empower you to create detailed, quantifiable reinforcement models that enhance the quality and efficiency of your structural design projects.

This lecture focuses on the integration between Revit Structure and Robot Structural Analysis Professional, a specialized Autodesk software for advanced structural calculations. The connection process starts within Revit by using the Analyze tab, specifically the Structure Analysis panel, enabling the exchange of information between the two programs. This integration extends the capabilities of Revit by allowing users to perform more detailed and code-checked structural analyses in Robot.

Initially, the lecture explains the prerequisites such as the installation of the Structure Analysis panel, which can be obtained for free from the Autodesk App Store if not already present. The main workflow emphasizes the bidirectional evaluation process where users can either send their structural model directly from Revit to Robot or receive updated analysis results back into their Revit project, facilitating an interactive design and verification cycle.

Two primary analysis methods are discussed in detail: the Analyze in Cloud feature and the Robot Structural Analysis link. The Analyze in Cloud option offers a quick way to generate static load data via Autodesk servers but lacks code verification capabilities. In contrast, Robot Structural Analysis provides a comprehensive platform supporting structural calculations with code compliance for steel, concrete, and wood structures, supporting load evaluations, reinforcements, and normative checks crucial for professional structural engineering practices.

Users are guided through the options for sending models to Robot. There is a distinction between direct integration—opening Robot and automatically transferring the model—and exporting an intermediate file (.smxx) for external sharing and multi-user workflows. Practical considerations such as selecting specific elements to export or managing own-weight load cases during transfer are also covered to help tailor the exchange to project needs efficiently.

Upon transmitting the model, the user can verify the export process through status messages detailing the elements, loads, load cases, and edge conditions successfully transferred. Once opened in Robot, the full model, including structural plants and load combinations, appears ready for further analysis. The lecture briefly touches on running analyses within Robot and demonstrates how completed calculations, including element reactions and moments, can be imported back into Revit.

The return import feature is demonstrated with the Results Manager and Results Explorer in Revit, allowing visualization of the calculated forces, moments, and other structural responses within the BIM environment. This capability not only streamlines review and verification but also allows results to be graphically represented in structural drawings and plans generated from Revit, enhancing project documentation quality.

Throughout the lecture, clear technical decisions favor the use of Robot Structural Analysis for complex code-compliant verifications over the more limited cloud analysis. The workflow integration supports an efficient exchange of models and detailed data for better coordination, submission, and structural design validation in real-world projects.

Key topics covered in this lecture:

• Installation and access of Structure Analysis Panel in Revit

• Differences between Analyze in Cloud and Robot Structural Analysis

• Bidirectional integration: sending models and receiving analysis results

• Options for direct integration versus intermediate file export

• Selection of elements and loads for export to Robot

• Export confirmation and status reporting for successful data transfer

• Model setup and load handling in Robot Structural Analysis

• Running structural calculations in Robot Software

• Importing calculation results back into Revit

• Visualization of structural results using Results Manager and Explorer in Revit

Practical value in the domain of structural BIM design:

• Enables comprehensive structural analysis beyond Revit's native capabilities

• Supports code-based checks for steel, concrete, and wood structural elements

• Facilitates an efficient, accurate workflow to exchange models and results

• Reduces errors through integrated verification and interactive updates

• Improves collaboration between design and structural analysis software users

• Enhances the quality of structural documentation with verified results visualization

• Offers choice between cloud-based simple analysis or detailed Robot analysis depending on project complexity

• Supports multi-user workflows via intermediate file export option

By completing this lecture, learners will understand how to effectively link their Revit structural models with Robot Structural Analysis Professional to perform detailed and code-compliant structural calculations. They will gain proficiency in exporting models, running analyses, and importing results back into Revit for visualization and documentation, providing a powerful toolset to enhance structural design quality and productivity.

In this lecture, you will learn how to generate load cases essential for structural analysis within your Revit model. After having constructed most of the structural elements, the focus shifts now to analyzing the construction and analytical models effectively. This involves understanding the types of loads that act on the building and preparing the load cases accordingly.

We use the Analyze tab in Revit to access the tools needed to define loads. The lecture demonstrates how to create, configure, and assign different load cases by specifying load natures such as dead loads, live loads, wind, seismic loads, and more. You will also see how to customize and add new load types if needed, allowing you to adapt your model to a wide variety of building scenarios.

By using the Load Cases button, you open the Structural Settings where you can view predefined load cases and create new ones by assigning nature and category. This step-by-step approach ensures proper documentation and classification of loads in your project.

Key topics covered in this lecture:

• Accessing the Analyze tab and Load Cases tool in Revit

• Understanding load natures and categories

• Creating and managing load cases including dead, live, wind, and seismic loads

• How to delete, add, and duplicate load cases

• Customizing load types to match project requirements

• Importance of load classification for accurate documentation

Practical value for structural design with Revit:

• Enable accurate structural load modeling aligned with standards

• Improve analysis reliability by properly defining load cases

• Customize load definitions to fit diverse project needs

• Prepare your model for advanced analysis steps and integration

After completing this lesson, you will be able to confidently create and manage load cases in Revit, laying the foundation for detailed structural analysis that supports safe and code-compliant building design.

This lecture continues the exploration of structural loads by focusing on how to define load combinations within Revit. Building on the previous lesson that covered the creation of individual load cases, this class demonstrates combining these cases to analyze their cumulative effect on structural projects.

We begin by reviewing the load cases created in the Analyze tab under the Loads panel, such as Permanent Load, Variable Load, Roof Load, Wind, and Earthquake, each with unique categories and characteristics. The primary workflow involves adding new load combinations, defining multiplication factors according to engineering norms and building types, and inputting these combinations directly into Revit.

The session highlights the importance of referencing relevant codes and standards for load combination factors, which vary by material type—steel, concrete, or wood—and building usage scenarios. An Excel file example is shown to illustrate how different coefficients apply to load cases based on regional or American normative rules.

Key topics covered in this lecture:

• Review of load cases created in Revit.

• Navigation to the Load Combinations tab in Structural Settings.

• Creating and naming new load combinations.

• Understanding and editing formulas with factors for load cases.

• Applying normative coefficients depending on building material and use.

• Example of load combination entries for Permanent, Variable, and Roof loads.

• Brief introduction to integration with Robot Structural Analysis for advanced combinations.

Practical value in structural project workflow:

• Learn how to effectively combine multiple load cases for structural analysis.

• Understand the significance of load factors according to structural norms and materials.

• Gain skills to input and manage load combinations within Revit’s Structural Settings.

• Recognize when to leverage Robot Structural Analysis for advanced load combination management.

By the end of this lesson, learners will understand how to set up load combinations in Revit to reflect realistic structural scenarios accurately. They will be able to configure the necessary multipliers and prepare combinations that can later be integrated into more specialized structural analysis software for enhanced project accuracy and compliance.

In this lecture, you'll learn how to apply different types of loads to your Revit structural model, an essential step to simulate real-life forces and analyze the statics of your system. Proper load application is critical to ensuring your structural analysis is accurate and reliable.

The session introduces how to use the Loads tool located in the Analyze tab under the Loads panel. You will explore applying point loads, line loads, area loads, and hosted point loads, each corresponding to different physical forces acting on structural elements.

Understanding load placement is crucial, so you'll also learn how to configure the work plane correctly before applying loads to ensure they are positioned precisely where needed, such as on slabs, beams, or columns.

Key topics covered in this lecture:

• Accessing and navigating the Loads tool in Revit.

• Applying point, line, area, and hosted point loads to structural elements.

• Configuring work planes to accurately place loads.

• Adjusting load components including force vectors and moments in X, Y, and Z directions.

• Distinguishing uniform versus non-uniform line loads.

• Using analytical views to work with hosted loads on structural elements.

• Visualizing loads in 3D and associating loads with elements appropriately.

Practical value for structural design:

• Accurately model structural loads to simulate real forces on beams, columns, and slabs.

• Ensure structural analysis reflects real-world conditions by correctly placing and configuring loads.

• Use load customization options to refine force and moment components for precise simulation.

• Improve project documentation by clearly defining and visualizing applied loads.

By the end of this lecture, you will understand how to apply various loads on your structural model within Revit effectively, preparing you to perform comprehensive structural analysis and documentation with confidence.

In this lecture, we focus on defining edge conditions, a crucial final step in structural modeling to ensure stability. Edge conditions are restrictions applied to certain points, lines, or areas within the structure to prevent unwanted movements or mechanisms.

You will learn how to use the analyze tab to access boundary conditions in the Revit environment. The lecture explains three main types of edge conditions: point, line, and area, which correspond respectively to nodes, linear elements, and two-dimensional components in the model.

Through practical demonstrations, you will see how to configure properties such as fixed, pinned, roller, or user-defined for point conditions, controlling translations and rotations on different axes. Additionally, line boundary conditions often apply to beams, allowing specific rotational degrees of freedom. Finally, area boundary conditions, typically for floors or slabs, restrict translations around the element perimeter.

Key topics covered in this lecture:

• Understanding the purpose of edge conditions for structural stability

• Accessing boundary conditions in the analyze tab

• Configuring point boundary conditions: fixed, pinned, roller, and custom user settings

• Setting line boundary conditions and allowable rotations

• Applying area boundary conditions for two-dimensional elements

• Practical steps for assigning fixed supports to column bases

• Managing and cleaning up boundary conditions in the model

Practical value for structural design:

• Ensure accurate representation of support conditions in structural models

• Prevent unrealistic structural movements by correctly applying boundary restrictions

• Improve model stability before structural analysis processes

• Gain confidence in assigning supports to various structural elements effectively

By the end of this lesson, you will be able to confidently set and modify edge conditions in Revit, securing your structural model’s behavior and preparing it correctly for further analysis and design steps.

In this lecture, you'll learn how to model a complete commercial building using Revit, focusing on concrete structural elements. This practical example allows you to apply the drawing and design tools covered earlier in the course to a real project scenario. The building features a basement surrounded by structural walls, along with columns, beams, and slabs on the upper floors, offering a comprehensive practice opportunity.

The process begins by creating a new project based on a custom structural analysis template previously established in the course, reinforcing the importance of using templates to streamline your workflow efficiently. You will then work with downloadable referenced floor plans to reproduce the building accurately, starting with the second floor plan that serves as a repeated level throughout the building.

The lecture walks you through creating a complete grid system of 14 horizontal and vertical grids labeled A to G and numbered accordingly. Attention to detail is emphasized by verifying and adjusting project units to match the reference drawings, ensuring dimensional accuracy. You will learn how to quickly generate and dimension multiple grids in Revit to mirror the exact layout of the building's structural frames.

Next, the session focuses on placing structural columns according to the project's specifications. You explore loading and modifying column families, specifically creating a 70cm by 70cm concrete column type that fits the design requirements. Strategic placement of these columns is mapped out along grid intersections, including a careful approach to corners with inclined angles, demonstrating how to accommodate complex geometries in Revit.

Following columns, the lecture demonstrates the creation and placement of structural beams. You will design custom beam types with prescribed dimensions and draw beams within specified grid areas, coordinating with existing walls for a coherent structure. Revit’s intelligent interaction between beams and structural walls is explained, highlighting how walls act as load-bearing elements and prevent beams from overlapping them.

The lesson continues with the creation of structural walls differing in thickness for internal circulation (40cm) and external perimeter (70cm). You learn to duplicate and edit wall types efficiently and apply offsets to position exterior walls precisely using temporary reference lines. This step-by-step workflow teaches practical techniques to ensure exact placement and alignment matching architectural plans.

Throughout the lecture, emphasis is placed on detailed dimensioning and verifying locations using downloaded plans, enhancing your skill in interpreting real-world architectural and structural drawings within Revit. This project-based approach consolidates your understanding of concrete structural modeling, from grids and columns to beams and walls, building up a solid foundation for more advanced structural design tasks.

Key topics covered in this lecture:

• Using structural analysis templates to start a project.

• Importing and referencing floor plan drawings for modeling.

• Creating and dimensioning grid systems accurately.

• Loading, modifying, and placing concrete column families.

• Placing structural columns at grid intersections, including complex corners.

• Designing custom concrete beams and positioning them properly.

• Understanding interaction between beams and structural walls.

• Creating and editing structural walls with different thicknesses.

• Applying precise offsets and dimension control for wall placement.

Practical value in structural design with BIM:

• Hands-on experience reproducing a commercial building’s structural framework.

• Mastery of grid creation and dimensioning to ensure structural accuracy.

• Skills in managing and customizing Revit families for columns and beams.

• Strategies for modeling complex corner details and inclined geometries.

• Efficient workflow integration of beams and walls to create coordinated models.

• Techniques for using reference lines and offsets to place structural walls.

• Improved ability to interpret architectural plans and translate them to structural elements.

• Enhanced proficiency in combining Revit tools for a cohesive structural design.

By the end of this lecture, you will be capable of accurately modeling the primary concrete structural components of a commercial building using Revit’s tools and templates. You will understand how to systematically build grids, place columns and beams, and create structural walls, following real architectural blueprints. This foundational knowledge prepares you for advancing into more detailed structural design, analysis, and documentation stages within BIM workflows.

This lecture focuses on the continuation of creating a detailed concrete structural project using Revit Structure, emphasizing the placement and adjustment of columns, beams, levels, walls, windows, and slabs to mirror a real-world building design. It begins by identifying the missing elements such as columns and beams to complete the structural grid and ensure the building's framework is accurate and functional. The instructor demonstrates practical commands like using shortcuts (CL for columns and BM for beams) and explains the program's automatic placement features that simplify the initial setup of grids intersecting with structural elements.

Next, the workflow highlights how to adjust grid lines and beam placements to accommodate structural overhangs and angles. Specific attention is given to beam lengths and placements, including creating diagonal beams for stability and how to copy and replicate beams efficiently across the grid, saving significant modeling time. Details such as beam dimensions (e.g., 2 meters, 3 meters, 1.5 meters) and relative positioning reflect real architectural requirements and structural coherence.

The lecture then shifts focus to setting and modifying building levels, a crucial step before duplicating structural elements vertically. It covers naming conventions for levels to maintain clarity and order in multilayer structures and how to set accurate vertical distances between floors. The instructor explains how to stretch grids and levels properly and adjust structural walls to fit these changes, ensuring the base and top offsets are correctly aligned. This approach not only keeps the model organized but also makes it easier to copy and extend elements to higher floors.

The process continues with practical adjustments to wall profiles and the creation of openings such as windows, placed precisely between columns and to the exact measurements. Editing wall profiles within Revit is shown as a method to customize architectural features, supporting both design accuracy and functional requirements. The slab creation process is introduced, detailing the drawing of structural floors with specific thicknesses and outlining how to add holes in slabs to accommodate vertical circulation systems like elevators and staircases.

Finally, the instructor demonstrates the method to copy slabs and structural elements to multiple levels, including dealing with complexities when copying elements to basement levels. Special care is taken for the elevator shaft opening in lower levels where slabs are modified to prevent unnecessary support. The lesson wraps up by verifying all elements in 3D views, ensuring that the structural model aligns with design intentions and is ready for further detailing or analysis.

This lecture builds on previous lessons by combining foundational structural modeling techniques with advanced strategies for managing multi-level projects. The hands-on approach promotes understanding of Revit’s tools for efficient and accurate structural design, emphasizing model integrity and workflow optimization.

Key topics covered in this lecture:

• Placement of missing structural columns and beams using shortcuts and grid intersections

• Adjusting beam lengths and creating diagonal reinforcements for corner stability

• Managing grid lines and ensuring proper overlay alignment

• Setting and renaming building levels with consistent enumeration for clear project hierarchy

• Stretching grids, adjusting walls, and ensuring correct offsets between levels

• Editing wall profiles to create window openings accurately positioned between columns

• Creating structural slabs with specified thickness and cutting openings for vertical systems

• Copying structural elements and slabs across multiple levels, including basements, with appropriate modifications

• Utilizing 3D views for validation of model completeness and correctness

Practical value in structural BIM project design:

• Learn to efficiently place and modify structural elements in a detailed multi-level building model

• Gain practical skills in managing complex beam and column layouts in Revit Structure

• Understand how to handle building levels systematically for clear project management

• Master creating and editing custom wall features like windows for design integration

• Develop proficiency in creating slabs with necessary openings for building services

• Acquire techniques to replicate structural components accurately across repetitive floors

• Improve ability to verify model integrity through 3D inspections and adjustments

By the end of this lecture, learners will be able to place and adjust beams, columns, levels, walls, windows, and slabs in Revit to create an accurate and functional multi-level concrete structural model. They will understand how to efficiently replicate elements across floors, maintain organized level systems, and prepare the structural design for further detailing or analysis.

This lecture presents the final phase of the concrete structural project, focusing on refining and completing the model with precise edits and ensuring all structural elements align correctly in Revit Structure. Building upon prior work, we revisit the basement layout and introduce modifications to the foundation slab, increasing its thickness to 40 centimeters for enhanced support and stability, which is a critical step for structural integrity.

The process begins by duplicating the mezzanine floor plan to create the foundation slab, carefully editing its borders to match the new thicker dimensions. Attention to detail in trimming and adjusting walls illustrates how to maintain the structural design's accuracy, especially by removing windows in foundation walls where openings are not feasible. This approach emphasizes the importance of tailoring models to real-world construction requirements where foundation elements differ from upper floors.

An essential workflow demonstrated here is the management of wall offsets, ensuring that foundation walls connect seamlessly without gaps or overlaps. Correcting wall joins from the basement to the ground level prevents constructive errors and streamlines coordination among architectural and structural elements. Columns are systematically inserted along specified grid lines, reinforcing the structure and aligning with the design intent effectively to support loads.

Furthermore, the lecture covers modifications to column elevations, adjusting them from basement to ground level without offset for proper load transfer. The slab edges are refined to extend fully to the walls, avoiding incomplete floor coverage that could compromise structural performance. This precision in model adjustments highlights practical strategies to achieve complete and constructible structural elements.

Another significant portion addresses the project browser configuration in Revit, where some floor plans were missing due to copying errors. The systematic recreation of all missing structural floor views ensures comprehensive documentation and project completeness, a vital step before project delivery. Proper numbering conventions for floors, including basement identification, enhance navigation and clarity within the project files.

Concluding the lecture, the instructor reflects on the detailed and illustrative nature of this tutorial, stressing its value for understanding structural modeling tools. The mention of upcoming content covering steel structures and analytical modeling with loads and edge conditions frames this lesson as integral to a continuous learning path in BIM-based structural design with Revit.

Key Topics Covered in This Lecture:

• Editing and duplicating floor plans for foundation slab creation

• Trimming and adjusting foundation walls and removal of openings

• Managing wall offsets for seamless structural connections

• Placement of columns according to grid lines and elevation corrections

• Extending slab edges for complete floor coverage

• Resolving missing structural floor plans in project browser

• Applying correct floor numbering and basement floor management

• Utilizing 3D views to verify structural model completion

• Workflow tips for detailed structural modeling in Revit

Practical Value for Structural BIM Design:

• Learn how to create a thicker foundation slab suitable for concrete structural design

• Understand best practices for editing structural walls to reflect construction realities

• Gain skills in adjusting offsets and joins to prevent model errors

• Master column placement and elevation adjustments to align with structural requirements

• Ensure complete structural floor documentation by recreating missing views

• Improve project navigation with systematic floor numbering and organization

• Use 3D visualization effectively to validate the structural model

• Prepare your BIM model for integration with analytical tools and advanced structural analysis

By the end of this lesson, learners will be able to finalize a detailed concrete structural model in Revit, making critical edits to foundation and structural elements while guaranteeing accurate documentation and project navigation. This foundational skill set enables more complex structural design tasks and prepares the learner for upcoming modules focusing on steel structures and advanced analytical modeling.

In this lecture, we explore the use of Revit Structure tools tailored specifically for designing metallic structures, expanding on the practical understanding gained previously with reinforced concrete projects. The focus is on applying structural elements such as columns, beams, and trusses while complementing the design by integrating loads, load cases, and edge conditions within the Revit analyze environment. This session emphasizes speeding up the modeling workflow by leveraging pre-existing grids and levels already placed in the project file, thereby streamlining the drawing process.

The lecture begins by placing columns using the quick keyboard shortcut, which allows efficient insertion at grid intersections and precise sizing with predefined dimensions. Following this, the instructor demonstrates how to place beams and beam systems at specific levels using accurate measurements that reflect typical structural dimensions in millimeters. The placement of a Warren-type truss system is illustrated, with critical attention given to its height adjustments and offsets to ensure coordination with columns and avoid overlaps.

A 3D view is then utilized to verify the placement and alignment of structural elements, identifying areas where beams and trusses must be shifted or adjusted to maintain structural integrity and visual accuracy. The instructor shows how to apply offsets and filters to isolate specific elements like trusses for precise adjustments, such as moving them vertically so the top chords align correctly with columns. Overlapping elements, especially beams at edges that interfere with columns, are identified and removed by de-pinning and deletion to eliminate conflicts.

The lecture proceeds with the creation of beam systems, particularly for the roof structure. Instructions include configuring work planes, selecting horizontal or inclined planes depending on the structure’s geometry, and sketching the beam system layout in plan and elevation views. The use of analytical views is highlighted to ensure that structural elements are represented correctly without volumetric interference, facilitating precise modeling and analysis readiness.

Details such as naming reference planes for clarity and alignment, applying mirrors to beam systems for symmetry, and adjusting element justification (e.g., setting trusses to 'bottom' Z-justification) are covered with a view to professional best practices. This ensures the model not only looks correct but also functions well within the analytical and documentation processes.

The instructor also demonstrates adding secondary structural features like straps (secondary beams) and creating a mezzanine level with columns and floors, providing more context and complexity to the model. For the roof, the lecture explains why standard architectural roof tools might not work on inclined work planes and shows how to create a roof via extrusion aligned precisely with structural elements, dynamically adjusted with trims and alignments to match the steel structure’s axes.

Throughout the video, good modeling practices, such as working on appropriate views, applying filters to control visibility, and aligning all elements accurately on axes and planes, are emphasized to prevent problems during analysis and documentation. The instructor reinforces the idea that Revit enables highly realistic steel structure modeling with flexibility and precision, ensuring structural and analytical models stay correctly coordinated.

Key topics covered:

• Use of metallic structural tools in Revit Structure

• Placement and sizing of columns and beams using grids and levels

• Creation and adjustment of truss systems, including height and offsets

• Verification and correction of element placement in 3D and analytical views

• Removing overlaps by de-pinning and deleting conflicting elements

• Configuring and sketching beam systems on horizontal and inclined planes

• Utilizing reference planes and naming conventions for accurate alignment

• Adjusting structural justification for proper roof element positioning

• Modeling secondary structural features such as straps and mezzanines

• Creating complex roofs with extrusion aligned to structural axes

Practical value in structural modeling and design:

• Accelerates the structural modeling workflow using existing templates and predefined elements

• Ensures realistic and accurate steel structure representation coordinated with the analytical model

• Highlights efficient use of 3D and analytical views for validation and correction

• Teaches best practices in managing overlapping elements and element justification

• Demonstrates creation of beam systems on non-horizontal planes for complex geometries

• Shows practical techniques for mezzanine integration and secondary beam placement

• Illustrates how to create structural roofs beyond standard architectural constraints

By the end of this lecture, learners will understand how to effectively use Revit Structure tools for modeling steel structural projects, ensuring their designs are both visually coherent and analytically sound. They will gain skills in placing, adjusting, and validating structural components, managing complex geometries such as trusses and roofs, and preparing the model for further analysis and documentation phases.

In this lecture, we focus on the crucial process of defining loads and edge conditions within a structural project for analysis. This step is essential because it sets the parameters for how the structure will respond under various forces, which directly impacts the accuracy and reliability of your design outcomes. The lecturer begins by reviewing the existing load cases in the project file, emphasizing the importance of understanding different load types such as permanent (dead loads), variable (live loads), and roof variable loads. Notably, these load cases are initially undefined in the file, allowing learners to gain hands-on experience creating and configuring them from scratch.

The workflow includes creating specific load cases categorized appropriately—for instance, permanent loads are assigned to dead loads, and live loads are divided into general variable loads and roof-specific variable loads. The practical approach here is to keep the example straightforward, using a single load combination that aggregates these loads with specified factors, such as 1.4 for permanent loads and 1.6 for variable loads, as well as a roof load factor of 0.5. This simplification helps learners grasp the core concepts without being overwhelmed by complexity.

Once the load cases and combinations are established, the lecture guides you through the practical application of loads to structural elements within the model. The instructor demonstrates how to place distributed area loads on floors and roofs, paying particular attention to correct units of measurement. For instance, forces are represented in kilotons while loads applied over areas use tons or kilograms of force per square meter. The step-by-step placement of negative variable loads on the mezzanine slab, including selecting the precise slab to host the load, helps consolidate understanding of how loads interact with different structural components.

Additionally, the process of defining a work plane for complex surfaces such as roofs is shown to facilitate the accurate placement of load boxes representing roof loads. By selecting the appropriate geometric plane, you ensure that loads apply correctly, reflecting real-world conditions. This detailed approach demonstrates a key technical decision in using BIM software like Revit for structural loading scenarios.

After placing all relevant loads, the lecture concludes by addressing the creation and assignment of edge conditions at column bases, both for the main structure and mezzanine. These edge conditions define how structural elements are supported and restrained, which is pivotal for structural analysis. The methodical application of these conditions ensures the analytical model truly represents the physical behavior of the construction.

Overall, this lecture completes the preparation of a comprehensive structural and analytical model ready for advanced design and analysis phases, such as integration with Robot Structural Analysis software. Your model at this stage includes all load definitions, combinations, and boundary conditions, providing a solid foundation for subsequent calculations and design verification.

Key Topics Covered

• Reviewing and categorizing load types: permanent, variable, and roof loads

• Creating load cases from scratch for precise control

• Establishing load combinations with load factors

• Applying distributed area loads with correct units and hosted elements

• Using work planes to define loads on complex surfaces like roofs

• Setting edge conditions to simulate structural supports at column bases

• Completing the analytical model preparation for further analysis

Practical Value in Structural Design with BIM

• Enables accurate simulation of structural load behavior using Revit

• Provides hands-on experience in building and managing load scenarios

• Develops understanding of load application on diverse structural elements

• Improves precision through correct definition of load combinations and factors

• Facilitates realistic boundary condition modeling for stable structure analysis

• Prepares the model for integration with external analysis software like Robot

• Enhances workflow efficiency through step-by-step guided procedures

By the end of this lecture, learners will have a thorough understanding of how to create and assign load cases, apply loads accurately to structural components, and define edge conditions to prepare their structural model for advanced analysis and design. This hands-on knowledge is critical for producing reliable and high-quality structural designs using BIM tools.

This final lecture wraps up the comprehensive Revit course focused on structural projects. It provides a concise review of all the fundamental tools and features covered throughout the course. You will revisit important concepts and workflows involving modeling, structural analysis, and integration with other software.

During the course, you explored the various tools available in the Revit ribbon that help model superstructures, infrastructures, and reinforcements. The lessons also addressed structural analysis elements such as loads, load cases, and edge conditions, along with exporting data for external design calculations. This wrap-up reflects on how these tools come together to support a full structural project workflow.

The instructor encourages using this course as a reference guide for ongoing learning and practical application. Review any lessons as needed to reinforce your understanding, especially when working on your own projects or encountering challenges. Future updates and additional classes, particularly on Robot Structural Analysis, will be added to support your continued growth.

Key topics covered in this lecture:

• Summary of Revit structural tools and their uses.

• Review of the ribbon interface and its components.

• Modeling of structural elements: superstructure, infrastructure, reinforcement.

• Structural analysis: loads, load cases, and edge conditions.

• Exporting for external structural calculations.

• Guidance on using the course as a reference resource.

Practical value for structural design professionals:

• Helps consolidate knowledge of Revit structural workflows.

• Offers recommendations for applying course concepts in real projects.

• Prepares learners to seek further knowledge in complementary tools like Robot Structural Analysis.

• Facilitates problem-solving by revisiting course material as needed.

By completing this lecture, you will have a clear understanding of how to use this course effectively for ongoing skill development in Revit-based structural design and know the next steps to advance your expertise in structural analysis tools within the Autodesk ecosystem.