Revit Structure: Recap and Cleanup - Placing Notes, Plans, Details, and Schedules

Welcome to the final phase of our Revit Structure tutorial. Now that we've successfully placed notes, plans, details, and schedules throughout our project, it's time to conduct a comprehensive review and perform essential cleanup tasks that distinguish professional deliverables from rough drafts.

Let's begin with our S11 sheet—the general notes page. You'll notice an immediate issue: the redundant header and detail number create visual clutter that detracts from the sheet's primary purpose. Professional documentation demands clean, purposeful presentation, so we'll eliminate this redundancy by removing the detail number entirely.

Here's the process: select the viewport, navigate to Edit Type, duplicate it, and assign the name "No Title." Next, access the parameters and values section. In the Title field, change the setting to "None." Click OK, and you'll observe that both the number and title have been cleanly removed. Apply this same "No Title" setting to the remaining viewports for consistency.

The result is a polished general notes sheet that meets industry standards. Execute Zoom All to review the complete layout.

Now let's examine the source of these notes. As you'll recall, we imported these from our master note sheet using a streamlined workflow: Insert > Insert from File, followed by selecting Insert Views from File from the dropdown menu. We navigated to our C drive, accessed the BIM 342 folder, opened our master note sheet, and retrieved the appropriate note views. This centralized approach ensures consistency across all projects while saving significant time during documentation phases.

Moving forward, let's review our foundation plan—the starting point where we established our project's structural framework. Here we performed a critical early step: relinking the architectural model into our structural project, creating the essential coordination framework that drives successful BIM workflows.

Double-click within the view to activate it, then open Visibility/Graphics (VV shortcut). You'll observe that the architectural model appears as a linked file. Click OK to proceed.

This integration displays the architectural model as a background reference within our structural model. The visibility of this background varies based on office standards and project requirements. Some Project Engineers prefer maintaining background visibility for constant reference, while others remove it to focus exclusively on structural elements during specific design phases.

To control visibility, navigate to the Manage tab and select Manage Links. Locate the linked model under the Overlay category. Rather than permanently removing it—which would break the coordination link—we'll unload it temporarily. This approach preserves the connection while giving us flexibility to reload either the original architectural model or updated versions as the project evolves.

Click Unload to proceed. Note that this action cannot be undone through the standard undo command; manual reloading is required when you need to restore the link. Click OK, and observe that the status now reads "Not Loaded." The beauty of this approach lies in its reversibility—we can always reload the model from its original location, maintaining project directory connections for seamless updates.

This workflow effectively removes background elements for cleaner printing and presentation while preserving all coordination capabilities. Double-click outside the view to deactivate it.

As we demonstrated on the first floor, our detail placement follows a systematic approach that ensures comprehensive documentation. We strategically positioned elevations and created sheets—specifically organizing the first floor on Sheet S2.2—using either the right-click context menu (Sheets > New Sheet) or the View tab's Sheet Composition panel. Both methods achieve identical results, but the ribbon approach often proves faster for experienced users.

Throughout this project, we've accommodated new architectural elements including stairs, equipment rooms, and façade modifications for basement-level boutique access. This adaptive modeling demonstrates Revit's strength in handling design evolution while maintaining model integrity and coordination.

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Transitioning to the second floor, observe how we've systematically placed notes and detailed information on all plan elements. The annotation strategy includes comprehensive notation systems and dimensional information—critical components for trade coordination and construction documentation. These dimensions serve as the foundation for mechanical, electrical, and plumbing coordination, preventing costly field conflicts.

Execute Zoom Out and proceed to examine our third floor layout, where we established a typical floor configuration. Pay particular attention to the beam systems we created using the Annotate tab's beam symbols and span tags. This annotation becomes crucial when working with manually sketched beam systems, as Revit's automatic information generation—standard with auto-placed systems based on area selection—doesn't apply to Sketch Mode creations.

Zoom Out and right-click to cancel any active commands. Double-clicking provides an alternative method to exit the view efficiently.

Our decision to designate floors three, four, and five as typical floors exemplifies efficient BIM methodology. By modeling the layout once and replicating it across multiple levels, we've dramatically reduced modeling time while ensuring absolute consistency—a significant advantage over traditional CAD approaches where each floor required individual development.

Advancing to the roof level, we encounter an interesting coordination challenge. The architectural discipline provided a roof opening that requires structural annotation for clarity. Let's complete this documentation using symbolic lines to clearly indicate the opening boundaries.

We'll add dimensional lines from boundary to boundary, then place explanatory text notation. Configure the text with no leader arrows and center alignment, then add the note "Open to Below." This simple annotation prevents confusion during construction and clearly communicates design intent.

After completing the roof annotation, zoom out and double-click to exit the active view. Our workflow included creating an additional level called "High Roof" to accommodate varying roof elevations—a common requirement in commercial construction.

At this level, we'll clean up unnecessary annotations. The moment frame notations aren't required here, so select one notation, use "Select All Instances > Visible in View," then right-click and choose "Hide in View > Elements." This cleanup process ensures that each drawing contains only relevant information, improving clarity and reducing visual noise.

Double-click outside the view to deactivate it. Our truss placement utilized Revit's 3D modeling capabilities to apply roof pitch accurately, enabling efficient truss layout along the sloped plane without individual placement—a significant time-saver that also ensures geometric accuracy.

Our stair plans represent another efficient workflow: creating callouts from existing plan views. We created, positioned, resized, and renamed these callouts to provide detailed stair documentation while maintaining connection to the overall plan. This approach ensures that any plan changes automatically update in the detailed callouts.

The braced frame elevations showcase Revit's powerful view generation capabilities. Created from the View panel using elevation markers strategically placed in plan views, these elevations provide essential structural information for lateral force-resisting systems. Understanding the distinction between elevation types is crucial: building elevations can originate from any exterior position, while framing elevations depend on grid line associations.

This grid dependency means framing elevation markers won't appear unless associated with existing grid lines—a logical constraint that maintains drawing organization and ensures elevations align with structural grid systems.

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Zoom out and double-click to exit the view, then close any open windows to maintain workspace organization.

Our braced frame elevation development included strategic sheet placement, appropriate scale adjustment, comprehensive notation, and element tagging—mirroring our plan view documentation standards. The elevations themselves were linked from the architectural model using Copy/Monitor functionality, a critical coordination tool that eliminates manual modeling while ensuring accuracy.

This Copy/Monitor approach provides coordinated information that maintains accuracy across disciplines and automatically updates when the source model changes. For elevations defining our plan views and grid layout, this coordination creates the essential framework—think of it as constructing a three-dimensional reference box for all structural elements.

Finally, let's examine our detail documentation strategy, which demonstrates the three primary methods available in Revit projects. Our details originated from the master details sheet, accessed via Insert > Insert from File > Insert Views from File. From our C drive's BIM 342 folder, we opened the master details sheet and selected appropriate views.

This comprehensive approach included importing existing CAD-based details, creating new structural details directly within Revit, and generating live details extracted from our plans. Each method serves specific project needs: CAD imports for standard details, native Revit creation for custom conditions, and live details for project-specific elements that automatically update with model changes.

Our schedule development represents data-driven documentation at its finest. The grade beam schedule, spread footing schedule, and column schedule all generate directly from plan data, ensuring accuracy and eliminating transcription errors common in traditional documentation workflows.

The custom parameters we created are text-based, allowing manual value entry for specific information. For example, adding "No. 5 bars at 12" O.C. each way" creates detailed reinforcement information that populates throughout the schedule system. Adjust column widths for optimal readability and reposition schedules as needed.

Eliminate unnecessary spacing for professional presentation. These text fields provide unlimited flexibility for including any required notes while maintaining consistency across all schedule types—delivering comprehensive property information for beams, columns, and footings.

Let's return to our general notes sheet for final review. Execute Zoom All to see the complete layout. Professional practice demands thorough project review before final delivery—this step separates exceptional work from merely adequate documentation.

Complete all project information fields with appropriate details. Enter your name as Author, "CD (CAD Teacher)" as Checked By, "BIM 342" as the Project Number, and today's date in the Date field. Execute Zoom All for a final overview.

Congratulations on completing this comprehensive Revit Structure workflow. The techniques you've mastered—from model coordination and annotation strategies to schedule development and detail documentation—represent industry-standard BIM practices that will serve you throughout your structural engineering career. Happy modeling, and remember: thorough documentation today prevents construction problems tomorrow.