A Closer Look at What’s New

Autodesk groups its MEP updates together under “System Features,” and this year’s list is remarkably short. Every item on it relates to mechanical engineering. There are no electrical-specific features… not a single one.

A Troubling Trend

To put this in context, it helps to look back at Revit 2026. That release didn’t just fail to improve the voltage drop workflow; it removed it entirely. No replacement was offered. No enhanced functionality was put in its place. It was simply gone.

Revit 2027 offers no correction to that regression. Critical electrical engineering functions, including voltage drop calculations, feeder sizing, and single-line diagram generation, remain absent from the platform.

Filling the Gap

The persistent absence of core electrical engineering tools within Revit has made it clear that electrical professionals cannot rely on Autodesk alone to support their design needs. Functionality like voltage drop analysis, feeder sizing, and single-line diagrams are not just “nice-to-have features”, they are fundamental to the work.

This gap is exactly why tools like ElectroBIM were developed. ElectroBIM integrates directly within Revit and brings those missing electrical engineering capabilities into the environment you’re already working in. A free trial is available at the Design Master website.

Looking Ahead

As the industry continues to evolve and AI capabilities mature within BIM platforms, there is hope that Autodesk will eventually turn its attention to the electrical engineering discipline in a meaningful way. Until then, electrical engineers will need to look beyond the base Revit platform to get the tools they need to do their jobs effectively.

We’ll be watching closely to see what, if anything, Revit 2028 brings to the table. Watch the video below for more specifics on the electrical features in Revit 2027.

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FireBIM is changing that equation by delivering purpose-built fire alarm features as a native add-in to Autodesk Revit, and the results speak for themselves.

Fire Alarm Design That is Native to Revit

One of the most important things to understand about FireBIM is what it is not: it is not a standalone application, a parallel platform, or another tool competing for screen real estate on your taskbar. FireBIM lives inside Revit as a fully integrated add-in, which means fire alarm designers work within the same environment as the rest of their project team.

This matters enormously. Staying inside Revit means your fire alarm design stays connected to the architectural and structural model in real time. Coordination happens naturally rather than through cumbersome back-and-forth file sharing. The model stays authoritative, the team stays aligned, and the designer stays in flow. For firms already invested in a BIM-first workflow, FireBIM removes the last major friction point in bringing fire alarm design into the fold.

Riser Diagrams That Stay in Sync

Among the most powerful features in FireBIM is its dedicated Riser functionality. The fire alarm riser diagram is a cornerstone of fire alarm documentation, yet creating and maintaining them in a traditional BIM environment has historically required significant manual effort, often built in a separate drafting tool and painstakingly kept in sync with the model.

FireBIM addresses this directly. The Riser tools allow designers to build and manage riser diagrams within the Revit environment, keeping them connected to the broader project data rather than existing as isolated drawings. This means changes propagate correctly, documentation stays current, and the risk of costly discrepancies between the riser and the field model is dramatically reduced. It is the kind of feature that experienced fire alarm designers will immediately recognize as a genuine time-saver.

Fire Alarm Families Represent the Real World

FireBIM includes a library of Revit families developed specifically for fire alarm systems. This is a detail that is easy to underestimate until you have spent hours adapting generic MEP families to represent fire alarm devices, families that do not carry the right parameters, do not behave correctly in schedules, and do not communicate meaningful data downstream.

The dedicated Revit fire alarm families in FireBIM are built to carry the information that matters for this discipline. Devices are represented accurately, schedules populate with relevant data, and the model tells the full story of the fire alarm system rather than approximating it. For design teams pursuing a high level of BIM maturity on their projects, this kind of data integrity is indispensable.

Calculations Connected to the Revit Model

Perhaps the most technically ambitious aspect of FireBIM is its integration of engineering calculations directly into the Revit workflow. Fire alarm voltage drop and battery calculations are critical to that system design; they ensure that devices receive adequate power under normal and faulty conditions, and they are required for code-compliant documentation.

Traditionally, these calculations happen in spreadsheets or third-party tools, disconnected from the model and requiring manual data entry that introduces the risk of error. FireBIM brings these calculations into Revit itself, drawing on model data to drive the numbers. The result is a tighter, more reliable process where the design and the engineering analysis stay in sync throughout the project lifecycle. When the model changes, the calculations reflect it; no manual reconciliation is required.

How to See FireBIM in Action

Want to see how FireBIM works in Revit? A recorded webinar is available that walks through the available features in detail, giving designers and firm leaders a clear picture of what is possible and how FireBIM fits into a real project workflow. It is worthwhile watching for anyone interested in evaluating whether FireBIM is the right fit for their team.

The Future of Fire Alarm Design in BIM

The fire protection industry has sometimes lagged behind other MEP disciplines in BIM adoption, in part because the tools simply have not kept pace. FireBIM represents a meaningful step forward, not by asking designers to abandon what they know, but by meeting them inside the environment they are already working in and giving them the discipline-specific tools they have been missing.

From the integrated Riser features to the purpose-built Revit families, and from the in-model voltage drop analysis to the battery calculations that keep designs code-compliant, FireBIM is a compelling solution for firms ready to elevate their fire alarm design practice.

The FireBIM webpage is your starting point, whether you want to dig a little deeper into the feature details, watch the recorded webinar, or download the beta to start designing yourself. Fire alarm design in Revit has arrived. Come see what that means for your projects.

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Even then, the biggest shift is not graphical; it is structural. When the riser, layout, and calculations all reference the same model data, fire alarm design stops being a collection of related drawings and becomes a single, coordinated system. That shift is exactly what tools like FireBIM are designed to enable.

If you are already exploring ways to bring fire alarm design fully into Revit, FireBIM is designed specifically to support that workflow.

From Disconnected Artifacts to a Single Source of Truth

Traditional fire alarm workflows rely on multiple disconnected artifacts:

• Floor plans showing device locations
• Separately drafted riser diagrams
• External spreadsheets or software for voltage drop and battery calculations

Each piece may be correct on its own, but none of them are inherently aware of the others. Any design change, a relocated device, a revised circuit path, or a panel adjustment requires manual updates across multiple representations of the system.

FireBIM approaches this differently by treating the Revit model as the single source of everything for fire alarm design. Devices, circuits, risers, and calculations all reference the same underlying data. When something changes in the model, the downstream representations update accordingly.

Instead of coordinating drawings, fire alarm designers coordinate data.

Model-Driven Riser Diagrams

Riser diagrams are one of the most coordination-heavy components of fire alarm documentation. Traditionally, they are drafted manually and kept in sync with the floor plans as separate pieces.

FireBIM generates riser diagrams directly from the Revit model. Circuits, devices, addresses, and classifications are pulled from the same data that drives the layout. If a device is added, removed, or reassigned, the riser is automatically updated to reflect the change.

Graphics remain customizable using standard Revit techniques, allowing teams to match their preferred standards. The difference is that FireBIM manages the structure and content of the riser so that what appears diagrammatically always corresponds to what exists in the model.

Intelligent Families as the Foundation

For fire alarm design, families need to do more than represent a symbol on a plan. They need to carry the information required to validate the system. FireBIM ships with a library of fire alarm families, both generic and manufacturer-specific, that are designed with this purpose in mind.

Manufacturer-specific families include predefined electrical loads based on published cut sheets, allowing calculations to be driven directly from the model. Generic families can also be used, with designers able to define loads as needed.

This addresses a fundamental limitation of the native fire alarm tools in Revit: fire alarm circuits do not have a built-in concept of load. FireBIM fills that gap, enabling voltage drop and battery calculations to be performed using real device data rather than assumptions.

Calculations That Reflect the Actual Design

Fire alarm calculations are most valuable when they reflect real conditions. FireBIM performs both voltage drop and battery calculations directly within Revit, using information derived from the model itself.

Circuit lengths are based on actual routing. Loads are accumulated device by device. Designers can choose between end-of-line or running total voltage drop calculations. Circuit class (Class A or Class B) is reflected consistently across calculations, risers, and annotations.

Battery calculations include both device loads and panel-level loads, allowing capacity requirements to be evaluated within the same environment as the design. Because everything is connected to the model, designers can immediately see how layout decisions impact system performance.

Supporting Multiple Roles in the Design Process

Not every user interacts with fire alarm design in the same way. Some engineers focus on layout and coordination. Others, often contractors or specialized engineers, are responsible for final calculations.

FireBIM is designed to support this range of workflows. Teams that only need to place devices and generate coordinated risers can do so without engaging deeply with calculations. Those responsible for validating system performance can use the same model to perform voltage drop and battery analysis.

The result is a shared, consistent model that supports multiple roles without forcing a single rigid workflow.

A More Coordinated Future for Fire Alarm Design

As BIM expectations continue to rise, fire alarm systems can no longer remain partially disconnected from the model. Coordination, accuracy, and confidence increasingly depend on having layouts, risers, and calculations aligned within a single environment.

FireBIM was developed to address this need by extending the existing Revit fire alarm capabilities into a complete, model-driven design workflow. By integrating intelligent families, automated riser diagrams, and in-model voltage drop and battery calculations, FireBIM enables fire alarm systems to be designed with the same level of consistency and coordination as other building systems.

Visit the FireBIM product page for more information on fire alarm design in Revit.

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That approach worked when drawings were the primary deliverable. But modern projects demand coordination, data consistency, and traceability, and fire alarm design that lives outside the model increasingly creates risk.

The Reality of Fire Alarm Design in BIM Projects

A great number of projects today are fundamentally Revit projects. The architectural model drives coordination. Electrical systems are modeled. Mechanical systems are modeled. Clash detection, schedules, and construction coordination all rely on the model as the single source of truth.

Fire alarm systems, however, are often treated differently:

• Devices are placed in Revit, but logic lives elsewhere
• Riser diagrams are drafted separately
• Voltage drop and battery calculations are done outside the model
• Addresses and circuit data are manually coordinated

Revit does include basic fire alarm functionality. You can place devices, connect them to circuits, and create a very simple layout. But that is where it largely stops. There is no native concept of electrical load on a fire alarm circuit. No built-in battery calculations. No true model-driven riser logic. No automatic relationship between plans, risers, and calculations.

Why This Fragmentation Is a Problem

When fire alarm design is not fully embedded in the model, teams pay the price in subtle but costly ways:

• Coordination errors between floor plans and riser diagrams
• Inconsistent device data, especially addresses and circuit assignments
• Manual updates every time the layout changes
• Delayed discovery of voltage drop or battery issues

Each of these issues is manageable in isolation. Together, they add risk, rework, and uncertainty, especially on complex projects where fire alarm systems are reviewed late in the design process.

Perhaps most importantly, when calculations and logic exist outside the model, it becomes a problem to participate in the same coordination workflows that BIM teams rely on. The fire alarm system becomes an exception rather than an integrated discipline.

Fire Alarm Design Has the Same Core Components as Electrical

One reason this gap exists is historical. Fire alarm systems were traditionally documented differently, using tools and conventions that predate BIM. But from a design standpoint, fire alarm systems share the same fundamental components as electrical systems:

• A diagrammatic representation (riser vs. single-line)
• A physical layout in the building
• Calculations that validate performance

In electrical design, these elements are increasingly connected through BIM-based tools like Revit. The single-line diagram, model, and calculations reinforce each other. Changes propagate. Data stays consistent. Fire alarm design, by contrast, often breaks this triangle apart.

The Shift Toward Model-Centric Fire Alarm Design

As BIM maturity increases, expectations change. Owners, reviewers, and contractors increasingly assume that systems represented in the model are accurate, coordinated, and validated.

That expectation creates pressure to move fire alarm design fully into Revit, not just as symbols on a plan, but as a coordinated system that includes:

• Model-aware devices
• Circuit logic tied directly to geometry
• Riser diagrams generated from the model
• Calculations that reflect real layouts

This shift does not eliminate the role of contractors or specialized reviewers. Instead, it creates a shared foundation where everyone is working from the same data.

A Growing Need for Revit-Native Fire Alarm Workflows

The industry is not looking for fire alarm design to become more complicated. It is asking for it to become more connected.

Designers want confidence that what they show on plans matches the riser. Contractors want calculations that reflect actual layouts. Reviewers want clarity and traceability. BIM managers want fewer disconnected workflows.

All of those needs point in the same direction: a fire alarm design that lives directly inside Revit, not beside it. And that solution is right around the corner…

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At its core, AI excels at problems with clear rules and repeatable patterns. That makes it well-suited for certain parts of MEP design, particularly during layout and coordination phases. Tasks that once required hours of manual effort can now be completed in minutes, giving engineers a faster path from concept to a workable design.

Where AI Adds Real Value

Many elements of MEP design follow established rules: spacing requirements, clearance constraints, code-driven placements, and typical connection logic. AI can use these rules to generate initial layouts for lighting, air devices, plumbing fixtures, and other system components. Instead of starting from a blank model, engineers can review multiple layout options quickly and focus on selecting and refining the best approach.

AI can also assist with placing repetitive devices and making basic system connections. For example, it can suggest how fixtures connect to nearby panels, route ductwork through available space, or flag conflicts between systems. These capabilities don’t eliminate engineering oversight, but they significantly reduce the time spent on tedious modeling work and help catch coordination issues earlier in the process.

The biggest advantage is speed. By automating routine tasks, AI allows engineers to shift their effort away from drafting and toward design decisions that impact performance, cost, and reliability.

Where Engineering Judgment Still Matters

Despite its strengths, AI has clear limitations. Real-world building models are rarely clean or complete. Architectural changes, missing data, and outdated documentation are common, and AI struggles when inputs are inconsistent or unclear. Engineers, on the other hand, are used to working through ambiguity and adapting to changing conditions.

More importantly, engineering decisions often go beyond what rules alone can dictate. Accessibility, maintenance considerations, future expansion, and site-specific constraints all require judgment and experience. AI can generate options, but it cannot fully understand intent or long-term consequences in the way a human engineer can.

This is why AI works best as an assistant rather than an authority. It can accelerate the work, but it cannot replace accountability or professional judgment.

A Shift in How Engineers Work

AI in MEP design follows the same pattern as past technological changes. Once manual tasks, such as calculations or basic drafting, became automated, allowing engineers to focus on higher-value work. AI simply extends this trend.

As AI takes on more layout and modeling responsibilities, engineers will spend more time optimizing systems, improving energy performance, resolving complex coordination challenges, and exploring innovative solutions. The role of the engineer becomes less about placing objects and more about making informed decisions.

The future of MEP engineering isn’t about competing with AI. It’s about using it to eliminate busy work so engineers can design smarter, more efficient, and more resilient buildings.

Watch the video on this topic below to learn more.

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In our new episode of the Electrical Building Design Show, we sat down with Kevin Lawson, PE, founder of Ripple, to discuss how automation and AI are being applied to HVAC design, and what those lessons mean for the broader MEP industry.

Kevin brings a unique perspective to the conversation. After a decade designing and commissioning HVAC and plumbing systems, he transitioned from consulting engineering into software development, founding Ripple with a clear goal: automate HVAC design directly inside Revit.

Why HVAC Is the Bottleneck in Building Design

One of the central themes of the discussion is the role HVAC plays as a critical dependency for nearly every other discipline. Electrical loads, structural coordination, mechanical room sizing, and even architectural decisions often hinge on HVAC being designed first and done so accurately.

By accelerating HVAC design, Kevin argues, the entire project team benefits. Faster access to reliable loads, equipment selections, and system data can dramatically reduce downstream friction for electrical, structural, and architectural teams.

Redefining “AI” in the AEC Context

Rather than focusing on large language models or black-box neural networks, Kevin frames AI more practically: If a system takes an input and produces a human-like design output, it qualifies as AI, regardless of how it gets there.

Ripple’s approach is procedural, not probabilistic. It follows the same step-by-step logic an engineer would use: load calculations, ventilation requirements, equipment selection, and system layout, automated at scale inside Revit. The result is an HVAC model that looks and behaves as if it were designed by an engineer but produced in a fraction of the time.

Leveraging Architectural Models for Real Engineering Work

A key question addressed in the episode is whether architectural Revit models are “good enough” to support automated engineering workflows. The answer, backed by real-world validation, may surprise you.

Kevin shares results from a hospital study where automated load calculations, run directly from an architect’s model, matched measured building performance within 1%. Beyond accuracy, the conversation highlights how architects already curate much of the data engineers need, from window geometry to room definitions, making automation far more viable than many assume.

Automation as a Snowball Effect

The discussion also explores how automation compounds in value. Once systems are laid out automatically, additional insights, pressure loss, fan sizing, material quantities, and cost data become far easier to generate. What starts as time savings in layout quickly evolves into richer, more reliable design data across disciplines.

Importantly, this isn’t about futuristic promises. Much of what’s described feels like the fulfillment of BIM’s original promise: connected, data-rich models that support real engineering decisions.

Cutting Through AI Hype in AEC

Kevin offers a candid take on the growing number of AI demos in the industry, emphasizing skepticism without tangible design outputs. For engineers, proof matters. If a tool claims to automate design, the expectation should be simple: show the model.

This practical mindset carries through the broader conversation about platforms, workflows, and why staying embedded in Revit remains critical for real-world adoption.

What This Means for Engineering Firms

The episode closes with a forward-looking discussion on productivity, technology adoption, and business models in AEC. Automation isn’t just a technical shift; it has implications for how firms bill, how value is measured, and how engineering services are delivered.

Kevin challenges firms to think beyond billable hours and toward output-driven value, suggesting that automation will ultimately force a rethink of long-standing industry norms.

Watch the full video conversation between Dave and Kevin below to learn more.

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Where AI Actually Helps

AI stood out, not for its flash, but for its focus on grunt work. The new Autodesk Assistant for Revit, think ChatGPT for Revit, handles the tedious parts: creating sheets, applying templates, keeping panel names aligned, and updating breakers and wire sizes when ratings change. Automation won’t replace judgment, Dave said, but it will finally free engineers from the endless cleanup.

Dynamo is moving the same way, with AI-powered node suggestions that make scripting less intimidating for non-coders while leaving room for those who still want to dive into Python.

The Organizational Lesson Everyone Knows but Few Follow

Revit isn’t AutoCAD. Lines don’t need management; models do. Many firms still treat BIM like digital drafting, but success demands ongoing attention to templates, parameters, and content. Dave’s takeaway from AU conversations: assign someone, even part-time, to own and maintain the system. It pays off in hours saved and mistakes avoided.

A Case Study That Stole the Show

A packed session on the World Cup Stadium in Doha showed what happens when design meets precision. The team used FARO scanners at fabrication plants to capture each steel member as built, then fed that data back into Revit. By the time components arrived on site, crews already knew what tweaks to make. Millimeter-level fit, no guessing. Most firms won’t do that level of integration, but the lesson holds: capture existing conditions, deliver accurate models, and your future renovation team will thank you.

Expo Floor Finds:

• Piros – AI-driven content management that recognizes and de-duplicates details, surfacing standards automatically.
• FARO – 3D scanning tools bridging the gap between design and construction.
• Augmenta – Automated conduit routing that hints at a future where modeling and coordination merge even more tightly.

The Real Value of AU

The keynotes and classes inspired, but the real magic happened in hallway chats and BIM leader meetups. That’s where Dave found practical strategies, how teams manage Revit libraries, secure buy-in for automation, and navigate the shift from drafting to modeling.

The Bottom Line

Autodesk University isn’t just a tech conference; it’s an energy boost for anyone building the future. You’ll meet people who care about the same small details that make projects sing, and you’ll leave with your head buzzing with ideas.

As Dave put it, “I walked in with imposter syndrome and walked out with a plan.”

Hear more on what Dave had to say about his experience at Autodesk University in the video below.

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The Challenge: Manual Coordination Across Three Worlds

Every electrical project basically involves three interlocking areas:

1. The Revit model: your 3D layout of equipment, circuits, and devices.
2. The single-line diagram: your schematic overview of how everything connects.
3. The calculations: voltage drop, short circuit, and wire sizing, often managed in Excel or third-party tools.

Traditionally, these elements exist in silos. A change in one requires manual updates in the others, inviting mistakes, increased work, and endless review cycles.

Want to see for yourself the benefits of single-line diagrams in Revit, register for our free webinar here.

The Breakthrough: Linked Drafting Views That Stay True

ElectroBIM solves this problem by linking your one-line diagram directly to your Revit model. Instead of separate files or disconnected AutoCAD overlays, your diagram lives inside Revit as a drafting view.

That means:

• Every panel, transformer, and feeder on your single-line diagram corresponds to the same objects in the model.
• Changes in one place update everywhere, instantly and accurately.

Consistency by Design: Standardized Graphics and Families

Beyond linking data, ElectroBIM standardizes the look and feel of your single-line layouts. Using Revit families ensures your panels, breakers, and transformers appear consistently across projects.

No more engineers drafting custom symbols or reinventing templates. Your team uses the same library of graphics, clean, readable, and ready to publish.

When one person updates a family or adjusts a graphic, everyone benefits.

The Result: Smarter Coordination, Less Rework

By synchronizing your Revit one-line diagrams with the model:

• You cut coordination time by up to 65%.
• You reduce design errors by up to 30%.
• You free engineers to focus on real design work instead of drawing maintenance.

It’s the foundation of what we call the Electrical Design Triangle, the harmony between model, diagram, and calculations. When one side moves, the others move too.

See How It Works, Live

Join our free live webinar: “Creating Single Line Diagrams in Revit.”

In this session, you’ll learn:

• How to build a single-line diagram inside Revit (no AutoCAD link needed).
• How to automatically sync updates between your model and diagram.
• How automation cuts design time and coordination errors in half.

Register now for our next webinar to see a step-by-step framework for connecting your Revit model, single line diagram, and calculations into one streamlined workflow.

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Wire Properties: What is There vs. What is Used

In Revit 2026, Autodesk introduced fields for conductor materials, temperature ratings, and insulation materials. While these values can be stored and even accessed via the API, they are not exposed to end users in a meaningful way and are not actively used in calculations.

ElectroBIM takes a different approach. Instead of isolating properties, wire sizes are grouped, with material and insulation embedded in each group. Out of the box, ElectroBIM provides copper and aluminum options, each with different insulation ratings.

Conductor Sizes and Diameters

Revit includes a Conductor Sizes tab with a single diameter value per wire. However, these diameters are not tied into calculations and exclude insulation.

ElectroBIM, on the other hand, supports two diameters per wire:

• Wire + insulation area (for conduit fill)
• Wire area only (for ground upsizing)

This dual-diameter system ensures accurate conduit sizing and grounding calculations. ElectroBIM also makes it clear whether you are working with copper or aluminum conductors by labeling them separately.

Cable Sizes and Parallel Runs

In Revit, defining cable sizes is a manual process. You name the configuration, specify hots, neutrals, grounds, and ground sizes, one by one.

ElectroBIM automates this with the wire ampacities table. Here, you define breaker ratings, wire sizes, and ground sizes once, and the software automatically determines the number of hots and neutrals based on the circuit. Parallel runs are also baked into the configuration, ensuring consistency across your project without repetitive manual input.

Cable Types and Material Handling

Revit requires you to manually configure cable types and then match them to circuits. However, there is no clear differentiation between copper and aluminum grounds, and changing wire materials mid-project can quickly get messy.

ElectroBIM simplifies this by including both copper and aluminum in its wire ampacity tables by default. Hot wires and ground wires can be independently specified, and changes can be made at either the circuit level or device level. This ensures flexibility without sacrificing accuracy.

Voltage Drop, Ambient Temperature, and Conduit Sizing

Perhaps the most significant gap is in automatic wire sizing and voltage drop. Autodesk has removed automatic wire sizing entirely in Revit 2026, along with voltage drop and ambient temperature adjustments.

ElectroBIM continues to provide fully automated wire sizing with accurate voltage drop calculations. It accounts for:

• Multiple feeders
• Branch circuits
• Transformer impedances
• Project-wide and circuit-specific ambient temperature settings

Additionally, ElectroBIM automatically sizes conduits based on wire areas and NEC fill requirements, another feature absent in Revit.

The Bottom Line

Revit 2026 introduces placeholders for wire-related data, but most of those values are not connected to meaningful calculations. By contrast, ElectroBIM integrates wire sizing, ambient temperature, voltage drop, conduit sizing, and ground differentiation into a cohesive, automated workflow. If you want your designs to reflect real-world conditions without endless manual adjustments, ElectroBIM is the clear choice.

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That was exactly the case for Sam Miller, founder of BETI (Building Engineer Training Institute). Like many young engineers, Sam graduated with an electrical engineering degree but had never even heard of MEP design. His first role forced him to quickly catch up on everything from power calculations to panel boards, all while fighting through imposter syndrome and trial by fire.

The Industry’s Training Problem

Sam’s struggles highlighted a bigger issue: firms everywhere are struggling to recruit, train, and retain new electrical engineers. Schools don’t prepare graduates for the day-to-day work of building design, and firms often lack the bandwidth to train from scratch.

That is where BETI comes in. Through structured bootcamps, mentorship, and project-based learning, Sam and his team are helping bridge the gap.

What We Covered in the Conversation

In a recent episode of The Electrical Building Design Show, I sat down with Sam to dig deeper into:

• Why MEP remains one of the least understood (yet most critical) paths for electrical engineers
• The three biggest barriers to keeping firms from finding and keeping talent
• How BETI is helping both individuals and firms close the training gap
• Why Revit has become such a pivotal tool in modern electrical design

The Bottom Line

If you have ever felt the strain of hiring and training, or if you are an early-career engineer wondering how to bridge the gap between school and practice, this conversation is one you do not want to miss.

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