Augmenta Construction Platform

Turning automation into usability — the redesign behind 42% faster outcomes.

Case study

Context

Augmenta generates constructible, code-compliant designs of electrical raceways — the conduit, cable tray, and supports that connect every piece of electrical equipment in a building. Their target user is the Virtual Construction Designer: the engineer inside Autodesk Revit who plans how a project actually gets built. Think Figma, but for the physical world — high-stakes, governed by real-world physics, strict compliance, and precise engineering standards.

A Virtual Construction Designer working inside the Augmenta platform
A Virtual Construction Designer working inside Augmenta — the target user for the redesign.
Generated output rendered in 3D inside the Augmenta platform
Generated output rendered in 3D inside the Augmenta platform — the full spatial result of a successful run.

When I joined: 1 design partner, 7 pilot firms testing, 20+ on the waitlist, $0 in revenue.

Problem

The product was hard to use. Three symptoms, one root cause:

  • Too feature-heavy — trying to serve every persona at once
  • Inconsistent, confusing UX — patterns and components drifted across the app
  • Slow value delivery — often 2 weeks for a useful output

Implications stretched across the business: customers got unconstructable, slow-to-generate solutions that needed intensive support; the company carried high churn risk and unsustainable compute and support costs; design had to balance complex firm-specific needs against scalability and low-touch usability.

The deeper issue was philosophical. Augmenta's engineering had set high thresholds for correctness and completeness, only surfacing solutions that met strict mathematical standards. Minor input errors — a mislabeled roof material — meant zero solutions, eroding trust and usability.

Approach

Ran pilot workshops with 7 electrical design firms to map real workflows, test product fit, and prioritize features. We mapped the unified customer journey — Estimation → Planning → Design → Detailing → Pre-Construction → Construction — and decided which stages to prioritize, deprioritize, and deprecate.

Service blueprint extracted from a lighthouse customer workshop
Service blueprint extracted from a lighthouse customer workshop — mapping the real workflow to identify where the product fit and where it fell short.

What pilot users actually said they wanted: to get to solutions faster, with less effort. We translated that into simpler data input, an enhanced solution viewer with more data, and a tighter feature set. More signal on output, fewer features to navigate. They explicitly didn't want complex electrical calculations.

Renewed focus: Virtual Construction Design teams, from project kickoff through early phases of coordination. Not earlier (device layout, conduit sizing). Not later (detailing, assembly drawings). One persona, one slice of the workflow, done well.

Solution

Three problems, three answers.

1. Right surface for the right user

Identified VDCs as the MVP persona. Doubled down on solution data — exposing more signal about completion (routed source/destinations) and correctness (constructability). Deprioritized everything the VDC teams didn't care about.

2. Consistency through a heuristic overhaul

Audited the product against Nielsen heuristics and fixed what the audit surfaced: inconsistent patterns, poor IA, poor use of space, unclear workflows, missing system/status information, incoherent errors. Two emblematic before/after moves:

Screen density — engineers want signal, not whitespace. We rebuilt the canvas to surface more data per pixel without losing clarity.

Screen density: low to high
Screen density: low to high.
Figma prototype created for team alignment and engineering handoff
Figma prototype used to align the team and support engineering handoff — bridging design intent and implementation.

Framing — language matters. We replaced engineering-speak with intent-aligned language (“Placement considerations” instead of “Unhandled error”), turning error states into actionable guidance.

3. Faster value through better inputs and signal

The bottleneck was generation time — often a full day per iteration. We changed three things:

  • Prompt structure — moved from moderately structured, broad input to more structured, granular input so the first pass was usable.
  • Signal enhancement — surfaced the previously hidden “unknown” parts of failed runs. Result: successful generations went up 10×, and user analysis of solutions spiked .
  • Error handling — moved from unintelligible errors to errors visualized in 3D space, right where the issue was.
The team reviewing AI output together — flagging anomalies and aligning on engineering and UX fixes
The team reviewing AI output together — identifying anomalies and aligning on fixes from both an engineering and UX perspective.
AI generation output — solutions plotted on x/y axes, showing the volume and spread of generated designs
AI output visualized on x/y axes — each point a generated solution. Surfacing this signal let engineers understand what was being generated and why some runs fell short.
Error handling — from unintelligible text to errors visualized in space
Error handling — from unintelligible text to errors visualized in space.

The fully realized workflow ships back into Revit, where the generated designs work seamlessly with existing detailing and spooling pipelines.

Generated designs export directly to Revit
Generated designs export directly to Revit.

Impact (May 2024 vs. August 2023)

MetricAug 2023May 2024Improvement
Time-to-value (initial prep → final export)14 business days8.12 business days42.3% faster
Generation cycles to acceptable result12741.6% fewer
Engineering interventions per cycle1.080.735.5% fewer blockers

The downstream result: detailed 3D schematics flow into pre-fabrication and field installation in days instead of weeks. Engineering interventions — the single biggest indicator of an unscalable product — dropped by a third.