Professional · Miron Construction · May–August 2026

Miron VDC Internship

At Miron Construction, I developed steel sequences and logistics models, supported model coordination, and explored point-cloud visualization. These examples show my contributions within project teams.

My contribution
Virtual Design and Construction (VDC) Intern
Tools used here
Revit · Navisworks · P6 · SYNCHRO 4D · After Effects · CMBuilder · ReCap · Twinmotion · Autodesk Forma · Bluebeam · BIM²form

Internship work · Collaborative project teams · Preliminary examples retain their original labels

SYNCHRO 4D steel sequence with model views and planned tasks

01 · Featured work · SYNCHRO 4D

Construction,
over time.

For UW–Whitewater’s Winther and Heide Hall work, I developed the complete steel sequences from the project’s P6 schedule and Revit model. Using Navisworks and SYNCHRO 4D, I connected model geometry with planned installation activities and built the paired views, active-task display, and timeline shown here. The building design and source schedule were project inputs, not my authorship.

Motion study Play to explore ↘
Winther Hall · SYNCHRO 4D steel sequence · 38 sec · Silent

Companion sequence

Heide Hall

A second sequence shows the steel frame progressing through the building’s levels, with the same relationship between tasks, time, and model geometry.

Motion study Play to explore ↘
Heide Hall · SYNCHRO 4D · 22 sec · Silent

02 · Featured work · Workflow development

A repeatable workflow.
A clearer sequence.

I upgraded Miron’s VDC department’s SYNCHRO workflow by integrating its render output with After Effects. Rather than building a presentation from scratch each time, I standardized the exports and created a reusable project with nested compositions and custom code linking layers and comps. The result combines technical sequencing with a more polished visual presentation.

Motion study Play to explore ↘
SYNCHRO-based After Effects composition · 14 sec · Silent

01 · Standardize

SYNCHRO export templates

I templated the render exports to produce the inputs the After Effects project expects, giving the workflow a consistent starting point.

02 · Connect

Drag-and-drop compositions

Custom code links nested layers and compositions so replacement exports feed the templated presentation, including model views, task information, the timeline, and key plan.

03 · Hand over

Documentation for continued use

I created comprehensive documentation for the complete workflow so the department could continue using it after my internship.

See the underlying SYNCHRO steel sequences ↗

03 · Featured work · Concrete formwork & sequencing

Concrete,
pour by pour.

At the Oshkosh Wastewater Treatment Plant, I helped the team visualize a complex concrete pouring sequence using BIM²form, a formwork plug-in for Revit. We connected individual pour phases to plans, 3D views, and schedules. My colleague NJG led this task and is credited as the drawing author on the sheets; the material shown here represents a team effort I supported, not work I completed alone.

Oshkosh WWTP sheet MC101: red-highlighted W01 pour phase, dimensioned plans, concrete takeoff, MEVA formwork schedule, elevations, and two 3D formwork views
Oshkosh WWTP · MC101 · W01 concrete wall and formwork drawings

A color-coded sequence locates each pour within the overall building. Phase-specific sheets bring concrete quantities, panel layouts, elevations, and formwork components into one coordinated view.

From Overall Sequence to Formwork Detail

Selected sheets · Select an image to expand

Miron Construction · Preliminary — Not for Construction. Shown as evidence of my contribution to the team’s planning and coordination work, not as a final construction instruction.

View Complete Sheet SetHide Complete Sheet Set26 Sheets · Preliminary · Not for Construction

For demonstration purposes only. Do not copy, reproduce, or use these drawings. Not for construction.

Oshkosh WWTP · Preliminary Concrete Sequence · Sheet 1 of 26
Oshkosh WWTP · Preliminary Concrete Sequence drawing sheet 1 of 26
Oshkosh WWTP · Preliminary Concrete Sequence · Sheet 2 of 26
Oshkosh WWTP · Preliminary Concrete Sequence drawing sheet 2 of 26
Oshkosh WWTP · Preliminary Concrete Sequence · Sheet 3 of 26
Oshkosh WWTP · Preliminary Concrete Sequence drawing sheet 3 of 26
Oshkosh WWTP · Preliminary Concrete Sequence · Sheet 4 of 26
Oshkosh WWTP · Preliminary Concrete Sequence drawing sheet 4 of 26
Oshkosh WWTP · Preliminary Concrete Sequence · Sheet 5 of 26
Oshkosh WWTP · Preliminary Concrete Sequence drawing sheet 5 of 26
Oshkosh WWTP · Preliminary Concrete Sequence · Sheet 6 of 26
Oshkosh WWTP · Preliminary Concrete Sequence drawing sheet 6 of 26
Oshkosh WWTP · Preliminary Concrete Sequence · Sheet 7 of 26
Oshkosh WWTP · Preliminary Concrete Sequence drawing sheet 7 of 26
Oshkosh WWTP · Preliminary Concrete Sequence · Sheet 8 of 26
Oshkosh WWTP · Preliminary Concrete Sequence drawing sheet 8 of 26
Oshkosh WWTP · Preliminary Concrete Sequence · Sheet 9 of 26
Oshkosh WWTP · Preliminary Concrete Sequence drawing sheet 9 of 26
Oshkosh WWTP · Preliminary Concrete Sequence · Sheet 10 of 26
Oshkosh WWTP · Preliminary Concrete Sequence drawing sheet 10 of 26
Oshkosh WWTP · Preliminary Concrete Sequence · Sheet 11 of 26
Oshkosh WWTP · Preliminary Concrete Sequence drawing sheet 11 of 26
Oshkosh WWTP · Preliminary Concrete Sequence · Sheet 12 of 26
Oshkosh WWTP · Preliminary Concrete Sequence drawing sheet 12 of 26
Oshkosh WWTP · Preliminary Concrete Sequence · Sheet 13 of 26
Oshkosh WWTP · Preliminary Concrete Sequence drawing sheet 13 of 26
Oshkosh WWTP · Preliminary Concrete Sequence · Sheet 14 of 26
Oshkosh WWTP · Preliminary Concrete Sequence drawing sheet 14 of 26
Oshkosh WWTP · Preliminary Concrete Sequence · Sheet 15 of 26
Oshkosh WWTP · Preliminary Concrete Sequence drawing sheet 15 of 26
Oshkosh WWTP · Preliminary Concrete Sequence · Sheet 16 of 26
Oshkosh WWTP · Preliminary Concrete Sequence drawing sheet 16 of 26
Oshkosh WWTP · Preliminary Concrete Sequence · Sheet 17 of 26
Oshkosh WWTP · Preliminary Concrete Sequence drawing sheet 17 of 26
Oshkosh WWTP · Preliminary Concrete Sequence · Sheet 18 of 26
Oshkosh WWTP · Preliminary Concrete Sequence drawing sheet 18 of 26
Oshkosh WWTP · Preliminary Concrete Sequence · Sheet 19 of 26
Oshkosh WWTP · Preliminary Concrete Sequence drawing sheet 19 of 26
Oshkosh WWTP · Preliminary Concrete Sequence · Sheet 20 of 26
Oshkosh WWTP · Preliminary Concrete Sequence drawing sheet 20 of 26
Oshkosh WWTP · Preliminary Concrete Sequence · Sheet 21 of 26
Oshkosh WWTP · Preliminary Concrete Sequence drawing sheet 21 of 26
Oshkosh WWTP · Preliminary Concrete Sequence · Sheet 22 of 26
Oshkosh WWTP · Preliminary Concrete Sequence drawing sheet 22 of 26
Oshkosh WWTP · Preliminary Concrete Sequence · Sheet 23 of 26
Oshkosh WWTP · Preliminary Concrete Sequence drawing sheet 23 of 26
Oshkosh WWTP · Preliminary Concrete Sequence · Sheet 24 of 26
Oshkosh WWTP · Preliminary Concrete Sequence drawing sheet 24 of 26
Oshkosh WWTP · Preliminary Concrete Sequence · Sheet 25 of 26
Oshkosh WWTP · Preliminary Concrete Sequence drawing sheet 25 of 26
Oshkosh WWTP · Preliminary Concrete Sequence · Sheet 26 of 26
Oshkosh WWTP · Preliminary Concrete Sequence drawing sheet 26 of 26

04 · Featured work · Twinmotion

Existing conditions.
A clearer view.

The main reason for scanning Alexander Gymnasium was to support façade repair coordination for Miron’s self-perform masonry team. Alongside that documentation work, I explored bringing the captured conditions from ReCap into Twinmotion. The visualization below is a native Twinmotion render, with no generative AI used.

Native Twinmotion exterior visualization of Lawrence University’s Alexander Gymnasium, framed by grass and trees beneath a blue sky
Alexander Gymnasium · Lawrence University · Native visualizationNative Twinmotion render · No generative AI

From Information to Image

Supporting studies · Select an image to expand

From Scan to Façade Repair Coordination

Revit elevations → Autodesk Forma

We used the elevation sheets to create a grid in Autodesk Forma, linking each grid block to an enlarged view of that façade segment. This gave the self-perform masonry team a shared way to locate and coordinate repairs. The four elevations below show the documentation behind that workflow.

Preliminary · Not for construction. Portfolio demonstration only.

05 · Supporting work · CMBuildeR

Planning
the working site.

I developed Phase 1 and Phase 2 logistics plans and 3D CMBuildeR models for UW–Whitewater. These views show site organization, equipment, parking, laydown areas, and routes in context.

Motion study Play to explore ↘
UW–Whitewater · Native CMBuilder site logistics render

AI-Enhanced Presentation Studies

Based on the CMBuilder model

AI enhancement changes visual details and can distort annotations. Use the native model views and planning sheets to understand the logistics proposal.

Explore the related Bluebeam logistics plans & masonry phasing ↗

Beyond the featured work · Technical contributions

01

2D Planning & Phasing

Alongside the 3D and 4D work, I developed 2D logistics plans and masonry sequences to explain site organization, phasing, and planned installation activities.

Bluebeam
02

Model Coordination

I compiled a multidisciplinary model and maintained existing compiled models, keeping project information organized and current to support the team’s coordination work.

Autodesk Forma · Navisworks

What the work demonstrates

The sequences, logistics views, and exploratory renders show how I organize technical project information into graphic deliverables for a team.