ASU EPICS // TIGER MOUNTAIN FOUNDATION // JUNE 2026

A sub-$100-per-unit target met 115°F heat. I redesigned the path forward.

Working within a three-person ASU EPICS team, I developed the project's research, system architecture, technical analysis, and final deliverables. When Tiger Mountain Foundation's budget proved insufficient for commercial climate control, I split the recommendation into a measurable pilot plan and a separately funded procurement path.

MY ROLE

Project lead and sole technical contributor responsible for the research, system architecture, technical analysis, and written deliverables.

Partner
Tiger Mountain Foundation
Program
ASU EPICS Summer Design
Team
Zayd Krunz, Jackson Petersen, Ethan Nojaim

01 // THE BRIEF

One brief. Three demands that could not all be true.

The target combined prototype-level spending with commercial-level performance. Treating those as the same project would have produced a flimsy build and worse advice.

CAPITAL TARGET<$100

per unit in the original brief

SUMMER HEAT115°F

ambient peak conditions

PRODUCTION GOAL365 days

of greens and herb production

02 // THE STRATEGY

Separate cheap learning from full-scale production.

I reframed the work as two connected tracks: one to reduce uncertainty on site, and one to fund and procure the system the original brief actually described.

TRACK APILOT PLAN

Measurable passive pilot

Shade the water path, purge hot standing water, buffer the reservoir, and log root-zone temperature, pH, EC, power, and maintenance on one greens-and-herbs module.

BUYS SITE EVIDENCE
TRACK BFUND SEPARATELY

Commercial procurement

Use those measurements to scope vendor quotes, utilities, warranties, training, and grant applications for a proper controlled-environment farm.

BUYS A CREDIBLE CAPITAL PLAN
THE REFRAMEThe pilot plan's job was to reduce uncertainty, not impersonate the finished farm.

03 // THE SYSTEM

Reduce the heat load first. Refrigerate only if data says to.

The concept separates water intake, hydroponics, cooling, and electrical controls so each layer can be tested and upgraded independently.

Container farm architecture showing water intake, hydroponic loop, cooling envelope, and solar-ready controls
The concept architecture I developed for the final design package. Each layer can be piloted and upgraded independently.
01 // PROTECT

Stop avoidable heat gain.

Shade lines, flush hot water, and buffer the root zone.

02 // MEASURE

Instrument the real system.

Log temperature, water chemistry, power, and labor.

03 // SCALE

Spend against evidence.

Add active cooling and solar only when the data justifies it.

04 // THE HANDOFF

Enough detail to act without fake precision.

I authored the 12-page concept package and seven-slide recommendation deck, covering thermal controls, crop modules, solar-load logic, procurement gates, phasing, and risk. The three-person EPICS team presented the materials to Tiger Mountain Foundation. Both documents are explicitly concept-level: useful for pilot planning and stakeholder review, not construction.

THE TAKEAWAY

The best engineering answer wasn't a build. It was a sequence.

Protect the system from first-order heat, run a disciplined pilot, and let real site data determine the capital plan. Under impossible constraints, honest scoping creates more value than a doomed prototype ever could.