MBARC LABS

Product Design Studio

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CONFIDENTIAL CLIENT
// INDUSTRIAL_IOT

The "Digital Pumper"
& Industrial IoT Grid

Bringing the $50B Oil Patch Online—Without the Internet. An offline-first ecosystem that recovered 6% net profit margins for operators in cellular dead zones.

ROLE
End-to-End Product Studio
TIMELINE
18 Months (MVP to Scale)
STATUS
Acquired
IMPACT
6% Margin Lift
DELIVERABLES:
Innovation Strategy
Fractional CTO
Industrial Design
Firmware (C/C++)
LoRaWAN Mesh
React Native (Offline-First)
AWS IoT Core
Anomaly Detection
// THE_CONTEXT

The "Unfair" Challenge

Our client, a fast-growing SaaS provider, serves the "long tail" of the oil industry—independent producers who manage thousands of low-volume wells but lack the IT budget of majors like Chevron.

The industry was running on 1980s technology. Pumpers drove hundreds of miles daily to manually gauge tanks, scribbling numbers on grease-stained paper tickets.

The real killer was the "Blind Spot." Between visits, leaks and theft went undetected. To make matters worse, 90% of these wells are in cellular dead zones, making standard cloud-IoT solutions useless.

// CONSTRAINTS

  • No Cellular Connectivity (Dead Zones)
  • Harsh Environmental Conditions (Permian Basin)
  • Legacy Hardware Compatibility
  • Zero-Touch Compliance Requirements
// THE_JOURNEY

From Prototype to Acquisition

1

The "Offline" MVP

Weeks 1-12

We proved we could digitize the pumper without changing their workflow. We built a React Native app that functioned as a complete local operating system, performing complex oilfield math on-device.

Outcome: Adoption time reduced to < 8 minutes.
2

The Hardware Bridge

Months 4-12

To remove human error, we introduced the "Silent Watchdog"—a custom LoRaWAN sensor network. We engineered a battery-powered device that wakes up, pings via long-range radio (penetrating steel tanks), and sleeps.

Outcome: 5-year battery life in extreme heat.
3

The "Shadow Twin"

Scale

We built a cloud ingestion layer that correlated human data (Run Tickets) with machine data (Sensors). The system now flags theft (sensor drops without tickets) and predicts leaks before they happen.

Outcome: Automated compliance and billing reconciliation.
// BLUEPRINT

"Thin Edge, Fat Cloud"

We architected a hybrid system: A local-first mobile app for the humans, and a LoRaWAN mesh network for the machines.

The Edge (Hardware)

Custom LoRaWAN sensors wake up every 15 mins, ping fluid levels via ultrasonic pressure, and sleep.

LoRaWAN
915MHz

The App (Offline-First)

A complete OS on the phone. SQLite local DB syncs via Merkle Trees when connectivity returns.

React Native
SQLite

The Cloud (AI Twin)

Anomaly detection engine correlates sensor data with run tickets to flag theft and leaks.

AWS IoT
Python

> DETECT_LEAK: DELTA > 5.2 BBL/HR

> INTERRUPT_SLEEP_CYCLE

> BROADCAST_ALERT: EMERGENCY_PACKET_0xFF

> GATEWAY_HANDSHAKE: ACK

// CRITICAL_ENGINEERING

Solving the Sync Conflict

When a pumper is offline for 3 days, their local data drifts from the server.

We implemented a custom "Merkle Tree" sync engine using SQLite. The device acts as the "Source of Truth" for field data. Every edit is append-only—we never overwrite, we version. This allowed operators to "replay" a pumper's day to see exactly when data was changed.

  • Conflict-free offline writes
  • Full audit trail of every interaction
  • Seamless background syncing

The Impact

6%
Net Profit Lift
Zero
Downtime in Dead Zones
100%
Automated Compliance

"We stopped guessing what was happening in the field. This system turned the lights on."

— EARLY ADOPTER & CEO