We design and deploy integrated systems for outdoor operations at scale

Since 2009, MEC Pro Adventures has delivered mission-critical technology infrastructure to expedition operators, environmental research networks, and adventure infrastructure across 14 countries.

200+
Integrated Systems
Delivered since 2009
99.7%
Uptime SLA
Field-grade reliability
14
Countries
Global deployments
3,800+
Devices Managed
IoT and edge endpoints

Capabilities Matrix

Our services span the full lifecycle of outdoor technology systems — from requirements through sustainment.

Service Domain Expedition Operations Environmental Monitoring Adventure Infrastructure Field Research
Systems Architecture & Design
Hardware Integration & Procurement Partial
Embedded & Edge Firmware
Wireless Communications (LoRaWAN, Iridium, LTE) Partial
Cloud Backend & Data Pipelines
GPS/GNSS Positioning & Geofencing Partial
Real-Time Telemetry & Alerting
Field Deployment & On-Site Commissioning
Training & Operational Handover

How We Deliver

Every engagement follows a six-phase methodology refined over 15 years of field-deployed systems engineering.

01
Discovery
Site surveys, stakeholder interviews, and environmental constraint analysis define the operational envelope.
02
Architecture
System topology, component selection, and data flow design against power, weight, and bandwidth budgets.
03
Integration
Hardware assembly, firmware development, and communications stack implementation in our Utah lab.
04
Validation
Environmental chamber testing, endurance runs, and staged field trials before deployment.
05
Deployment
On-site commissioning, network turn-up, and integration with existing operational systems.
06
Sustainment
Remote monitoring, over-the-air updates, annual health checks, and 24/7 tier-3 escalation.

Problems We Solve

Technology systems fail in the field for predictable reasons. We address the root causes, not just the symptoms.

Communications

Off-Grid Connectivity for Expedition Fleets

When satellite bandwidth costs $3–8 per megabyte and latency exceeds 600 ms, standard cloud architectures collapse. We design tiered edge-to-satellite data pipelines that compress, prioritize, and batch telemetry based on operational criticality — reducing transmission costs by 60–80% while maintaining real-time alerting for safety events.

Power Systems

Autonomous Power Budgeting for Remote Sensor Networks

Environmental monitoring stations in alpine and desert environments face extreme thermal cycling that degrades battery chemistry and reduces panel efficiency. Our power management controllers use adaptive duty cycling with weather-forecast-aware scheduling — extending unattended runtime from weeks to months.

Data Integrity

Reliable Telemetry Over Unreliable Transport

LoRaWAN and Iridium SBD links drop packets routinely. Store-and-forward buffering alone is not enough. We implement application-layer sequencing with Merkle-tree integrity verification, ensuring that no data gap goes undetected — critical for research datasets destined for peer-reviewed publication.

Integration

Bridging Legacy Field Gear with Modern Cloud Infrastructure

Many operators run equipment — weather stations, RFID checkpoints, VHF radios — that predates modern APIs. Our protocol translation gateways expose RS-232, CAN bus, and proprietary serial protocols as structured MQTT streams, bringing decades-old hardware into unified dashboards without replacement cost.

Knowledge Center

Power Budgeting for Multi-Sensor Field Kits

A calculator-driven methodology for estimating solar panel sizing, battery capacity, and duty cycle constraints for field research kits with 4–12 sensor payloads.

LoRaWAN Range Testing: Mountain Terrain Results

Empirical data from 47 point-to-point tests across the Wasatch Range. Line-of-sight ranges of 22 km achieved at SF12; non-LOS performance dropped to 1.8 km in dense forest.

Building Redundant Telemetry: Iridium SBD vs. Inmarsat IsatData Pro

A side-by-side comparison of the two dominant L-band satellite IoT services for outdoor operations — latency, message size limits, coverage gaps, and per-message economics.

Thermal Management for Electronics in Desert Environments

Design guidelines for enclosures, conformal coatings, and passive cooling strategies when field electronics must operate at ambient temperatures exceeding 50°C.

Talk to an Engineer — Not a Sales Funnel

When you contact MEC Pro Adventures, your inquiry goes directly to a senior systems engineer who has deployed equipment in the field. No discovery-call dance, no automated sequences. You describe your operational environment and what you need the system to do. We tell you what is feasible, what trade-offs exist, and what it costs — typically within 48 hours.

Our engineering team is based at our Washington, Utah facility, where we maintain a full integration lab with environmental chambers, spectrum analyzers, and reference hardware from our major component partners.

Start a Technical Conversation
48h
Average First Response
6
Senior Engineers on Staff
15
Years of Field Experience
100%
Referenceable Projects

Start a Project

Contact Information

P
Office & Integration Lab 3886 S 170 W
Washington, UT 84780-8376
United States
W
Website www.mecpro.hair