Decentralized Infrastructure, Power Systems, and Heavy Workhorse Dynamics
Welcome to the School of Logistics, Micro-Mobility & EV Science at The Very Professional Group. Modern rural and regional resilience relies on moving power, people, and cargo cleanly and efficiently. This college bridges practical mechanical engineering with advanced electrical systems—training students to build modular infrastructure nodes, assemble high-performance e-bikes, and execute full high-voltage EV conversions on full-sized utility workhorses.
Whether managing localized supply chains or repowering a fleet vehicle for off-grid operations, our curriculum turns raw mechanical platforms into dependable, long-term working assets.
Our practical training combines hands-on shop fabrication, electrical system wiring, and real-world utility deployment across light and heavy transport platforms:
1. Modular Node Construction & Off-Grid Staging
The Discipline: Master the design, assembly, and deployment of decentralized operational nodes—combining solar power generation, battery storage banks, and mobile tool staging.
The Practical Lab:
Frame & Platform Fabrication: Assembling modular, weather-proof enclosures and trailer-mounted staging units for field operations.
Micro-Grid Integration: Wiring MPPT charge controllers, split-phase inverters, and lithium iron phosphate (\text{LiFePO}_4) storage banks to power remote workstations and charging stations.
2. Micro-Mobility Engineering & E-Bike Workhorse Systems
The Discipline: Building, tuning, and maintaining utility-grade electric bicycles, cargo trikes, and mid-drive motor kits designed for heavy haulage.
The Practical Lab:
E-Bike Kit Assembly & Tuning: Installing hub and mid-drive motor systems, programming controller throttle/pedal-assist parameters, and custom wiring harness fabrication.
Mechanical Workhorse Conversions: Adapting heavy-duty cargo frames, tuning hydraulic braking systems for high-mass payloads, and building heavy-duty utility trailers capable of moving tools, farm yields, and equipment without a combustion engine.
Battery Pack Diagnostics: Cell balancing, BMS (Battery Management System) configuration, thermal management, and field-repair troubleshooting.
3. Full-Scale Utility EV Conversions (e.g., Ford Truck Platforms)
The Discipline: Converting internal combustion engine (ICE) utility trucks—such as classic Ford F-Series workhorses—into high-torque, fully electric utility platforms.
The Practical Lab:
Drivetrain Deconstruction & Mounting: Removing ICE components, calculating weight distribution, and fabricating custom motor-mount adapters to mate AC/DC electric motors to manual or automatic transmissions.
High-Voltage System Wiring: Designing and mounting modular battery enclosures, running high-voltage cabling, wiring contactor boxes, and configuring regenerative braking systems.
Vehicle Auxiliary Systems: Converting power steering pumps, vacuum brake boosters, and HVAC systems to run efficiently on 12V/48V auxiliary power loops.
4. Fleet Logistics & Workhorse Operations
The Discipline: Managing real-world cargo distribution using the right tool for the job—learning when to deploy a lightweight e-bike workhorse versus a heavy-duty electric truck.
The Practical Lab: Route planning, payload distribution calculations, battery-range estimating under heavy loads, and operating mixed-fleet logistics between rural nodes and central market hubs.
High-voltage electrical work and vehicle dynamics require rigorous theoretical study. Students commit to structured classroom hours covering:
1. Electrical Engineering & Energy Dynamics
High-Voltage Safety & Physics: Understanding Ohm's Law (V = IR), power calculations (P = VI), series vs. parallel battery configurations, and high-voltage isolation protocols.
Motor & Controller Dynamics: Studying permanent magnet synchronous motors (PMSM), induction motors, phase currents, and pulse-width modulation (PWM) controller tuning.
2. Oregon Vehicle Code & Regulatory Compliance
DMV EV Conversion Registration: Navigating Oregon Department of Transportation (ODOT) and DMV regulations for titling, inspecting, and certifying converted electric vehicles for street-legal highway use.
Oregon E-Bike Classification & Statutory Limits: Understanding Oregon Revised Statutes (ORS 801.258) governing Class 1, 2, and 3 e-bikes—ensuring motor output stays compliant (\le 1,000\text{W}) for sidewalk/pathway access vs. road-only registration requirements.
3. Supply Chain Mechanics & Node Analytics
Decentralized Logistics: Calculating ton-mile efficiency, energy-per-mile metrics (\text{Wh/mi}), and inventory replenishment cycles across regional node networks.
Working with high-voltage traction batteries, heavy automotive machinery, and power electronics demands strict shop safety and personal accountability.
High-Voltage & Shop PPE Requirements
High-Voltage Protection: Class 0 (1,000V rated) insulated gloves with leather protectors and arc-flash face shields are mandatory whenever working on energized EV traction packs or main contactors.
General Shop Safety: Steel-toe boots, eye protection, and heavy shop aprons/coveralls are required during all vehicle rigging, motor mounting, and frame fabrication.
Workhorse Operational Rules
Zero-Tolerance Impairment Policy: Absolutely no operation of EV platforms, heavy machinery, or power tools under the influence of any substance.
Pre-Flight Vehicle Inspections: Mandatory torque-checks, brake-line pressure tests, and battery thermal inspections prior to putting any e-bike workhorse or converted truck on public roads.