What competencies should a transport and warehousing professional in a logistics service company have when designing, organizing, and managing energy systems (hardware and data) for the electricification of freight?
Strategic, tactical, and operational questions in charging infrastructure
Companies will be electrifying their fleets in the years ahead. How do you prepare for that as a business? How do you ensure that the transition to electric transport is managed affordably and reliably? What are the strategic, tactical, and operational questions when it comes to charging infrastructure? What competences do you need?
Competency Framework: Energy Systems for Electrified Urban Freight
1. Energy Infrastructure and Hardware Knowledge
To understand charging architecture, a professional must understand depot-based versus en-route charging models: a depot-based model has an electric truck start and end its route at the same place, allowing charging when not in use, whereas variable-route operations may require public fast-charging infrastructure. This includes knowledge of charger levels (AC overnight vs. DC fast), power ratings, and hardware procurement.
Grid connection and electrical capacity. Achieving cost reductions from electric trucks hinges on available budgets for substantial upfront capital investments and upgrades to the depot’s electricity grid connection. Professionals must be able to commission electrical studies, negotiate grid connection agreements with utilities, and plan for capacity upgrades.
On-site energy assets. Professionals should assess flexible charging, storage, renewables, and vehicle-to-everything (V2X) technologies — including stationary battery storage, rooftop solar, and smart inverters — to reduce peak demand charges and improve energy resilience at depots. Also linking energy systems with offices, warehouses, and production operations is essential.
2. Energy Data Management and Digital Systems
Energy management software and telematics. Logistics professionals must be comfortable with data analytics and technology to enhance visibility and coordination across the supply chain, and this extends to energy: monitoring state of charge, consumption per vehicle/route, and charging session data.
Demand flexibility and smart charging. EV fleets for drayage or logistics can be scheduled to charge during off-peak hours, consuming excess renewable energy that would otherwise be curtailed. This requires competence in smart-charging software, time-of-use tariff optimization, and interfacing with utility demand-response programs. Smart charging software can schedule overnight charging during off-peak hours, reducing energy costs by up to 50%.
Geospatial and logistics data integration. Effective planning combines logistics data, geospatial modeling, and smart energy strategies to anticipate where and when charging demand will materialize. Professionals should be able to use or commission such modeling to inform depot siting and infrastructure investment timelines.
3. Fleet and Operations Integration
Route and duty cycle analysis. The charging strategy must account not only for the physical properties of the EV fleet and charging system, but also for the carrier’s level of knowledge and flexibility in using them. Competency here means matching charging strategies to operational profiles — shift patterns, dwell times, route lengths.
Fleet electrification planning. 85% of logistics routes under 300 miles are EV-viable with current technology. For regional operations, strategic DC fast-charging stations at distribution hubs enable mid-route charging. Professionals must be able to conduct fleet segmentation analyses to identify which vehicles and routes to electrify first.
Battery and asset lifecycle management. Knowledge of battery degradation, warranty management, and end-of-life strategies (including second-life storage applications) is increasingly necessary for total cost-of-ownership modeling.
Depot Space Planning for EV Charging Infrastructure. The ability to assess and design the physical layout of depot charging facilities, understanding that electrification requires far more than installing charging posts. This competency covers charging bay dimensioning, maneuvering, and circulation space, turning circles, vertical clearance requirements, and the footprint of ancillary installations such as transformers and battery storage systems — each with its own safety setbacks. It includes navigating inconsistent requirements from insurers, grid operators, fire services, and municipalities, and integrating all of these spatial demands into coherent, future-proof depot planning from the outset.
4. Sustainability Strategy and Carbon Accounting
Emissions measurement and reporting. Professionals need a nuanced understanding of lifecycle emissions calculations specifically tailored to electric vehicles and electricity usage, including frameworks such as ISO 14083 and the GLEC Framework.
Net-zero target setting and roadmapping. Zero-emission truck sales are accelerating globally, and reaffirming that zero-emission trucks are investable requires high-quality accounting, reporting, and assurance methodology. Professionals should be able to build decarbonization roadmaps aligned with science-based targets and track progress against them.
Urban freight ecosystem thinking. Businesses in the urban freight ecosystem increasingly need to secure and invest in spaces that enable them to deploy new technologies, such as microhubs, cargo bike consolidation points, and zero-emission zones. Professionals must understand these spatial and modal dimensions.
5. Regulatory, Policy, and Market Navigation
Zero-emission zone compliance. Dutch cities Amsterdam and Rotterdam launched zero-emission zones in January 2025, where (from 2028 onwards) only zero-emission freight vehicles can enter, with 14 Dutch municipalities cutting CO₂ emissions and 15 more planning similar zones. Professionals operating in urban logistics must monitor and plan for evolving access regulations across jurisdictions.
Incentive and funding landscape. Federal and state programs provide significant incentives — for example, US heavy-duty electric trucks qualify for up to $40,000 in federal tax credits, and charging infrastructure qualifies for separate credits. Competency in navigating these programs is essential for making the business case.
Stakeholder and utility engagement. Vehicle electrification for energy-intensive sectors like freight requires coordinated efforts from both the energy and transportation sectors. Professionals must be able to engage effectively with grid operators, city authorities, real estate partners, and technology vendors.
6. Financial and Investment Competencies
Business case and TCO modeling. Adopting electric trucks can lead to lower total costs than diesel fleets, but achieving those cost reductions depends on the pace of adoption and on whether charging can be depot-based rather than relying on public fast charging. Professionals need skills in total cost of ownership analysis, capital budgeting, and scenario planning under technology uncertainty.
Procurement and vendor management. Early preparation of ZEV-ready sites and alignment with utility proactive planning can significantly shorten deployment timelines, reduce future upgrade costs, and preserve flexibility as freight demand grows. This requires strategic procurement skills for charging hardware, energy contracts (including PPAs for renewables), and managed charging services.
7. Change Management and Organizational Leadership
Cross-functional coordination. Effective electrification requires aligning with carriers on a shared vision, building collaborative partnerships, and providing operational support to ease the transition. Internally, professionals must lead change across operations, maintenance, finance, and IT teams.
Driver and workforce training. Transitioning to EVs changes driver behavior requirements (range management, preconditioning, charging discipline) and maintenance workflows. Professionals need the ability to design and deliver training programs.
Scaling and replication. Smaller operators face greater challenges accessing capital, securing infrastructure investment, and navigating complex energy requirements — a professional with strong competencies can develop scalable, transferable playbooks that reduce barriers across a network.
Summary Matrix
| Domain | Key Competency Areas |
|---|---|
| Hardware | Charging infrastructure, grid connection, on-site energy assets, space |
| Data & Digital | Energy management systems, smart charging, and geospatial planning |
| Operations | Duty cycle analysis, fleet segmentation, battery lifecycle |
| Sustainability | Carbon accounting, net-zero roadmapping, and urban freight modes |
| Regulatory | ZE-zones compliance, incentive navigation, stakeholder engagement |
| Financial | TCO modeling, opex and capex planning, energy procurement |
| Leadership | Change management, workforce training, scalable rollout |
The professionals best positioned for this work will sit at the intersection of logistics operations, energy systems, and sustainability strategy — a genuinely new profile that most traditional transport and warehousing curricula don’t yet fully address.
Walther Ploos van Amstel.