The Class 8 EV Infrastructure Deficit: What Electric Drayage Actually Looks Like at the Port

The Class 8 EV Infrastructure Deficit: What Electric Drayage Actually Looks Like at the Port

There is a version of the Class 8 electric truck story that gets told in press releases, and there is a version that gets told in dispatch offices. The two do not match. Battery electric drayage trucks are real, they work, and several models are genuinely capable of handling port duty cycles. That much is true and worth saying plainly. What is also true is that the charging infrastructure required to run them at scale does not yet exist in most port markets, published range figures assume conditions that container hauling rarely provides, and the economics only work where subsidy programs carry a large share of the cost.
For carriers and shippers moving freight through the Port of Virginia, this is not an abstract policy debate. It affects equipment planning, capacity forecasting, and whether the drayage partner you use three years from now is running the same fleet they run today. Here is an honest accounting of where things actually stand.

What Class 8 Electric Trucks Actually Deliver Under Container Loads

Start with the number everyone quotes and almost nobody qualifies. Manufacturer range figures for Class 8 battery electric trucks are typically generated under favorable conditions: moderate temperatures, steady speeds, and loads well below the maximum the truck is rated to carry. Container drayage provides none of those conditions reliably.
The most useful data point comes from BYD, which publishes range at two different load states for its 8TT tractor. At half load, the truck is rated at roughly 167 miles. At full load, that figure drops to approximately 124 miles. That is a manufacturer disclosing, in its own specifications, that loading the truck to capacity costs about a quarter of its usable range. Most manufacturers do not publish that comparison so directly.

Weather compounds the load penalty. Research assessing seasonal and geographic influences on electric drayage energy consumption found that a 60,000-pound truck consumed close to 250 kWh per 100 kilometers during harsh winter months, compared with 160 to 200 kWh per 100 kilometers in mild conditions. That is a swing of roughly 25 to 35 percent driven by temperature alone. Independent fleet analysis has documented average winter range degradation near 15 percent when overnight temperatures fall below 41 degrees Fahrenheit. Hampton Roads winters are milder than the Pacific Northwest, but they are not mild enough for this to be irrelevant.

Then there is the charging band problem. In practice, fleets operate Class 8 electric trucks between roughly 10 and 80 percent state of charge to protect battery life and maintain charging speed. Charging from 80 to 100 percent is slow enough that it rarely makes operational sense. The usable range in daily service is therefore not the full published figure. It is closer to 70 percent of it.
Stack those three factors on a tractor rated at 150 miles: a full container load, a cold January morning, and a 10 to 80 percent operating band. The realistic working range lands well under 100 miles. For a carrier running two or three turns a day out of Norfolk International Terminal or Virginia International Gateway, that math gets tight quickly.

The Payload Penalty Nobody Advertises

The obvious answer to insufficient range is a bigger battery. The problem is that batteries are heavy, and heavy freight is exactly what drayage moves.
Current heavy duty electric truck batteries consume roughly 2 kWh per mile. Adding 100 miles of range therefore means adding approximately 200 kWh of battery capacity along with all the weight that comes with it. On a tractor already operating near gross weight limits with a loaded 40-foot container, that added tare weight comes directly out of legal payload capacity.
The research on seasonal energy consumption makes the tradeoff explicit. To maintain range in harsh conditions or over longer routes, either the payload must be reduced or the battery pack must be enlarged, which itself reduces payload capacity. No configuration escapes the tradeoff entirely. For shippers moving dense cargo where weight rather than volume is the binding constraint, this is not a minor specification detail. It determines whether the load is legal.

This is also where overweight container work becomes complicated. Carriers handling heavy cargo under heavy cargo permitting already manage tight weight tolerances across axle configurations. Adding several thousand pounds of battery to the tractor narrows that operating envelope further.

Where the Class 8 EV Charging Infrastructure Is Actually Failing

Range limitations are manageable if charging is fast, reliable, and available where trucks operate. That is precisely where the current picture breaks down, and it breaks down in four distinct ways.

Grid capacity and interconnection timelines

A depot capable of charging a meaningful number of Class 8 trucks requires electrical service on an industrial scale. Utilities are actively reassessing grid capacity, interconnection protocols, and rate structures in response to this load growth, and the make ready upgrades required to bring adequate power to a site frequently take longer than the trucks take to arrive. Fleets have found themselves holding delivered vehicles they cannot fully charge because the service upgrade is still sitting in the utility queue.

The constraint is significant enough that RMI published analysis in February 2026 arguing that drayage chargers should deliberately be sited away from ports rather than at them, specifically to preserve scarce port grid capacity for shore power and cargo handling equipment. When credible researchers recommend moving the chargers away from where the trucks work, that says something about how tight the power situation is.

Charger utilization and queuing

Shared charging depots run into a congestion threshold that is easy to underestimate. Modeling published in 2026 identified a critical utilization level near 70 percent, beyond which queuing delays begin to materially constrain fleet operations. A site that looks adequately sized on a spreadsheet becomes a bottleneck once real dispatch patterns cluster arrivals around shift changes and terminal gate hours.

Drayage makes this worse than most applications, because drayage demand is not evenly distributed across the day. Tractors return from terminal runs in clusters. If eight trucks need charging between 3 p.m. and 6 p.m. and the site has four dispensers, the last driver in line is waiting, and that wait is unproductive time.

Reliability and station downtime

The 2024 Zero Emission Drayage Truck Feasibility Assessment conducted under the San Pedro Bay Ports Clean Air Action Plan reached a conclusion worth noting for its bluntness. The trucks are technologically capable of meeting port duty cycles, but charging and hydrogen station downtime threaten fleet operations and operator confidence. A diesel tractor with a fuel card can refuel at thousands of locations. An electric drayage truck dependent on one or two compatible charging sites has no fallback when a dispenser goes down.

The cost of the electricity itself

This is the failure mode that receives the least attention and may matter the most. Survey data from 2025 found that 73 percent of fleet operators identified energy procurement costs, not charging speed, as their primary operational concern. Commercial electricity rates include demand charges based on peak draw, and a bank of high-capacity chargers pulling simultaneously creates exactly the peak those charges are designed to penalize. Grid upgrade costs recovered through per kilowatt hour pricing can erase the operating cost advantage that made the truck attractive in the first place.

The Economics Behind Sub One Percent Adoption

Battery electric vehicles account for less than one percent of new Class 6 through 8 truck sales in North America. That figure is the honest summary of everything above.
Acquisition cost for a Class 8 battery electric tractor can run more than double a comparable diesel. Charging infrastructure is a separate capital line item on top of that, and one many small and mid-sized drayage operators cannot finance independently. Industry analysts expect adoption to keep advancing in specific operating segments, with port and drayage operations among the most favorable, rather than broadly across trucking. Drayage genuinely is one of the better use cases. It is still a use case where the economics depend heavily on incentive support.

Megawatt charging systems capable of bringing dwell times below 30 minutes are being deployed at a handful of sites, with broader integration targeted for 2027 and 2028. That timeline is worth watching. It is not a timeline that helps a fleet making an equipment decision this year.

What This Looks Like at the Port of Virginia

Hampton Roads occupies a different position than the California port complexes that dominate this conversation, and the difference matters.
Virginia has no equivalent to California’s Advanced Clean Fleets drayage mandate. Carriers serving Norfolk International Terminal and Virginia International Gateway are not facing a regulatory deadline requiring zero emission tractors. The transition here is incentive driven rather than compliance driven, which means it will move at the pace the economics support rather than the pace a rule dictates.

The Port of Virginia has committed to carbon neutrality by 2040 and has been electrifying its own equipment, including all electric yard tractors in terminal service. On the drayage side, the Virginia Green Operator program has run its GO-Zero initiative, offering up to $200,000 toward each zero emission truck purchased, with an additional $25,000 available to operators who scrap an older diesel drayage tractor. The most recent application window ran from July 10 through August 24, 2026, with awards expected to be announced in the fall.

Two hundred thousand dollars is a serious incentive. It is also a reasonable indication of how large the cost gap is that the incentive exists to close. And the incentive addresses the tractor, not the charging infrastructure required to operate it. An owner operator or small fleet awarded a GO-Zero grant still faces the depot power question, the utility interconnection timeline, and demand charge exposure on the monthly bill.

Where Electric Drayage Genuinely Works Today

None of this argues that electric drayage is a dead end. It argues that the current window of viability is narrower than the coverage suggests, and knowing the shape of that window is more useful than either optimism or dismissal. The conditions where the technology performs well are specific and identifiable.

• Short, repeatable, return to base cycles. A survey of drayage operators in the greater Los Angeles area found that 81 percent of drayage trips were under 60 miles. Fleets running consistent short hauls between a terminal and a nearby warehouse, returning to the same yard each night, fit the technology well.
• Operations with private depot charging. Behind the fence charging at a facility the fleet controls avoids the queuing and reliability exposure of shared public sites. It requires capital and a cooperative utility, but it carries the fewest operational unknowns.
• Predictable, weight moderate freight. Loads that do not push against gross weight limits absorb the battery tare penalty without sacrificing legal payload.
• Fleets with access to stacked incentive funding. Where federal, state, and port level programs combine to cover a substantial share of both vehicle and infrastructure cost, the total cost of ownership case becomes defensible in a way it is not at sticker price.

What does not fit yet: drayage runs beyond the local radius, heavy container work near weight limits, operations without dedicated charging access, and any duty cycle where an unexpected charger outage would strand a container against a demurrage deadline.

How Century Express Virginia Is Approaching the Transition

Century Express Virginia has operated at the Port of Virginia since 2007, and the approach to equipment decisions has stayed consistent through several technology cycles. Evaluate honestly, adopt when the operational case is real, and never put a customer’s freight behind an experiment.

The team is watching the GO-Zero program, the charging build out across Hampton Roads, and the megawatt charging timeline closely. When the infrastructure can support electric tractors without introducing new failure points into a customer’s supply chain, that will be the right time to move. The diverse background of the staff across ocean carrier operations, customs brokerage, and domestic transportation means that evaluation stays grounded in how freight actually moves rather than how a specification sheet reads.

Until then, the priority is what it has always been. Reliable port drayage at NIT and VIG, backed by specialized equipment for cargo that needs it, refrigerated drayage for temperature sensitive freight, and yard storage in Norfolk and Portsmouth when containers need to come off terminal quickly. If you are newer to how these pieces fit together, the complete guide to drayage covers the fundamentals.

If you are evaluating how the zero emission transition might affect your drayage capacity planning over the next several years, Century Express Virginia is here to assist you. From planning to forecasting, the team can walk through what is realistic on your lanes today and what is still several years out.

Contact the Century Express Virginia team today. We are accessible seven days a week at (757) 494-9200, or reach out through the contact page to start the conversation.