A Ford dealership in Traverse City installed two DC fast chargers in 2022. They sit beside the service bay, gleaming white cabinets with touchscreens and retractable cables. In eighteen months, they’ve been used exactly four times, all by employees testing inventory. The dealership received a $45,000 grant to install them. Michigan just unlocked another $51 million for EV charging infrastructure under the National Electric Vehicle Infrastructure program, bringing the state’s total allocation to $110 million. The Federal Highway Administration approved Michigan’s plan after the state demonstrated compliance with federal requirements for fast chargers along designated highway corridors. The state now faces the harder question: where should the next 83 stations go, and will anyone actually use them?
What the Money Actually Buys
Michigan’s first two NEVI funding rounds focused on corridor charging: Interstate 94, US-131, the stretches where range anxiety matters most. The third round shifts to “geographic gaps, charger reliability, user experience, medium-duty vehicles and fleets, and long-term statewide priorities,” according to the state’s deployment plan. The easy sites are done. What remains are the locations that private capital skipped because the utilization math doesn’t work yet.
A DC fast charger at a rest stop on I-94 between Detroit and Chicago sees predictable through-traffic. A charger in Alpena or Ironwood serves local EVs that mostly charge at home, plus the occasional summer tourist. The capital cost is the same (roughly $150,000 to $250,000 per dual-port station including installation and grid upgrades), but the revenue potential differs by an order of magnitude. NEVI funding covers up to 80 percent of project costs, which means someone still needs to cover operations, maintenance, and the gap between utilization and breakeven.
Michigan’s approach pairs the federal money with coordination across the state Department of Transportation, local governments, tribal nations, utilities, and private charging companies. That sounds like bureaucratic process, but it’s necessary sequencing. A charger installed without utility coordination can trigger demand charges that make the economics unworkable. A charger installed without local input can end up in a parking lot that’s locked after 6 PM. The coordination overhead is real cost, both in time and staffing, but it’s cheaper than fixing poor site selection later.
The Utilization Problem Nobody Mentions
An EV with 250 miles of range and access to home charging uses public fast charging perhaps once a month, if that. The median American drives approximately 14,500 miles per year, or roughly 280 miles per week. A household with a Level 2 home charger replaces that weekly mileage overnight, every week, at roughly one-third to one-fifth the cost per kilowatt-hour of DC fast charging. Public charging exists for three use cases: road trips, apartment dwellers without home charging, and emergency top-ups when you misjudged your range.
Two of those three use cases are geographically concentrated. Apartment dwellers cluster in cities. Road trippers follow major highways. Emergency top-ups are rare and unpredictable. The NEVI program’s first phase addressed road trips. The second phase is supposed to address geographic gaps, but geographic gaps exist precisely because EV density is too low to support commercial charging infrastructure. Public capital is building infrastructure that private capital rejected because the demand isn’t there yet.
EVs don’t sell in rural Michigan partly because charging infrastructure is sparse. Charging infrastructure stays sparse because EV density is low. NEVI attempts to break this cycle by subsidizing the infrastructure first. But infrastructure utilization lags deployment by years. The stations Michigan is building in 2024 won’t reach economic viability until perhaps 2027 or 2028, assuming EV adoption continues accelerating. If adoption stalls, you have expensive grid-connected equipment sitting idle.
Why Grid Costs Dwarf Hardware Costs
The $150,000 to $250,000 per station figure I cited earlier is mostly transformer upgrades, trenching, and utility interconnection fees. The charger cabinet itself costs $50,000 to $80,000. The rest is getting enough power to the site. A dual-port 150 kW fast charging station can draw up to 300 kW at full load, roughly the same peak demand as a small commercial building. Most parking lots and rest stops weren’t designed for that kind of load.
Utilities handle this with demand charges, which penalize peak usage. If your charging station sits idle 90 percent of the time but occasionally draws 300 kW when two EVs charge simultaneously, you’re paying for that 300 kW capacity every month whether you use it or not. The typical demand charge in Michigan ranges from $10 to $20 per kilowatt of peak monthly demand. At $15 per kW, a 300 kW peak costs $4,500 per month in demand charges alone, before you sell a single kilowatt-hour. You need substantial utilization to amortize that fixed cost.
Battery storage at the site can shave peak demand by charging slowly from the grid and discharging rapidly into vehicles, but that adds another $100,000 to $200,000 in upfront capital. The economics improve if you can monetize the battery for grid services (frequency regulation, demand response), but that requires additional software, interconnection agreements, and operational complexity. Very few NEVI projects include on-site storage because it’s not required and adds cost. The result is infrastructure that’s expensive to operate even when utilization is low.
What Actually Drives Adoption
The NEVI program assumes that charging availability is a binding constraint on EV adoption. Survey data supports this: range anxiety consistently ranks among the top three barriers to EV purchase. But surveys measure stated preferences, not revealed preferences. When you track actual buyer behavior, the binding constraints are different. Price premium over comparable ICE vehicles, typically $5,000 to $12,000 even after incentives. Lack of affordable options in popular segments like compact SUVs and trucks. Resale value uncertainty, which suppresses lease residuals and inflates monthly payments.
Charging infrastructure matters most to early adopters and edge cases. If you live in an apartment without assigned parking, public charging is essential. If you regularly drive 200-plus miles in a day, fast charging availability matters. But the median new car buyer in Michigan doesn’t fit either profile. They commute 25 miles round-trip, they have a garage or driveway, and they view an EV as a second vehicle that handles predictable local driving while the F-150 sits in the driveway for Home Depot runs and winter weather.
Michigan’s EV infrastructure isn’t useless. The value shows up later in the adoption curve, once EV density reaches the point where apartment dwellers and renters represent a meaningful share of potential buyers. Right now, Michigan’s EV share is roughly 2.5 percent of new vehicle sales. At that penetration level, the primary constraints are vehicle availability and price, not charging infrastructure.
The Capital Allocation That Actually Works
Better sequencing would concentrate NEVI funding in the highest-utilization corridors until those reach commercial viability, then use the operational learnings to refine site selection for lower-density areas. Instead, the program distributes funding geographically to ensure every state gets a share, which creates political equity but economic inefficiency. Michigan’s $110 million could build extremely robust charging along I-94, I-75, and US-131, the routes that actually see through-traffic. Instead, it’s spread across 83 stations, many in locations that won’t see meaningful utilization for years.
The alternative is to focus public capital where the market failure is clearest: multi-unit dwellings and workplace charging. A $50,000 Level 2 installation at an apartment complex serves 20 to 40 residents who can’t charge at home. The utilization rate is substantially higher than a rural DC fast charger, and the cost per port is 80 percent lower. The NEVI program allows funding for this, but it’s not the priority. The priority is highway corridors and geographic coverage, which makes for better press releases but weaker economics.
The grid coordination Michigan is doing matters more than the specific charger locations. If the state uses this buildout to establish standards for utility interconnection, demand charge structures optimized for variable EV load, and permitting processes that reduce deployment timelines, that infrastructure becomes reusable for the next wave of private investment. If it’s just 83 chargers installed to meet federal requirements, the durable value is minimal.
What This Actually Tests
The NEVI program is a $5 billion experiment in whether public capital can create the charging network that private capital won’t build yet. Michigan’s $110 million is a relatively small slice, but the state’s mix of urban density (Detroit, Grand Rapids) and rural geography (Upper Peninsula, northern lower peninsula) makes it a useful test case. If charging utilization in Michigan’s third round of NEVI sites reaches 15 percent to 20 percent within three years, the model works. If utilization stays below 10 percent, you’ve built infrastructure that won’t pay for itself until EV density doubles or triples, which could take a decade.
Infrastructure leads demand in network industries, and that means accepting low initial utilization as the cost of being ready when adoption accelerates. But if you’re going to do that, concentrate the capital where the learning rate is highest and the eventual utilization is most certain. Spreading $51 million across marginal locations teaches you very little and creates stranded assets if adoption doesn’t follow the optimistic projections.
Michigan has the funding and the federal approval. Whether it results in a functional charging network or expensive monuments to policy optimism depends entirely on site selection and utilization discipline over the next 36 months.