
The story begins, as these things often do, with an image that requires very little interpretation—rows of modern electric buses sitting still under the Florida sun, not in service, but in storage. Some are parked in long lines at the Homestead Air Reserve Base. Others have already reached a more final destination. According to a Local 10 News investigation, “Ninety-six million dollars’ worth of electric buses sit idle across South Florida, some parked in a landfill, others lined up at the Homestead Air Reserve Base.”
That figure—$96 million—is the visible portion of the cost. It reflects capital that has already been spent on assets that, at least for now, are not performing their intended function. But treating that number as the full cost misses the structure that produced it.
These buses are the downstream result of a multi-layered subsidy system. At the production level, companies like Proterra were supported through a combination of federal grants, state incentives, and politically aligned investment flows. At the consumption level, local transit agencies were encouraged—often strongly—to purchase electric fleets through federal funding programs, environmental mandates, and policy pressure tied to emissions targets.
Proterra itself serves as a useful case study. Founded in 2004 and heavily promoted as a cornerstone of electric transit, the company received substantial public support over its lifetime. This included federal grants from agencies such as the Department of Energy and the Federal Transit Administration, as well as state-level incentives—particularly from California, where aggressive electrification policies created a guaranteed market for its products. By various estimates, direct and indirect public funding to Proterra reached into the hundreds of millions of dollars. That support was supplemented by favorable regulatory treatment and procurement preferences that effectively ensured demand.
Despite this, Proterra filed for bankruptcy in 2023.
That sequence—heavy subsidy, rapid expansion, operational struggles, and eventual insolvency—is not unusual in sectors where policy attempts to accelerate technological adoption ahead of demonstrated readiness. The South Florida buses are, in effect, the physical remnants of that sequence.
So the $96 million sitting idle is better understood as the endpoint of a much larger capital pipeline. Public money supported the manufacturer. Public money financed the purchase. Public agencies took delivery. And somewhere between procurement and operation, the system failed to translate expenditure into utility.
This is where the underlying mechanics become difficult to ignore.
When governments subsidize both the production and the consumption of a product, they create a closed loop that weakens the normal constraints of performance. Manufacturers are rewarded for building units. Agencies are rewarded for acquiring them. The transaction itself becomes the measure of success.
Whether the buses can reliably complete their routes becomes, at best, a secondary consideration.
One commenter in the discussion surrounding the story summarized a commonly cited issue in blunt terms:
“These electric buses… the battery charge just doesn’t last long enough to complete a typical bus route.”
Whether that statement applies universally is less important than the fact that such limitations were widely understood before large-scale procurement began. Range variability, charging infrastructure requirements, maintenance complexity, and battery degradation are not obscure technical details. They are central design constraints.
Yet procurement proceeded as though these constraints were either resolved or irrelevant.
That is not a technological failure in the narrow sense. It is a policy failure—specifically, a failure to align incentives with outcomes.
In a functioning market, feedback is immediate. If a fleet of buses cannot perform its intended function, the losses are concentrated and corrective action follows quickly. Capital is reallocated. Suppliers are replaced. Designs are revised.
In a subsidy-driven system, feedback is delayed and diluted. The costs are distributed across taxpayers. The decision-makers responsible for procurement are insulated from direct financial consequences. The political benefits of “going green” are immediate, while the operational shortcomings emerge slowly and are often attributed to secondary factors.
The buses become symbols before they become tools.
That distinction matters. A tool must work. A symbol must only be seen.
The reporting notes that some of these buses are already “parked in a landfill.” It is difficult to construct a more concise illustration of the gap between intent and outcome. A product introduced to signal environmental progress ends its life cycle as waste without delivering the service it was meant to provide.
This pattern extends beyond a single fleet in South Florida.
Across the broader landscape of green energy policy, similar incentive structures appear repeatedly. Subsidies encourage rapid scaling of production. Additional subsidies or mandates encourage rapid adoption. The timeline is compressed by political objectives rather than guided by engineering validation.
Wind and solar installations, for instance, often expand ahead of grid adaptations required to handle intermittency. Battery storage is promoted as a solution, though it introduces its own cost structures and technical limitations. Electric vehicles are incentivized at the consumer level while charging infrastructure develops unevenly.
Each of these cases involves real technological progress. None are inherently unworkable. The issue is the sequencing.
When deployment is driven by policy targets rather than demonstrated reliability and cost-effectiveness, the probability of misallocation increases. The system begins to reward scale over performance.
The electric buses in South Florida fit squarely within this pattern.
The cost side of the ledger is relatively straightforward: $96 million in idle assets, ongoing maintenance and storage expenses, and the upstream subsidies that supported both production and procurement. When factoring in federal grants, state incentives, and the capital directed toward companies like Proterra, the total public exposure expands significantly beyond the local purchase price.
The benefit side, however, is conditional. Emissions reductions require operational buses. Cost savings require reliable performance over time. Service improvements require integration into existing transit systems without disruption.
When the buses do not run, those benefits do not materialize.
This creates an imbalance that is often obscured in policy discussions. Costs are immediate and certain. Benefits are projected and contingent.
In environments where decision-making is guided by models and forecasts, it is easy to emphasize the projected benefits while discounting the uncertainty attached to them. Climate models, cost projections, and adoption curves all carry assumptions—sometimes explicit, often implicit—about how technologies will perform under real-world conditions.
When those assumptions prove optimistic, the gap is filled with additional funding, revised targets, or new rounds of policy support.
The underlying issue remains unaddressed.
There is also a recurring tendency to treat each failure as an isolated case. A procurement mistake here, a maintenance issue there, a supplier failure somewhere else. That framing avoids confronting the structural incentives that produce these outcomes.
If the system rewards acquisition rather than performance, it will generate assets that are acquired successfully but perform inconsistently.
If the system subsidizes both ends of the transaction, it will produce transactions regardless of utility.
If the system compresses development timelines to meet political goals, it will encounter the physical limits of the technology it is attempting to deploy.
None of this requires speculation. The buses sitting idle provide the evidence.
There is a broader question embedded in this example: how should complex technological transitions be managed?
One approach relies on decentralized experimentation and incremental scaling. Technologies are tested in limited deployments, refined based on performance, and expanded when they demonstrate clear advantages.
Another approach relies on centralized targets and financial incentives to accelerate adoption at scale.
The first approach tends to be slower and less visible. The second produces immediate, measurable activity—contracts signed, units delivered, targets met.
The difference becomes apparent over time.
In the first case, failures are smaller and contained. In the second, failures can accumulate into large, visible inventories of non-performing assets.
The electric buses in South Florida belong to the latter category.
They are the product of a system that prioritized speed and signaling over validation and iteration. They were built, purchased, and delivered within a framework that rewarded those actions directly.
What the framework did not adequately reward was the simple requirement that the buses function reliably in daily service.
There is a tendency to view such outcomes as surprising. They are not. When incentives are structured in this way, the results follow with a certain predictability.
Paying one group to produce and another to consume does not guarantee usefulness. It guarantees activity.
And activity, as the rows of idle buses demonstrate, is not the same thing as progress.
H/T Mumbles McGuirck
Is that pic real?
No way I would be parking that many defunct EV buses that close to each other !!
These EV buses are worse than useless, why does it matter how close together they are parked? How much more would it cost to store each buss in a different place where a smaller battery fire could be contained?
Was thinking more about the surrounding environment..
Just make sure they are parked in a heavily Democrat area. !
Maybe they are insured and hoping for a fire
Top photo appears fake. Second one seems to be from the news source WPLG, an independent television station in Miami.
Perhaps the batteries have been removed?
It makes sense to me: once one self-immolates, they will all be gone!
Why not? A fire in one equals a claim for all!
I was thinking the same thing, then I noticed the Local 10 logo in the bottom right corner.
If it’s fake, it was generated by Local 10.
Much like the “CNN” Diet Ads on Farcebook the image is AI generated. Note ALL the busses are slightly different sized and all have unique roof ornament sizes and shapes.
It may or may not be a Local 10 story but the image is a generated image
I count maybe 50 busses, “As of 2024, the population of the city of Miami, Florida, is estimated to be approximately 487,014”.
The reason for 90% of M-D electric buses are out of service is the manufacturer Proterra went into Chapter 11 bankruptcy and the spares service is now non existent. They were lemons to start with is probably why CH-11 was used.
At least Lemons can be used to make lemonade.
The best you could do with these is to make Smores.
Each bus is holding a 500kWh battery in its chassis. That must be useful for something?
Maybe they can drive them over to the local solar array park and use them as battery back up to help provide peak demand for power when the sun isn’t above the horizon?
How many of these mobile battery storage buses have they got, looking for something useful to do?
1) Costs of safely and environmentally-compliant disassembling and recovering precious metals/rare earths from the batteries far exceeds the resale value of such.
2) The demonstrated history and risk of large kWh capacity batteries catching fire likely makes any future reuse uninsurable.
3) If the buses were indeed moved to some deemed-feasible use location (excluding solar or wind farm battery backup), that same location would need the infrastructure to recharge one or more 500 kWh batteries in a reasonable amount of time, say from midnight to 8 am local time.
Ahhh . . . those downvotes to my above posted remind me that I did forget to also mention the following facts as obtained from Google’s AI bot:
“Lithium-ion (Li-ion) batteries should be kept above a minimum depth of discharge (DoD) to avoid permanent damage and maximize lifespan. While they can handle deep discharges, regularly draining them to 0% induces chemical and structural stress, often leading to capacity loss, increased resistance, or “dead” batteries.
Key Recommendations for Lithium-Ion Battery Health:
— Optimal Daily Usage: Keep the battery charge state (SoC) between 20% and 80%, avoiding full 100% charges and deep 0% discharges to extend its lifespan.
— Avoid Complete Discharge: Letting a battery drop below 2.5 volts per cell can cause safety circuits to trip, rendering the battery unusable.”
So, indeed, I should have questioned if all those parked/storage-yard buses have really been continuously maintained per the above recommendations . . . and if not, who wants to obtain and use already-damaged batteries?
One more time. To understand how to do electric busses right, look to Chattanooga, TN. They’ve had free to ride electric shuttle buses running since 1992. Aside from the initial federal DOT grant, they’ve been funded from donation boxes on every bus, at the two stations, and a cut of downtown parking meter and lot fees.
There’s one station at the old railroad station, a second station across the road from the aquarium. Between the two stations the buses run a loop on two streets, covering the main downtown area. The second loop is the touristy one which crosses the river to the east and comes back to that station.
The first buses used lead acid batteries. IIRC they’ve gone through NiCd, NiMh, and in 2015 there were almost finished transitioning to Li-Ion. With the lead acid batteries they had a quick change garage at the railroad station but that quit being used as newer chemistries allowed running most of a day with short top ups then overnight charging. The Li-Ion batteries had the capacity to run all day.
The buses have air suspension so when they stop the whole bus drops to put the bottom step at curb level.
The buses have been made by Advanced Vehicle Systems from the start, but googling on this turned up that CARTA has bought at least three buses from BYD (Build Your Dreams) USA.
I can only wonder – what the total cost/mile/person is.
The BEST Electric Busses have no batteries but get their power from Fossil Fueled OH wires.
That’s a nice story. Got any more?
BYD = Chinese
In China, years ago, I have seen electric buses which had small batteries but engaged the power supply via roof collectors at each major stop getting repeatedly topped up. Not a bad solution on dense inner city routes
Newcastle, Australia, inner-city lite-rail does the same thing.
Only 2.7km end to end, but quite useful.
Only used it once, just for fun, but it does get pretty good patronage.
That reminds me of the Oerlikon Gyrobus, developed by the Swiss technology firm in the 1940s with the goal of providing quiet, emission free transport in areas having certain route infrastructure. The Gyrobus stored energy in a 3,000 rpm flywheel, spun up by an electric motor/generator fed by three roof mounted booms which connected to discrete charge points located at each stopping point. The maximum distance between charges was around 6 km, and the speed was 50 to 60 km/hr, depending on grade and passenger load. Two gyrobuses provided commercial service from 1953 to 1960 in Switzerland, and export versions saw limited service in Leopoldville, Belgian Congo and in Ghent, Belgium. These were heavy vehicles, which damaged roads, consumed significantly more energy than an IC vehicle, and proved to be extremely high maintenance – and thus low availability – transports. They didn’t last long. Despite the market failure of the Gyrobus, the Department of Energy in 1979 contracted General Motors to develop a prototype gyrobus. I don’t know if one was ever built.
“None are inherently unworkable.” It seems to me that wind and solar power to enable and sustain a grid are in fact unworkable. Their intermittency and unpredictably present grid control problems that likely cannot be corrected. Many writers have noted that a black start of a grid from wind, solar and batteries alone is not possible. Have the two “test” wind/solar islands, El Hierro and King, ever experienced a blackout and been able to restart their grids without their diesels? How about a test? Such a test would help determine whether or not wind and solar are fully sustainable as many claim.
The above article (just the synopsis) invites the question:
Did the Florida counties of Miami-Dade and Broward get $96 million worth of virtue signaling from their purchases of these EV buses?
This is no surprise since Quebec withdrew these types of vehicles from school bus service due to reliability issues pertaining to interior heating, among other things. They couldn’t keep students warm enough, nor could their ranges be depended upon during cold periods. In the end, the province went back back to gas/diesel types and taxpayers were left footing the cost for vehicles that couldn’t deliver. Mind you, this is typical for Quebec: always willing to jump on an environmental bandwagon once it sees the rest of Canada and the US has rejected it.
This is a great article by virtue of its illustrating real-world economic principles with a very clear-cut case study. Learn the principles, everyone. And elect people who will obey them.
All the “green” solutions to get to net-zero emissions such as EV’s, wind turbines, and solar panels are ALL MADE FROM OIL PRODUCTS! In addition, everything that NEEDS electricity is MADE from oil products, iPhones, computers, X-Ray machines, etc.
Mandating the conversion from ICE vehicles to EV’s only eliminates the use of gasoline, which is just 1 of the more than 6,000 products made from oil.
Society and the economy still demand the other 5,999 products and transportation fuels that are made from refined oil.