Bricklin 3EV three-wheeler safety sits at the center of a timely conversation for engineers and investors evaluating new EV architectures. In a Munro & Associates discussion with Malcolm Bricklin, the team outlined a safety-first autocycle concept — pairing AmSafe belt-integrated airbags with a gyroscopic control strategy and tri-motor torque vectoring. The goal is simple and ambitious: deliver “real-car” crash protection and on-road stability in a lighter, lower-cost three-wheel package engineered for mass adoption.
Why three wheels — and why now?
Market saturation is real. The world does not need “another SUV” or a me-too sedan — especially as legacy OEMs and Tesla crowd the four-wheel EV space. Weight and cost remain the levers that decide winners. Dropping a wheel trims corner content, reduces structural mass, and simplifies packaging. That choice only works, however, if safety, stability, and perceived quality meet car-buyer expectations. Bricklin’s brief is clear: design it like a normal car, just with three wheels, and aim for the safest production vehicle in its class — not a novelty autocycle.
A belt that becomes your airbag
Traditional airbags explode from the steering wheel, dash, or pillars and often demand expensive post-crash replacements. The proposed system uses AmSafe seat-belts with integrated airbags that inflate from the belt itself. This approach protects the head and torso without adding dashboard pyrotechnics; it also enables anti-submarining coverage via a lap-area bladder on premium variants.
For a three-seatbelt configuration in a narrow cockpit, the packaging benefits are compelling — fewer modules, cleaner IP design, and simpler service. It modernizes restraint strategy while aligning with lean design and cost-down goals for autocycles.
Engineering takeaways:
-
Crash pulse management: Belt-integrated bags can reduce head injury criterion by engaging earlier and closer to the occupant’s center of mass.
-
Repair economics: Less IP and steering-hub complexity can lower part count and repair bills after deployment — a win for total cost of ownership.
-
Human factors: Pregnant occupants and smaller drivers may benefit from load paths centered at the torso rather than from dash-launched modules.
Gyros, sensors, and air suspension — stability by design
Three-wheelers often raise the reflexive question: “Will it tip?” The Bricklin 3EV tackles that concern with a MEMS-based gyroscopic sensor suite linked to an active air suspension. This system constantly monitors attitude and yaw. It trims roll, counters pitch on steep grades, and keeps the body level during sudden maneuvers.
In addition, independent motors at each front wheel and a dedicated rear motor provide torque vectoring. These controls reduce inside-wheel slip and adjust yaw to keep the vehicle stable. In effect, it acts as the autocycle version of modern ESC (Electronic Stability Control) — but with the added authority to adjust both wheel torque and body attitude in real time.
Engineering takeaways:
-
Tri-motor vectoring: Independent front motors plus a rear drive enable nuanced corrective inputs unavailable to single-motor trikes.
-
Controller bandwidth: A high-rate IMU feeding a suspension controller can preempt roll build-up — crucial for a narrow-track front end.
-
Ride-handling synthesis: Air springs and programmable damping can reconcile comfort with stability, reducing head toss in crosswinds and over uneven surfaces.
Autocycle rules — less regulation, more responsibility
Autocycles often face fewer regulatory requirements than passenger cars. That freedom cuts both ways. You can innovate — belt-integrated airbags, unique restraint geometries, non-traditional seating — without chasing every FMVSS line item. You also carry the burden of proof with customers and insurers who expect car-like safety. The approach here embraces that trade: exceed the spirit of passenger-car safety where it matters most while using the regulatory latitude to move faster and reduce complexity. For engineers, this is a familiar lean-manufacturing calculus — eliminate non-value-added constraints, then reinvest the savings into what customers feel on the road.
Cost model — where the dollars move
The target MSRP ranges from $25,980 to $34,980, with a stretch goal of delivering a vehicle that feels “like a real car” despite one less wheel. Achieving that price demands strict scope control and a supply chain structured around high-content assemblies rather than costly greenfield factories. To get there, the plan eliminates paint shops and heavy stamping.
Instead, it leans on sourced systems, 3D-printed or low-tooling body panels, and an assembly-first facility staffed by experienced veterans. This approach is both cultural and economic. A motivated, skilled workforce reduces rework, boosts first-time quality, and improves contribution margins even at modest volumes.
Levers that matter:
-
Corner deletion: Removing a wheel, brake, knuckle, damper, and associated body-in-white structure cuts cost and mass.
-
No paint shop: Eliminating a traditional paint line reduces CapEx and environmental controls — and shortens takt.
-
Supplier completion: Buying sub-systems at a higher level of integration shifts complexity upstream and enables faster ramps.
“Real car” feel — packaging and perception
Three-wheelers that look narrow and top-heavy struggle with consumer trust. The Bricklin 3EV brief calls for a short-wheelbase, low-CG layout with batteries in the floor and a cockpit safety cell designed to survive high-speed impacts. Interior cues — heated seats, power features, leather and wood trims, full connectivity, and OTA updates — raise perceived value. Range claims north of 250 miles set a baseline for daily usability in North America and Europe.
The message is deliberate: this is not a powersports toy; it is an electric personal mobility vehicle that competes on comfort and feature content while beating four-wheelers on weight and price.
Dealer-investor alignment — distribution as a feature
Distribution is rarely an engineering topic — yet it dictates product viability. Bricklin proposes regional distributors who seed 50-dealer networks, each investing equity at predefined share prices before a public listing.
That structure aligns incentives across factory, distributor, and retailer. At the same time, it front-loads capital for tooling and launch without wasting months on bespoke factories. For engineers, the result is clear. Stable funding enables timely engineering change orders, smooth tooling revisions, and faster supplier maturation. This difference separates a prototype that only looks good in photos from a product that launches on cost and on schedule.
What this means for EV engineers
-
Design for control authority: If you adopt a three-wheel layout, budget the electrical and mechatronic headroom for IMU-driven stability and tri-motor vectoring. Control bandwidth is your safety margin.
-
Exploit regulatory latitude — responsibly: Use autocycle rules to accelerate innovation; validate to car-level performance where occupants feel it most.
-
Trade paint and press for precision assembly: Skip CapEx-heavy processes when brand positioning allows. Spend those dollars on ride tuning, NVH, and safety content customers notice.
-
Package the cabin to signal “car,” not “toy”: Materials, HMI, and thermal comfort shape perceived quality — crucial when asking buyers to try an unfamiliar format.
The investor lens — risk where it pays back
Three-wheel EVs are a bet on right-sized mobility and lean manufacturing. The risk is consumer skepticism; the payoff is a structural cost advantage and faster iteration cycles. If a program delivers car-like stability and crash performance — and the Bricklin 3EV plan argues it can — the category could unlock mainstream buyers who want EV benefits without premium pricing. In a capital-hungry segment, that is a thesis worth testing.
Go Deeper with Munro
Want a sharper view of autocycle safety, cost breakdowns, and stability control strategies? Explore Munro’s expert teardown analysis, lean design reviews, and EV engineering insights by visiting Munro & Associates or subscribing to Munro Live today — then benchmark your roadmap against proven, lower-mass architectures that can win on safety, cost, and time to market.