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Saturday, March 14, 2026

Notable recent fiction where the automobile is central (as plot engine, setting, or symbol), mostly from the last ~10–15 years

 Notable recent fiction where the automobile is central (as plot engine, setting, or symbol), mostly from the last ~10–15 years:

Road-trip / driving as the story



  • Hernan Diaz — Trust (2022): includes memorable driving/automobility motifs tied to wealth, control, and modernity.
  • Lauren Groff — Florida (2018, stories): several pieces use cars and driving as pressure-cookers for intimacy, threat, and escape.


Crime / noir where cars matter

  • S.A. Cosby — Blacktop Wasteland (2020): a heist novel rooted in car culture—mechanics, fast driving, and the emotional pull of “one last job.”
  • Attica Locke — Bluebird, Bluebird (2017): Texas highways and car travel as the connective tissue of investigation and place.
  • Don Winslow — The Cartel (2015) / ** The Border (2019)**: cross-border movement, surveillance, convoys—automobility as infrastructure of power.

Speculative / near-future automobility

  • Cory Doctorow — Walkaway (2017): not strictly “car fiction,” but transportation systems and mobility politics are central.
  • Ling Ma — Severance (2018): features long drives and highway drift that capture late-capitalist emptiness.

Literary fiction where cars are symbolic, not just props

  • Colson Whitehead — The Nickel Boys (2019): cars appear as instruments of authority/escape in a historically grounded narrative.
  • Tommy Orange — There There (2018): cars and transit underpin movement, precarity, and urban geography.

The Most Important Design Features in a Formula 1 Car, 2026

 


Aerodynamics (the whole car is an aero device)

  • Front wing (multi-element) & endplates: sets up the airflow for everything behind it; balances front downforce vs. drag and controls outwash/tyre wake.
  • Ground-effect floor / venturi tunnels: the primary downforce producer in current-era cars; geometry, edge sealing, and stiffness are critical.
  • Floor edges + vortex control (edge wing, fences): manages sealing vortices to keep low-pressure under the car stable, especially in yaw and ride-height changes.
  • Diffuser: expands underfloor flow at the rear to extract more downforce; highly sensitive to ride height and floor condition.
  • Sidepods, undercut, and “coke bottle” packaging: shapes how air is driven toward the floor, diffuser, and rear wing; tightly linked to cooling layout.
  • Rear wing + beam wing: tunes rear downforce/drag and interacts strongly with diffuser flow.
  • DRS (drag reduction system): adjustable rear-wing flap to cut drag for overtaking/defending; impacts wing design and operating window.

Vehicle dynamics & structure

  • Suspension geometry (pushrod/pullrod, anti-dive/anti-squat): controls platform (ride height, pitch, roll) to keep the floor in its best aero window.
  • Dampers/third elements: manage heave and pitch; crucial for maintaining stable underfloor performance over kerbs and at speed.
  • Monocoque (carbon-fiber survival cell): ultra-stiff and light, designed around crash structures and driver safety; also the backbone for aero consistency.
  • Weight distribution & ballast placement: cars run near minimum weight; ballast is used to hit an optimal center of gravity and balance within regulations.

Power unit & energy systems (hybrid performance management)

  • 1.6L turbo V6 + ERS: overall lap time depends heavily on how efficiently energy is harvested and deployed.
  • Energy store (battery) + MGU-K control: determines acceleration, deployment strategy, and how the car behaves at corner exit.
  • Turbo/compressor packaging & intercooling: affects response, cooling drag, and car packaging (which in turn affects aero).

Cooling and packaging (performance vs. drag trade)

  • Radiator/intercooler layout and ducting: cooling demand forces inlets/outlets that add drag; the best designs minimize inlet size while staying within temperature limits.
  • Engine cover and heat management: influences rear-body airflow and reliability; tight packaging improves aero but raises thermal risk.

Brakes and wheels (aero + thermal management)

  • Brake ducts: not just cooling—also used to manage airflow around the front wheels and reduce turbulence.
  • Wheel rims and fairings (within rules): help control tyre wake and improve aero consistency.

Controls and reliability as “design features”

  • Steering wheel systems & brake-by-wire (rear): complex control interfaces to manage ERS, brake balance, and modes.
  • Materials, manufacturing, and QA: with minimal testing and tight cost caps, reliability engineering and repeatable aero surfaces matter as much as peak concepts.

Friday, March 13, 2026

SUV Crossover Design Aesthetics of the past Five Years -- Elements of Design and an Evaluation of the "Best" Among Chief Competitors

 

Most striking SUV/crossover design aesthetics (roughly 2021–2026 models)

Hyundai Ioniq 5 (2022–present)



The most distinctive “retro-future” look in the segment: sharp origami-like creases, pixel lighting, and a squared-off hatchback/SUV hybrid profile that reads like an 80s concept car made real. It stands out because it’s coherent from the smallest details (lights) to the overall silhouette.

Kia EV6 (2022–present)

More “athletic coupe-crossover” than upright SUV: long wheelbase, low roofline, aggressive stance, and a dramatic rear light bar. Its design is striking because it looks fast even parked, without needing huge grilles or busy surfacing.

Hyundai Santa Fe (redesign, 2024–present)

A bold pivot to boxy and architectural: upright greenhouse, flat surfaces, and the controversial “H” motif lighting. It’s striking because it rejects the curvy, generic crossover template and aims for a modern utilitarian vibe.

Kia Telluride (2021–present, incl. refresh)

Not flashy, but “commanding”: squared proportions, clean lines, and a premium, confident face. Striking in a different way—because it looks expensive and composed without gimmicks, which is rare in mainstream three-row SUVs.

Land Rover Defender (2021–present)

A modern icon: utilitarian massing, high shoulders, alpine windows, and exposed-feeling details that signal capability. It’s striking because it balances nostalgia with crisp modern execution; it looks purpose-built rather than styled.

Ford Bronco (2021–present)

The clearest retro design success of the last few years: circular headlamps, flat body sides, removable elements, and a “tool-like” aesthetic. It’s striking because it communicates function and identity instantly—very few vehicles do that now.

Rivian R1S (2022–present)

Minimalist but unmistakable: the oval “stadium” headlights and full-width light bar are instantly recognizable, and the body reads clean and friendly rather than aggressive. Striking because it built a new brand identity without copying legacy cues.

BMW iX (2022–present)

Polarizing by design: oversized grille treatment, unusual proportions, and sculptural surfacing. It’s striking because it’s intentionally disruptive—people notice it immediately, for better or worse.

Genesis GV70 (2021–present)

A “scaled luxury” look: quad light signatures, elegant surfacing, and a strong crest grille. Striking because it looks genuinely upscale and tailored compared with many similarly priced competitors.

Toyota Crown Signia (2025–present)

A wagon-like crossover silhouette with a sleek, understated premium vibe. Striking because it leans into a long-roof, road-focused aesthetic instead of the usual tall, rugged cues.


My “best looking” SUV/crossover picks from roughly the last 5 years (about 2021–2026) prioritize clean proportions, distinctive lighting/signatures, and designs that will age well.

Mainstream

  • Rivian R1S — minimalist, instantly recognizable lighting, friendly-but-purposeful stance.
  • Hyundai Ioniq 5 — retro-futurist shape that’s cohesive and bold without looking faddish.
  • Kia EV6 — sleek, athletic proportions; looks genuinely fast for a crossover.
  • Mazda CX-50 — rugged-but-refined; great surfacing and stance without visual clutter.
  • Kia Telluride (incl. refresh) — squared, premium presence; very well resolved.

Luxury

  • Genesis GV70 — arguably the prettiest “compact luxury crossover” shape; elegant details.
  • Range Rover (2022–present) — modern, reductive luxury; very clean and confident.
  • Land Rover Defender — iconic utilitarian design executed in a modern way.
  • Porsche Macan (late ICE years) / Macan EV (if you include newest) — taut proportions and restraint that read expensive.
  • Volvo XC60 / XC90 (recent years/refreshes) — calm Scandinavian design that ages extremely well.

1992 Mercedes-Benz 190 E 2.5-16 Evolution II

 




Stuttgart sports badge: Powerful spoilers and aprons, large wheels in flared wheel arches and a huge rear aerofoil: The Mercedes-Benz 190 E 2.5-16 Evolution II, known to fans as the ‘EVO II’ for short, clearly demonstrates its sporting potential even when stationary. This high-performance saloon with road approval finally catapulted the 201 model series into the realm of motor racing. In the 1990s, it was an absolute cult car and today it is an extremely rare and valuable younger dream car.

Characteristic features: The series’ top model is immediately recognisable thanks to its body modifications. On the right-hand side of the boot lid, the exhibit sports the iconic number sequence 2.5-16 – a reference to the 2.5-litre high-performance engine with four-valve technology. The discreet badges with the word “evolution” on the wings of this compact class definitively identify the exact model. Only the 190 E 2.5-16 Evolution II has them.

Number 222: Exactly 502 examples of the EVO II were produced as an exclusive series in 1990. They served to homologate the DTM racing touring car, which was put to extremely successful use in the popular racing series from July 1990 and with which Klaus Ludwig became DTM champion in 1992. The special “Youngtimer” exhibition shows vehicle number 222. This is revealed by the individual “222/500” badge on the shift lever of the five-speed transmission. Why the extra two vehicles? To be on the safe side, two more vehicles were built at the time, in order to fulfil the requirements for the homologation of this development stage of the DTM racing touring cars – the requirement was at least 500 units. All EVO IIs were painted in the colour blue-black metallic (colour code DB 199).

Compact power pack: The EVO II was a super-sporty statement from Mercedes-Benz. Its engine delivers 173 kW (235 hp) at 7,200 rpm, with a top speed of up to 250 km/h – the speedometer scale even goes up to 260 km/h. The M 102 E 25/2 engine is installed at an angle of 15 degrees and designed in line with the DTM technology of the time: the road version of the EVO II has a slightly smaller displacement (bore × stroke: 97.3 × 82.8 millimetres) than the DTM racing touring car (bore × stroke: 97.8 × 82.8 millimetres) – however, both are configured with a shorter stroke than the engine in the 190 E 2.5-16 presented in 1988 (bore × stroke: 95.5 × 87.2 millimetres). In the EVO II racing car, the engine initially produced 245 kW (333 hp) at 8,500 rpm and revved up to 9,500 rpm – in the 1992 master vehicle, it produced up to 274 kW (373 hp).



Optimisation in the wind tunnel: The EVO II was a sensation at the Geneva International Motor Show in March 1990. The sheer size of the light-alloy rear aerofoil was unusual for road-legal vehicles in 1990, and noticeable even to the layman. The aerodynamics of the wing can be finely adjusted using several screws. The rear window is partially covered to improve the airflow. A contemporary comparative photo of the 190 E 2.5-16, EVO and EVO II clearly shows how the body attachments become larger with each stage of development. This superlative car aroused a desire that continues to this day.

Subtle changes: A look at other details on the vehicle in the special exhibition reveals the considerable improvements compared to other “190s”. Some of these are quite discreet and hardly noticeable at first. The Mercedes star is several centimetres further down owing to the large rear aerofoil. The lock in the boot lid of the EVO II is therefore located in the brand logo – a very unusual position.




Roman wheels: The EVO II rides on mighty wheels. They fill out the heavily flared wheel arches – especially when the suspension’s three-stage hydraulic levelling system is set to maximum lowering. The 8.5 × 17-inch six-spoke light-alloy wheels with 245/40 ZR 17 low-profile tyres are legendary. Bruno Sacco, head of design at Mercedes-Benz from 1975 to 1999, is said to have commented as follows: “They remind me of a Roman chariot.” This gave the rims the nickname “combat wheels”. Not an entirely inappropriate comparison, as chariot races with modified chariots were among the most popular sporting events in ancient Rome. In a way, these racetracks were the early forerunners of modern circuits.

A Delightful 1942 Film of a trip to Alsace in a Peugeot 202


  I found this film enchanting and wanted to share it with you. A beautiful young woman in a classic car in 1942.  An Agfacolor film highlighting gorgeous scenery and classic architecture, including some with strong religious themes. Peaceful scenes that belie a Europe in a most deadly war -- what irony.

If only the world could live in the peace expressed in this film!

Note the Peugeot 202 takes its styling cues from Chrysler of the period.  The 202 was made beginning in 1938. Note the interesting way gas is filled up through the spare wheel.

Thursday, March 12, 2026

 



The earliest statewide mandatory motor-vehicle safety inspection program is widely identified as Pennsylvania (1929), described as the nation’s first statute requiring periodic inspections.

State motor-vehicle inspection programs sit at the intersection of three forces that rarely align neatly: public safety, environmental policy, and the American preference for state-level control over everyday life. Their history is not a simple march toward safer roads. It is a story of uneven adoption, changing rationales, contested evidence, and periodic backlash—shaped as much by politics and administrative capacity as by engineering. A critical history therefore has to explain not only when inspections spread, but why states chose them, what they were meant to accomplish at different moments, and why the system remains so fragmented today.

The earliest logic for inspection was straightforward: automobiles were becoming ubiquitous faster than governments could build the regulatory infrastructure to manage them. By the 1910s and 1920s, states had begun constructing modern motor-vehicle bureaucracies—driver licensing, vehicle registration, traffic laws—and cities were grappling with crashes as a major public problem. In that environment, “inspection” emerged as a plausible tool: a periodic check that a vehicle’s fundamental systems—especially brakes, steering, lights, tires—met a minimum standard. Importantly, this was a minimum-standards approach, not a comprehensive safety assurance. The central premise was administrative: a state could not ride along with every driver, but it could require periodic compliance checks and remove the most obviously unsafe vehicles from the road.

Yet even early on, inspection faced the core problem that still defines it: states had to decide whether defects were a primary cause of crashes or a secondary aggravator compared with driver behavior, road design, and speed. That question mattered because inspection programs are costly to run (or to oversee if privatized), impose time and money costs on motorists, and create compliance burdens that can feel disproportionate when the benefits are hard to see. The history of state inspections is, in part, the history of how states answered that causal question differently—and how those answers shifted over time as vehicles and roads changed.

After World War II, the policy terrain changed dramatically. Car ownership surged, the roadway network expanded, and vehicle travel became central to suburban life. In this period, the “safety inspection” model matured into a recognizable institution in many states. The stated aim was to reduce crash risk by ensuring basic mechanical integrity, but the program also served other state interests: it created a regular touchpoint between motorists and the vehicle-regulatory system, reinforced a culture of compliance, and offered a visible sign that the state was “doing something” about traffic deaths. Critically, these programs were never merely technocratic. They reflected a political bargain: lawmakers could promote safety without imposing more controversial measures like aggressive speed enforcement, roadway redesign, or restrictions on driving privileges.

How inspections were implemented—public stations versus private garages—also became a defining political choice. States that built government-run lanes could claim uniformity and reduce conflicts of interest, but they incurred public costs and faced capacity constraints and long lines. States that relied on private stations offloaded infrastructure costs and leveraged existing repair networks, but they introduced a structural tension: the same facility that fails a car can profit from fixing it. Over time, oversight regimes, certification rules, and audit systems evolved to manage this conflict, but it never disappeared. The recurring public suspicion—“they’re just trying to sell me repairs”—became one of the most persistent sources of resistance to inspections, especially when the required repairs were expensive relative to the vehicle’s value.

From the 1960s onward, a second rationale entered the inspection world and ultimately reshaped it: air pollution. Vehicle emissions in large metropolitan areas had become a serious public-health problem, and federal environmental law increasingly pushed states to adopt emissions control strategies. This is where the history becomes especially important: many people now conflate “state inspections” with “emissions testing,” but they are historically distinct programs that were later braided together in many jurisdictions. Safety inspections typically target mechanical function relevant to crash risk; emissions inspections target pollutants (and, later, onboard diagnostics). The two programs share an administrative form—periodic compliance checks—but respond to different hazards and often rely on different technical tools. The merger of safety and emissions into a single annual or biennial “inspection” experience made the system feel more burdensome to motorists, even as it offered administrative efficiency for states.

Technology repeatedly forced inspection regimes to reinvent themselves. As cars became more reliable and standardized—better braking systems, improved lighting, more durable tires, electronic controls—the marginal safety benefit of catching mechanical defects through periodic inspections became harder to demonstrate in an era when crashes were increasingly explained by speed, impairment, distraction, and road geometry. At the same time, the rise of computerized engine management and onboard diagnostics transformed emissions testing from tailpipe measurement toward data-driven checks. States that modernized emissions programs could claim more precise, scalable enforcement; states that retained older methods faced fraud risks and accuracy concerns. In effect, emissions inspection grew more “modern” and measurable, while safety inspection sometimes came to look like an older policy tool still searching for decisive proof of effectiveness.

This imbalance fed a political divergence across states. Some states expanded or maintained comprehensive safety inspections, often citing precautionary logic—if even a small fraction of dangerous vehicles are removed, the program is justified. Other states reduced inspection frequency, narrowed the scope, limited inspections to certain vehicle classes (commercial fleets, salvage titles, out-of-state transfers), or abolished periodic safety inspections altogether. Those rollbacks often framed the issue as a matter of consumer burden, regressive costs (hitting low-income drivers with older vehicles hardest), and dubious payoff. The fact that states could point to neighboring states with different rules—and no obvious collapse in safety—made inspection policy particularly vulnerable to repeal campaigns. Inspection thus became a kind of cultural marker: in some places it is treated as routine civic maintenance; in others, as an intrusive and inefficient ritual.

A critical history also has to examine equity and governance. Inspection fees and repair mandates can function like a mobility tax, especially in regions where a car is necessary for work, childcare, and healthcare. When a program is strict but public transit is thin, “failures” can translate into lost jobs or missed appointments. Some states have tried to blunt that reality with repair-cost waivers, extensions, or assistance programs, but these measures raise their own issues: waivers can undermine environmental goals, while assistance programs require funding and administrative design. Meanwhile, privatized inspection networks require strong auditing to prevent both “clean-passing” fraud and predatory failing. The inspection station becomes a street-level regulator, and the quality of that regulation depends on training, incentives, and enforcement capacity that vary widely.

The contemporary era adds new pressures. Advanced driver-assistance systems, electronic braking and stability control, and increasingly software-defined vehicles complicate the traditional inspection checklist. Many safety-critical functions are no longer easily assessed by looking at mechanical components; they involve sensors, calibration, and software faults that may not present obvious symptoms. Electric vehicles, with fewer traditional drivetrain components, shift what “inspection” even means, while heavier vehicle weights and faster acceleration raise new safety debates. In emissions, the rise of EVs reduces tailpipe concerns but raises questions about how inspection programs should evolve—toward tire wear, brake particulates, safety systems, battery integrity after crashes, or cybersecurity? None of these questions has a single “state inspection” answer, which points back to the core feature of this history: fragmentation as a structural outcome of federalism and local politics.

Viewed across a century, state motor-vehicle inspections are best understood not as a settled safety measure, but as a flexible governance template. States have repeatedly repurposed the same administrative mechanism—periodic checks tied to registration—toward whatever problem was most salient: early mechanical hazards, mid-century crash politics, late-century air quality, and now a transition toward electronics and electrification. The durability of the inspection idea comes from its simplicity: it is one of the few tools that can be scaled to millions of vehicles without constant policing. Its vulnerability comes from the same source: because it is periodic and uniform, it can feel blunt, burdensome, and out of step with changing technology and evidence about what causes harm.

The critical takeaway is that inspection programs endure when they maintain legitimacy—when motorists believe the standards are reasonable, the process is fair, the costs are proportionate, and the benefits are real. When any of those conditions fails—when fraud is common, when repairs seem arbitrary, when the poor bear the brunt, or when evidence of safety gains is unclear—inspection becomes politically brittle. The history of state vehicle inspections is therefore less about the gradual perfection of a safety device and more about the continual renegotiation of a social contract: how much inconvenience a state may impose on drivers in exchange for shared safety and cleaner air, and how convincingly it can prove that the bargain is worth it.