{"id":3897,"date":"2026-04-04T13:48:21","date_gmt":"2026-04-04T13:48:21","guid":{"rendered":"https:\/\/www.eikleaf.com\/?p=3897"},"modified":"2026-04-11T18:50:14","modified_gmt":"2026-04-11T18:50:14","slug":"a-la-distraction","status":"publish","type":"post","link":"https:\/\/www.eikleaf.com\/fr\/driven-to-distraction\/","title":{"rendered":"Pourquoi les voitures sont-elles \u00e9quip\u00e9es d'\u00e9crans tactiles plut\u00f4t que de boutons et de cadrans ?"},"content":{"rendered":"

Il s'agit d'un article traduit par une machine. La version originale est disponible en anglais.<\/em><\/p>\n\n\n\n

Driven to Distraction –<\/strong> How the car industry put a slot machine on your dashboard \u2014 and why no one stopped them<\/strong><\/h4>\n\n\n\n

In March 2020, the Transport Research Laboratory published a study that should have changed everything. Commissioned by road safety charity IAM RoadSmart and conducted on a professional driving simulator, it tested what happened to drivers when they used Apple CarPlay and Android Auto via touchscreen while behind the wheel. The results were not ambiguous. Reaction times slowed by more than fifty percent. Drivers took their eyes off the road for up to sixteen seconds at a stretch \u2014 the equivalent, at motorway speeds, of travelling more than five hundred metres effectively blind. When researchers compared those figures against the existing literature on impaired driving, the finding was stark: a driver using a built-in touchscreen infotainment system was more impaired than a driver at the legal alcohol limit. The study \u2014 TRL Report PPR948 \u2014 is publicly available. IAM RoadSmart called for urgent action. The European Transport Safety Council covered it. The automotive press noted it, briefly.<\/p>\n\n\n\n

Then almost nothing happened.<\/p>\n\n\n\n

In the years that followed, car manufacturers continued to remove physical buttons and controls from their vehicles at an accelerating pace. The screens got larger. The menus got deeper. The tasks that once required a single physical gesture \u2014 turn up the heat, find a radio station, activate the heated seat \u2014 migrated into multi-layer software interfaces that demanded sustained visual attention to navigate. By 2022, a Swedish automotive magazine called Vi Bil\u00e4gare decided to measure what this meant in practice. They drove twelve vehicles, including a Tesla Model 3 and a BMW iX, at 110 kilometres per hour along a closed course, asking drivers who had been given familiarisation time to perform four common in-car tasks. The 2005 Volvo V70 against which they were measured \u2014 a seventeen-year-old car with nothing but physical buttons \u2014 completed the same tasks in ten seconds. The BMW iX required 30.4 seconds. At those speeds, that difference represents the car travelling the length of roughly six football pitches while the driver’s attention was elsewhere.<\/p>\n\n\n\n

In 2024, approximately 3,208 people died in distraction-affected crashes in the United States, according to the National Highway Traffic Safety Administration’s own figures. NHTSA also acknowledges, in its own internal analysis, that the officially reported number is likely less than a third of the real one \u2014 that the actual death toll attributable to driver distraction is closer to 12,400 annually. That gap exists, in part, because the crash reporting system has no field specifically for built-in infotainment distraction. The data that would build the legal and political case for regulation is, structurally, not collected.<\/p>\n\n\n\n

This is a story about how that happened. It involves decisions made in boardrooms in Detroit, Munich, and Shenzhen. It involves a regulatory system that chose, repeatedly and by name, not to act. It involves the most successful consumer technology launch of the twenty-first century, an $8 billion acquisition that imported Silicon Valley logic into the automotive supply chain, and a Chinese industrial policy that made the economics of the whole transition possible. It involves, at its centre, a question that is easier to ask than to answer: if the research was available, if the risk was documented, if the deaths were real \u2014 why did no one stop it?<\/p>\n\n\n\n

Part I: The Obvious Explanation Is Wrong<\/h3>\n\n\n\n

Ask most people why cars have screens instead of buttons and they will give you one of two answers. Consumers wanted them, they will say. Or: they’re cheaper to make. Both of these answers contain truth. The point is not that cost and consumer demand were irrelevant \u2014 they were real forces. The point is that neither caused this. They were the surface through which deeper forces operated.<\/p>\n\n\n\n

On the question of consumer demand: it is accurate that, from roughly 2012 onward, large touchscreens scored well in automotive consumer surveys. JD Power’s Initial Quality Study, which is among the most widely cited benchmarks in the industry, consistently showed that buyers rated technology-forward interiors highly. What those surveys measured, however, was showroom impression \u2014 the feeling a buyer had during a twenty-minute test drive, not the experience of living with a system for three years. The ergonomic superiority of physical controls is not something you perceive during a demonstration. It is something you feel, and then feel grateful for, at six in the morning when you are trying to turn down the fan on a motorway without looking away from the road. The consumer preference data was real. What it measured was not what it appeared to measure.<\/p>\n\n\n\n

On the question of cost: it is true that moving functions from physical controls to a software interface reduces assembly complexity in meaningful ways. A dashboard with sixty physical controls requires sixty wiring harness connections, sixty quality assurance checkpoints, and sixty separate SKUs managed across variants and markets. A single screen unit collapses much of that into one component. The savings, however, are in logistics and line complexity \u2014 not primarily in component price. For much of the period of rapid screen adoption, automotive-grade displays were not cheap. What made them economically irresistible was a set of forces operating far upstream from the factory floor, in Chinese government industrial policy and the financial strategies of the world’s largest technology companies.<\/p>\n\n\n\n

The real answer to why every new car has a screen is not one reason. It is a cascade of approximately forty-four of them, operating across different time horizons and pulling in the same direction. But among those forty-four, ten drove the transition more than all the others combined. Understanding them requires beginning not with the car industry at all, but with a presentation in Geneva.<\/p>\n\n\n\n

Part II: The Ten Forces<\/h3>\n\n\n\n

The first and most immediate force arrived not from inside the car industry at all. On the morning of March 3, 2014<\/strong>, Apple’s press office issued a statement announcing that “leading auto manufacturers are rolling out CarPlay, the smarter, safer and more fun way to use iPhone in the car.” The launch partners named were Ferrari, Mercedes-Benz, and Volvo. Within months, twelve major manufacturers had committed. By 2023, according to aftermarket industry tracking, CarPlay was available in approximately 93.9 percent of new vehicle models sold in the United States, up from 35.2 percent in 2017.<\/p>\n\n\n\n

The significance of CarPlay’s arrival is difficult to overstate, and it is routinely underestimated in accounts of the touchscreen transition. The critical mechanism is this: CarPlay requires a touchscreen to function. There is no version of CarPlay that works through a rotary dial or a bank of physical buttons. When Apple announced the system and consumer demand for it became immediate \u2014 because hundreds of millions of people already knew how to use an iPhone and wanted that interface in their car \u2014 automotive manufacturers faced a binary choice. Install a screen, or lose buyers to competitors who had. The choice had already been made for them by a technology company that had no particular investment in automotive ergonomics or road safety, and whose primary product happened to require a touchscreen to operate. Android Auto, announced by Google later in 2014 and available in vehicles from 2015, imposed the same requirement.<\/p>\n\n\n\n

This is a causal claim that can be dated and documented. Before CarPlay, the industry was moving toward screens. After CarPlay, it had no practical alternative. The transition from optional feature to table-stakes requirement happened in a single product announcement at a motor show, made by a company that manufactures telephones.<\/p>\n\n\n\n

The second force provided the economic foundation that made screens cheap enough to install universally. The financial architecture that made screens economically rational followed from a development originating in East Asia. Throughout the 2010s, Chinese display manufacturers \u2014 led by BOE Technology, CSOT, and Tianma \u2014 expanded their production capacity for LCD and OLED panels at a scale that fundamentally restructured the global display market. BOE, whose six largest shareholders as of 2020 were state-owned investment companies from Beijing, Chongqing, and Hefei, grew to become the world’s number one manufacturer of car display panels by shipment volume, a position it announced having reached in 2022. The expansion was, in substantial part, financed by the Chinese state as a matter of industrial policy. The consequence was a chronic oversupply of panels that drove prices down steeply across the decade. Korean manufacturers LG Display and Samsung Display \u2014 who had previously led the global LCD market \u2014 found themselves unable to compete and began exiting the business. LG Display’s Guangzhou plant, its last remaining LCD factory, was put up for sale in 2024. Samsung had abandoned its LCD business in 2020.<\/p>\n\n\n\n

For automotive manufacturers, this price collapse meant that placing a large display in a vehicle went from a significant cost decision to, increasingly, a trivial one. The economics of “just put a screen there” became viable precisely because Chinese state industrial policy had made panels cheap. This is a causal chain that runs from a government ministry in Beijing to the dashboard of a vehicle assembled in Wolfsburg or Coventry or Sunderland \u2014 and it almost never appears in accounts of how the screen transition happened.<\/p>\n\n\n\n

The third force was corporate rather than governmental. On November 14, 2016, Samsung Electronics announced that it had agreed to acquire Harman International Industries \u2014 the company behind automotive infotainment brands including JBL, Harman Kardon, and the majority of the infotainment systems installed in European and American vehicles \u2014 for $112 per share in cash, a total equity value of approximately $8 billion. Samsung’s own press release described it as an acquisition designed to “accelerate growth in automotive and connected technologies.” It was the largest overseas acquisition in Samsung’s history. Independent Korean financial reporting, including coverage by The Investor at the time of closing in March 2017, confirmed it as the largest-ever buyout by a South Korean company.<\/p>\n\n\n\n

The Harman deal did something the CarPlay launch had begun but not completed: it brought consumer electronics capital, timelines, and competitive logic fully inside the automotive supply chain. Harman had supplied infotainment systems to dozens of manufacturers. Samsung now owned those supply relationships, and brought to them the iteration speed and software-first philosophy of a company whose primary business was selling smartphones. The pressure on automotive OEMs to match consumer electronics standards of display quality, UI responsiveness, and feature velocity became structural. Other technology companies drew the same conclusion: Intel acquired Mobileye in 2017; Qualcomm built its automotive SOC business into a division projecting billions in revenue. The car had become, in the eyes of the technology industry, a very large connected device with wheels.<\/p>\n\n\n\n

Against this backdrop, the fourth force \u2014 which might otherwise seem merely aesthetic \u2014 takes on structural significance. The car industry had, for decades, produced its most important reveals at motor shows in Frankfurt, Detroit, and Geneva. From roughly 2014, that began to change. Major automotive announcements started happening at the Consumer Electronics Show in Las Vegas. The implications were not merely symbolic. CES is evaluated by technology press, using technology criteria. At CES, the relevant comparison for a car’s interior is not the Volkswagen Golf from the previous model year \u2014 it is a Samsung television or an Apple iPad. Screen size, UI fluency, and software sophistication became the metrics by which automotive interiors were judged, because the venues in which they were judged had been designed to evaluate those things. Automotive journalism followed directly from this venue shift. The major review outlets \u2014 Car and Driver, Motor Trend, What Car, Auto Bild \u2014 developed infotainment scoring systems that explicitly weighted technology quality. A poor infotainment score could measurably reduce an overall star rating, which could measurably affect sales. Manufacturers optimising for reviews therefore had a direct financial incentive to invest in screen sophistication, irrespective of whether screen sophistication correlated with driver safety or usability. The reviewers who wrote the scores and the editors who published them were not acting maliciously. They were responding, as institutions do, to what their readers said they wanted. Their readers had been conditioned, by a decade of smartphone ownership, to expect a particular kind of interface. The feedback loop was closed, and physical controls were on the wrong side of it.<\/p>\n\n\n\n

The fifth force operated at the psychological level, and it is the one that automotive manufacturers understood best and discussed least openly. A car is an unusual consumer product in that most of the relevant information about it \u2014 how it feels to drive over time, how intuitive its controls become after three months of daily use, how much cognitive load a particular interface imposes at highway speed \u2014 is invisible during the purchasing decision. What a buyer can assess in a showroom is appearance, and what a large glowing screen conveys, in a showroom, at the moment of first impression, is modernity and technological sophistication. Physical buttons convey nothing. They simply work.<\/p>\n\n\n\n

Consumer psychology has a term for products where short-term impressions diverge from long-term experience: “experience goods.” The automotive industry knows this distinction. Internal product research at multiple manufacturers consistently showed that infotainment satisfaction scores declined over the ownership period \u2014 buyers who were impressed at purchase became frustrated over time. The industry also knew that this frustration did not feed back into purchase decisions in a meaningful way, because most buyers make their next purchase decision in a showroom, where the screen once again makes its immediate impression. The market correction mechanism that would, in a rational market, have penalised poor long-term usability was broken. Manufacturers with good research departments knew this. They shipped the screens anyway.<\/p>\n\n\n\n

The sixth force is the one that automotive executives would most strongly prefer not to discuss, and the one that most clearly explains why the transition became, from the manufacturer’s perspective, irreversible. Screens are not merely a design choice. They are infrastructure for a different business model.<\/p>\n\n\n\n

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A physical switch can be toggled. It cannot be disabled remotely, unlocked by subscription, or updated over a network. A connected touchscreen can do all three. BMW has charged subscription fees for heated seats \u2014 a function the hardware already supported, gated behind a software paywall and unlocked through a touchscreen interface. Mercedes-Benz has sold accelerator response upgrades as a recurring subscription. Cadillac’s Super Cruise driver assistance system operates on a subscription model. These are not peripheral experiments. They represent a fundamental restructuring of the automotive revenue model, from a business in which the manufacturer’s financial relationship with the customer ends at purchase, to one in which the car itself is a recurring revenue platform. This restructuring is only possible if the car contains a connected screen. It is not possible with physical switches.<\/p>\n\n\n\n

The subscription model also explains something that pure design logic cannot: why, by the late 2010s, automotive manufacturers had become vocally hostile to any regulatory constraint on screen functionality. A regulation mandating simplified infotainment interfaces, or limiting the number of functions accessible via touchscreen while moving, would directly threaten the infrastructure through which subscription features are delivered and over-the-air updates are monetised. The financial stakes of interface regulation had grown considerably since the first screens appeared.<\/p>\n\n\n\n

There is also a legal dimension that manufacturers have not been eager to publicise. When a safety-critical feature \u2014 cabin temperature, rear demister, windscreen wiper speed \u2014 requires navigating through multiple software menus to access, manufacturers can more credibly argue, in litigation following an accident, that any failure to use the system safely represents driver misuse rather than design defect. Physical buttons create a different liability exposure: a driver who reaches for a knob and finds it immediately has less room to claim that the interface was dangerously complex. The migration of controls into screens was not only a revenue strategy. It was also, as a legal matter, a risk-transfer mechanism \u2014 one that shifted responsibility from the designer to the driver.<\/p>\n\n\n\n

The seventh force ran parallel to the subscription logic: data. A connected touchscreen does not merely display information. It collects it. Every tap, every menu navigation, every destination entered into a navigation system generates data about driver behaviour, routes, preferences, and patterns. That data has established commercial value \u2014 in insurance partnerships, in traffic analytics sold to mapping companies, in product development. Physical buttons generate no data. From the perspective of a connected car platform, they are invisible. The transition from buttons to screens was, among other things, a transition from a product that could not be instrumented to one that could.<\/p>\n\n\n\n

The eighth force was demographic and cultural, and it arrived on schedule. Between roughly 2016 and 2019, millennials \u2014 defined here as those born between 1981 and 1996 \u2014 surpassed baby boomers as the largest car-buying demographic in the United States and Western Europe. This is the first generation of car buyers who learned to navigate before they learned to drive. Their spatial and informational intuitions were formed on touchscreen devices. For them, a rotary dial connected to a nested menu system is not intuitive \u2014 it is the legacy interface, the thing that requires learning. A touchscreen running a smartphone-derived operating system is the familiar one. Manufacturers designing for the next decade’s primary buyer had a documented demographic reason to weight software interfaces over physical controls.<\/p>\n\n\n\n

The ninth force was internal, and harder to see from outside. The car companies that survived the 2010s were not the car companies of the 1990s. They had reorganised, in many cases dramatically, around software capability \u2014 partly because the technology demanded it, partly because investors required it. Ford created “Team Edison.” Volkswagen created “CARIAD.” To staff those organisations, manufacturers needed software engineers. To attract software engineers from Google, Apple, and Amazon, they had to offer work that felt like software work. Designing a button cluster is not software work. Designing a vehicle operating system, building application layers, iterating on UI \u2014 that is. The internal talent competition that shaped the hiring strategies of the world’s largest car companies subtly but persistently biased product decisions toward software-forward solutions. Not because anyone mandated it, but because the people building the products had been hired to build software, and software prefers screens.<\/p>\n\n\n\n

The tenth force \u2014 and in some ways the most architecturally significant \u2014 came from the powertrain. The internal combustion vehicle is a constrained design space. A firewall separates engine from cabin. A transmission tunnel runs through the floor. Gear selectors, handbrakes, and HVAC ducting occupy fixed volumes. These physical constraints shaped dashboard architecture for a century, creating inherited positions and logic for controls that successive designers could adapt but rarely eliminate. The electric vehicle has none of these constraints. A flat battery floor, no engine firewall, no transmission tunnel. When Tesla designed the Model S interior, released in 2012, there was no convention to follow and no legacy packaging to accommodate. The blank canvas solution \u2014 a seventeen-inch screen in the centre of a bare, flat surface \u2014 was not inevitable, but it was available in a way it had never been before. That decision, and the company’s subsequent rise to genuine status symbol, established a template that every manufacturer entering EV development was then measured against.<\/p>\n\n\n\n

Part III: The China Chapter<\/h3>\n\n\n\n

The China dimension of this story has received almost no attention in Western coverage, which is itself a kind of evidence about how the story has been framed.<\/p>\n\n\n\n

Begin with the market. China is the world’s largest single automotive market. For Volkswagen, GM, BMW, and Mercedes-Benz, it is not merely large \u2014 it represents a disproportionate share of global profit, the market that cross-subsidises product development costs spread across every other geography. What Chinese consumers want, the product planners at those companies pay very serious attention to. And Chinese consumers, consistently across multiple market research sources including McKinsey and JD Power China, have shown a measurably stronger preference for technology-forward vehicle interiors than their European or American counterparts. Large screens score higher. Software features score higher. Physical button-heavy dashboards score lower.<\/p>\n\n\n\n

The consequence, which is logical once stated, is that when a global manufacturer designs a single platform for deployment across multiple markets \u2014 as all of them do, because parallel platform development is prohibitively expensive \u2014 they design it for their most important market. The platform that sells in China becomes the platform that is sold in Germany, the United Kingdom, and the United States. The Chinese consumer preference for screens did not merely influence Chinese-market vehicles. It influenced every vehicle.<\/p>\n\n\n\n

This dynamic was then amplified by the entry of Chinese EV manufacturers. NIO, Xpeng, Li Auto, and BYD brought to market vehicles with dual screens, rotating screens, and rear passenger entertainment systems as standard equipment \u2014 not as luxury options but as baseline features. These brands reset the reference point for what a modern car interior looked like. When BYD became the world’s top-selling EV brand and began selling vehicles in Europe, Western manufacturers faced a specific kind of competitive pressure: one defined not by powertrain or dynamics, which take years to develop, but by interior specification, which can be changed within a single model cycle. The fastest way for a Western OEM to look competitive against a Chinese rival was to install a larger screen.<\/p>\n\n\n\n

Then there is the supply chain. BOE Technology \u2014 whose six largest shareholders as of 2020 were state-owned investment companies from Beijing, Chongqing, and Hefei \u2014 had by 2022 become the world’s leading manufacturer of automotive display panels by shipment volume. BOE’s expansion, and that of its domestic rivals CSOT and others, was underwritten by a level of state investment that private-sector competitors in South Korea and Japan could not match. The result was a sustained price collapse in LCD and OLED panel markets. LG Display, which had been a global leader, posted operating losses of 2.09 trillion won in 2022 and 2.5 trillion won in 2023. Samsung abandoned its LCD business in 2020. The Korean manufacturers who had dominated global display production were driven out of the market by Chinese competitors operating with structural cost advantages funded by the state.<\/p>\n\n\n\n

For automotive manufacturers sitting outside China, this meant that the economics of installing a large display had shifted fundamentally. What had been a meaningful cost became, over the course of a decade, comparatively trivial \u2014 not because automotive displays became technically simpler, but because Chinese industrial policy had made the panels that constitute them very cheap. A geopolitical decision taken in Beijing had a direct design consequence in every car sold in Bradford, Baltimore, and Berlin.<\/p>\n\n\n\n

Part IV: The Body Count<\/h3>\n\n\n\n

The TRL study published in March 2020 is, by any reasonable measure, one of the most important automotive safety documents of the past decade. It is available as Report PPR948 on the Transport Research Laboratory’s website. It found that drivers using Apple CarPlay via touchscreen experienced reaction time degradation of 57 percent compared to undistracted driving. For context, the same research tradition \u2014 using the same simulator, the same test route \u2014 had previously established that driving at the legal alcohol limit degrades reaction times by approximately 12 percent. Cannabis impairs by approximately 21 percent. Texting while driving \u2014 the behaviour that prompted legislation across most of the developed world \u2014 produces degradation of approximately 35 percent.<\/p>\n\n\n\n

The touchscreen impairment figure is worse than all of them.<\/p>\n\n\n\n

The study also documented that drivers took their eyes off the road for up to sixteen seconds while interacting with the system. At motorway speeds, sixteen seconds represents a distance of more than five hundred metres travelled without meaningful attention on the road ahead. IAM RoadSmart, which commissioned the study, called for mandatory pre-market testing of infotainment systems and consistent industry standards for driver distraction. “Driver distraction is estimated to be a factor in around a third of all road collisions in Europe each year,” said Neil Greig, IAM RoadSmart’s Policy and Research Director, in the study’s release. “We’re now calling on industry and government to openly test and approve such systems.”<\/p>\n\n\n\n

The industry did not openly test and approve such systems.<\/p>\n\n\n\n

Two years later, Vi Bil\u00e4gare’s practical road test confirmed the findings in a format accessible to any reader: a 2005 car with physical buttons was faster and less distracting than every modern touchscreen-equipped vehicle they tested. The BMW iX \u2014 a vehicle that costs over \u00a380,000 in the United Kingdom \u2014 required a driver to spend 30.4 seconds completing four routine tasks, compared to ten seconds in the Volvo. The tasks selected \u2014 adjusting cabin temperature, finding a radio station, activating the heated seat, and resetting a trip computer \u2014 are everyday in-car interactions, not edge cases. Critics of the test argued the task selection inherently favoured physical buttons. That argument proves the point: when the most ordinary interactions a driver performs are ones that physical controls handle faster and with less visual attention, the design has failed.<\/p>\n\n\n\n

The official American death toll from distracted driving sits at approximately 3,200 per year, according to NHTSA’s own published figures \u2014 3,308 in 2022, 3,275 in 2023, 3,208 in 2024. But NHTSA’s own internal analysis, cited in reporting by Smart Cities Dive in 2024, estimated the true 2021 death toll attributable to driver distraction at closer to 12,400 \u2014 a number more than three times higher than what appears in official statistics. The gap exists for a reason that is itself part of the story: NHTSA’s crash coding system \u2014 the Fatality Analysis Reporting System \u2014 does not have a specific field for built-in infotainment distraction. Crashes involving in-car screens are classified as “distraction\/inattention \u2014 other.” They disappear into a category that proves nothing specific to anyone.<\/p>\n\n\n\n

This is not a technological limitation. It is a categorisation choice. The category structure of a crash reporting system is a policy decision. Without the specific data, the specific regulatory case is much harder to make. Without the regulatory case, the specific standard is much harder to mandate. The architecture of the data collection system is itself a permissive structure for the manufacturers whose products it fails to isolate.<\/p>\n\n\n\n

Part V: The Institutions<\/h3>\n\n\n\n

The story of how regulatory institutions failed to respond to documented evidence of harm in the automotive touchscreen era is not, properly told, a story about corruption or conspiracy. It is a story about how institutional structures produce outcomes that serve the powerful without anyone in those institutions needing to be dishonest or criminal. The mechanism is more mundane than malfeasance, and in some ways more troubling.<\/p>\n\n\n\n

Begin with the document. On April 26, 2013, NHTSA published its Visual-Manual Driver Distraction Guidelines for In-Vehicle Electronic Devices in the Federal Register, under Docket No. NHTSA-2010-0053. The document is careful and thorough. It specifies a maximum task completion time of twelve seconds and a maximum individual glance duration of two seconds. It notes that these criteria are derived from research. It acknowledges the safety stakes clearly. And then, in language that the Federal Register reproduces without irony, it states: “NHTSA has opted to pursue nonbinding, voluntary guidelines rather than a mandatory Federal Motor Vehicle Safety Standard.”<\/p>\n\n\n\n

The document describes this as “Phase 1” of a three-phase programme. Phases 2 and 3, covering portable devices and voice interfaces, were also to be developed. The administrator who presided over Phase 1 was David Strickland, whom President Obama had nominated to lead NHTSA in 2010.<\/p>\n\n\n\n

Strickland left NHTSA in January 2014. On January 8, 2014 \u2014 the same month \u2014 Venable LLP, a Washington law firm, issued a press release announcing that he would be joining the firm as a partner. Venable described his role as supporting the firm’s “Government Affairs, Automotive, and Technology practices.” Among Venable’s clients at the time were the Alliance of Automobile Manufacturers \u2014 the primary lobbying body for the auto industry in Washington \u2014 and Chrysler, then owned by Fiat. This was not a secret. It was reported at the time by Streetsblog USA and extensively documented by Safety Research & Strategies, a road safety advocacy organisation. Strickland subsequently served as counsel to the Self-Driving Coalition for Safer Streets \u2014 whose members included Google, Ford, Volvo, Uber, and Lyft \u2014 before joining General Motors in October 2021 as Vice President of Global Regulatory Affairs.<\/p>\n\n\n\n

Phases 2 and 3 of NHTSA’s distraction guidelines programme were never completed as mandatory standards. The twelve-second guideline was never encoded in law. As of 2026, there is no mandatory pre-market testing requirement for automotive infotainment systems in the United States. There is no specific legal category for built-in infotainment distraction in American crash law. A manufacturer may, without violating any federal standard, install a system requiring thirty seconds of eyes-off-road time in a vehicle sold to the American public.<\/p>\n\n\n\n

Strickland is one data point in a longer pattern. Safety Research & Strategies has documented that NHTSA’s senior officials have a well-established history of moving into industry roles \u2014 either directly with automakers or with law firms that represent them \u2014 immediately after leaving the agency. He is not exceptional; he is representative. The revolving door between NHTSA and the industry it regulates is a structural feature, and structural features produce predictable behaviours. Regulators who anticipate post-government careers in industry regulate with a moderation that does not need to be explicitly requested.<\/p>\n\n\n\n

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The liability dimension of this story connects directly to the regulatory one in a way that is rarely made explicit. As argued in Part II, the migration of controls from physical buttons to software menus shifted legal exposure onto drivers \u2014 manufacturers could more credibly claim misuse when a complex interface was operated unsafely. What follows from that, and what belongs in any account of regulatory failure, is this: a manufacturer that has already transferred liability to the driver has a structural disincentive to support regulations that would transfer it back. Mandatory interface standards \u2014 maximum task complexity, required physical controls for safety-critical functions \u2014 would not only constrain product design. They would re-establish a design standard against which a product could be measured in litigation, and found wanting. The industry’s resistance to interface regulation was not only about protecting subscription revenue or software flexibility. It was also about preserving a legal architecture that had been quietly and profitably constructed over the preceding decade.<\/p>\n\n\n\n

In Europe, the picture is different in form but similar in outcome. The EU’s General Safety Regulation 2019\/2144 \u2014 GSR2, adopted in late 2019 and mandatory from July 2022 \u2014 is the most comprehensive vehicle safety regulation the bloc has produced in a generation. It mandated intelligent speed assistance, autonomous emergency braking, lane-keeping systems, event data recorders, and an “Advanced Driver Distraction Warning” system. That last feature sounds directly relevant. It is, in practice, a camera mounted inside the vehicle to monitor the driver’s eye and head position, which warns if the driver looks away from the road. It is a system that detects distraction after the fact. What GSR2 does not contain \u2014 anywhere in its considerable length \u2014 is a requirement relating to how infotainment systems must be designed. No task complexity limit. No maximum eyes-off-road time for infotainment interactions. No requirement for physical controls for common functions. The regulation that was supposed to address driver distraction tells the car to watch the driver’s eyes. It does not tell the car’s software to stop demanding that those eyes look elsewhere.<\/p>\n\n\n\n

This omission did not go unnoticed during the regulation’s development. The European Automobile Manufacturers’ Association \u2014 ACEA \u2014 which represents BMW, Mercedes-Benz, Volkswagen, Stellantis, Renault, and every other major OEM, is a registered lobbying organisation in the EU Transparency Register, a public database of interest groups that interact with EU institutions. Its president during the period of GSR2’s adoption was Oliver Zipse, the CEO of BMW. Its Director General was Eric-Mark Huitema. ACEA’s public position on the automotive transition was consistently focused on electrification and digitalisation as opportunities. Its position on mandatory infotainment interface standards during GSR2 consultation was not something retrievable from publicly available documents in the course of this research \u2014 but what is retrievable is the regulation that emerged, and what it does not contain.<\/p>\n\n\n\n

Euro NCAP, the consumer-facing safety ratings body whose five-star rating drives purchasing decisions across Europe more reliably than almost any other signal, operated throughout the entire period of touchscreen deployment \u2014 roughly 2012 to 2024 \u2014 without meaningfully penalising vehicles for infotainment distraction risk. A car requiring thirty seconds of eyes-off-road time to change the cabin temperature could receive five stars. In November 2025, Euro NCAP’s Secretary General Dr. Michiel van Ratingen announced changes to the organisation’s assessment protocols for 2026. Among the new criteria: evaluation of “the placement, clarity, and ease of use of essential controls \u2014 including the availability of physical buttons for commonly used functions.” This announcement, which amounted to an institutional admission that physical button availability matters for safety, came approximately fifteen years after the first large-scale deployments of touchscreen-only interiors.<\/p>\n\n\n\n

The explanation that requires the least interpretive charity is institutional capture: an underfunded regulator, staffed by officials who expect post-government careers in the industry they regulate, operating under political pressure from an industry that employs millions in electorally significant states, will systematically under-regulate without anyone in that institution needing to make an explicit corrupt decision. NHTSA’s staffing stood at 620 full-time equivalents in FY2021, rising to 848 by FY2024 only after substantial new infrastructure funding \u2014 numbers that, across the entire period of the touchscreen transition, left the agency with fewer than 750 staff to oversee the safety standards of the world’s largest consumer industry. Its budget, while nominally large due to grant programmes distributed to states, allocates less than $250 million to vehicle safety research and rulemaking. It cannot run the research at the pace technology deploys.<\/p>\n\n\n\n

There is also the question of framing. Throughout this period, distracted driving was framed \u2014 by manufacturers, by regulators, and largely by media \u2014 as a behavioural problem. A driver who looked at their screen was making a bad choice. The solution was education: campaigns, public service announcements, “Put the Phone Away or Pay.” The product design question \u2014 why does the car require the driver to look at the screen for thirty seconds to adjust the temperature \u2014 was almost entirely absent from public discussion. That framing is documented in regulatory language, in industry position papers, and in the coverage record. It is also tactically convenient for manufacturers, because behavioural problems require awareness campaigns, not product recalls.<\/p>\n\n\n\n

The parallel that public health researchers have drawn \u2014 between the automotive safety response to infotainment risk and the tobacco industry’s management of health evidence in the 1960s and 1970s \u2014 is not a casual comparison. It appears in peer-reviewed literature: Braun and Randell, writing in the journal Mobilities<\/em> in 2025, explicitly document the use of doubt-manufacturing, individual-responsibility framing, and regulatory delay as shared tactics between the tobacco industry and the automotive sector. Miner et al., in the Journal of Transport Geography<\/em> (2024), document parallels between the lobbying tactics deployed by the automobile industry against safety regulation and those historically used by the tobacco industry. The mechanism described in both cases is the same: manufacture scientific ambiguity. Emphasise individual responsibility. Fund research that reaches more equivocal conclusions. Delay until the product is too deeply embedded to regulate without causing economic disruption. The pattern does not require coordination to operate. It requires only that a well-funded industry with a financial stake in the status quo interact with a structurally weakened regulator in a political environment where the industry employs millions of voters.<\/p>\n\n\n\n

Closing<\/h3>\n\n\n\n

There are signs, as of early 2026, that the wall is cracking. Euro NCAP’s 2026 protocols will penalise vehicles that fail to provide physical buttons for common functions. Some manufacturers \u2014 Volkswagen, in certain models; Volvo, with its explicit design reversal \u2014 have begun quietly restoring physical controls that were removed only years earlier. The European Commission is, for the first time, generating internal discussion about mandatory infotainment interface standards. The regulatory silence that accompanied fifteen years of screen deployment is, slowly, ending.<\/p>\n\n\n\n

Porsche offers the most instructive case study in what acting on the evidence looks like. The Taycan, released in 2019, stripped the centre console of almost all physical controls. Customer feedback was negative. By the 2024 Cayenne, Porsche had quietly begun restoring toggles and knobs for climate, fan speed, and volume \u2014 functions that the Taycan had absorbed entirely into its touchscreen. Cayenne electronics manager Dirk Assfalg confirmed to The Drive in October 2025 that Porsches will “always” retain certain physical controls, citing customer demand as the direct driver. He acknowledged, without euphemism, that the Taycan had gone too far. Porsche is not alone in this reversal \u2014 Volkswagen has made similar admissions, and Hyundai has committed to returning physical controls to upcoming production models \u2014 but Porsche is the clearest example of an institution that had access to the same research as everyone else, received the same customer signals as everyone else, and made a different choice. Its reversal is an implicit indictment of every manufacturer that has not.<\/p>\n\n\n\n

What it leaves behind is a fleet. Hundreds of millions of vehicles, sold in the years when the research was available and the regulators did not act, are now on the roads of Europe and North America with interfaces that require their drivers to look away from the road for seconds that are, at speed, significant distances. The 3,208 Americans who died in distraction-affected crashes in 2024 cannot be disaggregated into those killed by phones and those killed by built-in screens, because the crash coding system does not make that distinction. That is, as this piece has attempted to document, not an accident.<\/p>\n\n\n\n

I counted the reasons this happened. There are forty-four of them. They are listed in the appendix that follows as a reference document \u2014 a research foundation rather than a continuation of the argument above. Some of them are the legitimate consequences of engineering progress and market forces. Several of them are the consequences of institutions that were structured, and in some cases managed, to produce outcomes more favourable to manufacturers than to drivers. Holding both of those things in mind simultaneously is not comfortable. It is, however, accurate.<\/p>\n\n\n\n

Appendix: The Complete Research Foundation<\/h3>\n\n\n\n

The following list constitutes the analytical foundation from which this article was developed. It documents all identified factors \u2014 economic, regulatory, engineering, cultural, psychological, and geopolitical \u2014 that contributed to the transition from physical controls to touchscreen interfaces in passenger vehicles. It is presented as a reference document and research tool, not as an exhaustive citation list. Primary sources for all factual claims used in the article above are identified in the Source Notes that follow the list.<\/em><\/p>\n\n\n\n

Economics & Supply Chain<\/h3>\n\n\n\n

1. Software updates as a product strategy<\/strong> Physical controls are frozen at the moment of manufacture. Screens let manufacturers ship an unfinished product and patch it later \u2014 or add features post-sale. Tesla demonstrated that it was possible to sell features years before they functionally existed. The car becomes a subscription platform, not a finished object.<\/p>\n\n\n\n

2. Genuine cost reduction \u2014 but not the obvious kind<\/strong> The real saving is in assembly complexity. A dashboard with sixty physical controls requires sixty harness connections, sixty QA checkpoints, sixty SKUs for variants. A screen collapses that into one unit. The savings are in logistics, inventory, and line complexity \u2014 not in the component price.<\/p>\n\n\n\n

3. Localisation became trivially easy<\/strong> Physical buttons need engraved or printed labels \u2014 different tooling for every language market. A screen changes language in software. For a global manufacturer selling in fifty-plus countries, this is operationally significant.<\/p>\n\n\n\n

4. Platform sharing across brand families<\/strong> Volkswagen Group sells under VW, Audi, \u0160koda, SEAT, Porsche, Lamborghini, and Bentley nameplates. Stellantis has fourteen brands. One screen platform deployed across all of them is an enormous efficiency. Screens allow the group to maintain the appearance of differentiation while sharing ninety percent of the underlying system. The MEB and STLA platforms both depend on this logic.<\/p>\n\n\n\n

5. Warranty and repair economics<\/strong> A broken physical switch requires a specific replacement part. A software fault costs nothing to fix remotely. Hardware screen module failures are often covered by replacing one unit rather than diagnosing one of sixty possible failed switches.<\/p>\n\n\n\n

6. Screens consolidate repair into dealer networks<\/strong> A physical switch can be replaced by any mechanic with a commodity part. A screen module failure routes the owner back to the dealer, to proprietary diagnostic software, to authorised repair. This is documentable in repair cost data and is increasingly a legislative issue under right-to-repair frameworks in the US and EU.<\/p>\n\n\n\n