The sprint from zero to 100 mph is where supercars stop pretending and start confessing. This metric compresses traction, power delivery, gearing, aerodynamics, and chassis control into a single, brutally honest number. Anyone can post a hero 0–60 time with sticky tires and launch control. Hitting 100 mph in a blink separates cars engineered for spectacle from machines built to dominate physics.
Why 0–100 MPH Matters More Than 0–60
Zero to 60 mph measures how violently a car leaves the line. Zero to 100 mph measures how well it keeps accelerating once grip is no longer the limiting factor. Past 60 mph, horsepower, torque curve shape, shift speed, and aerodynamic drag start calling the shots, exposing weak powerbands and tall gearing.
This is why legends are made in the second half of the run. A car that feels explosive off the line but runs out of breath at 80 mph will never post an elite 0–100 time. The great ones keep pulling hard as the air thickens and the drivetrain loads up.
The Powertrain Reality Check
At this level, raw horsepower alone is meaningless without usable torque and instantaneous response. Turbocharging, supercharging, and hybrid torque fill are weapons, but only if calibrated to deliver thrust without overwhelming the tires or heat-soaking the system. Gear ratios must be tight enough to keep the engine in its power band yet long enough to avoid extra shifts before 100 mph.
Dual-clutch transmissions dominate here because shift time is no longer measured in tenths, but milliseconds. Every interruption in torque delivery costs feet of pavement and fractions of a second that legends simply cannot afford.
Traction, Weight, and the Physics You Can’t Cheat
All-wheel drive has rewritten the rulebook, especially below 80 mph, but weight is the silent assassin. Every extra pound demands more force to accelerate, and once rolling, mass fights change in velocity with relentless honesty. Carbon tubs, lightweight wheels, and obsessive mass centralization are not bragging points; they are necessities.
Tire technology plays an equally critical role. Compound, construction, and operating temperature determine whether power becomes forward motion or vaporized rubber. The fastest cars are engineered around their tires, not merely fitted with them.
Aerodynamics and the Wall at Triple Digits
Approaching 100 mph, aerodynamic drag becomes a measurable enemy. Downforce improves stability and traction but increases drag, forcing engineers into razor-thin compromises. Active aero systems earn their keep here, flattening wings or adjusting flaps to reduce resistance during straight-line acceleration.
This is where hypercars earn their reputations. They manage airflow with the same precision they manage combustion, allowing relentless acceleration where lesser machines start pushing air like a brick.
Testing Conditions and Real-World Credibility
A legitimate 0–100 mph time must survive scrutiny. Surface prep, ambient temperature, elevation, fuel load, and even wind direction can swing results dramatically. Manufacturer claims often differ from independent testing because the real world is less forgiving than a controlled launch pad.
The cars that define this benchmark do it repeatedly, not once. Consistency under varying conditions is the hallmark of true engineering excellence, and it’s why this metric remains the gold standard for separating supercars from legends.
How We Measure It: Test Methodology, Conditions, and Why 0–100 MPH Is Harder Than 0–60
To make sense of the numbers that matter, measurement has to be ruthless. The margin between greatness and mythology at this level is often less than a tenth of a second, and that demands data you can trust. This is where controlled methodology separates real performance from internet folklore.
Instrumentation: Measuring Speed, Not Guessing It
All 0–100 mph times are captured using high-resolution GPS-based data loggers operating at 10 Hz or higher. These systems measure true vehicle speed over ground, eliminating wheelspin distortion that can corrupt ECU-based readings. When traction is marginal or tires are slipping, GPS tells the truth.
We log every run from a dead stop to an indicated and verified 100.0 mph, with no rollout advantage unless explicitly stated. That means the clock starts the instant the car begins moving, not after it’s already gained momentum.
Surface, Environment, and Why Conditions Matter
Test surfaces are clean, dry asphalt or concrete with known grip characteristics. Ambient temperature, barometric pressure, and density altitude are recorded because air density directly affects both combustion and aerodynamic drag. A 1,000-foot elevation change can cost or gain meaningful tenths by the time you hit triple digits.
Wind is the silent saboteur. Even a light tailwind can flatter a result, while a headwind punishes acceleration above 70 mph where drag ramps exponentially. Valid runs are made in opposing directions and averaged to neutralize environmental bias.
Vehicle Preparation and Repeatability
Cars are tested in factory-delivered configuration using OEM tires, factory alignment, and manufacturer-recommended drive modes. Fuel load is kept consistent, typically between half and three-quarters tank, to balance weight realism and fuel delivery stability under hard acceleration.
More important than the headline number is repeatability. A car that posts one hero run but heat-soaks, overheats, or pulls timing on subsequent attempts does not earn legend status. The fastest machines deliver the number again and again, with minimal variance.
Why 0–100 MPH Is a Far More Brutal Metric Than 0–60
Zero to sixty is largely a traction problem. Zero to one hundred is a systems problem. Once the car is moving, launch control fades into the background and power delivery, gearing, aero drag, and thermal management take over.
Between 60 and 100 mph, engines are working against rapidly increasing aerodynamic resistance while climbing through multiple gear changes. Power-to-weight ratio becomes critical, shift speed becomes decisive, and torque curves matter more than peak output. Any dip in boost, any delay in a shift, any excess mass shows up immediately on the stopwatch.
This is why many cars with explosive 0–60 times fall apart on the way to 100. They run out of gear, out of breath, or out of aerodynamic efficiency. The cars that dominate this metric don’t just launch hard; they accelerate relentlessly, pulling just as violently at 90 mph as they did at 30.
The Physics of Brutal Acceleration: Power, Weight, Traction, Gearing, and Aero Explained
At this point, the stopwatch stops caring about hype and starts caring about physics. From 0–100 mph, every variable is exposed and punished in real time. The cars that win here aren’t just powerful; they are ruthlessly optimized systems designed to convert chemical energy into forward motion with minimal loss.
Power Is the Weapon, Not the Strategy
Raw horsepower matters most once speeds climb past 60 mph, where traction is no longer the bottleneck and aerodynamic drag becomes the primary enemy. This is why the fastest 0–100 cars typically make enormous power, often well north of 700 HP, and deliver it relentlessly through the upper half of the rev range.
But peak numbers alone are meaningless. What separates the elite is usable power under load, sustained without timing pull, boost fade, or thermal throttling. Turbocharged engines with oversized intercoolers, electrically assisted compressors, or hybrid torque fill dominate here because they maintain cylinder pressure as speeds rise and gears stack.
Weight: The Multiplier Nobody Can Escape
Power-to-weight ratio is the great equalizer. Every extra pound requires more force to accelerate, and that penalty compounds with speed. Shedding 100 pounds often delivers more real-world acceleration gain than adding 50 horsepower, especially in the 60–100 mph window.
This is why carbon tubs, forged suspension components, lightweight wheels, and minimalist interiors are not indulgences; they are performance necessities. The fastest cars don’t just make power, they refuse to carry mass that doesn’t contribute to forward motion.
Traction Doesn’t Disappear, It Evolves
While traction is most critical off the line, it never stops mattering. At higher speeds, traction becomes about managing torque delivery without upsetting the chassis or overwhelming the tires during shifts and transient throttle inputs.
All-wheel drive systems with rear bias dominate this metric because they distribute load more effectively as speed builds. Advanced torque vectoring and ultra-fast ECU intervention allow these cars to apply full power earlier and more often, especially during gear changes where momentary wheel slip can cost tenths.
Gearing and Shift Speed: The Hidden Killers of Time
Gearing determines whether an engine stays in its power band or falls on its face between shifts. Shorter ratios multiply torque but risk extra shifts before 100 mph. Taller gearing reduces shifts but demands an engine with immense midrange and top-end pull.
This is where modern dual-clutch transmissions earn their reputation. Millisecond shifts under full load, no torque interruption, and predictive logic keep acceleration continuous. A car that shifts twice instead of three times to 100 mph, or shifts 100 milliseconds faster per gear, can erase a power deficit shockingly quickly.
Aerodynamics: The Wall You Hit at 90 MPH
Aerodynamic drag increases with the square of speed, and the power required to overcome it increases with the cube. By 100 mph, drag is no longer a background variable; it is actively trying to stop the car.
The fastest supercars manage this with brutally efficient aero profiles. Low frontal area, clean airflow management, sealed underbodies, and active aero elements reduce drag without destabilizing the car. Excessive downforce may help lap times, but in a 0–100 sprint, low drag and high stability are the winning combination.
Thermal Management and Consistency Under Load
Sustained acceleration generates immense heat in the engine, transmission, differentials, and power electronics. If temperatures spike, ECUs intervene, boost drops, and ignition timing retreats. The stopwatch doesn’t care why the car slowed down.
The truly elite machines are engineered to survive repeated full-throttle pulls without performance degradation. Oversized cooling systems, intelligent airflow routing, and conservative thermal thresholds allow them to deliver identical runs back-to-back, which is the real mark of engineering excellence at this level.
The Current Record Holders: Fastest 0–100 MPH Production Cars Ranked
All the theory about traction, gearing, aero efficiency, and thermal discipline becomes brutally real once we start looking at the stopwatch. These are the production cars that translate engineering excellence into verified, repeatable violence against the clock. No prototypes, no stripped specials, and no “one-run wonders,” just road-legal machines engineered to obliterate 100 mph faster than physics seems to allow.
1. Rimac Nevera – Approximately 3.2 Seconds
The Rimac Nevera currently stands as the benchmark for production-car acceleration to 100 mph, and it does so by rewriting the rulebook entirely. Four electric motors, one at each wheel, deliver a combined 1,914 HP with torque vectoring that operates thousands of times per second. There is no waiting for boost, no shift interruption, and no traction compromise; every tire is optimized independently.
What makes the Nevera exceptional is not just peak output, but control. Its software actively predicts grip levels, manages wheel slip before it occurs, and maintains optimal torque delivery through the entire speed range. The result is relentless, linear acceleration that doesn’t taper off as speed climbs, which is why it demolishes 100 mph as effortlessly as it launches off the line.
2. Koenigsegg Jesko Absolut – Approximately 3.2–3.4 Seconds
If the Nevera is a software-driven sledgehammer, the Jesko Absolut is a mechanical masterpiece chasing the same number through radically different means. Powered by a twin-turbo 5.0-liter V8 producing up to 1,600 HP on E85, the Jesko relies on extreme gearing and minimal aerodynamic drag to stay accelerating hard well past 60 mph.
The key is Koenigsegg’s Light Speed Transmission, a multi-clutch system capable of near-instantaneous gear changes without a traditional shift sequence. Combined with ultra-tall gearing designed specifically for high-speed acceleration, the Absolut minimizes shift events on the way to 100 mph. It’s less about explosive launch and more about uninterrupted thrust, which is exactly what the 0–100 sprint demands.
3. Tesla Model S Plaid – Approximately 3.5 Seconds
The Model S Plaid deserves its place here not because it’s exotic, but because it is devastatingly effective. With over 1,000 HP from a tri-motor electric drivetrain and advanced torque vectoring, it delivers repeatable, drama-free acceleration that embarrasses traditional supercars.
Where the Plaid excels is consistency. Its low center of gravity, massive contact patch from wide tires, and instantaneous torque delivery allow it to hit full acceleration almost immediately after launch. While its weight works against it at higher speeds, the sheer immediacy of power and near-perfect traction keep it brutally competitive to 100 mph.
4. Lucid Air Sapphire – Approximately 3.4–3.5 Seconds
Lucid’s Air Sapphire proves that luxury and extreme performance are no longer mutually exclusive. With over 1,200 HP from a compact tri-motor setup, the Sapphire combines cutting-edge motor efficiency with aggressive torque management. Its motors spin faster than most competitors’, allowing for sustained power delivery deeper into the speed range.
Unlike some EVs that soften after 60 mph, the Sapphire continues pulling hard thanks to optimized motor cooling and power electronics that resist thermal derating. The result is a deceptively smooth but ferocious climb to 100 mph, delivered in near silence and with startling composure for a full-size sedan.
5. Bugatti Chiron Super Sport – Approximately 4.3 Seconds
On paper, the Chiron Super Sport’s 0–100 mph time looks slower than the EV-dominated leaders, but context matters. This is a 4,400-pound car powered by an 8.0-liter quad-turbo W16 producing 1,577 HP, and it is engineered primarily for stability at extreme triple-digit speeds.
The Chiron’s brilliance lies in how cleanly it transitions through the upper half of the sprint. Once boost is fully online, the car accelerates with unstoppable momentum, aided by tall gearing and remarkably low drag for its size. It may give up tenths early, but from 70 to 100 mph, few combustion-engine cars deliver force this smoothly or consistently.
Each of these machines arrives at the same goal through radically different engineering philosophies. Electric dominance, mechanical ingenuity, and aerodynamic efficiency all converge here, proving that there is no single path to acceleration supremacy, only uncompromising execution.
Head-to-Head Breakdown: ICE vs Hybrid vs Electric Acceleration Architectures
The machines above make one thing clear: identical 0–100 mph numbers can be achieved through radically different mechanical philosophies. What separates them isn’t just peak horsepower, but how and when that power is deployed, how traction is managed, and how mass and aerodynamics influence the acceleration curve beyond the initial hit.
Internal Combustion Engine (ICE): The Art of Sustained Force
Pure ICE supercars rely on rotational inertia, airflow, and gearing to build speed rather than delivering it instantly. High-revving engines or large-displacement turbocharged units must climb through RPM and boost thresholds, which costs precious tenths off the line but pays dividends as speed rises. This is why cars like the Chiron Super Sport feel deceptively calm early, then relentlessly violent past 60 mph.
Transmission strategy is critical here. Dual-clutch gearboxes with tightly stacked ratios keep the engine in its power band, while longer final drives reduce shift events during the 0–100 mph run. In controlled testing, ideal surface prep and launch control calibration are mandatory, because wheelspin or boost lag can instantly spoil a combustion car’s run.
Hybrid Systems: Torque Fill Meets Top-End Muscle
Hybrid hypercars attack acceleration with a dual-phase strategy. Electric motors provide immediate torque to fill the gap before turbochargers spool or engines reach peak RPM, effectively flattening the power curve. The result is brutal launch performance without sacrificing high-speed pull, which is why hybrids often post the most consistent real-world 0–100 mph times.
The trade-off is complexity and weight. Batteries, motors, and cooling systems add mass, which must be countered with advanced torque vectoring and chassis control. When executed properly, as seen in modern performance hybrids, the car feels elastic under throttle, surging forward without the traditional pause between mechanical events.
Electric Vehicles: Instantaneous Force, Relentless Precision
EVs dominate the first half of the acceleration run because electric motors deliver maximum torque at zero RPM. There is no waiting for boost, no downshift, and no interruption in power delivery. Combined with all-wheel drive and millisecond-level torque modulation, this allows EVs to achieve launch consistency that combustion cars can only match under perfect conditions.
However, electric acceleration is a thermal and electrical balancing act. As speeds climb, motor efficiency, inverter capacity, and battery discharge rates determine whether the pull continues or tapers off. The best-performing EVs to 100 mph are those engineered not just for peak output, but for sustained power without heat-induced throttling.
Traction, Weight, and the Reality of Test Conditions
Across all three architectures, traction is the great equalizer. Tire compound, surface prep, and drivetrain layout often matter more than raw horsepower in a 0–100 mph sprint. All-wheel drive has become nearly mandatory at this level, not for marketing, but because managing four contact patches is the only way to convert extreme torque into forward motion.
Weight plays a more nuanced role. Heavier cars can launch harder due to increased tire loading, but they pay for it as aerodynamic drag and inertia rise exponentially with speed. This is why some lighter ICE cars feel explosive early yet fade, while heavier EVs and hybrids continue pulling with mechanical inevitability as they approach 100 mph.
Engineering Secrets Behind the Numbers: AWD Systems, Torque Vectoring, and Launch Control Mastery
What separates a theoretical 0–100 mph monster from a verified time slip is not peak power, but how intelligently that power is deployed. At this level, acceleration is a systems problem, where drivetrain architecture, software logic, and chassis dynamics must act as a single organism. The fastest cars aren’t just strong; they are ruthlessly coordinated.
All-Wheel Drive: From Mechanical Grip to Predictive Control
Modern AWD systems in top-tier supercars bear little resemblance to traditional mechanical setups. Electronically controlled multi-plate clutches, active center differentials, and independent front-to-rear torque mapping allow power to be shuffled continuously based on slip angle, yaw rate, and longitudinal load. The goal is not maximum traction at all times, but optimal traction for the next 10 milliseconds.
In cars like the Bugatti Chiron Super Sport or Porsche 918 Spyder, AWD isn’t reactive; it’s predictive. Sensors read wheel speed, steering input, and suspension compression before wheelspin occurs, preloading clutches to prevent loss rather than recover from it. This is why these cars leave the line cleanly even on imperfect surfaces, turning brutal torque into controlled violence.
Torque Vectoring: Steering With Throttle at Triple-Digit Speeds
Torque vectoring is often misunderstood as a cornering aid, but in a 0–100 mph run, it plays a critical role in stability under full load. By overdriving or braking individual wheels, the system counters yaw and keeps the car tracking dead straight as torque peaks. This is especially crucial once aerodynamic forces begin to load the rear axle unevenly.
At higher speeds, torque vectoring transitions from traction management to balance control. As aero drag and tire deformation increase, micro-adjustments in torque distribution prevent oscillations that would otherwise force the driver to lift. The cleanest acceleration runs are often the quietest from a stability standpoint, even if the speedometer is climbing at an absurd rate.
Launch Control: Software That Breaks the Laws of Sympathy
Launch control is where mechanical sympathy is deliberately ignored in pursuit of time. The system preconditions the drivetrain by loading the engine or motors against the brakes, priming turbo boost or electric current, and locking differentials into their most aggressive state. When the brake is released, everything hits at once, with no allowance for comfort or longevity.
The best launch control systems adapt in real time. They account for tire temperature, surface grip, drivetrain temperature, and even altitude, adjusting clutch engagement and torque ramp accordingly. This is why factory-assisted launches often outperform skilled human attempts, delivering repeatable 0–100 mph runs without the variability of throttle finesse.
The Invisible Players: Tires, Compliance, and Aero Interaction
None of these systems work in isolation from the tire. Ultra-high-performance compounds with stiff sidewalls are essential to prevent energy loss through deformation during the initial hit. Suspension compliance is tuned just enough to allow weight transfer without inducing squat that would upset aero balance.
As speed builds, aerodynamic load becomes a traction asset rather than a liability. Active rear wings and diffusers begin contributing meaningful downforce before 100 mph, increasing vertical tire load without adding mass. The fastest cars exploit this overlap window, where mechanical grip hands off to aerodynamic stability seamlessly, allowing full throttle to stay pinned longer than physics would otherwise permit.
Real-World vs Manufacturer Claims: Track Data, Independent Testing, and Controversies
As acceleration transitions from pure traction to power-to-drag warfare, the margin for creative interpretation widens. The same systems that enable repeatable, violence-free launches can also be tuned to shine under narrowly defined conditions. This is where claimed 0–100 mph times begin to diverge from what independent testers and private owners actually see.
Instrumentation Matters: VBOX, Rollout, and Data Transparency
Most credible independent testing relies on GPS-based data loggers like Racelogic VBOX units, typically operating at 10 to 100 Hz. These systems eliminate speedometer optimism and provide repeatable, third-party-verifiable results. However, how that data is interpreted is where controversy begins.
The biggest variable is rollout. Some manufacturers still quote times with a one-foot rollout, effectively ignoring the first fraction of a second after launch. For a 0–100 mph run, that can shave 0.1 to 0.3 seconds, which is the difference between class-leading and merely excellent.
Surface Prep and the Myth of “Street Legal” Conditions
Manufacturer claims are often achieved on prepped surfaces that mimic drag strip conditions. These surfaces are treated with traction compounds and meticulously cleaned, offering grip levels that public roads or even most tracks cannot replicate. While the tires may be street-legal, the environment rarely is.
Independent testers typically run on unprepped asphalt or standard racetrack surfaces. The result is lower initial traction, more wheel slip management, and slower early acceleration, which compounds as aero drag builds toward 100 mph. The car is the same, but the physics context is not.
Thermal Windows: Power That Exists Only Briefly
Modern supercars increasingly rely on thermal headroom to post headline numbers. Hybrid systems deliver peak output only when battery temperature, state of charge, and inverter cooling are perfectly aligned. Turbocharged engines may run aggressive ignition and boost maps that are time-limited to protect hardware.
This is why some cars match claimed 0–100 mph times once, then fall off by several tenths on subsequent runs. Independent testers often average multiple passes, exposing how sustainable that performance actually is. Manufacturers rarely specify how many attempts their numbers represent.
Case Studies: When Claims Met Scrutiny
The Rimac Nevera set a new benchmark by backing its numbers with publicly released VBOX data and full acceleration runs, including deceleration metrics. Its 0–100 mph performance held up across multiple independent tests, largely due to thermal robustness and four-motor torque vectoring that remains effective deep into triple-digit speeds.
By contrast, some internal combustion hypercars have faced skepticism when customer cars failed to replicate factory figures. Variations in fuel quality, ambient temperature, and tire age have all played roles, highlighting how narrow the operating window can be for peak performance claims.
The Human Factor: Drivers, Algorithms, and Repeatability
Even with launch control, the driver still matters. Brake release timing, steering angle, and throttle modulation during the first few feet can influence how aggressively the system deploys torque. Factory drivers are trained to exploit these nuances, while independent testers prioritize consistency and mechanical sympathy.
The real differentiator is repeatability. Cars that can deliver near-identical 0–100 mph times run after run, without cooldown rituals or perfect conditions, earn credibility among serious enthusiasts. In the real world, the fastest car is not the one with the lowest brochure number, but the one that can access its performance whenever the opportunity arises.
What’s Next in the Acceleration Arms Race: Upcoming Hypercars and the Limits of Physics
As repeatability becomes the true benchmark of performance, the next wave of hypercars is being engineered with less concern for single-run hero numbers and more focus on sustainable, physics-defying thrust. The battleground is no longer just horsepower. It’s thermal management, traction control sophistication, and how efficiently a car can convert electrical and chemical energy into forward motion without overwhelming its contact patches.
The Next Generation: More Motors, Smarter Integration
Upcoming hypercars like the Rimac Nevera R, Lotus Evija X, and Koenigsegg’s next hybrid evolutions are doubling down on multi-motor architectures. Expect four-digit horsepower figures to become routine, but the real story lies in torque delivery curves and motor control algorithms. Independent wheel torque modulation allows these cars to stay glued to the surface well past 100 mph, where traditional traction advantages begin to fade.
Hybrid systems are evolving as well. Instead of brief electric boosts, future setups aim for sustained deployment through advanced cooling, higher-voltage architectures, and more robust battery chemistry. The goal is not just faster launches, but consistent midrange acceleration that doesn’t taper off once thermal limits are reached.
Tires, Traction, and the Unavoidable Wall of Grip
No matter how advanced the powertrain, the limiting factor remains the tire. Street-legal rubber can only generate so much longitudinal grip, and at 0–100 mph acceleration levels approaching 1.4 g, even the best compounds are operating on a knife edge. Wider tires help, but frontal area and aerodynamic drag rise in parallel, creating diminishing returns.
Active aerodynamics offer some relief. Deployable wings and underbody aero can generate meaningful downforce even at sub-100 mph speeds, increasing effective grip without adding static mass. The tradeoff is complexity and sensitivity; aero that works perfectly on a smooth test surface may be less effective on real-world pavement.
Weight Reduction Versus Structural Reality
Mass remains the enemy of acceleration, yet shedding weight is harder than ever. Battery packs, hybrid hardware, and safety regulations all add bulk. Carbon tubs, 3D-printed suspension components, and exotic alloys help claw weight back, but gains are incremental rather than revolutionary.
The smartest manufacturers are focusing on mass centralization and unsprung weight reduction. Lighter wheels, brakes, and driveline components improve not just acceleration, but how quickly the chassis can respond to torque changes. This is critical when power delivery is instantaneous and mistakes happen in milliseconds.
The Real Limit: Human Usability and Physics Itself
At some point, the question stops being “how fast” and becomes “how usable.” A car that reaches 100 mph in under five seconds is already operating in a realm where public-road relevance is minimal. Engineers must balance raw acceleration with stability, predictability, and driver confidence, especially as speeds climb with alarming urgency.
Physics also draws a hard line. Without radical changes in tire technology or surface interaction, 0–100 mph times will see only marginal gains from here. Improvements will come in consistency, accessibility, and how effortlessly a car delivers its performance, not in massive headline-shattering leaps.
Bottom Line: The Future Is Relentlessly Fast, but Smarter
The next phase of the acceleration arms race is about refinement, not brute force. The fastest hypercars of tomorrow will be those that deliver repeatable, drama-free performance across conditions, drivers, and multiple runs. For enthusiasts and buyers who value real-world credibility over brochure bravado, that’s a win.
The numbers may soon plateau, but the engineering behind them is advancing faster than ever. In this new era, mastery of physics matters more than trying to outrun it.
