ChevroletCamaroHP EvolutionPerformanceEngineering

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The Chevrolet Camaro has long stood as a benchmark for American muscle, where raw horsepower meets engineering precision. Since its debut in 1967, each generation has pushed boundaries with progressive powertrains—from the thunderous LT1 V8 of the first generation to the turbocharged LT4 of modern iterations. This evolution reflects not just numerical gains in horsepower but a symphony of technological advancements, from forced induction to hybrid integration, all tailored to deliver exhilarating performance on both street and track.

From the iconic SS variants to limited-edition racing engines, the Camaro’s legacy is defined by its ability to balance power, reliability, and innovation. Whether dissecting the historical trajectory of its V8 engines or exploring aftermarket modifications that unlock hidden potential, this analysis delves into the mechanics that have cemented the Camaro’s status as a performance icon. The interplay between aerodynamics, drivetrain refinements, and real-world metrics reveals how each generation has redefined what it means to drive with authority.

chevrolet camaro hp

The Evolution of Chevrolet Camaro Horsepower: A Generational Breakdown

The Chevrolet Camaro has long been synonymous with American muscle, its legacy defined by relentless performance evolution. From the raw power of its early V8 engines to the high-revving turbocharged and supercharged beasts of modern iterations, each generation reflects advancements in automotive engineering. This analysis traces the horsepower progression across seven generations (1967–2024), examining engine architectures, technological milestones, and the aerodynamic/drivetrain innovations that propelled the Camaro into new performance echelons.

First Generation (1967–1969): The Birth of a Legend

The original Camaro debuted in 1967 with a lineup of Chevrolet’s most potent engines, marking the beginning of its horsepower dominance. Early models relied on carbureted V8s, with the 327-ci (5.4L) small-block serving as the foundation. The LT1, introduced in 1969, became the first high-performance variant, producing 300–360 hp depending on configuration. Forced induction arrived late in the generation with the 1969 ZL1, the first factory turbocharged Camaro, delivering 290 hp—a modest but groundbreaking output for the era.

Key Engine Configurations and Outputs:

"The LT1 represented Chevrolet’s first true performance V8, combining a forged crankshaft, high-flow cylinder heads, and a dual-quad carburetion setup to outpace competitors like the Ford 428 Cobra Jet."
  1. 327-ci Small-Block (Base Models)
    • Engine: 327-ci (5.4L) V8
    • Horsepower: 275–300 hp (carbureted)
    • Torque: 305–330 lb-ft
    • Notable Upgrades: Solid lifters (1969), improved camshaft profiles
  2. 350-ci Small-Block (LT1)
    • Engine: 350-ci (5.7L) V8
    • Horsepower: 300–360 hp (dual-quad carbureted)
    • Torque: 360 lb-ft
    • Notable Upgrades: Forged internals, high-flow cylinder heads, 11:1 compression
  3. 350-ci Turbo (ZL1)
    • Engine: 350-ci (5.7L) V8 with turbocharger
    • Horsepower: 290 hp (with 12.5 psi boost)
    • Torque: 360 lb-ft
    • Notable Upgrades: First factory turbocharged Camaro, heavy-duty cooling system

Second Generation (1970–1981): The Era of Smog and Displacement Wars

The 1970s brought regulatory changes that forced Chevrolet to adapt, with emissions controls and reduced compression ratios limiting power. The 350-ci LT1 remained the flagship, but output dropped to 255 hp by 1971. The 1970 Z28 introduced the 350-ci LT1 with cross-ram intake manifold, producing 295 hp—a brief resurgence before emissions strangled performance. The 1977–1981 models saw the introduction of the 305-ci V8 (230 hp) and the 350-ci V8 with cylinder deactivation (TPI), which used throttle-body injection to achieve 185 hp while meeting emissions standards.

Technological Shifts and Performance Trade-offs:

"The 1970s marked the decline of pure horsepower due to federal emissions regulations, but innovations like throttle-body injection (TPI) and cylinder deactivation laid the groundwork for future efficiency gains."
  1. 350-ci Small-Block (LT1, 1970–1972)
    • Horsepower: 255–295 hp (cross-ram manifold in 1970 Z28)
    • Torque: 290–350 lb-ft
    • Notable Upgrades: Cross-ram intake for improved mid-range torque
  2. 350-ci TPI (1978–1981)
    • Engine: 350-ci (5.7L) V8 with throttle-body injection
    • Horsepower: 185 hp (with cylinder deactivation)
    • Torque: 275 lb-ft
    • Notable Upgrades: Electronic fuel injection, reduced emissions, fuel economy improvements
  3. 305-ci V8 (1977–1981)
    • Horsepower: 145–230 hp (varies by year)
    • Torque: 230–255 lb-ft
    • Notable Upgrades: Smaller displacement for compliance with emissions standards

Third Generation (1982–1992): The Revival of Performance

The third-generation Camaro, introduced in 1982, represented a return to performance with the 2.8L I4 (L67) in base models and the 5.0L V8 (L03) in the 1985 IROC-Z, producing 215 hp. The 1987–1992 Z28 featured the 305-ci V8 (L98), delivering 220 hp with multi-port fuel injection (MPFI). The 1990–1992 Z28 introduced the LT1 350-ci V8 (L31), a return to the high-performance small-block with 225 hp, setting the stage for future power increases.

The Role of Fuel Injection in Performance Recovery:

"Multi-port fuel injection (MPFI) in the 1980s eliminated the inefficiencies of carburetors, improving throttle response and fuel economy while maintaining high output—critical for meeting both performance and emissions goals."
Model Year Engine Displacement Horsepower Torque Key Upgrades
1982–1985 L03 5.0L V8 305-ci (5.0L) 165–215 hp 260–270 lb-ft Port fuel injection, high-output camshaft
1987–1992 Z28 L98 305-ci V8 305-ci (5.0L) 220 hp 280 lb-ft MPFI, forged crankshaft, high-flow exhaust
1990–1992 Z28 L31 LT1 350-ci V8 350-ci (5.7L) 225 hp 320 lb-ft Return to 350-ci displacement, improved cylinder heads

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Engine-Specific Horsepower Breakdowns in Chevrolet Camaro Generations

The Chevrolet Camaro’s performance legacy is defined by its engine lineup, where horsepower and torque outputs have evolved alongside technological advancements. From the base V6 to high-output V8s and hybrid systems, each engine variant delivers distinct characteristics in acceleration, top speed, and real-world driving dynamics. This breakdown examines the technical specifications, performance metrics, and hybrid integration of every Camaro engine, highlighting their roles in shaping the model’s generational identity.

Horsepower and Torque Outputs by Engine Variant

The following table summarizes the power outputs, torque figures, and fuel types of Chevrolet Camaro engines across generations, including their real-world performance capabilities. Data is sourced from official Chevrolet specifications, independent testing, and automotive performance reviews.
Generation & Model Year Engine Code & Displacement Horsepower (HP) @ RPM / Torque (lb-ft) @ RPM Fuel Type & Performance Highlights
1st Gen (1967–1969) 327ci V8 (L30) 295 HP @ 4,800 RPM / 325 lb-ft @ 2,800 RPM Regular gasoline | 0-60 mph: ~7.5 sec (base model); 0-60 mph: ~6.0 sec (SS 396)
2nd Gen (1970–1981) 350ci V8 (L48) 250 HP @ 4,400 RPM / 360 lb-ft @ 2,400 RPM (1970) Regular gasoline | Quarter-mile: ~15.5 sec @ 85 mph (1970 Z28)
4th Gen (1993–2002) 3.8L V6 (L26) 190 HP @ 5,200 RPM / 215 lb-ft @ 4,000 RPM Regular gasoline | Base engine; 0-60 mph: ~8.5 sec
4th Gen (1993–2002) 5.7L V8 (LT1) 300 HP @ 5,200 RPM / 330 lb-ft @ 4,000 RPM (1993–1995) Regular gasoline | Z28; 0-60 mph: ~5.5 sec; Quarter-mile: ~14.0 sec @ 98 mph
5th Gen (2010–2015) 3.6L V6 (LFX) 304 HP @ 6,800 RPM / 273 lb-ft @ 5,200 RPM (2010–2013) Regular gasoline | Base engine; 0-60 mph: ~6.0 sec (SS)
5th Gen (2010–2015) 6.2L V8 (LT1) 400 HP @ 6,500 RPM / 407 lb-ft @ 4,800 RPM (2010–2015) Regular gasoline | Base V8; 0-60 mph: ~4.8 sec; Quarter-mile: ~13.0 sec @ 106 mph
5th Gen (2010–2015) 6.2L V8 (LT4 Supercharged) 455 HP @ 6,300 RPM / 455 lb-ft @ 3,900 RPM (2014–2015) E85 or 91+ octane | SS; 0-60 mph: ~3.8 sec; Quarter-mile: ~11.9 sec @ 115 mph
6th Gen (2016–2023) 2.0L Turbo V6 (LNF) 275 HP @ 6,100 RPM / 292 lb-ft @ 4,600 RPM (2016–2023) Regular gasoline | Base engine; 0-60 mph: ~6.5 sec
6th Gen (2016–2023) 3.6L V6 (LFX) 310 HP @ 6,800 RPM / 277 lb-ft @ 5,200 RPM (2016–2017) Regular gasoline | Discontinued after 2017; 0-60 mph: ~5.8 sec (SS)
6th Gen (2016–2023) 6.2L V8 (LT1) 420 HP @ 6,500 RPM / 435 lb-ft @ 4,800 RPM (2016–2023) Regular gasoline | Base V8; 0-60 mph: ~4.5 sec; Quarter-mile: ~12.8 sec @ 108 mph
6th Gen (2016–2023) 6.2L V8 (LT4 Supercharged) 455 HP @ 6,300 RPM / 455 lb-ft @ 3,900 RPM (2016–2023) E85 or 91+ octane | SS; 0-60 mph: ~3.5 sec; Quarter-mile: ~11.5 sec @ 116 mph
7th Gen (2024–Present) 2.0L Turbo V6 (LNF) 290 HP @ 6,100 RPM / 300 lb-ft @ 4,600 RPM (2024) Regular gasoline | Base engine; 0-60 mph: ~6.3 sec
7th Gen (2024–Present) 6.2L V8 (LT4 Supercharged) 490 HP @ 6,300 RPM / 460 lb-ft @ 3,900 RPM (2024) E85 or 91+ octane | SS; 0-60 mph: ~3.3 sec; Quarter-mile: ~11.2 sec @ 118 mph
7th Gen

Performance Modifications to Increase Chevrolet Camaro Horsepower: A Technical Guide

The Chevrolet Camaro’s performance legacy extends beyond factory configurations, with aftermarket modifications offering tailored power gains for enthusiasts. Whether targeting cost-effective bolt-ons or high-performance forced induction, strategic upgrades enhance horsepower while balancing reliability and drivability. This guide details step-by-step modification pathways, technical considerations for forced induction, and comparative analyses of naturally aspirated (NA) versus forced-induction setups, emphasizing real-world trade-offs and engineering limits.

Step-by-Step Aftermarket Modifications for Stock Camaro Engines

Modifications to stock Camaro engines (e.g., 3.6L V6, 2.0L/3.6L LT1/LT2 V6, 6.2L LS3/LT1 V8) prioritize incremental power gains through airflow, combustion efficiency, and exhaust scavenging. Below is a tiered approach, categorizing upgrades by cost-effectiveness and technical complexity, with estimated horsepower gains based on manufacturer data and community benchmarks.

Cost-Effective Bolt-On Modifications (0–$1,500)
These upgrades require minimal tooling and yield measurable power improvements with low risk of engine stress. Ideal for daily drivers seeking modest gains (5–15 HP).

- Cold Air Intake (CAI) Systems
Replaces restrictive factory airboxes with high-flow filters and optimized ducting, reducing intake air temperature and improving volumetric efficiency.
Example: K&N Drop-In Air Intake (LT1/LT2) adds 8–12 HP at the wheels; aftermarket units like Spec Stage 1 or AEM Intake Systems offer 10–15 HP with aggressive filtration.
Note: Avoid "sport" intakes with restrictive filters; prioritize units with minimal backpressure.

- Throttle Body Spacer or Upgraded Throttle Body (TB)
Increases airflow at low RPM by enlarging the throttle bore or adding a spacer to the factory TB.
Example: LT1/LT2 throttle body spacers (e.g., Spec Stage 1) yield 5–10 HP; upgraded 70mm TBs (e.g., AEM) provide 10–15 HP with ECU tuning.
Caution: Requires base map tuning to prevent lean conditions.

- Cat-Back Exhaust Systems
Reduces backpressure by replacing restrictive mufflers and piping with free-flowing headers and tips.
Example: Flowmaster or Borla cat-backs add 5–12 HP and improve exhaust note without significant drivability trade-offs.
Technical Note: Header-back systems (e.g., Scoggin-Dickey) offer 10–20 HP but may require tuning for drivability.

- Tune (ECU Flash or Standalone)
Optimizes ignition timing, fuel delivery, and throttle response via OEM or aftermarket tunes (e.g., HP Tuners, DiabloSport).
Example: Stock tune adjustments (e.g., LT1 "Stage 1") add 10–15 HP; aggressive tunes (e.g., DiabloSport "Full") can exceed 30 HP with supporting mods.
Requirement: Pair with high-flow fuel injectors if exceeding OEM limits.

Mid-Range Modifications ($1,500–$5,000)
Targeting 20–50 HP gains, these upgrades enhance combustion, airflow, and exhaust scavenging with moderate engineering complexity.

- High-Flow Fuel Injectors and Fuel Pump Upgrade
Required for forced induction or high-RPM NA setups to prevent lean conditions.
Example: LT1/LT2 injectors (e.g., 45lb/hr vs. stock 30lb/hr) support 300+ HP; fuel pumps (e.g., Walbro 450LPH) handle sustained power demands.
Calculation: Injector sizing follows 1 lb/hr per 15 HP (e.g., 300 HP requires 20lb/hr injectors).

- Headers and Long-Tube Headers
Improves exhaust scavenging and reduces backpressure, critical for NA and forced-induction setups.
Example: Scoggin-Dickey headers add 15–25 HP on LT1/LT2; LS3 headers (e.g., Hooker Super-Flow) yield 20–30 HP with tuning.
Warning: Header-back systems may require exhaust manifold gaskets and O2 sensor relocation.

- Camshaft Upgrades
Adjusts valve timing and lift for increased airflow at target RPM ranges.
Example: LT1/LT2 camshafts (e.g., Crane Cams "X-Treme") add 20–30 HP but reduce low-end torque; LS3 cams (e.g., Comp Cams "X3") improve mid-range power.
Trade-Off: Aggressive cams require valve springs and lifters for reliability.

- Suspension and Drivetrain Tuning
Enhances power delivery and handling for high-HP setups.
Example: Polyurethane bushings (e.g., Energy Suspension) improve chassis stiffness; limited-slip differentials (e.g., B&M 3.73 LSD) handle torque spikes.

High-End Modifications ($5,000+)
Forced induction or extreme NA builds targeting 100+ HP gains demand precision engineering, including supporting systems to prevent reliability failures.

- Forced Induction Kits (Turbo/Supercharger)
Turbochargers (e.g., BorgWarner EFR, Garrett GTX) or superchargers (e.g., Paxton, Whipple) add 100–500+ HP but require supporting mods.
Boost Levels:

  • Turbo: 10–15 psi (LT1/LT2); 15–20 psi (LS3) with upgraded internals.
  • Supercharger: 6–10 psi (Paxton Nitrous Whipple) for 300–600 HP.
    • Critical Components:
  • Intercooler: Air-to-air (e.g., Cobb) or water-to-air (e.g., Kenne Bell) for charge cooling.
  • Upgraded Fuel System: 500+ LPH pump, 60lb/hr+ injectors.
  • ECU Tuning: Custom maps for boost control, fueling, and timing (e.g., Link G4+).

    • - Engine Internals and Forging Upgrades
    Required for sustained high-HP levels to prevent rod/bearing stress.
    Example: LS3 forged internals (e.g., Eagle Forged) support 800+ HP; LT1/LT2 forged cranks handle 500+ HP.
    Reliability Note: Stock blocks may fail at 500+ HP; aftermarket blocks (e.g., Dart Pro Series) extend limits.

    - Drivetrain and Chassis Reinforcement
    High-HP setups require upgraded transmissions (e.g., Tremec T56 6-speed), clutches (e.g., Spec Stage 3), and subframes (e.g., Power Fabrication).

    Technical Deep Dive: Forced Induction Setups for the Camaro

    Forced induction transforms the Camaro’s power band, enabling 200–1,000+ HP with proper tuning and supporting modifications. However, gains are contingent on managing boost levels, thermal management, and fuel delivery to avoid catastrophic failures.

    Boost Level Recommendations by Engine
    Boost pressure must align with engine displacement, compression ratio, and internals to prevent detonation or mechanical stress.

    EngineRecommended Boost RangeSupporting ModsEstimated HP Gain
    LT1/LT2 (3.6L)10–15 psiUpgraded fuel system, intercooler, tune200–400 HP
    LS3 (6.2L)15–20 psiForged internals, clutch, transmission500–800 HP
    LT4 (6.2L)15–25 psiExternal oil cooler, reinforced block800–1,200 HP
    Intercooler Selection and Charge Temperature
    Charge temperature directly impacts power and reliability. Air-to-air intercoolers (e.g., Cobb) reduce temperatures by 50–80°F at 15 psi; water-to-air systems (e.g., Kenne Bell) offer 30–50°F cooling but require additional plumbing.

    Fuel System Requirements
    Forced induction demands precise fuel delivery to prevent lean conditions or fuel starvation. Key components include:

  • Fuel Pump: 500+ LPH for 300+

    • Horsepower in Racing: Chevrolet Camaro SS and Track-Only Variants

    The Chevrolet Camaro SS and its track-focused derivatives represent the pinnacle of performance engineering within the Camaro lineage, blending high-output street-legal power with specialized racing optimizations. While the 2023+ LT4 V8 (455 hp, 455 lb-ft) in the SS serves as the flagship street performance engine, race-prepped variants push horsepower and torque into uncharted territory through aggressive modifications. These engines prioritize high-revving capability, thermal management, and mechanical durability, often sacrificing street drivability for track dominance. Racing applications—such as NHRA Pro Stock, NASCAR Cup Series, and drag racing—further refine these engines with custom tuning, forced induction, and drivetrain enhancements to maximize power delivery in controlled environments.

    The engineering philosophy behind racing Camaros diverges sharply from street models, emphasizing peak power at elevated RPMs, aggressive torque curves, and specialized cooling systems. Unlike street engines, which balance longevity and emissions compliance, race engines operate at redlines exceeding 8,000 RPM (e.g., LS9 at 8,400 RPM) with shorter power bands optimized for quarter-mile or oval-track performance. Data-driven adjustments—enabled by real-time telemetry—further refine jounce settings, throttle response, and differential bias to mitigate wheelspin and optimize traction.

    Engineering Optimizations in the Camaro SS and Track Variants

    The 2023+ Camaro SS LT4 integrates several track-focused refinements while remaining street-legal, including:
  • Limited-Slip Differential (LSD): A Torsen-type LSD (or optional BorgWarner Torsen) improves launch control and cornering stability by reducing wheelspin under aggressive throttle.
  • Brembo Brake Systems: 6-piston front calipers with 355mm rotors (SS) or 8-piston calipers (ZL1) enhance stopping power at high speeds, critical for late braking in racing scenarios.
  • Aerodynamic Downforce: Active aerodynamics (e.g., rear spoiler adjustments) generate ~1,000 lbs of downforce at 120 mph, improving high-speed stability without sacrificing top speed.
  • High-Strength Materials: Forge-welded crankshafts, titanium connecting rods, and high-flow cylinder heads (e.g., LS9-style intake ports) reduce reciprocating mass and improve revving capability.

    • For track-only variants, these features are further radicalized:

  • Dry-Sump Lubrication: Eliminates oil starvation at high G-forces, enabling sustained high-RPM operation.
  • Custom Camshaft Profiles: Aggressive lobe separation angles (LSAs) and valve lift optimize power in narrow RPM bands (e.g., 6,500–8,000 RPM).
  • Forced Induction (Supercharging/Turbocharging): NHRA Pro Stock Camaros (e.g., LS9-based engines) use superchargers with 6–8 psi boost, while NASCAR engines employ turbocharged V8s with variable geometry manifolds for oval-track tuning.

    • Horsepower and Torque Curves in Racing Camaro Engines

    Race-prepped Camaro engines exhibit distinct power delivery characteristics compared to street models, prioritizing peak power at elevated RPMs and torque concentration in critical bands. Below are key examples:
    EnginePeak HP (RPM)Peak Torque (RPM)Power BandRedline (RPM)Forced InductionPrimary Use Case
    LS7 (Stock)505 @ 6,300500 @ 4,400Broad (4,000–6,500)6,700NoneStreet/NHRA Stock
    LS7 (Race)700+ @ 7,500650 @ 5,500Narrow (6,000–8,000)8,000Supercharger (6–8 psi)NHRA Pro Stock
    LS9 (Stock)638 @ 6,800604 @ 5,600Narrow (5,500–7,500)8,400Supercharger (14 psi)Street/Track Hybrid
    LS9 (Race)1,000+ @ 8,000900 @ 6,500Ultra-narrow (7,000–8,400)8,600Supercharger (10–12 psi)NHRA Pro Stock
    LSX (NASCAR)750+ @ 8,500650 @ 7,000Extremely narrow (7,500–8,500)8,700Turbocharged (2.0 bar)NASCAR Cup Series
    Key Observations:
  • Street engines (LS7/LS9) prioritize broad torque curves for daily drivability, while race engines concentrate power in 1,000–1,500 RPM windows.
  • Supercharged race engines (LS9-based) achieve peak torque at higher RPMs (5,500–6,500) compared to naturally aspirated variants.
  • NASCAR LSX engines use turbocharging with intercoolers to delay peak torque until 7,000+ RPM, optimizing for oval-track acceleration.
  • Redline extensions (e.g., LS9 at 8,400 RPM) enable higher peak power but require reinforced internals (e.g., forged pistons, billet rods).

    • Stock vs. Race-Prepped Camaro Engine Modifications

    Race-prepped Camaro engines undergo systematic modifications to enhance power, reliability, and revving capability. Below is a comparative table highlighting critical upgrades:
    ComponentStock ConfigurationRace-Prepped ModificationsPerformance Impact
    Induction SystemPlastic intake, throttle bodyHigh-flow aluminum intake, port-injected fueling, supercharger/turbo+15–30% airflow, eliminates throttle lag, enables forced induction
    Exhaust SystemCatalyzed headers, mufflers4-into-1 headers, mandrel-bent exhaust, free-flowing muffler, catalytic converters removed+50–100 HP via reduced backpressure, optimized scavenging
    Camshaft & ValvetrainStock hydraulic cams (LS7/LS9)Aggressive solid-lifter cams, titanium valves, high-lift rocker arms+200–400 RPM redline, optimized valve duration for high-RPM power
    Crankshaft & RodsCast crank (LS7), forged crank (LS9)Forged steel crank, titanium connecting rods, balanced rotating assembly+1,000+ RPM redline, reduced reciprocating mass, improved durability at high loads
    Lubrication SystemWet-sump oilingDry-sump system, high-capacity oil pump, cooling platePrevents oil starvation at high G-forces, enables sustained high-RPM operation
    Cooling SystemStock radiator, electric fansAluminum radiator, auxiliary oil cooler, transmission cooler, high-capacity water pumpMaintains optimal temperatures at high loads, prevents detonation
    Drivetrain6-speed manual/6L90 automaticClose-ratio transmission, quick-shift kit, limited-slip differential, slicksFaster shifts, improved launch control, reduced wheelspin
    Ignition SystemCoil-on-plug (COP)High-energy ignition coils, individual coil packs, distributorless ignitionMore precise spark timing,

    The Chevrolet Camaro’s horsepower journey is more than a numerical progression—it is a testament to automotive ingenuity, where every watt of power tells a story of engineering ambition. From the mechanical symphony of forced induction to the precision of hybrid systems, each innovation has not only elevated performance but also redefined the boundaries of what a muscle car can achieve. As the Camaro continues to evolve, its legacy remains unwavering: a fusion of heritage, cutting-edge technology, and the relentless pursuit of speed that captivates enthusiasts and engineers alike.

    FAQ

    What is the horsepower of a 2018 Chevrolet Camaro?

    The 2018 Chevrolet Camaro’s base 3.6L V6 produces 335 hp, while the 6.2L V8 (LT1) generates 455 hp, and the supercharged SS (SS 6.2L) makes 450 hp.

    How much horsepower does a Chevrolet Camaro have?

    The 2023–2024 Camaro’s base 3.6L V6 offers 335 hp, the 2.0L turbo I4 (in the ZL1) puts out 392 hp, and the 6.2L V8 (LT2) produces 490 hp (SS).

    What is the horsepower of the 2024 Chevrolet Camaro?

    The 2024 Camaro’s 2.0L turbo I4 (ZL1) has 392 hp, the 6.2L V8 (SS) delivers 490 hp, and the 3.6L V6 remains at 335 hp.

    What are the key specifications of the Chevrolet Camaro?

    The 2024 Camaro offers a 3.6L V6 (335 hp), 2.0L turbo I4 (392 hp in ZL1), or 6.2L V8 (490 hp in SS). It has a 0–60 mph time of 4.2 sec (SS) and a top speed of 162 mph (SS). Weight ranges from 3,375 lbs (V6) to 3,695 lbs (ZL1).

    How much horsepower does the Chevrolet Camaro ZL1 have?

    The 2024 Camaro ZL1 (2.0L turbo I4) generates 392 hp and 420 lb-ft of torque, paired with a 6-speed manual or 10-speed automatic.

    What is the horsepower of the Chevrolet Camaro SS?

    The 2024 Camaro SS (6.2L V8) produces 490 hp and 460 lb-ft of torque, with a 0–60 mph time of 4.2 seconds (manual) or 4.3 seconds (auto).

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