Spark Chevrolet Weight Analysis and Performance Insights

Technical Specifications and Weight Breakdown of Chevrolet Spark Electric Vehicle

Curb Weight, GVWR, and Payload Capacity by Model Year

Key Definitions:

Curb Weight: Weight of the vehicle with standard equipment, fluids, and a full tank of fuel (or charged battery).

GVWR (Gross Vehicle Weight Rating): Maximum allowable weight of the vehicle, including passengers, cargo, and load.

Payload Capacity: Difference between GVWR and curb weight, indicating the usable load capacity.

Structural Weight Breakdown of the Chevrolet Spark EV

Weight Distribution Philosophy:
The Spark EV prioritizes a 51:49 front-to-rear weight bias, which enhances stability during acceleration and cornering while mitigating oversteer risks. This distribution is atypical for subcompact EVs, which often favor a more balanced 50:50 split to improve cargo flexibility.

• Battery Pack (Lithium-Ion):
  The largest single contributor to the Spark EV’s weight, accounting for ~40% of the total curb weight (490 kg / 1,080 lbs). The battery is positioned centrally beneath the cargo floor to lower the vehicle’s center of gravity, improving handling. Chevrolet’s 19.2 kWh battery (2023 model) delivers an EPA-estimated range of 119 km (74 miles), with the 2024 update offering a 19.8 kWh variant for extended range.
• Chassis and Frame:
  Constructed from high-strength steel and aluminum alloys, the chassis weighs 280 kg (617 lbs). The use of hydroformed steel in critical load-bearing areas reduces weight by 15% compared to traditional stamping methods while maintaining rigidity. The frame incorporates crash-energy-absorbing zones to protect the battery and passenger cabin.
• Electric Motor and Inverter:
  The permanent-magnet synchronous motor (peak output: 82 hp / 61 kW) and integrated inverter combine for 120 kg (265 lbs). The motor’s compact design minimizes rotational mass, improving efficiency. The inverter, responsible for converting DC from the battery to AC for the motor, adds 30 kg (66 lbs).
• Body Panels and Exterior Components:
  The Spark EV’s body panels utilize aluminum composites and fiberglass in non-structural areas (e.g., hood, fenders, and rear hatch), reducing weight by ~20 kg (44 lbs) compared to steel equivalents. The carbon-fiber-reinforced front bumper (weighing 12 kg / 26 lbs) absorbs impacts without deforming the battery enclosure.
• Interior and Non-Structural Components:
  The cabin employs polypropylene and recycled plastics for seating and dash components, totaling 150 kg (331 lbs). The fold-flat rear seats and 12V auxiliary battery (12 kg / 26 lbs) contribute to the vehicle’s modular cargo capacity.
• Wheels, Tires, and Suspension:
  The Spark EV uses 14-inch aluminum wheels (each weighing 10 kg / 22 lbs) with low-rolling-resistance tires (e.g., Goodyear Assurance WeatherReady) to minimize energy loss. The MacPherson strut front suspension and torsion beam rear axle add 95 kg (209 lbs), with polyurethane bushings reducing unsprung mass by 5%.

Weight Distribution Comparison with Subcompact EVs

Weight Distribution Implications:

Front-Biased Vehicles (e.g., Spark EV, Renault Twizy): Improved acceleration response and steering feedback, but reduced rear cargo space utilization due to the battery’s fixed position.

Balanced Vehicles (e.g., Nissan Leaf, Hyundai Kona Electric): Better cargo flexibility and towing capability, but may exhibit understeer in aggressive cornering.

Rear-Biased Vehicles (e.g., Fiat 500e): Enhanced oversteer potential, but higher risk of weight transfer during braking.

• Chevrolet Spark EV (2023/2024):
  
• Front:Rear Ratio: 51:49
• Cargo Volume (Rear): 1.2 m³ (42 ft³) with seats up; 0.9 m³ (32 ft³) with seats folded.
• Real-World Impact: The front bias reduces rear cargo space by ~25% compared to a balanced 50:50 distribution (e.g., Nissan Leaf’s 52:48 split). However, the Spark’s low center of gravity (520 mm / 20.5 in) mitigates body roll, compensating for the asymmetry.
• Nissan Leaf (2023, 60 kWh):
  
• Front:Rear Ratio: 52:48
• Cargo Volume: 1.3 m³ (46 ft³) with seats up; 1.0 m³ (35 ft³) folded.
• Comparison: The Leaf’s slightly more balanced distribution allows for ~10% greater rear cargo capacity when seats are folded, though its higher curb weight (1,840 kg / 4,057 lbs) reduces efficiency.
• Hyundai Kona Electric (2023):
  
• Front:Rear Ratio: 50:50 (targeted)
• Cargo Volume: 1.4 m³ (49 ft³) with seats up; 1.1 m³ (39 ft³) folded.
• Comparison: The Kona’s symmetric weight distribution maximizes cargo flexibility but sacrifices some handling agility. Its higher GVWR (1,995

Impact of Weight on Performance and Efficiency in the Chevrolet Spark EV

The Chevrolet Spark EV’s lightweight architecture directly influences its acceleration, energy efficiency, and regenerative braking capabilities. As a subcompact electric vehicle (EV) weighing approximately 2,530 lbs (1,148 kg), the Spark’s mass falls within the lower end of its segment, positioning it favorably against heavier peers like the Nissan Leaf (3,968 lbs) or the Hyundai Kona Electric (3,944 lbs). This weight advantage translates into superior agility, reduced energy consumption, and enhanced regenerative braking efficiency—particularly in urban driving scenarios where frequent stops and starts occur. Below, comparisons, mechanical advantages, and hypothetical weight modifications illustrate these dynamics.


Performance and Efficiency Metrics Compared to Weight Class Peers

The Spark’s low weight contributes to its standout metrics in acceleration, top speed, and energy consumption. The following table compares its performance against comparable EVs, emphasizing how mass influences these key attributes:


Metric	Chevrolet Spark EV	Nissan Leaf (2023)	Hyundai Kona Electric	Renault Zoe (2023)
Weight (lbs / kg)	2,530 / 1,148	3,968 / 1,799	3,944 / 1,789	3,219 / 1,460
0-60 mph (sec)	7.9	7.6 (AWD) / 8.6 (FWD)	7.8 (RWD) / 7.5 (AWD)	9.5
Top Speed (mph)	81	87 (limited)	93	87 (limited)
Energy Consumption (kWh/100 mi)	29.2 (EPA)	31.0 (Leaf S)	28.5 (EPA)	30.7 (EPA)
Regenerative Braking Efficiency (Est.)	High (urban: ~70% recovery)	Moderate (urban: ~55-60%)	Moderate-High (urban: ~65%)	Low-Moderate (urban: ~50%)

Key Observations:

• Acceleration (0-60 mph): The Spark’s 7.9-second sprint is competitive despite its lighter weight, partly due to its 141 hp motor and low rotational inertia of its components. Heavier EVs like the Leaf (FWD) take longer due to increased mass inertia.
• Top Speed: The Spark’s lower top speed (81 mph) reflects its focus on efficiency over performance, whereas the Kona Electric’s higher speed (93 mph) is enabled by additional weight and power.
• Energy Consumption: The Spark’s 29.2 kWh/100 mi rating is among the best in its class, directly tied to its reduced rolling resistance and aerodynamic drag, which are amplified by its compact size and lightweight materials.
• Regenerative Braking: The Spark’s efficiency in energy recovery (~70% in urban driving) stems from its low unsprung mass (e.g., lightweight wheels and suspension) and optimized one-pedal driving system, which maximizes deceleration energy capture.

Regenerative Braking Efficiency and Energy Recovery in Urban vs. Highway Scenarios

The Spark’s regenerative braking system (RBS) operates most effectively in urban driving, where frequent acceleration-deceleration cycles occur. Its low vehicle mass reduces the energy required to decelerate, allowing the motor to act as a generator more efficiently. Below are the operational distinctions between urban and highway conditions:

- Urban Driving (Frequent Stops):


• The Spark’s lightweight chassis minimizes the kinetic energy lost during braking, enabling higher regenerative efficiency (~70% energy recovery).
• Example: In stop-and-go traffic, the Spark can recover ~0.3–0.5 kWh per mile through regenerative braking, reducing overall energy consumption.
• The low rotational inertia of its wheels and drivetrain allows quicker motor engagement, improving responsiveness in traffic.

- Highway Driving (Steady Speed):


• Regenerative braking efficiency drops to ~30–40% due to less frequent deceleration events.
• Aerodynamic drag becomes a larger factor at higher speeds, offsetting some of the weight-related advantages.
• Coasting mode (disabling regeneration) is often used to conserve energy, as the Spark’s low mass reduces the need for aggressive braking.

Mechanical Enablers of Efficiency:


• Motor-Generator Unit (MGU): The Spark’s permanent-magnet synchronous motor is optimized for high regenerative torque at low speeds, aligning with urban driving patterns.
• Battery Thermal Management: The liquid-cooled battery pack maintains optimal temperature for energy recovery, preventing degradation during rapid charge/discharge cycles.
• Brake Blend Control: The system dynamically adjusts friction braking and regeneration to avoid wheel lockup, preserving tire grip and efficiency.

Mechanical Advantages of Low Weight on Rolling Resistance and Range

The Spark’s lightweight design reduces rolling resistance—the force opposing wheel motion—through several mechanical optimizations. Below are the key factors contributing to its ~30% lower rolling resistance compared to heavier EVs:

The Spark’s low unsprung mass (components not supported by the suspension, such as wheels, tires, and brakes) plays a critical role in minimizing energy loss. Lightweight materials like aluminum wheels (12-inch, 10-spoke) and high-strength steel chassis reduce rotational inertia, allowing the motor to spin wheels more efficiently. Additionally, the vehicle’s low center of gravity (due to a flat battery pack layout) improves stability and reduces tire deformation, further lowering resistance.

- Tire Pressure and Composition:


• The Spark uses low-rolling-resistance tires (e.g., Michelin Energy Saver A/S) with a harder rubber compound to reduce hysteresis losses.
• Optimal pressure (36–40 psi front/rear) minimizes tire deformation, which can account for ~20% of total rolling resistance in heavier vehicles.
• Narrower tire profile (175/65R15) reduces contact patch area, improving efficiency at lower speeds (common in urban driving).

- Suspension Tuning:


• MacPherson strut front suspension and torsion beam rear axle are lightweight and stiff, reducing energy dissipation through suspension movement.
• Low damping ratios allow the wheels to follow road imperfections with minimal energy loss, unlike softer suspensions in heavier EVs that absorb more kinetic energy.
• Reduced unsprung mass (e.g., aluminum control arms) ensures quicker wheel response, improving regenerative braking precision.

- Aerodynamic and Drivetrain Synergies:


• The Spark’s 0.29 Cd drag coefficient (among the best in its class) works synergistically with its low weight to minimize energy loss at highway speeds.
• Single-speed transmission eliminates gear losses, and the direct-drive motor ensures near-100% mechanical efficiency during cruising.

Hypothetical Impact of a 10% Weight Increase on Spark EV Performance

A 10% increase in the Spark’s curb weight (from 2,530 lbs to ~2,783 lbs)—potentially due to added accessories (e.g., roof rails, heavy sound systems, or aftermarket modifications)—would trigger cascading effects on range, handling, and battery lifespan. Below are the projected consequences:

- Range Reduction:


Energy Consumption Increase: Rolling resistance would rise by ~5–7%, increasing consumption from 29.2 kWh/100 mi to ~31



Weight-Related Safety and Structural Considerations in the Chevrolet Spark EV

The Chevrolet Spark Electric Vehicle (EV) exemplifies how lightweight design influences safety performance, structural integrity, and crash compatibility. As a subcompact vehicle, its reduced mass (approximately 1,170 kg / 2,580 lbs) enhances agility but introduces unique safety dynamics, particularly in collision scenarios and dynamic handling. This section examines the Spark’s safety ratings in relation to its weight, the impact of its center of gravity (CG) on stability, potential trade-offs in safety, and collision repair considerations arising from its lightweight construction and materials.


Safety Ratings and Crash Compatibility with Larger Vehicles

The Chevrolet Spark’s safety performance is evaluated through standardized crash tests by organizations such as the National Highway Traffic Safety Administration (NHTSA) and the Insurance Institute for Highway Safety (IIHS), with its weight playing a critical role in outcomes. In NHTSA crash tests, the Spark achieved:


5 stars in overall safety (2014–2019 models), with 4 stars in frontal and side crash tests, reflecting its ability to mitigate severe injuries despite its lightweight structure.

Marginal or Acceptable ratings in IIHS small overlap front (SOF) tests, where its size and mass contribute to higher risk in collisions with larger vehicles, particularly SUVs and trucks.

Crash compatibility is a key concern for subcompact vehicles like the Spark. In a small overlap front crash (where only 25% of the front hits an obstacle), the Spark’s lightweight frame may deform more than heavier vehicles, increasing the risk of intrusion into the cabin. However, Chevrolet implemented advanced high-strength steel (AHSS) in key structural zones, such as the B-pillar and floor pan, to enhance rigidity and energy absorption. The front crumple zones are designed to collapse progressively, redirecting crash forces away from the passenger compartment.


"In a 40% offset frontal crash with a 3,000 lb SUV, the Spark’s lightweight chassis may experience up to 30% greater deformation in the front end compared to a 2,500 lb sedan, but the use of AHSS reduces intrusion risk by 40% in side-impact scenarios."

Center of Gravity and Dynamic Stability in Cornering and Braking

The Spark’s low center of gravity (CG), primarily due to its battery placement beneath the floor and compact cabin layout, significantly improves stability during aggressive maneuvers. The CG height is approximately 18–20 inches (45–50 cm), which is 20–30% lower than in conventional internal combustion engine (ICE) vehicles of similar size. This design characteristic enhances:


Body roll reduction: Under hard cornering (0.8g lateral acceleration), the Spark exhibits ≤5° body roll compared to 8–12° in heavier EVs like the Nissan Leaf (2011–2017), due to its stiffer suspension tuning and lower CG.

Braking stability: During emergency braking (0.8g deceleration), the Spark’s CG distribution (front: 45%, rear: 55%) minimizes nose dive and rear lift, improving tire grip and straight-line stability.

"Under hard braking at 60 mph (97 km/h), the Spark’s low CG reduces body roll by 60% compared to a similarly sized ICE vehicle, while maintaining 95% of tire-to-road contact due to its adaptive damping system and low-profile tires (185/55R16)."

The electric powertrain’s instant torque delivery further stabilizes the vehicle by reducing torque steer (a common issue in rear-wheel-drive EVs), which could otherwise exacerbate oversteer during rapid acceleration.


Weight-Related Safety Trade-Offs and Countermeasures

While the Spark’s lightweight design offers handling advantages, it introduces specific safety trade-offs that Chevrolet addressed through engineering solutions. Below is an analysis of key concerns and their mitigation strategies:

The pedestrian impact protection is a notable trade-off due to the Spark’s low hood line and soft front-end materials. However, Chevrolet incorporated:


Extended hood leading edges to increase pedestrian legform impact height by 5 cm.

Energy-absorbing foam in the front bumper to reduce injury risk by 30% in low-speed impacts.

Automatic Emergency Braking (AEB) as standard, which reduces rear-end collision risks by 50% in city driving.

"In a 40 km/h pedestrian impact test, the Spark’s front-end deformation absorbed 60% of the impact energy, but the hood’s rigidity limited head injury risk to moderate severity (AIS 2 or lower)."

The rollover risk is mitigated by:


Electronic Stability Control (ESC) with torque vectoring to prevent understeer/oversteer.

Low-profile tires (aspect ratio ≤55) improving cornering grip while reducing static rollover threshold (SRT) to 0.65g (below the industry average of 0.75g for subcompacts).

Rigid roof structure with AHSS reinforcements, reducing roof crush risk in rollover scenarios.

Trade-off: The Spark’s narrow track width (1,480 mm) may reduce stability in crosswinds or high-speed maneuvers, but adaptive steering compensates by increasing maximum steering lock at low speeds.


Collision Repair Considerations for the Chevrolet Spark EV

The Spark’s lightweight construction (aluminum hood, composite bumpers, and AHSS panels) presents unique challenges in collision repair, including higher material costs and specialized repair procedures. Below is a structured breakdown of repair considerations based on damage severity:


Damage Type	Estimated Repair Cost Range (USD)	Repair Complexity & Notes
Minor front-end damage	$1,500 – $3,500	Replacement of composite bumper and plastic cladding; requires OEM-specific adhesives.
Moderate side-impact	$4,000 – $7,000	B-pillar reinforcement replacement (AHSS); frame alignment critical due to low CG.
Severe frontal crush	$8,000 – $15,000	Full front-end module replacement (includes battery tray); high-voltage safety protocols required.
Rear collision (trunk lid)	$2,000 – $4,500	Aluminum panel replacement; corrosion-resistant coatings needed for longevity.
Roof damage (minor)	$1,200 – $2,800	Composite roof panel repair; structural integrity checks mandatory.
Battery pack impact	$10,000 – $20,000+	Full inspection for high-voltage leaks; OEM-certified technicians required.

Key Repair Challenges:


Material incompatibility: Mixing steel and aluminum in repairs requires specialized welding techniques to avoid galvanic corrosion.

High-voltage safety: Battery pack damage necessitates de-energization procedures and OEM-approved diagnostic tools.

Part availability: Composite and AHSS components may have longer lead times, increasing downtime.

"Repairing a severe side-impact in the Spark can cost 2–3x more than a comparable ICE vehicle due to AHSS panel replacement and frame straightening requirements, which demand laser alignment for CG accuracy."

Weight Optimization Techniques in the Chevrolet Spark EV Design

The Chevrolet Spark EV exemplifies how advanced engineering and material science converge to achieve weight reduction without sacrificing structural integrity or performance. At the core of this optimization lies Chevrolet’s Ultium platform—a scalable, modular architecture designed to balance battery capacity, powertrain efficiency, and vehicle dynamics. The platform’s adaptability allows for shared components across multiple vehicle models, reducing production complexity while enabling targeted weight savings in the Spark’s compact form factor. This section explores the technical strategies behind the Spark’s lightweight design, including the Ultium platform’s role, battery pack innovations, and material selection methodologies, while benchmarking its weight-to-power ratio against competitors.


Modular Architecture and Shared Components in the Ultium Platform

The Ultium platform serves as a foundational framework for Chevrolet’s electric vehicle lineup, including the Spark, by standardizing key structural and mechanical elements. This modularity reduces redundant development costs and simplifies manufacturing while enabling precise weight distribution. The platform’s skateboard chassis design—where the battery, drivetrain, and suspension are integrated into a flat underbody—minimizes unnecessary mass by eliminating traditional body-on-frame architectures. For the Spark, this approach allows the use of shared battery modules (scaled-down versions of those in larger Ultium-based EVs like the Bolt EUV) while optimizing their placement to lower the vehicle’s center of gravity.

Key advantages of the Ultium platform for weight optimization include:


Unified battery and powertrain mounting points, reducing the need for custom adapters or reinforcement structures.

Standardized high-voltage cabling and thermal management systems, which streamline assembly and reduce parasitic weight.

Modular body panels that leverage hydroformed aluminum for the Spark’s outer shell, allowing for thinner yet stronger sections compared to steel equivalents.

Shared suspension components (e.g., MacPherson struts with integrated EV-specific dampers) that balance cost efficiency with weight savings.

The Ultium platform’s modular cell-to-pack (MCP) architecture enables battery packs to be configured for different vehicle sizes, with the Spark utilizing a ~50 kWh pack derived from the same cell chemistry as larger Ultium EVs but scaled to fit its compact footprint. This shared development approach reduces material waste and tooling costs by up to 30% compared to bespoke designs.

Battery Pack Design: Cell Chemistry and Cooling System Innovations

The Spark EV’s battery pack represents a critical area where weight optimization was achieved through cell chemistry advancements and thermal management innovations. Chevrolet partnered with LG Energy Solution to deploy nickel-cobalt-manganese-aluminum (NCMA) chemistry in its Ultium cells, which offers a higher energy density (250 Wh/kg) than traditional lithium-ion chemistries while maintaining a lower weight per unit energy. This choice directly reduces the Spark’s battery mass by ~15% compared to competitors using older NCA or LFP chemistries for similar range targets.

The cooling system further contributes to weight savings through:


Liquid-cooled battery modules with aluminum microchannel cold plates, which are 40% lighter than conventional plate-fin designs while improving thermal uniformity.

Direct cell-to-cooler contact via phase-change materials (PCMs) embedded in the pack, reducing the need for bulky external cooling loops.

Integrated thermal interface materials (TIMs) that eliminate the need for additional gaskets or seals, trimming ~0.5 kg from the pack’s structural weight.

Weight reduction in the battery pack:


Cell chemistry: NCMA (250 Wh/kg) vs. LFP (~160 Wh/kg) → ~35% lighter for equivalent range.

Cooling system: Aluminum microchannels + PCMs → ~2.1 kg saved compared to air-cooled packs.

Pack structure: Topology-optimized aluminum housing → ~1.8 kg reduction vs. steel-reinforced designs.

The Spark’s battery pack also employs a cell balancing system that minimizes parasitic losses, further improving efficiency without adding significant weight. The 800V architecture of the Ultium platform (though not utilized in the Spark) would have enabled faster charging, but its omission in this model simplifies the electrical system, reducing high-voltage cable mass by ~1.2 kg compared to 400V designs.


Material Selection Decision-Making Process for the Spark’s Chassis

The choice of materials in the Spark’s chassis was guided by a multi-objective optimization process balancing strength-to-weight ratio, cost, recyclability, and manufacturability. Below is a structured decision-making flowchart outlining the rationale behind key material selections:


Primary Material Selection Criteria:
1. Strength-to-weight ratio (target: ≥ 250 MPa·mm³/g for structural components).
2. Corrosion resistance (critical for urban EV use in varied climates).
3. Manufacturing feasibility (hydroforming, stamping, or casting compatibility).
4. Recyclability (alignment with Chevrolet’s sustainability goals).
5. Cost per unit mass (≤ $5/kg for production-scale viability).

• Chassis and Body Structure
  • Aluminum Alloys (6000-series, e.g., AlMgSi)
    • Why chosen over steel?
      • Density advantage: Aluminum (~2.7 g/cm³) vs. steel (~7.8 g/cm³) → ~65% lighter for equivalent stiffness.
      • Hydroforming capability: Enables complex, single-piece components (e.g., A-pillars, floor pans) with ~20% fewer joints, reducing assembly weight.
      • Corrosion resistance: No need for galvanization, saving ~0.3 kg/m² in coating mass.
      • Recyclability: ~95% recyclable with minimal energy penalty vs. steel.
    • Structural limitations addressed via:
      • Topology optimization (e.g., lattice structures in crash zones) to maintain stiffness with ~10% less material.
      • Hybrid aluminum-steel joints (e.g., spot-welded or adhesive-bonded) in high-load areas (e.g., battery mounting).
  • Steel (High-Strength Low-Alloy, HSLA 350 MPa)
    • Used where: Suspension towers, subframe, and crash-protecting zones (e.g., front rails).
    • Rationale:
      • Cost-effectiveness: ~30% cheaper per kg than aluminum for thick-section parts.
      • Energy absorption: HSLA steel deforms predictably in crashes, reducing the need for additional reinforcement.
• Interior and Non-Structural Components
  • Polypropylene (PP) and Glass-Fiber Reinforced Plastics (GFRP)
    • Applications: Dashboards, door panels, and underbody shields.
    • Weight savings: ~40% lighter than traditional fiberglass or metal composites.
    • Additional benefits:
      • Acoustic damping: Reduces NVH (Noise, Vibration, Harshness) without added mass.
      • Chemical resistance: Compatible with EV-specific fluids (e.g., battery electrolyte spills).
  • Carbon Fiber (Limited Use)
    • Applications: High-stress areas like the battery tray and roof rails.
    • Trade-offs:
      • Weight reduction: ~50% lighter than aluminum for equivalent stiffness.
      • Cost constraint: Restricted to ~5% of total vehicle mass due to high material costs (~$15/kg vs. ~$3/kg for aluminum).
• Powertrain and Electrical Components
  • Magnesium Alloys (AZ91D)
    • Applications: Motor housing, inverter cas

      The Chevrolet Spark’s weight optimization exemplifies how engineering precision can redefine subcompact electric mobility, balancing efficiency, safety, and real-world practicality. From its front-loaded weight bias improving cornering stability to the Ultium platform’s modular efficiency, every kilogram plays a pivotal role in shaping acceleration, range, and structural integrity. As the automotive industry continues to prioritize lightweight materials and electrification, the Spark serves as a case study in how weight management can elevate performance without compromising durability or crash protection. For manufacturers and consumers alike, its design philosophy underscores the delicate equilibrium between innovation and pragmatism in modern vehicle engineering.

      FAQ

      What is the weight of a Chevrolet Spark in kilograms?

      The 2021 Chevrolet Spark (and most recent models) weighs around 970–1,000 kg (2,138–2,205 lbs) curb weight, depending on trim and equipment.

      What is the maximum weight capacity of a Chevrolet Spark?

      The Chevrolet Spark has a gross vehicle weight rating (GVWR) of about 1,497–1,542 kg (3,300–3,400 lbs), with a payload capacity of roughly 200–250 kg (440–550 lbs) depending on the year and trim.

      How much does a Chevy Spark weigh in pounds?

      The Chevrolet Spark typically weighs between 2,100–2,200 lbs (953–998 kg) curb weight, with the base model usually closer to 2,138 lbs (970 kg).

      What is the weight of a 2014 Chevy Spark?

      The 2014 Chevrolet Spark weighs approximately 2,138–2,182 lbs (970–990 kg) curb weight, varying slightly by trim level (e.g., LS vs. LT).

      How much does a 2021 Chevy Spark weigh?

      The 2021 Chevrolet Spark has a curb weight of about 2,138–2,205 lbs (970–1,000 kg), with the base model at 2,138 lbs (970 kg) and higher trims slightly heavier.

      What was the weight of a 2013 Chevy Spark?

      The 2013 Chevrolet Spark weighed around 2,138–2,182 lbs (970–990 kg), similar to the 2014 model, with minor variations based on equipment and trim.

      • Chevrolet Spark technical review
      • automotive performance metrics
      • electric vehicle specifications
      • lightweight materials in cars
      • vehicle weight analysis

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