Words Crash Course 25

Q1

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DRIVING THE FUTURE

The Forces Shaping the U.S. Car Parc in 2025 and Beyond

The U.S. car parc is rapidly evolving, driven by technological advancements, economic shifts, manufacturer production trends, and changing consumer preferences and behaviors. Rising vehicle costs and higher interest rates are leading to longer vehicle ownership, with the average vehicle age projected to increase to 13 years by 2026. At the same time, the adoption of Alternative Fuel Vehicles (AFV) is accelerating, reshaping manufacturing, insurance models, and repair complexity.

Combined with the increase in Advanced Driver Assistance Systems (ADAS), the shift toward larger vehicles, and increasing vehicle complexity – particularly with EVs and hybrids - these forces are fundamentally transforming the makeup of the U.S. car parc.

As the industry adapts, stakeholders must navigate these shifts strategically to stay ahead. This Q1 2025 Crash Course report analyzes these trends and how they’re creating both challenges and opportunities for automakers, insurers, and repairers.

Aerial view of a snow-covered forest with a curving road and a vehicle driving at dusk or night.Small word Feature on top of the bigger Evolving Car Parc phrase
A row of parked cars in an outdoor lot, including various makes and models in different colors.

CURRENT STATE OF THE U.S. CAR PARC

Internal Combustion Engine (ICE) Vehicles Still Dominate

As of Q3 2024, the U.S. car parc remains dominated by ICE vehicles, which account for nearly 95% of all vehicles on the road. This includes a mix of passenger cars, trucks, SUVs, and other light-duty vehicles. (Figure 1)

U.S. Auto & Light Truck Vehicle Mix by Fuel Type (Q3 2024) – All Vehicle Ages
SOURCE: EXPERIAN
Pie chart showing vehicle types distribution: ICE 95.24%, Hybrid 3.30%, Electric 1.44%, Alternatives 0.02%.

Experian reports that light duty vehicles, which represents the majority of the total ICE vehicle fleet in the U.S, grew to 292.1 million vehicles as of Q3 2024, an increase of 3.6 million vehicles over the prior year. This increase reflects both population growth and an increasing reliance on personal vehicles for transportation versus other mobility options such as public transportation, ride sharing, etc​. (Figure 2)

Figure 2: Active Riders by Quarter – Lyft & Uber
SOURCE: AUTOINSURANCE.COM
Line graph showing Uber active riders rising from about 110 million in Q4 2019, dipping to about 55 million in Q2 2020, then steadily increasing to nearly 160 million by Q2 2024; Lyft active riders remain between 8 and 24 million in the same period; inset chart shows rideshare use among Americans: 72% nonuser, 21% occasional user, 8% frequent user.

While shared mobility services, such as Uber and Lyft, have grown in popularity, their impact on vehicle ownership trends has been more modest than initially anticipated. In most states, the oldest model year permitted under Uber’s company’s standards is 2008 (no older than 15 years from the current model year).

However, there is a clear shift in consumer preferences toward subscription-based ownership models, particularly for EVs, as consumers seek more flexible and cost-effective options​. According to Experian, EVs are reaching just over 9% of new purchases and are leased at over 50% – nearly 20% of all new leasing. (Figure 3)

Figure 3: U.S. Electric Vehicle Purchasing and Leasing Trends (Q3 2024)
SOURCE: EXPERIAN
Two charts: Left bar chart shows percentage of new vehicle purchases by fuel type, with ICE at 71.93%, Gas/Electric Hybrid at 12%, Electric Plug In/Gas at 2.16%, and Electric at 9.26%. Right stacked bar chart depicts how consumers purchase new EVs from 2020 to 2024, showing percentages for Cash/Unknown, Lease, and Loan with loans decreasing from 52.47% in 2020 to 38.91% in 2024.

Consumers Buying Larger Vehicles

Within the light duty segment, data shows that SUVs and crossover utility vehicles (CUVs) now represent over 50% of the car parc for model years 2020 and newer – up from ~35% in 2014 - while traditional passenger cars have declined to less than 20% in recent model years​. (Figure 4)

Figure 4: U.S. Auto & Light Truck Vehicle Age & Vehicle Segment Mix – Model Year Share (Q3 2024)
SOURCE: EXPERIAN
Stacked bar chart showing the percentage composition of SUVs, cars, pickups, vans, and sports cars by model year from 0+ to over 20 years, with SUVs increasing in older models and cars decreasing.

This trend reflects consumer demand for vehicles that are spacious and versatile, offering greater storage capacity to accommodate both family and lifestyle needs.  This also reflects the types of vehicles being produced by auto manufacturers, which have largely shifted towards larger, more luxurious vehicles.

EV Growth Rate Slows

Data suggests that EV adoption has experienced significant acceleration, reaching approximately 4.2 million vehicles on the road in 2024 (hybrids account for ~9.6 million vehicles). While the volume of new EVs grew to over 1.3 million units in 2024, the rate of growth continues to moderate at +7.3%.

The year-over-year change in new EVs sold was almost +90% in 2021, +66% in 2022, and +50% in 2023. This trend indicates that while EV adoption continues to expand, the pace of growth is leveling off after the initial surge. (Figure 5)

Figure 5: U.S. New Electric Vehicle Sales by Year and Year-Over-Year Percentage Change
SOURCE: KELLEY BLUE BOOK
Bar chart showing electric vehicle sales growth from 257,872 in 2020 to 1,301,411 in 2024 with year-over-year percentage change decreasing from 89.4% in 2021 to 7.3% in 2024.

This represents a nearly tenfold increase in EVs from 2018, highlighting a significant shift toward alternative fuel vehicles​. EV sales also reached a record high in 2024, with 1.3 million new EVs sold. While this is still a small percentage of the total car parc, it represents a fundamental shift toward electrification. (Figure 6)

Figure 6: U.S. Hybrid-Electric, Plug-in Hybrid-Electric, and Electric Vehicle Sales by Year
SOURCE: U.S. DEPARTMENT OF ENERGY, ENERGY VEHICLE TECHNOLOGIES OFFICE
Bar chart showing the increase in hybrid electric, plug-in hybrid-electric, and electric vehicle sales from 2000 to 2023, with electric vehicles rising sharply after 2018.

Car Parc Continue to Age

The average age of vehicles on the road in 2024 has grown from 11.4 years in 2014 to an estimated 12.7 years in 2024 and is projected to reach 13 years by 2026. (Figure 7)

Figure 7: Average Age by Vehicle Type
SOURCE: HEDGES & COMPANY
Line graph showing the average age of Passenger Cars, Light Trucks, and All Light Vehicles from 2013 to projected 2029, with Passenger Cars increasing from about 11.3 to 14.5 years.

For claims, the average age of vehicles has increased to 7.6 years – up from 6.9 years in 2020. The average age of repairable vehicles was 6.8 years in 2024 (up from 6.1 years old in 2020) and 10.6 years for total loss vehicles (up from 10.0 years old in 2020). (Figure 8)

Figure 8: CCC National Industry: Average Vehicle Age by Vehicle Condition
SOURCE: CCC INTELLIGENT SOLUTIONS INC.
Table comparing average total part count, parts percentage, OEM and non-OEM part amounts, average price per part, labor hours and percentages, repair and replace labor amounts, and mechanic labor claims percentages from 2020 to 2024 for Electric, Hybrid, and ICE vehicles.

Several shifts in consumer behavior and economic conditions are impacting the vehicle age on roadways today:

  • Longer Vehicle Ownership: Consumers are holding onto their vehicles longer due to improved vehicle durability, increased repair options, and economic uncertainty.
  • Shifts in Buying Preferences: Many buyers are delaying new vehicle purchases or opting for used vehicles due to high prices and financing costs.
  • Longer Loan Terms: SUVs and crossovers now dominate new vehicle sales, often leading to higher costs that further extend ownership cycles, as the average new vehicle loan term is almost 69 months.
  • Rising Vehicle Costs: The average price of a new vehicle has surged, making it more expensive for consumers to upgrade. The average new vehicle price has increased by $11,000 over the past 5 years.
  • Higher Interest Rates: Auto loan rates have increased, making financing a new vehicle less affordable.  The average APR for a new vehicle loan is up to 7.2% and 11.3% for used vehicles in February (Edmunds).
  • Supply Chain Disruptions: Production slowdowns and parts shortages have limited new vehicle availability, driving up both new and used car prices.
  • Inflation and Cost of Living Pressures: With rising expenses in housing, food, premiums, and other essentials, many consumers are prioritizing maintenance over replacement, or they’re simply not maintaining their vehicles at all.

The shift in consumer preferences and product offerings by manufacturers is evident in the increasing availability of larger vehicles, such as SUVs and CUVs, which now account for over 50% of the car parc for model years 2020 and newer, while the share of traditional passenger cars has declined to less than 20%​.

The U.S. EV market has also seen a clear shift in consumer preferences and vehicle type production over time. Initially, older EVs (model years >11) were predominantly passenger cars, reflecting the early market focus on compact, efficient vehicles. However, in more recent years (model years 0-5), the EV landscape has diversified significantly, with CUVs, SUVs, and pickup trucks making up a larger share of new EV models. (Figure 9)

Figure 9: U.S. Auto & Light Truck Vehicle Age & Segment Mix – Overall Share (Q3 2024)
SOURCE: EXPERIAN
Left pie chart showing vehicle type distribution: SUV 39.2%, Car 30.5%, Pickup 21.2%, Van 5.5%, Sports Car 3.6%. Right bar chart comparing percentages of sports cars, vans, pickups, cars, and SUVs across categories from >20 to 0+.

The rising cost of vehicles, influenced initially by supply chain disruptions and, more recently, by higher interest rates, has also played a critical role in shaping the car parc. Since the COVID-19 pandemic, vehicle production has been constrained, resulting in higher prices for both new and used cars. It is estimated that between 10 million and 13 million new vehicles were not sold over the past five years due to these disruptions​. As a result, consumers are holding onto their vehicles for longer periods, contributing to the increasing average age of the car parc.

The share of repairable vehicles 7 years or older has increased by 9 percentage points since 2019, and vehicles 3 years or newer represented 38.5% of the repairable mix in 2019. At one point, this fell below 30% and resolved at 30.8% in 2024. (Figure 10)

Figure 10: Share of Repairable Appraisals by Vehicle Age Group
SOURCE: CCC INTELLIGENT SOLUTIONS INC.
Stacked bar chart showing percentage distribution of cars by age groups from 2019 to 2024, highlighting increasing percentage of cars 7 years and older and decreasing percentage of cars 1-3 years old.

EVs and Hybrids Increasing TCOR and Cycle Times

As the fleet continues to age, more vehicles on the road are past their initial warranty period, leading to higher maintenance and repair demands. EVs and hybrids are generally more expensive to repair, partly because of vehicle complexity and the need for specialized parts and expertise.

Over the past five years, labor rates for EV repairs have been consistently higher than for ICE vehicles, with EV labor rates approximately 30% higher as of 2024​​. The average cost of EVs was $830 more per repair than hybrids and over $1,030 more than ICE vehicles in 2024.

While EV labor costs are higher, their total parts costs were $175 lower than hybrids but still $290 higher than ICE vehicles. Hybrids, on the other hand, averaged nearly $470 more in parts costs compared to ICE vehicles, and required $200+ more in labor costs than ICE vehicles. (Figure 11)

Figure 11: Average TCOR Vehicles 3 Years Old or Newer, Non-Comprehensive (2020-2024)
SOURCE: CCC INTELLIGENT SOLUTIONS INC.
Bar chart comparing average total cost of ownership for ICE, Hybrid, Electric, and All Vehicles, showing costs from about $4,000 to $7,037.

Another significant factor driving the gap is the time required for repairs. On average, EV repairs took nearly three more labor hours than hybrid repairs and four more hours than ICE repairs, likely due to the additional complexity of EV components and safety systems. Even hybrids required more time for repairs, averaging 1.1 more labor hours than ICE vehicles. (Figure 12)

Figure 12: EV vs. Non-EV Models Cycle Time Comparison (2024)
SOURCE: CCC INTELLIGENT SOLUTIONS INC.
Bar chart comparing average repair process days for ICE, Hybrid, and EV vehicles, showing EVs take the longest at 37.5 days total.

More Parts Needed, But Fewer Parts Available

The number of parts replaced during repairs reflects the differences in complexity. EVs averaged 22 parts per repair, hybrids averaged 18.5 parts, and ICE vehicles had 15.9 parts replaced on average. This underscores the intricate nature of both EV and hybrid technologies compared to traditional ICE vehicles, influencing both repair time and costs. (Figure 13)

Figure 13: Parts and Labor Metrics | Vehicles 3 Years or Newer By Fuel Type (Non-Comprehensive)
SOURCE: CCC INTELLIGENT SOLUTIONS INC.
Table comparing average total part count, parts and labor percentages, OEM and non-OEM part amounts, average price per part, average labor hours, repair and replace labor percentages, and percent claims with mechanician labor for Electric, Hybrid, and ICE Vehicles from 2020 to 2024.

The availability of parts for aging vehicles is another growing concern. As the car parc becomes more diverse in terms of age, make, and model, repair shops must stock a wider variety of parts to meet the needs of different vehicles. This increases the complexity of supply chain management and can lead to longer repair times, particularly for older or more specialized vehicles. Similar concerns exist for newly introduced models where scarcity of replacement parts can limit repair options.

ADAS Driving Up Diagnostics Frequency and Cost

Another key factor impacting repair complexity is the proliferation of ADAS. The Highway Loss Data Institute estimates that by 2028, six ADAS systems will be present in half or more registered vehicles.

Approximately 76% of registered vehicles will be equipped with rear cameras, 51% with front automatic emergency braking, and over 50% with lane departure and/or blind spot monitoring capabilities. Even less prevalent ADAS technologies like adaptive cruise control with lane centering and curve-adaptive headlights will come standard in 21% and 14% of registered vehicles, respectively. (Figure 14)

Figure 14: Predicted Registered Vehicles Equipped with Collision Avoidance Systems
SOURCE: IIHS / HIGHWAY LOSS DATA INSTITUTE
Bar chart comparing percentages of vehicles registered with advanced safety features in 2023 and projected for 2028, showing increases across all features such as rear camera, rear parking sensors, front crash prevention, and lane departure warning.

While it may improve vehicle safety in the long-term, ADAS-equipped vehicles also require more frequent calibration and diagnostic procedures, which continue to drive up repair costs. In analyzing data of ICE, Hybrid, and EV vehicles serviced by shops in Direct Repair Programs (DRPs) and aged 3 years or newer – several unique diagnostic trends have emerged:

  1. Overall, DRPs include a scan on almost 90% of vehicles 3 years or newer.​ EVs have a lower scan percentage relative to other fuel types. Hybrids included a slightly higher scan rate than industry. (Figure 15)
  2. Hybrid estimates include calibrations almost 10 percentage points higher than industry and over 7 points higher than EVs. This points to the complexity of technology integrated into hybrid vehicles. (Figure 15)
  3. The industry average fees for scans are slightly higher for both EVs and even higher for hybrids. (Figure 16)
  4. Calibrations by fuel type expose even further differences between EVs, hybrids, and ICE vehicles. While the average calibration per claim with diagnostic operation was almost $550 in Q4 2024, hybrid vehicles averaged almost $80 more than industry and ICE vehicles, meanwhile, EVs were over $130 less than the industry average and over $210 less than hybrids. (Figure 16)
Figure 15: Percentage of Claims with Scan & Calibration Quarterly (DRP Only)
SOURCE: CCC INTELLIGENT SOLUTIONS INC.
Two bar charts comparing percent of repairable appraisals with fees for 3 years and newer vehicles in categories electric, hybrid, ICE, and total for scan/health/diagnose/OBD and calibrate/reflash/aim camera/distance sensor/ADAS/program from Q1 2023 to Q4 2024.
Figure 16: Average Diagnostic Fees Per Claim (DRP Only)
SOURCE: CCC INTELLIGENT SOLUTIONS INC.
Two bar charts comparing average fees per claim from Q1 2023 to Q4 2024 for vehicles 3 years and newer: Left chart shows fees for Scan/Health/Diagnose/OBD by vehicle type (Electric around $158.63, Hybrid $161.85, ICE $155.87, Total $156.84); Right chart shows fees for Calibrate/Reflash/Aim Camera/Distance Sensor/ADAS/Program with higher fees for Electric ($415.47), Hybrid ($626.59), ICE ($538.92), and Total ($547.19).
Two people walking and discussing inside a modern auto repair shop with a red SUV lifted and a silver car being serviced.

Implications for the Automotive Industry

Vehicle Parts Availability

The availability of vehicle parts has become a key factor in determining repairability, especially for alternative fuel vehicles. When a hybrid or EV crashes, the challenge often isn't just repairing the damage, it’s finding the right parts to complete the job. Lack of parts availability can render a repairable vehicle a total loss, leaving the consumer frustrated with insurers facing higher claim payouts. This illustrates how dependent the future car parc is on supply chain dynamics.

For underwriters, the scarcity of parts for certain models may prompt a reconsideration of how they approach insuring these vehicles. Some may opt not to insure hard-to-repair cars, or at the very least, adjust premiums to reflect the additional risk.

Meanwhile, repair shops face the complexity of accessing these parts. For instance, modern cars often require breaking clips and other auto components to access a single part, forcing repairers to replace more than what's visibly damaged. This complexity reflects a broader theme in the industry: the more advanced a vehicle, the more intricate its repair needs.

Diagnostics & Repair for Emerging Segments

As the car parc has shifted to include more elaborate, technology-infused vehicles, the frequency and sophistication of scans and calibrations has grown significantly, adding layers of complexity to what used to be straightforward repairs.

For example, something as simple as calibrating a vehicle's ADAS system may require removing upholstery or disassembling interior parts. It's a process that drives up the cost of repairs, which in turn affects both consumers and insurers.

Total Cost of Repair

The cost of repairs has more than doubled over the last decade, and many states have responded by increasing minimum liability limits, but as vehicle values rise, so do repair costs, creating a feedback loop where the expense of insuring a vehicle climbs alongside the costs to fix it.

For insurers, the cost to repair vehicles is a growing concern. As premium rates increase to cover these and other expenses, insurers and repairers must work together to find ways to mitigate these rising costs. Repairing advanced vehicles requires expertise and access to specialized parts. And when parts are unavailable or repairs are too expensive, vehicles can become disposable, leaving the industry and consumers in a precarious position. The challenge of what to do with totaled electric vehicles when parts are scarce is particularly pressing.

Customer Dissatisfaction

When the cost to repair a vehicle exceeds the cost to purchase it, consumers face difficult decisions, often resulting in the vehicle being classified as a total loss. This reality is especially painful for consumers who are told their drivable and repairable vehicle is now considered totaled, simply because the repair costs outstrip the value of the car. For consumers who own older vehicles outright, if their vehicle is still drivable but costs more to fix than it’s worth, the emotional and financial toll is significant. (Figure 17)

Figure 17: New and Used Vehicle Sales and Financing Trends
SOURCE: COX AUTOMOTIVE / EDMUNDS
Infographic displaying vehicle statistics: $48,641 average new vehicle transaction price in January 2025; $25,721 average used vehicle list price in January 2025; 7.1% average new vehicle APR; 11.0% average used vehicle APR; 163% increase in private passenger autos costing $60,000+ over 5 years; $6,838 average amount owed on upside-down auto loans in Q4 2024.

The dissatisfaction deepens when parts for EVs are scarce or unavailable. In these instances, the repair process gets drawn out, or worse, the vehicle becomes unsalvageable, leaving the consumer without transportation. This situation can negatively impact the policyholder’s experience. In fact, CCC’s Moments of Truth study revealed that the customer’s satisfaction with their ability to get a rental after an accident was a top contributor to their satisfaction with their auto insurer.

For an industry that’s increasingly customer-focused, the inability to meet consumer needs in this area highlights a major gap that must be addressed. Repairers and insurers need to find ways to manage these costs and avoid situations where their customers are left feeling let down by the process.

Close-up of a silver electric car charging at a station during sunset.

Future Outlook

Looking ahead, the U.S. car parc is expected to continue evolving. The penetration of EVs and hybrids will likely increase, driven by advancements in battery technology, government incentives, and consumer demand for environmentally friendly vehicles. By 2028, it is projected that EVs and hybrids could represent as much as 15% of the car parc​.

In terms of ownership models, the rise of subscription services and shared mobility options will continue to reshape how consumers interact with vehicles. While personal ownership will remain dominant, younger generations may increasingly opt for flexible alternatives, particularly as EVs become more integrated into these models, particularly in urban and suburban settings.

Engineer examining a digital hologram overlay of a car's internal mechanical components in a modern workshop.

Final Thoughts

The evolving U.S. car parc presents both challenges and opportunities. The increasing complexity of vehicles is reshaping repair processes and claims management. At the same time, economic factors such as rising vehicle costs and interest rates are influencing consumer behavior, leading to an aging fleet and shifts in ownership models.

The future of the U.S. car parc will continue to transform, driven by electrification, technological innovation, and economic forces. By staying ahead of these trends, industry stakeholders can position themselves for long-term success.

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APD Industry Data

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Casualty Industry Data

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Kyle Krumlauf wearing a black suit, light blue shirt, and patterned tie.

Kyle Krumlauf

Director of Industry Analytics, CCC

Kyle Krumlauf brings more than 20 years of industry experience to his role at CCC, having served in various leadership and individual contributor positions at Nationwide and Grange Insurance. He was awarded a CEO Award at Nationwide in 2014 for Innovation & Continuous Improvement, and an Accolade Award at Grange in 2019 for his work in Innovation. Kyle earned a BA in Political Science and History from Ashland University and an MBA from Ohio Dominican University. He also holds the CPCU and ARM designations.

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Erik Bahnsen

Director of Industry Analytics, CCC

Erik Bahnsen has spent 20 years in the insurance industry, first holding several auto- and casualty-focused claim roles on the insurer side before moving into technology. Erik joined CCC in 2012, with numerous roles in account management, leadership, and product innovation, with a focus on casualty. Erik also participates in the ongoing development of CCC's industry-leading analytics and AI products. Since joining the industry analyst team in early 2022, Erik’s industry analysis and thought leadership content has been presented and featured in numerous industry meetings and influential publications.

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HIGHLIGHTS
EV & HYBRID SEGMENT GROWTH
Find out how the increase of EVs and hybrids’ share of the car parc is reshaping the U.S. auto claims and repair landscape.
AGING VEHICLE POPULATION
See why the prevalence of older vehicles is inflating claims counts and repair costs for insurers and repairers.
RISING REPAIR COMPLEXITY
Learn how ubiquitous advanced technologies like ADAS in newer vehicles fuel repair complexity, labor hours, and costs.
FUTURE IMPLICATIONS
Discover new trends emerging from shifting car parc demographics and their impact on the auto claims and repair industries.