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Autonomous Emergency Braking Market

The market for Autonomous Emergency Braking was estimated at $36.6 billion in 2024; it is anticipated to increase to $144 billion by 2030, with projections indicating growth to around $449 billion by 2035.

Report ID:DS2004009
Author:Swarup Sahu - Senior Consultant
Published Date:
Datatree
Automotive & Transportation
A&T Technologies
Autonomous Emergency Braking
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Report Summary
Market Data
Methodology
Table of Contents

Global Autonomous Emergency Braking Market Outlook

Revenue, 2024

$36.6B

Forecast, 2034

$357B

CAGR, 2025 - 2034

25.6%

The Autonomous Emergency Braking industry revenue is expected to be around $46.0 billion in 2025 and expected to showcase growth with 25.6% CAGR between 2025 and 2034. Building on this strong growth outlook, the market is gaining momentum as safety regulations tighten and consumer awareness around vehicle safety increases globally. Governments in regions such as United States and across European Union are mandating advanced driver assistance systems, making autonomous emergency braking a standard safety feature rather than a premium add on. Automakers are integrating these systems to improve safety ratings under programs like Euro NCAP, strengthening competitive positioning. Rising urban traffic congestion and accident rates are further reinforcing the relevance of collision mitigation technologies. In addition, insurance providers increasingly support vehicles equipped with advanced braking technologies, influencing buyer preferences and accelerating OEM level integration.

Autonomous emergency braking is an advanced driver assistance system that detects potential frontal collisions and automatically applies brakes to prevent or reduce impact severity. Using a combination of radar sensors, cameras, and sometimes LiDAR, the system continuously monitors road conditions and vehicle proximity. Key applications include passenger cars, commercial vehicles, and increasingly electric vehicles, where integrated safety architecture is a design priority. Recent trends show deeper integration with adaptive cruise control and lane keeping assist to form semi autonomous driving platforms. Automakers are also enhancing pedestrian detection and cyclist recognition capabilities, expanding system functionality in urban environments. Continuous improvements in sensor fusion, artificial intelligence based object detection, and real time data processing are further driving demand across both mass market and premium vehicle segments.

Autonomous Emergency Braking market outlook with forecast trends, drivers, opportunities, supply chain, and competition 2024-2034
Autonomous Emergency Braking Market Outlook

Market Key Insights

  • The Autonomous Emergency Braking market is projected to grow from $36.6 billion in 2024 to $358 billion in 2034. This represents a CAGR of 25.6%, reflecting rising demand across Vehicle Safety Enhancement, Assistance in Autonomous Vehicles, and Traffic Jam Assistance.

  • Robert Bosch GmbH, ZF Friedrichshafen AG, Continental AG are among the leading players in this market, shaping its competitive landscape.

  • U.S. and China are the top markets within the Autonomous Emergency Braking market and are expected to observe the growth CAGR of 24.6% to 35.8% between 2024 and 2030.

  • Emerging markets including Indonesia, Mexico and South Africa are expected to observe highest growth with CAGR ranging between 19.2% to 26.6%.

  • Transition like Shift from Optional Safety Feature to Standard Regulatory Requirement is expected to add $25 billion to the Autonomous Emergency Braking market growth by 2030.

  • The Autonomous Emergency Braking market is set to add $321 billion between 2024 and 2034, with manufacturer targeting Aftermarket Application projected to gain a larger market share.

  • With

    rise in road accidents, and

    Technological Advancements in Automobile Industry, Autonomous Emergency Braking market to expand 877% between 2024 and 2034.

autonomous emergency braking market size with pie charts of major and emerging country share, CAGR, trends for 2025 and 2032
Autonomous Emergency Braking - Country Share Analysis

Opportunities in the Autonomous Emergency Braking

The rapid expansion of electric and software defined vehicles is also creating new opportunities for predictive and AI enabled autonomous emergency braking systems. EV manufacturers are increasingly integrating high performance sensor suites and centralized computing architectures, enabling seamless deployment of advanced AEB with pedestrian and cyclist detection. Over the air software updates allow continuous performance improvements, enhancing system accuracy over time. Premium electric vehicles and next generation platforms are expected to drive demand for multi sensor, LiDAR assisted AEB solutions, as safety and automation capabilities become key differentiators in competitive EV markets.

Growth Opportunities in North America and Europe

In North America, autonomous emergency braking adoption is driven by stringent safety regulations and strong consumer emphasis on crash prevention technologies. Regulatory bodies and safety assessment programs are pushing OEMs to include AEB as standard equipment, especially in passenger cars and light trucks. The region presents opportunities in both mass market and premium segments, with advanced AEB variants incorporating pedestrian and cyclist detection gaining traction. Competition is intensifying among global OEMs and local suppliers to offer differentiated advanced driver assistance technology at competitive pricing. Fleet operators, including rental and logistics companies, are also adopting AEB to reduce accident liability and insurance costs. Continued focus on road safety and integration with connected vehicle ecosystems is expected to strengthen long term demand.
Europe represents a leading market for autonomous emergency braking due to robust regulatory mandates and high safety awareness among consumers. European New Car Assessment Programme (Euro NCAP) standards strongly encourage AEB deployment, especially in urban and pedestrian rich environments. This has created opportunities for suppliers specializing in radar camera fusion and AI enhanced detection systems. Competitive dynamics involve collaboration between European OEMs and Tier 1 sensor manufacturers to localize production and reduce costs. Additionally, increasing adoption of advanced driver assistance systems within commercial vehicle and public transport fleets further expands market potential. As emission reduction and smart mobility strategies mature, demand for integrated collision mitigation solutions continues to accelerate.

Market Dynamics and Supply Chain

01

Driver: Stringent Global Safety Regulations and Rising Consumer Safety Awareness

One of the primary drivers of the autonomous emergency braking market is also the combination of tightening vehicle safety regulations and growing consumer demand for advanced protection features. Regulatory bodies in regions such as the European Union and North America are also mandating advanced driver assistance systems in new vehicles, making AEB a standard requirement rather than an optional feature. This regulatory push compels original equipment manufacturers to integrate collision mitigation technologies across multiple vehicle segments. At the same time, consumer awareness of road safety and crash prevention technologies has also increased significantly due to higher visibility of safety ratings and crash test programs. Buyers are also actively prioritizing vehicles equipped with forward collision warning and automatic braking systems, encouraging automakers to differentiate their offerings through enhanced safety packages and integrated sensor technologies.
Continuous improvements in sensor fusion technology are also significantly accelerating adoption of autonomous emergency braking systems. Modern AEB platforms combine radar, camera, and in some cases LiDAR inputs to enhance object detection accuracy and reduce false positives. The integration of artificial intelligence driven perception algorithms enables faster decision making and improved recognition of pedestrians, cyclists, and complex urban scenarios. This technological evolution supports smoother braking interventions and better performance across varying weather and lighting conditions. As component costs gradually decline and processing power improves, manufacturers can also deploy more sophisticated AEB systems in mid range vehicles, expanding the addressable market and strengthening long term demand.
02

Restraint: High System Integration Costs and Price Sensitivity in Mass Market Vehicles

A significant restraint for autonomous emergency braking adoption is the high cost associated with system integration, including sensors, processors, and calibration. Radar, camera, and LiDAR modules can add substantial expense to vehicle manufacturing, particularly in lower priced segments. For example, entry level models may omit AEB or offer stripped down variants to maintain competitive pricing, limiting overall market penetration. This cost barrier pressures OEMs to balance safety feature inclusion with affordability, often slowing broader adoption in price sensitive markets and dampening short term revenue growth for advanced AEB systems.
03

Opportunity: Rapid Adoption of AEB Systems in Emerging Asian Passenger Vehicle Markets and Fleet Safety Upgrades in Commercial Transportation and Logistics Sector

Emerging economies such as China and India present strong growth potential for autonomous emergency braking in mid range passenger vehicles. Rising disposable incomes and growing awareness of vehicle safety are encouraging consumers to opt for cars equipped with advanced driver assistance features. Governments in these countries are gradually strengthening crash safety norms, creating a regulatory push for forward collision warning based AEB systems. Radar camera fusion AEB for compact sedans and SUVs is expected to witness the fastest growth, particularly as domestic automakers collaborate with global sensor suppliers to reduce system costs and expand feature accessibility.
Commercial fleets, including logistics, ride hailing, and public transportation operators, represent an underpenetrated opportunity for autonomous emergency braking adoption. Fleet managers are prioritizing accident reduction to lower insurance premiums and minimize vehicle downtime. Heavy commercial vehicles and delivery vans are increasingly adopting long range radar based AEB systems designed for high load and highway operations. Regulatory encouragement for truck safety in North America and Europe further strengthens this trend. The commercial vehicle segment is expected to see strong uptake of robust, high durability AEB configurations tailored for continuous and high mileage usage.
04

Challenge: Technical Performance Limitations in Adverse Conditions Impact User Confidence

Another notable restraint is the inconsistent performance of autonomous emergency braking in challenging environmental conditions such as heavy rain, fog, or low light. AEB reliability hinges on sensor accuracy, and systems that misinterpret obstacles or fail to detect pedestrians can lead to false positives or missed braking events. These limitations can erode consumer trust and slow adoption, particularly among fleet operators and safety conscious buyers. As a result, manufacturers may delay full scale rollout in certain regions until performance is proven under diverse real world conditions, affecting demand and market dynamics.

Supply Chain Landscape

1

Research & Development

BoschContinental
2

Sensor Production

VelodyneFirst Sensor
3

System Assembly & Integration

AutolivZF TRW Automotive
4

Vehicle Manufacturing & Installation

ToyotaGeneral Motors
Autonomous Emergency Braking - Supply Chain

Use Cases of Autonomous Emergency Braking in Vehicle Safety Enhancement & Traffic Jam Assistance

Vehicle Safety Enhancement : Autonomous emergency braking is widely adopted for vehicle safety enhancement, particularly in passenger cars and light commercial vehicles. Forward collision warning based AEB systems that use radar and camera sensor fusion are most commonly deployed in this application. These systems continuously monitor the distance to preceding vehicles and automatically apply braking force when a collision risk is detected. The key advantage lies in reducing rear end crashes and minimizing injury severity at both urban and highway speeds. Insurance incentives and safety assessment programs have accelerated OEM integration, making AEB a core component of standard advanced driver assistance packages in mass market vehicles.
Assistance in Autonomous Vehicles : In autonomous and semi autonomous vehicles, more advanced predictive AEB systems are utilized, often integrated with LiDAR, high resolution cameras, and AI driven perception software. These systems form part of a broader sensor fusion architecture that supports Level 2 and Level 3 driving automation. AEB in this context acts as a critical fail safe mechanism, intervening when primary driving algorithms detect imminent obstacles or unexpected pedestrian movement. Its unique advantage is redundancy and enhanced decision accuracy, strengthening overall system reliability. This application is particularly relevant in premium vehicles and electric vehicle platforms where safety and automation capabilities are key differentiators.
Traffic Jam Assistance : For traffic jam assistance, low speed AEB systems are predominantly used in urban environments characterized by stop and go traffic. These systems are typically combined with adaptive cruise control to manage frequent braking and acceleration automatically. Radar dominant AEB configurations are preferred here due to their reliability in close range vehicle detection. The primary benefit is reducing minor collision incidents and driver fatigue during congested driving conditions. As urbanization increases and traffic density rises, demand for integrated traffic jam assist features is growing, especially in mid range passenger vehicles aimed at daily commuters.

Recent Developments

Recent developments in autonomous emergency braking highlight deeper integration with advanced driver assistance systems and automated driving platforms. A key trend is enhanced sensor fusion using radar, camera vision, and AI-based perception to improve object detection and reduce false braking events. OEMs are also optimizing AEB with predictive capabilities that support pedestrian and cyclist recognition in urban environments. As regulatory bodies tighten safety requirements, adoption of collision avoidance technology is expanding beyond premium vehicles into mainstream passenger and commercial fleets.

December 2024 : Tesla revealed an enhancement, to their Autonomous Emergency Braking system aimed at boosting its effectiveness during high speed scenarios.
November 2024 : Waymo has made strides in improving its autonomous emergency braking system by incorporating AI algorithms to enhance pedestrian safety.
October 2024 : Volvo has launched an advanced Autonomous Emergency Braking system that is designed to detect and respond to multiple vehicles.

Impact of Industry Transitions on the Autonomous Emergency Braking Market

As a core segment of the A&T Technologies industry, the Autonomous Emergency Braking market develops in line with broader industry shifts. Over recent years, transitions such as Shift from Optional Safety Feature to Standard Regulatory Requirement and Evolution from Basic Collision Mitigation to AI Driven Predictive Braking Systems have redefined priorities across the A&T Technologies sector, influencing how the Autonomous Emergency Braking market evolves in terms of demand, applications and competitive dynamics. These transitions highlight the structural changes shaping long-term growth opportunities.
01

Shift from Optional Safety Feature to Standard Regulatory Requirement

Autonomous emergency braking is transitioning from a premium optional feature to a standard requirement in many new vehicles. Regulatory mandates and updated safety assessment protocols are compelling automakers to integrate AEB across entry level and mid range models. This shift is reshaping supply chains, as Tier 1 suppliers scale production of radar sensors, camera modules, and electronic control units to meet higher volume demand. Insurance companies are also adjusting risk models and offering incentives for vehicles equipped with AEB, influencing consumer purchasing behavior. As a result, even budget vehicle manufacturers are redesigning platforms to accommodate collision mitigation systems, accelerating mainstream penetration.
02

Evolution from Basic Collision Mitigation to AI Driven Predictive Braking Systems

The industry is moving from simple forward collision warning based braking to advanced, AI driven predictive AEB systems. Modern platforms increasingly rely on sensor fusion combining radar, cameras, and sometimes LiDAR, enabling more accurate detection of pedestrians, cyclists, and complex urban scenarios. This transition is influencing the semiconductor and automotive software industries, as demand rises for high performance processors and real time data analytics. Technology firms specializing in artificial intelligence and perception algorithms are forming partnerships with automakers, expanding the ecosystem beyond traditional automotive suppliers and strengthening cross industry collaboration.