Safety Pack
Finitions & PacksAverage price
500€ - 2000€
The Safety Pack is a bundle of driver-assistance equipment and technologies (ADAS - Advanced Driver-Assistance Systems) grouped together by car manufacturers to improve a vehicle's active and passive safety. Rather than offering these options individually, brands market them as a package, often at a more attractive price. The main objective is to prevent accidents by assisting the driver in critical situations and to reduce the severity of collisions when they are unavoidable. A typical Safety Pack includes features such as automatic emergency braking, which can detect pedestrians and cyclists, lane departure warning with lane keep assist, blind-spot monitoring, and adaptive cruise control. The content and naming of these packs vary considerably from one manufacturer to another (e.g., Drive Assist Pack, Safety Plus Pack, etc.), but their purpose remains the same: to offer a higher level of protection for the driver, passengers, and other road users. These systems rely on a combination of sensors, radars, and cameras to continuously analyze the vehicle's surroundings and anticipate potential hazards.
Benefits
- ✓Significant reduction in accident risk thanks to active assistance.
- ✓Improved driving comfort and reduced stress, especially on the highway.
- ✓Enhanced protection for occupants and other road users.
- ✓Higher resale value of the vehicle and potential insurance premium discounts.
Learn more
Safety Pack: Your co-pilot for enhanced safety
In automotive jargon, the term "Safety Pack" has become essential. Behind this name lies a set of intelligent technologies designed to make our roads safer. It is a grouping of several Advanced Driver Assistance Systems (commonly known as ADAS) offered as an option or as standard equipment on modern vehicles. The objective is twofold: on the one hand, to assist the driver in avoiding an accident (active safety) and, on the other hand, to minimize the consequences of a collision if it cannot be avoided (passive safety). Decoding these electronic guardian angels.
What equipment makes up a typical Safety Pack?
The content of a Safety Pack can vary from one manufacturer to another and depending on the vehicle's trim level. However, it generally includes a common foundation of essential technologies:
- Autonomous Emergency Braking (AEB): Using radars and/or cameras, the system detects the risk of a frontal collision with another vehicle, a pedestrian, or a cyclist. If the driver does not react in time after an initial alert, the vehicle can autonomously apply powerful braking to avoid the impact or reduce its speed.
- Lane Keeping Assist (LKA): A camera reads the road markings. If the vehicle unintentionally drifts out of its lane without the turn signal being activated, the system can apply a slight steering correction to guide the car back into its trajectory. It is often coupled with a Lane Departure Warning (LDW) system.
- Blind Spot Monitoring (BSM): Sensors located at the rear of the vehicle detect the presence of another road user in the blind spot. A warning light, usually located in the exterior rearview mirrors, illuminates to warn the driver.
- Adaptive Cruise Control (ACC): More advanced than standard cruise control, ACC not only maintains a set speed but also a pre-set safe distance from the vehicle ahead by automatically accelerating and braking.
- Traffic Sign Recognition (TSR): A camera identifies speed limit signs, no-passing zones, etc., and displays the information on the instrument cluster or Head-Up Display (HUD), allowing the driver to remain constantly informed.
The tangible benefits of opting for a Safety Pack
Investing in a Safety Pack is not just a technological gimmick; it is a wise choice for several reasons. The most obvious benefit is the drastic improvement in safety. These systems act like an extra pair of eyes, capable of reacting faster than a human being in certain emergency situations. They contribute to significantly reducing the number and severity of accidents, particularly those related to distraction or fatigue.
Beyond pure safety, these driving aids provide undeniable comfort. On long highway journeys, adaptive cruise control and lane keeping assist transform the driving experience, making it less tiring and more serene. This is an important step toward semi-autonomous driving.
Finally, a vehicle well-equipped with safety systems retains a better resale value on the used car market. This is a major selling point for buyers, who are increasingly sensitive to these technologies. Some insurance companies may also offer preferential rates for cars equipped with these preventive features.
Different names for the same objective
While "Safety Pack" is a generic term, each manufacturer uses its own commercial terminology to designate its packages. For example, you will find "Drive Assist Pack" at Peugeot and Volkswagen, "Driving Assistant" at BMW, "IntelliSafe" at Volvo, or even "Toyota Safety Sense". Although the names differ, the philosophy remains the same: to offer a coherent set of driving aids for maximum protection.
Finitions équipées
130 finition(s) proposent cet équipement
Renault Renault Captur
Intens (2nd generation) (2019-2023)
Renault Renault Captur
techno (2nd restyled generation) (2024-2026)
Renault Renault Clio
Iconic (Clio V) (2021-2026)
Renault Renault Kadjar
Bose Edition (Phase 2) (2019-2021)
Renault Renault Kangoo
Edition One (Kangoo III) (2021-2022)
Renault Renault Kangoo
Equilibre (Kangoo III) (2021-2026)
Renault Renault Kangoo E-Tech
Iconic (2nd generation Kangoo E-Tech) (2023-2026)
Renault Renault Kangoo E-Tech
Open Sesame (2nd generation - special edition) (2023-2025)
Renault Renault Mégane
Techno (Mégane E-Tech Electric) (2022-2026)
Renault Renault Scenic E-Tech
iconic – long range 87 kWh (Scenic E-Tech) (2024-2026)
Renault Renault Symbioz
Techno (1st generation) (2024-2026)
Renault Renault Talisman
Limited (1st generation - Facelifted Phase 2) (2021-2022)
Renault Renault Trafic E-Tech
Techno (Trafic III E-Tech) (2023-2026)
Renault Renault Zoe
Techno (2nd generation ZE50) (2021-2024)
Seat Seat Tarraco
End of range / Final versions (1st generation) (2023-2026)
Seat Seat Tarraco
Xcellence (continuity / late Phase 1 stock) (2020-2021)
Toyota Toyota Avensis
Collection (3rd generation - Phase 3) (2016-2018)
Toyota Toyota Avensis
Touring Sports Lounge (3rd generation estate) (2010-2018)
Toyota Toyota Aygo
Air Edition / Air Limited (Aygo X) (2023-2026)
Toyota Toyota Camry
Origin Edition / Launch (XV70) (2019-2020)
Associated equipment
Traffic Sign Recognition
Traffic Sign Recognition (TSR) is an advanced driver assistance system (ADAS) designed to improve driver safety and comfort. Using a front-facing camera, typically located behind the interior rearview mirror, the vehicle continuously scans the road to identify and interpret traffic signs. The captured information, such as speed limits, no-passing zones, or no-entry signs, is then processed by image analysis software. The result is displayed in real time on the instrument cluster or head-up display, allowing the driver to stay informed of current regulations without taking their eyes off the road. The most sophisticated systems can cross-reference this data with GPS navigation system data for increased reliability and even interact with adaptive cruise control or the speed limiter to automatically adjust the vehicle's speed. This technology represents a key step toward semi-autonomous driving by reducing the driver's cognitive load and minimizing risks associated with inattention or poor sign visibility.
Autonomous Emergency Braking (AEB)
Autonomous Emergency Braking, commonly known by the acronym AEB, is a fundamental active safety system in modern automotive engineering. Classified among Advanced Driver Assistance Systems (ADAS), its mission is to prevent frontal collisions or, failing that, drastically reduce their severity. To achieve this, it relies on a suite of sophisticated sensors—windshield-mounted cameras, grille-integrated radars, and/or LiDARs—that continuously scan the environment ahead of the vehicle. The on-board computer analyzes the data from these sensors in real-time to calculate the distance and relative speed of other vehicles, as well as more vulnerable road users such as pedestrians and cyclists. If the system detects a critical situation where a collision is imminent and the driver shows no reaction (braking or evasive steering), the AEB takes control autonomously and progressively. It first issues visual and audible alerts. If there is no response, it can pre-condition the braking system for maximum effectiveness, then apply partial braking and, as a last resort, full-power emergency braking. Its proven effectiveness has made it an essential criterion for achieving 5 stars in Euro NCAP tests and a mandatory technology on all new vehicle types marketed in Europe since July 2022, in accordance with the GSR 2 regulation.
Active Blind Spot Monitoring
Active blind spot monitoring, also known by trade names such as Blind Spot Assist or Side Assist, is an Advanced Driver Assistance System (ADAS) designed to prevent collisions during lane changes. Unlike a simple blind spot detector that merely alerts the driver (visual alert in the rearview mirror, audible alert), the active system is capable of intervening directly in the vehicle's trajectory. Using radar sensors located at the rear of the vehicle, the system continuously monitors areas that are difficult for the driver to see. If a vehicle is detected in the blind spot while the driver engages their turn signal to change lanes, an initial alert is issued. If the driver ignores this alert and begins the maneuver anyway, the active system can apply corrective steering torque or light braking to the wheels on the opposite side to subtly yet firmly guide the car back into its original lane and thus avoid an imminent collision. This technology represents a major evolution in safety, moving from mere information to true preventive action, significantly reducing the risk of accidents related to inattention on highways or in heavy traffic.
Lane Keeping Assist
Lane Keeping Assist, often referred to by the acronym LKA, is an Advanced Driver Assistance System (ADAS) designed to prevent unintentional lane departures. Using a camera, typically located behind the rearview mirror, the system continuously detects road markings (solid or dashed lines). If the vehicle begins to drift and approaches a line without the turn signal being activated, the system actively intervenes. Unlike a simple Lane Departure Warning (LDW) system, which only provides an audible or vibrating alert, Lane Keeping Assist applies a slight counter-steering torque to the steering wheel to smoothly guide the vehicle back toward the center of its lane. Some more advanced systems may also use selective braking on the opposite wheels to correct the trajectory. This feature, which is primarily active at speeds above 60-65 km/h, is a valuable aid on highways and expressways, reducing the risks associated with distraction or drowsiness. However, it is not an autonomous driving system; the driver must keep their hands on the steering wheel and remain in control of the vehicle at all times.
Adaptive Cruise Control (ACC)
Adaptive Cruise Control, known by the acronym ACC, is an Advanced Driver Assistance System (ADAS) that represents a major evolution from standard cruise control. While the latter merely maintains a fixed speed, ACC intelligently and automatically adjusts the vehicle's speed to maintain a pre-set safety distance from the vehicle ahead. To achieve this, it relies on sophisticated front-mounted sensors (radar, LiDAR, and/or camera) that continuously analyze traffic. If the vehicle ahead slows down, ACC commands deceleration, up to activating the brakes. As soon as the road is clear, it accelerates again to reach the set speed. The most advanced systems, known as "Stop & Go", even manage complete stops in traffic jams and automatic restarts, offering unparalleled comfort in dense traffic. By automating distance and speed management, ACC reduces the driver's mental workload, lowers the risk of rear-end collisions, and improves traffic flow, serving as a fundamental technological building block for semi-autonomous driving.