Leveraging IoT for Active Vehicle Safety

Auto Tech Outlook | Tuesday, May 07, 2019

Road accidents and traffic congestions are the rising challenges in urban areas. However, with the help of new technologies automobiles sector is focusing more on proactive measures for safety. The modern transport claims that vehicle crash can be prevented using technology like the Internet of Things (IoT). IoT is an ideal software component that connects physical and everyday devices to the internet. Devices built based on IoT are capable of communicating with each other over the internet and can be controlled to perform various activities.

IoT in Reducing Automatic Vehicle Accidents

Physical condition and performance of the drivers are analyzed in case of accidents, and the administrators are notified with the help of IoT. It can also monitor the drowsiness of the driver, and blood content is analyzed to detect the presence of alcohol. The distraction of drivers is tracked which is accomplished through installing a face monitoring camera—a prototype of embedded system and sensor technology.

Stay ahead of the industry with exclusive feature stories on the top companies, expert insights and the latest news delivered straight to your inbox. Subscribe today.

With the aid of IoT, the vehicle can undergo real-time monitoring to diagnose the condition of the vehicle. The data including exhaust gas temperature, ambient temperature, gas flow velocity, vehicle speed, engine revolution, electric current, and vehicle tilt angle can be measured and recorded to know the performance of the vehicle. When the physical condition of the vehicle is diagnosed, it helps in reducing accidents due to poor performance.

There are chances for the occurrence of a vehicular collision between vehicle to vehicle, vehicles to human or between vehicles to structures. The use of inter-vehicular communications allows vehicles to communicate with its surroundings. For instance, when the vehicle is moving too close to another, the driver is notified of the possible collision.

Location tracking system using IoT is used to obtain the specific location of vehicles with GPS navigation. This is beneficial in notifying the user of the possible danger that is ahead of them. The threats may include damaged roads, pre-occurred accidents, and frozen roads.

Connected vehicles powered by IoT will help to reduce the rate of accidents with its highly sophisticated mode of operation. In the future, road safety will be assured with the help of this technology.

Top Cryogenics Companies : ( Renaissance ScientificEmpire Magnetics, Cryogenic Systems and Parts )

More in News

Technology is a fundamental component at every stage of the customer journey, contributing to operational efficiency and wealth maximization. For automotive dealerships, the pertinent question is not whether to adopt digital tools, but rather how to evaluate and implement technology solutions that align with specific business objectives. Innovations influence all phases of the sales and service processes, encompassing lead generation, online financing, inventory management, and after-sales support. The selection of an appropriate platform can significantly impact future growth and foster customer loyalty. Defining Dealership Goals and Expectations from the Customer The first step is defining the approach to evaluating technology from the dealership's point of view, internal goals, and external customer expectations. Today, dealerships are selling much more than a car; they must be able to define by convenience, transparency, and speed the buyer's world, which is increasingly knowledgeable and digitally experienced, often going to the showroom with a great deal of research done on the Internet. Any technology solution contemplated should accommodate that connection between the online and offline touchpoints. Whether digital retailing platforms, real-time communication tools, or automated customer follow-ups, the right solution must meet the full spectrum of customer interaction while aligning with the dealership's brand experience and sales objectives. System Integration and Data Connectivity Generally, the most frequent pitfalls seen during the implementation of dealership technology are disparate, non-communicating systems. Duplicate tasks usually occur, and this accounts for a siloed data environment and inconsistent reporting. With well-evaluated solutions, the existing dealership operations, such as customer relationship management, inventory management, finance and insurance, and service scheduling, will be integrated. That way, customer data flow becomes a consistent element throughout the system and provides personalized customer service, resulting in better decision-making about customer-related concerns. In addition, from centralized data access, faster responses address customer inquiries, inventory management, and overhead reduction; ultimately, that will lead to a more agile and responsive dealership environment. Measure Long-Term Value and Scalability While the long-term value of scalability must be considered equally as a cost determinant and functionality justifying worth investment now, upfront costs and immediate functionality determine purchase decisions. The solution should have the capacity to be changed over time in accordance with new trends emerging in the market, customers' use innovations for transacting, and future scale growth of the dealership. Scalability becomes especially important when developing digital distribution channels for the dealership or entering new markets. Also critical are the support and training the technology provider provides for a smooth solution onboarding and continuous optimization over time. Those solutions that are flexible, subject to regular updates, and provide responsive support are likely to yield much larger benefits and keep the costs of transition very low when costly transitions become unavoidable in the future. ...Read more
The approaching era of self-driving cars presents the need to explore the implications, challenges, and advancements that will build the future of autonomous vehicle technology, which has the potential to revolutionize technology, urban planning, and transportation. Self-driving automobiles, or autonomous vehicles, use sophisticated algorithms, cameras, artificial intelligence, and sensors to travel without human interaction. Their goal is to offer accessible, safe, and reasonably priced transportation with the potential to lower accident rates, enhance traffic flow, and increase mobility for those unable to drive.   Autonomous vehicles can significantly improve road safety by eliminating human error, a significant cause of traffic accidents. Advanced sensors and AI systems can detect and respond to hazards more quickly and accurately than human drivers, providing vigilance and reducing accidents and fatalities. This enhances overall road safety. Autonomous vehicles enhance safety and traffic efficiency by reducing congestion and delays. They communicate with traffic management systems, synchronizing movements for smoother flow. Unlike traditional driving, real-time speed adjustments contribute to a more efficient transportation network. Integrating autonomous vehicles into society also significantly impacts urban planning and infrastructure. With the advent of self-driving technology, the need for expansive parking lots and garages may diminish. Autonomous vehicles could drop passengers off at their destinations and then park themselves or return to a central hub, leading to more efficient land use and freeing up valuable urban space. This shift could lead to more pedestrian-friendly city layouts and innovative use of metropolitan areas previously dedicated to parking. Accessibility is another critical area where autonomous vehicles can make a substantial impact. For individuals with disabilities, older people, and those unable to drive, autonomous vehicles offer a new level of independence and mobility. By providing a reliable and safe mode of transportation, these vehicles can help improve the quality of life for many people who face transportation challenges. Despite these promising advancements, the future of autonomous vehicles has changed. One of the primary concerns is developing and implementing regulatory frameworks to ensure the safe operation of self-driving cars. Governments and regulatory bodies must establish comprehensive guidelines and standards for testing, deploying, and monitoring autonomous vehicles. This includes addressing liability issues and cybersecurity threats and ensuring the technology meets rigorous safety standards. Public acceptance and trust are crucial for autonomous vehicle adoption, as many remain skeptical about its reliability and safety. Building public confidence requires transparent communication about the technology's capabilities and demonstrating its effectiveness through testing and real-world trials. Technological and infrastructure requirements for autonomous vehicles remain challenging, with areas like sensor accuracy, AI decision-making, and infrastructure integration remaining. Reliable and scalable solutions are essential for achieving full potential.  ...Read more
The significance of strong automotive security systems cannot be emphasized enough. Today’s automotive security solutions integrate various technologies aimed at safeguarding vehicles from theft, vandalism, and cyber threats while also boosting the safety of both drivers and passengers. The significant benefit of these systems is their ability to prevent vehicle theft. These systems feature sophisticated alarm mechanisms, immobilizers, and tracking devices that discourage criminals and assist in retrieving stolen vehicles. As the need for adequate security grows, the function of these systems will become even more crucial. GPS tracking allows real-time vehicle location monitoring, enabling law enforcement to recover stolen vehicles more swiftly and effectively. The features significantly reduce the theft risk and increase the likelihood of vehicle recovery. Cars are becoming more connected through the IoT and are integrated with smart technologies, which makes them more vulnerable to cyber-attacks. Automotive security systems incorporate cybersecurity measures to protect against these threats. Advanced automotive security systems employ encryption, firewalls, and intrusion detection systems to safeguard vehicle networks from hacking and unauthorized access. The measures protect critical vehicle functions, such as braking, steering, and acceleration, from being compromised. Vehicles equipped with advanced security systems often qualify for lower insurance premiums. Software updates and patches can be deployed over the air to address vulnerabilities, ensuring that the vehicle’s security measures are always up-to-date. Automotive security systems contribute to the safety of drivers and passengers by incorporating features such as emergency response systems, driver monitoring, and collision detection. Emergency response systems automatically contact emergency services during a severe accident, providing the vehicle’s location and other critical information. The features enhance overall safety and provide peace of mind to vehicle occupants. Security systems can increase the vehicle’s resale value, as buyers often pay more for cars with enhanced security features. The financial incentive encourages more vehicle owners to invest in automotive security systems. Modern automotive security systems enhance convenience and improve the user experience through features like keyless entry, remote start, and smartphone integration. The features enhance the overall driving experience and provide added convenience for vehicle owners. Automotive security systems also play a role in deterring vandalism and unauthorized access to vehicles. The systems can trigger alarms, capture video footage, and send alerts to the vehicle owner’s smartphone, deterring potential vandals and unauthorized individuals. Security and motion sensors can monitor the vehicle’s surroundings and detect suspicious activity. Enhanced security measures, such as biometric access controls and advanced locking mechanisms, further prevent unauthorized access to the vehicle. They enhance the safety of drivers and passengers, protect against cyber threats, provide financial advantages through insurance savings, and improve the overall user experience. ...Read more
The rise of autonomous vehicles (AVs) is transforming the transportation sector by offering safer, more efficient, and environmentally friendly mobility solutions. Innovative solutions are tackling challenges related to navigation, safety, scalability, and user experience. These advancements utilize state-of-the-art technologies, including artificial intelligence (AI), advanced sensors, high-definition mapping, 5G communication, and strong cybersecurity measures. Together, these elements enable AVs to operate effectively in a wide range of complex environments. AI algorithms analyze real-time data from sensors, cameras, and radar to identify objects, anticipate behaviors, and make driving decisions. Reinforcement learning further enhances these capabilities by allowing vehicles to learn from simulated and real-world driving experiences. The integration of generative AI facilitates scenario testing, enabling autonomous systems to anticipate and prepare for rare or unpredictable events, such as sudden pedestrian crossings or road obstructions. Sensor technology advancements are critical to improving the perception capabilities of AVs. Innovations in solid-state LiDAR, which is more compact and cost-effective, make high-resolution 3D mapping accessible for mainstream vehicles. Another significant advancement is the development of high-definition (HD) mapping and localization. The maps and real-time updates from cloud-based systems ensure autonomous vehicles can navigate complex road networks precisely. Next-gen localization techniques, such as visual simultaneous localization and mapping (vSLAM), allow AVs to continuously update their position relative to their environment, even without GPS signals, which is crucial for urban canyons or tunnels. 5G and edge computing are revolutionizing the connectivity landscape for autonomous vehicles. With ultra-low latency and high-speed data transfer, 5G networks enable real-time vehicle-to-everything (V2X) communication, allowing AVs to exchange information with other vehicles, infrastructure, and cloud systems. Edge computing processes data closer to the vehicle, reducing reliance on centralized cloud servers and enabling faster decision-making for time-sensitive scenarios, such as collision avoidance. Safety and cybersecurity are paramount for the success of AVs, and next-gen solutions are addressing these concerns with robust fail-safe systems and secure architectures. Energy efficiency and sustainability are key drivers for next-gen autonomous vehicles, significantly as the automotive industry shifts toward electrification. AV manufacturers are integrating energy-efficient AI processors, lightweight materials, and aerodynamically optimized designs to reduce energy consumption. Autonomous electric vehicles (AEVs) are equipped with smart charging systems and battery optimization algorithms, enabling them to achieve longer ranges and lower operating costs. Some next-gen solutions also incorporate solar panels or regenerative braking systems to enhance energy efficiency further.  Voice-activated controls, augmented reality displays, and biometric authentication are becoming standard features, while adaptive seating and ambient lighting create customizable environments for passengers. AVs are integrated with ride-sharing platforms and mobility-as-a-service (MaaS) ecosystems, making autonomous transportation more accessible and convenient for users. From AI-powered decision-making and advanced sensor systems to 5G connectivity and sustainable design, these innovations are transforming how we think about transportation. ...Read more
follow on linkedin Copyright © 2026 AutoTech Outlook. All Rights Reserved | Privacy Policy | Subscribe | Sitemap | About us | Feedback Policy | Editorial Policy