5039 results about "Vehicle safety" patented technology

An in-vehicle device data communicates with global network based data processing resources for the purpose of transacting e-commerce and e-business. The in-vehicle device and the global network based data processing resources can effectuate a wide variety of e-commerce and e-business including accessing auto part databases, warranty, customer, and other remote databases. In addition, e-commerce and e-business transactions can include vehicle security and vehicle service management, data communicating Internet based radio, audio, MP3, MPEG, video, and other types of data. Furthermore, e-commerce and e-business transactions can include interactive advertising, promotional offers, coupons, and supporting other remote data communications.

Furthermore, the in-vehicle device can also effectuate remote monitoring of vehicle performance, data communicating and accessing remote global network based content and data, and effectuating adjustments and control of vehicle operation. Remote monitoring and control of vehicle operation can be by way of a global network based data processing resources.

A vehicle security monitoring system and method is provided for monitoring the security in detection zones near a vehicle. The system includes motion detectors positioned to detect motion of an object within security zones of a vehicle and cameras positioned to generate video images of the security zones. A display located onboard the vehicle displays images generated by a camera when the camera is activated. A controller controls activation of the camera and presentation of images on the display. The controller activates the camera and controls the display to output images captured by the camera when a moving object is detected IN THE security zone.

An apparatus for assisting safe operation of a vehicle includes an environment sensor system detecting hazards within the vehicle environment, a driver monitor providing driver awareness data (such as a gaze track), and an attention-evaluation module identifying hazards as sufficiently or insufficiently sensed by the driver by comparing the hazard data and the gaze track. An alert signal relating to the unperceived hazards can be provided.

A proximity measuring apparatus (70) comprises an interrogator (80) for generating an interrogation signal encoded with a reference signature code comprising concatenated codes and emitting it as interrogating radiation. It also incorporates a transponder (90) for receiving the interrogating radiation, demodulating it to extract its signature code and then remodulating it after a delay period to provide a signal for reemission as return radiation therefrom. The interrogator (80) receives return radiation at its antenna (260) and demodulates it to extract its signature code and then correlates the code with the reference code to determine mutual correlation thereof. The interrogator (80) incorporates a computer (290) for controlling a scan direction of the antenna (260) and for measuring time delay between emission of the interrogating radiation therefrom and receipt of corresponding return radiation. The computer (290) computes distance and relative bearing of a transponder (90) providing the return radiation from the scan direction and the time delay. The apparatus (70) may be used for improving road vehicle safety.

In a safety running system, a transverse travelling distance resulting when a subject vehicle travels to a current position of an oncoming vehicle is calculated based on the vehicle velocity and yaw rate of the subject vehicle, a relative transverse distance of the oncoming vehicle relative to a vehicle body axis of the subject vehicle is calculated based on a relative distance, relative velocity and relative angle between the subject vehicle and the oncoming vehicle detected by a radar information processor. When a relative transverse deviation obtained by subtracting the transverse travelling distance from the relative transverse distance resides within a range and that state continues to exist over a predetermined time period, it is judged that there is a collision possibility of the subject vehicle with the oncoming vehicle, and automatic steering is performed so as to avoid a collision.

An in-vehicle device data communicates with Internet based data processing resources for the purpose of transacting e-mail, e-commerce, and e-business. The in-vehicle device and the Internet based data processing resources can effectuate a wide variety of e-mail, e-commerce, and e-business including accessing auto part databases, warranty, customer, and other remote databases. In addition, e-mail, e-commerce, and e-business transactions can include vehicle security and vehicle service management, data communicating Internet based radio, audio, MP3, MPEG, video, and other types of data. Furthermore, e-mail, e-commerce, and e-business transactions can include interactive advertising, promotional offers, coupons, and supporting other remote data communications.

The in-vehicle device can also include functionality for remote monitoring of vehicle performance, data communicating and accessing remote Internet based content and data, and effectuating adjustments and control of vehicle operation. Remote monitoring and control of vehicle operation can be by way of an Internet based data processing resource and can include engine control system programming and setting adjustment, vehicle monitoring, and transmission of vehicle telemetry and metric data. Vehicle telemetry and metric data can include global positioning system (GPS) data, vehicle operational data, engine performance data, and other vehicle data.

The in-vehicle device can also wirelessly data communicate with a communication interface device (COM device) or an Internet appliance. Such COM devices or Internet appliances can data communicate wirelessly with an in-vehicle device and simultaneously data communicate in a wired or wireless mode of operation to Internet based data processing resources, and to other data processing resources.

An in-vehicle device data communicates with Internet based data processing resources for the purpose of transacting e-mail, e-commerce, and e-business. The in-vehicle device and the Internet based data processing resources can effectuate a wide variety of e-mail, e-commerce, and e-business including accessing auto part databases, warranty, customer, and other remote databases. In addition, e-mail, e-commerce, and e-business transactions can include vehicle security and vehicle service management, data communicating Internet based radio, audio, MP3, MPEG, video, and other types of data. Furthermore, e-mail, e-commerce, and e-business transactions can include interactive advertising, promotional offers, coupons, and supporting other remote data communications.

The in-vehicle device can also include functionality for remote monitoring of vehicle performance, data communicating and accessing remote Internet based content and data, and effectuating adjustments and control of vehicle operation. Remote monitoring and control of vehicle operation can be by way of an Internet based data processing resource and can include engine control system programming and setting adjustment, vehicle monitoring, and transmission of vehicle telemetry and metric data. Vehicle telemetry and metric data can include global positioning system (GPS) data, vehicle operational data, engine performance data, and other vehicle data.

The in-vehicle device can also wirelessly data communicate with a communication interface device (COM device) or an Internet appliance. Such COM devices or Internet appliances can data communicate wirelessly with an in-vehicle device and simultaneously data communicate in a wired or wireless mode of operation to Internet based data processing resources, and to other data processing resources.

The present invention provides a situation awareness system of a driver of a vehicle in a multi-vehicle environment, said system comprising: a. a remote central server communicatively connected to a vehicle, comprising: i. a server computer comprising a CPU, a memory, and an operating system; ii. a wireless server transceiver; iii. databases within said server computer; iv. server applications within said server computer; b. a vehicle subsystem installed in a vehicle with a driver, comprising: i. an vehicle computer having a CPU, a memory, and an operating system; ii. sensors; iii. vehicle databases; iv. a vehicle transducer to interrogate external environmental responders about the state of the environment; v. a wireless vehicle transceiver; vi. vehicle applications within said vehicle computer; vii. a situation assessment application,

An emergency vehicle traffic light preemption system for preemption of traffic lights at an intersection to allow safe passage of emergency vehicles. The system includes a real-time status monitor of an intersection which is relayed to a control module for transmission to emergency vehicles as well as to a central dispatch office. The system also provides for audio warnings at an intersection to protect pedestrians who may not be in a position to see visual warnings or for various reasons cannot hear the approach of emergency vehicles. A transponder mounted on an emergency vehicle provides autonomous control so the vehicle operator can attend to getting to an emergency and not be concerned with the operation of the system. Activation of a priority-code (i.e. Code-3) situation provides communications with each intersection being approached by an emergency vehicle and indicates whether the intersection is preempted or if there is any conflict with other approaching emergency vehicles. On-board diagnostics handle various information including heading, speed, and acceleration sent to a control module which is transmitted to an intersection and which also simultaneously receives information regarding the status of an intersection. Real-time communications and operations software allow central and remote monitoring, logging, and command of intersections and vehicles.

The present invention relates to a global network based vehicle safety and security system and method. In this regard, a global network based data processing resource can wirelessly data communicate with an in-vehicle device to control and monitor vehicle safety and security. In addition, data communicated between the vehicle and global network based data processing resources can control, monitor, and track the vehicle as well as data communicate command and control functions, such as disabling vehicle operation. Furthermore, alarm and alerting functions can effectuate the notification of other data processing resources and or other agency or emergency resources.

Vehicle and in-vehicle device data, including safety and security data gathered at data processing resources can be utilized to effectuate a wide variety of data dissemination. Such data dissemination can include warning, alarm, safety, or security determinations, and or other reporting or analysis related to vehicle safety and or security.

Safety systems for vehicles, primarily passenger vehicles, comprising automated systems and methods for preventing entrapment of children, disabled, aged or infirm persons, or pets from being trapped in closed vehicles left in the sun, so that they will not suffocate from the heat. The invention is characterized by use of one or more systems to sense the occupancy state and temperature inside the vehicle passenger or load space, and provide one or more outputs which can selectively be employed to provide interior and exterior warning of a trapped passenger in a dangerously hot car to permit rescue, and/or to activate vehicle electro-mechanical systems to relieve the heat, such as rolling down windows, unlatching seat belts, unlocking doors, starting the car and/or fans or air conditioning systems and the like. The exterior warnings may be any suitable warning, such as sounding the car horn or alarm siren, flashing head, tail or special lights, placing an emergency call via a vehicle dedicated cell phone, CB radio, GPS system, or the like.

A vehicle safety system is disclosed that monitors vehicle surroundings, operational conditions, etc., in order to identify potential safety concerns or hazardous operational conditions. In doing so, the vehicle safety system collects data from one or more sources, such as sources that generate data from the vehicle itself (e.g., internal sensors), sources that generate data from the surroundings of the vehicle (e.g., external sensors), and sources that receive data from local or remote locations with respect to the host vehicle (e.g., a satellite, telematics, cellular, short or long range RF, etc., data acquisition unit). In response to data collected by components of the system, the system may use a hierarchical system to address the potential hazardous conditions or safety concerns.

Autonomous vehicles use various computing systems to transport passengers from one location to another. A control computer sends messages to the various systems of the vehicle in order to maneuver the vehicle safely to the destination. The control computer may display information on an electronic display in order to allow the passenger to understand what actions the vehicle may be taking in the immediate future. Various icons and images may be used to provide this information to the passenger.

A transceiver in a vehicle-to-vehicle (V2V) communication and safety system that regularly broadcasts safety messages, comprising location, heading and speed, of a subject vehicle, that are free of MAC and IP addresses. The V2V system uses the location of the subject vehicle for vehicle identification, in place of a pre-assigned vehicle ID. Some embodiments broadcast safety message in self-assigned time slots in a synchronized TDMA broadcast architecture, with unusually short inter-message gaps and unusually short messages. The TDMA frame is partitioned into three prioritized time interval classes with differing priorities and dynamically changing sizes based on demand of higher-priority messages. Time slot selection uses weighted algorithms. Selected time slots are held until either a message collision or a timeout occurs. A transceiver equipped vehicle may proxy a different subject vehicle. Embodiments include optimized traffic flow and signal timing.

The invention provides a system for determining a vehicle security status and providing the status to the vehicle driver using a key fob wirelessly connected to a telematics unit located within the vehicle. A method for providing security status includes providing a key fob in wireless communication with a vehicle, the key fob including a status indicator, receiving sensor signals of vehicle components positions at the vehicle telematics unit determining whether the vehicle components positions are in an unsecured status position, sending a notification signal based on the determination from the vehicle telematics unit to the key fob and activating the status indicator of the key fob based on the notification.

A security system capable of preventing a security attack/threat on a vehicle network is provided. At least one security zone is set by using a risk level which is evaluated for a plurality of vehicle functional elements. In addition, a security countermeasure corresponding to the risk level of the security zone can be provided to a conduit of the security zone so as to perform gate keeping.

Safety systems and methods are provided for use in a vehicle with a closure that defines a pivoting range when open. The safety system includes a sensor configured to collect data associated with an object in a target zone at least partially surrounding the vehicle; and a processor coupled to the sensors and configured to selectively operate in a first mode and a second mode based on a vehicle characteristic. The processor is configured to, in the first mode, detect the object and generate a first warning based on the object; and in the second mode, detect the object and determine a collision threat between the object and the pivoting range of the closure, and generate a second warning based on the collision threat.

A vehicle security system for a vehicle equipped with a passive keyless entry/passive start (PEPS) security system including a nomadic device configured to determine a present location of the nomadic device (e.g. key fob, smart phone), and a controller configured to control a security-status based on the present location. The controller determines the security status based on the proximity of the nomadic device in order to thwart theft of the vehicle using a relay attack.

Services for a vehicle or fleet of vehicles can be ordered, renewed, modified, managed, configured, and/or cancelled through a common interface. Services may be managed remotely from outside the vehicle as well as from within the vehicle. For example, the driver of a vehicle could access a secure web site from their home computer to subscribe for satellite radio services, cancel a subscription for global positioning information, renew a contract for broadband Internet access in the vehicle, and modify a relationship for remote vehicle security services. Each service that is registered with the system can possess a different status. Such functionality allows devices necessary for various services to be pre-installed in the vehicle. The service management system can also store user profiles that reflect user preferences and patterns of behavior with respect to how the services are performed and configured.

A safety system is provided for use in a first vehicle at a first location. The safety system includes a position unit configured to determine the first location; a sensor group configured to detect an opening of the enclosure; a controller coupled to the position unit and the sensor group, the controller configured to generate a warning message including the first location when the opening of the enclosure is detected; and a transmitter coupled to the controller and configured to transmit the warning message.