1293 results about "Vehicle identification" patented technology

A parking management system that facilitates motorist guidance, payment, violation detection, and enforcement using highly accurate space occupancy detection, unique vehicle identification and guidance displays is described. The system enables reduced time to find parking, congestion mitigation, accurate violation detection, and easier enforcement, and increased payment and enforcement revenues to cities. A system facilitating intersection management is also described having applicability to road intersections and railway crossings.

A vehicle status device and system for remotely updating and monitoring the status of a vehicle. The vehicle status device is located in a vehicle and reports status information for the vehicle and an owner to an interrogating unit. The device includes a database of status information for the vehicle and owner. An update receiver in the device receives updated information from a wide area paging network for storage in the database. An interrogation receiver receives an interrogation signal from the interrogating unit, and a response transmitter transmits encoded status information, including a vehicle identification (VID), to the interrogating unit in response. The updating and monitoring system also includes an interrogating unit which includes an interrogation transmitter for transmitting the interrogation signal to the vehicle status device, and a response receiver for receiving the encoded status information from the vehicle status device. A processor decodes the encoded status information and translates it into plain language for presentation to an operator. The system may be implemented as a ticket-less toll system by providing a database of subscribers in which VIDs are matched to subscriber identities, credit card information, and current status as valid subscribers.

The present invention relates to a ‘smart parking system’ comprising of 1) ‘smart parking meter’ containing a radiofrequency reader (RF reader); 2) radiofrequency tag (RF tag) containing vehicle identification information, that is mounted on vehicles; 3) a central control station communicating with a multitude of ‘smart parking meters’ to form a network; 4) the said central control station having a central computer system programmed with parking enforcement instructions. RF reader is provided with means to interrogate the RF tag of a vehicle parked in the corresponding parking stall; and transmit information obtained thereby to a central control station. The central control station has means to identify the said vehicle and determine whether or not the said vehicle is legally parked. If a parking violation is detected, the central computer system remotely instructs the corresponding ‘smart parking meter’ to issue a parking ticket. Means are also provided in the ‘smart parking system’ to determine if a vehicle parked in a parking stall has previous unpaid parking tickets. The ‘smart parking system’ also has means to determine if a vehicle wanted by law enforcement personnel is present in a parking stall within its network. According to yet another aspect, the ‘smart parking system’ has means to determine if a parking stall in its network is vacant and to reserve the said vacant stall for an authorized driver. Further, means are provided in the ‘smart parking meter’ to accept multiple forms of payment.

A system for monitoring and tracking vehicles in parking locations, public roadways and highway entrances and exits and other public vehicle access areas is provided, such as to monitor and track vehicles in parking spaces, public roadways and highways without the need for parking or traffic personnel. The system includes a meter system that generates image data of a vehicle in a parking space, public roadway and highway entrances and exits such as by creating an array of pixel data in a predetermined field of view that includes a vehicle identification tag and facial imaging. An enforcement and tracking system receives the image data and generates a vehicle license number, vehicle tag identification number and facial image from the image data, such as by analyzing the image data to identify the vehicle license number, vehicle tag identification number and facial image based on the expected location of the license tag, identification tag and field of view image data characteristics of the license tag, facial image or other suitable data. From the image data acquired, monitoring of parking spaces is performed and violation citations or notices are generated for errant vehicles in parking locations as well as notification to law enforcement and homeland security agencies of vehicles and facial images identified as being on a watch list.

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.

Methods and systems are disclosed for monitoring vehicular traffic congestion through the use of inter-vehicle communication and traffic chain counters. Data packets including counter, vehicle identification, direction, location, and speed information are transmitted between vehicles via short-range wireless communications. A receiving vehicle edits a data packet if the data packet reflects that the receiving vehicle has not yet edited the packet and is traveling in substantially the same direction as the vehicle which transmitted the packet to the receiving vehicle. If a receiving vehicle is the last vehicle to edit a packet, the receiving vehicle transmits a reporting packet to a traffic monitoring server via long-range wireless communications.

A method and a system for identifying a vehicle in a parking area includes receiving video data from a video camera observing a parking area from a first field of view over duration of time and receiving image data from a still camera observing a second field of view overlapping the first field of view. The method includes tracking a location of a vehicle across a sequence of frames. The tracking includes determining a time instant at which each frame was captured. The method includes comparing a select frame captured by the video camera with an image captured by the still camera. Based on the comparing, the method includes matching the vehicle in the image with the vehicle in the frame. The method includes determining a license plate number of the vehicle by locating a license plate on the vehicle in the image.

The invention is directed to method and system for providing automatic vehicle registration and control via transceiver-facilitated wireless communication of a unique vehicle identification code and a vehicle location code from a vehicle.

A method and network for transmitting a message from a sender to a recipient wherein the sender has no previous knowledge of the recipient's identity. A method is provided for registering a user with a web-enabled database service by providing correlating data on the user's identity and vehicle license plate number and/or other vehicle identifying information. A sender observing a vehicle can send a message to the recipient by logging onto the service and sending a message including the license plate number of the vehicle or other vehicle identifying information. The service will forward the message to the recipient by looking up the vehicle information, discerning the most appropriate communications method(s), and causing the message to be transmitted to the recipient or stored for later delivery.

The present invention relates generally to automatic insurance verification, and more specifically, to a non-invasive method and system for automatically determining, by any person with computer, wireless, or telephone access and in real-time, if an insured object of value is or is not insured irrespective of insurer location, jurisdiction, language, type, time, and also the internal operations, software platform and communications protocols used by insurers and/or governmental entities. It is an insurance verification, not an insurance reporting or tracking system and because it maintains no personal data of any kind, and can modify no record, it can deliver only very limited features regarding reporting or tracking. The present invention can however, provide absolute assurance of current insurance status at all times, provides a unique method of access which resolves all current failures and is non-invasive, providing complete privacy for all parties involved, (the absence of all personal information and the access method used ensures that all access and data is inherently non-invasive). This invention further ensures that any check of status, at insurer or governmental registration, (including “e-registration”, inspection, or any other location and time when and where a jurisdiction or insurer requires such a status check, will result in an instant and totally accurate status response. This system is based upon the assignment of a unique identifier, also known in this present art as a “UC” or “Unique Code” which then provides a method of accurate data, (including status checks), without reliance on “VINs”, (vehicle identification numbers), policy number or other identifiers which are often incorrect. The UC is assigned to any combination of two or more elements that are “gleaned”, (file field extraction and related system and methods), one of which is always current status. The extraction of these selected fields from data streams may be done by a number of prior art techniques, and the three most common have been detailed. First demonstrated to government officials in 1999 as a medical version and later the same year as a vehicle version, it has been demonstrated and documented since to a great many Federal and State governmental entities. This present invention has also been demonstrated to several foreign governments but incorporates no technologies that create any possible security risk for any government, insurer, individual, and especially to the national security of the United States.

A health monitoring system is provided for a vehicle with an identity configured to travel on a surface. The system includes a body positioned on the surface and configured to stimulate a dynamic response from the vehicle as the vehicle travels over the body; a response sensor associated with the body and configured to measure the dynamic response from the vehicle; and an identification sensor associated with the body and configured to collect data corresponding to the identity of the vehicle.

The invention belongs to the field of intelligent automobile road detection and relates to a method for detecting road information and identifying forward vehicles based on vision. The method comprises image preprocessing, lane line characteristic parameter extraction, region-of-interest segmentation and vehicle outline identification. According to the method for detecting the road information and identifying the forward vehicles based on vision, the complexity of computation is simplified by extracting the regions of interest, filtering out background regions and reducing the processing scope; the processing result of each frame of image is obtained through fixed computation times by use of a line-by-line retrieval method, and differing from the characteristic, namely linear fitting on each bright spot, of Hough conversion, the method has outstanding advantages in algorithm instantaneity; the instantaneity of the Robinson direction model operator is improved, and an intermediate variable is set to reduce the computation times of each pixel point. The regions of interest are screened and judged by use of an information entropy and a vehicle tail symmetry characteristic in the target region, and therefore, the omission factor and the false drop rate of the algorithm are reduced.

The illustrative embodiments provide a method and apparatus for controlling and coordinating multiple vehicles. In one illustrative embodiment, machine behaviors are assigned to multiple vehicles performing a task. The vehicles are coordinated to perform the task using the assigned behaviors and a number of signals received from other vehicles and the environment during performance of the task. In another illustrative embodiment, a role is identified for each vehicle in a group of vehicles. A number of machine behaviors are assigned to each vehicle depending upon the identified role for the vehicle. The machine behaviors are selected from coordinating machine behaviors stored in a behavior library. Each vehicle is then coordinated to perform the task according to the role and machine behaviors assigned.

A vehicle control system includes a first controller including a wireless mechanism for determining a vehicle identification number. A second controller includes wireless mechanisms for communicating with the first controller and for controlling a velocity of the targeted vehicle without restricting the braking and steering capabilities thereof. The system includes a service provider including a database containing authorization codes unique to vehicle identification numbers. A communications link transmits confidential data streams to the service provider. The communications link includes a wireless cellular telephone network. The system includes a request signal, an authorization signal, and a deactivation signal. The second controller sends the response signal to the first controller, which transmits the request signal to the service provider. An authorization signal is transmitted to the law enforcement officer. The first controller transmits the deactivation signal to the vehicle, causing the second controller to disable selected operating characteristics thereof.

A system for providing vehicle information at an automobile point of purchase includes a user device having a camera or other image capturing device that is used to capture an image of an automobile. An application on or associated with the image capturing device can either transmit the image to a service provider for processing, or can implement one or more steps in a feature recognition process locally, and thereafter transmit the data to a service provider. In either case, the service provider can then complete the feature recognition processing and identify the automobile from the image. The service provider can then communicate with a make and model database to provide useful information on the vehicle, which can then be transmitted to the user device and conveniently displayed.

The described method and system provides for dynamic adjustment of the lower charge threshold of an electrically-powered vehicle to allow a fuel-depleted vehicle also low on battery charge to continue to be operated. The vehicle's telematics unit monitors the fuel level and charge level via the vehicle bus or other vehicle resources to determine if the vehicle is running low on fuel and electric charge. If the telematics unit determines that the fuel is depleted and the charge level is approaching, meets or falls below the lower threshold, the telematics unit communicates the vehicle fuel status and vehicle position to a call center along with vehicle identification data. The call center determines the amount of charge required to reach one or more local fueling stations or other points of interests and propose destination recommendations to the driver. The driver may then select one of the recommendations, and the call center transmits a new lower charge threshold to the vehicle.

A vehicle identification system. The system includes an electronic access card for storing information associated with a user of the electronic access card, a card reader for receiving the electronic access card and for reading the associated information and a display for receiving at least a portion of the associated information from the card reader and for displaying the portion of associated information when the user operates a vehicle. The display is located on the vehicle, and the displayed information includes at least a unique identifier assigned to the user of the electronic access card. In one arrangement, the unique identifier assigned to the user of the electronic access card can be transferrable to other vehicles such that the identifier can be displayed on any vehicle having the card reader and the display when the user operates such vehicle.

A system and method for accurate express tolling of highway vehicles. A multilane tolling system comprises a tolling (MVIC) unit that collects information from tolling subsystems arranged to take various vehicle measurements. Preferably, an intelligent vehicle identification subsystem sends vehicle information to the MVIC unit many times per second. Preferably, a vision tracking system (VTS) communicates with the MVIC unit and sends the latter information about the vehicle position using vision tracking sensors. Preferably, an RF subsystem conducts multiple reads of a transponder on a passing vehicle and forwards the read information to the MVIC unit. Preferably, a vehicle image capture unit (VICU) captures images of the passing vehicle when a camera in the VICU receives a trigger from the MVIC unit. Preferably, a driver alert module is used alert a driver passing through a tolling point as to account balance associated with a silent toll tag or pay by plate system.

A parking management system that facilitates motorist guidance, payment, violation detection, and enforcement using highly accurate space occupancy detection, unique vehicle identification, guidance displays, payment acceptance, violation detection, enforcement data generation, electronic booting, and towing management is described. The system enables reduced time to find parking, congestion mitigation, accurate violation detection, and easier enforcement, and increased payment and enforcement revenues to cities.

In a recognition system for a vehicle, forward vehicle information and infrastructural information are checked together and with respect to information that can be considered to pertain to one and the same vehicle. Pieces of information on position and speed are averaged to acquire the information of the vehicle. Pieces of information that can be considered to pertain to one and the same vehicle are searched for and integrated into one. Further, estimated values of speed and position in the future are corrected using traveling information. Then identical lane probability and collision time are estimated, and information of the subject vehicle is transmitted to a vehicle on a potential collision course.

A solution for evaluating a vehicle using infrared data is provided. In particular, evaluation data for the vehicle is obtained, which includes infrared data for a plurality of sides of the vehicle as well as vehicle identification data for distinguishing the vehicle from another vehicle. The infrared data is processed to enhance a set of signal features. Additional non-infrared based data also can be obtained for evaluating the vehicle. The evaluation data is analyzed to determine whether one or more anomalies are present. The anomaly(ies) can be correlated with a possible problem with a component of the vehicle. Data on the anomaly, problem, and/or vehicle identification can be provided for use on another system, such as a remote inspection station, maintenance system, and/or the like.

The present invention is directed to an automated vehicle identification and tracking system. The system includes at least one area monitoring system that has a plurality of imaging units disposed in an area. Each imaging unit is configured to capture an image of a monitored vehicle disposed in the area. A control system is remotely coupled to the at least one area monitoring system. The control system is configured to classify and track the monitored vehicle based on anonymous vehicle feature data extracted from the captured image. The system can assimilate eyewitness input concerning a vehicle based on anonymous vehicle feature data, including time and location of the sighting of the target vehicle, wherein the system can effectively identify the current location of candidate target vehicles within the monitored area.

A multi-stage diagnostic system and related method which seeks diagnostic information from a secondary information source when a first information source does not yield sufficient data for producing a diagnostic result. In particular, diagnostic process includes a first stage of communicating with an onboard vehicle computer to retrieve diagnostic trouble codes therefrom. If no diagnostic trouble codes are retrieved from the onboard computer, the diagnostic process proceeds to a second stage wherein symptomatic diagnostic information is solicited from the user. A series of symptomatic questions may be presented to the user on a smartphone. The answers from the symptomatic questions may be used to identify a most likely solution, which may be associated with a repair part(s). The corresponding repair part(s) may be identified by an associated universal part number(s) based on vehicle identification information associated with the vehicle needing repair.

A system for identifying an unmanned aerial vehicle (UAV) detected in a location includes a reader device. The reader device includes a receiver configured to receive identification information transmitted from the UAV, and a transmitter configured to provide the received identification information to an identification server. The identification server includes a memory configured to store UAV registration information associated with the UAV, a receiver configured to receive the identification information provided by the reader device, and a processor configured to provide a verification of the identification information received by the reader based on the provided identification information and the stored UAV registration information.

Certain example embodiments of the disclosed technology may include systems and methods for telematics monitoring. An example method is provided that includes receiving, at a mobile computing device, and from a Vehicle Identification Unit (VIU), identification (ID) data representing a first vehicle. The method further includes receiving, by the mobile computing device, sensor data from one or more sensors associated with the mobile computing device. Certain embodiments may further include receiving, at an Operational Measurement Unit (OMU), an operation indication associated with the first vehicle. The OMU may include an operational measurement component configured to advance an operational count in response to receiving the operation indication. Certain example embodiments may include transmitting telematics data by the mobile computing device. In certain embodiments, the telematics data may include least a portion of one or more of the ID data, the sensor data, and/or the operational count data.

The invention discloses a video-based detection and recognition system and a method of vehicles. The system comprises a target characteristic database module, a moving target detection module and a vehicle recognition module. A vehicle sample target characteristic database is built to store data by virtue of the target characteristic database module. After a moving target zone is detected by the moving target detection module, the vehicle recognition module builds a search window and recognizes vehicles. The system and the method resolve the technical problems of poor vehicle distinguishing capability and low distinguishing accuracy of the video-based vehicle detection under the condition of obvious background movement, vehicle adhesion, vehicle occlusion and the like in the prior art. The video-based detection and recognition system and the method of the vehicles have the advantages of excellent vehicle distinguishing capability and high accuracy.

A method for assessing, pricing, and provisioning distance-based vehicle insurance is disclosed. Receiving identification information of a customer and an associated vehicle, a current odometer reading of the vehicle, and a garaging location of the vehicle is disclosed. The customer is provided with a quote including a policy rate identifying a cost per distance unit based on the customer and vehicle identification information and the garaging location. Performing a purchase transaction for an insurance policy in response to the customer selecting one of the items for purchase, wherein coverage provided by the insurance policy expires based on the earlier of an odometer expiration value occurring and a predetermined time limit is disclosed. The expiration odometer value is the sum of the current odometer reading and the total number of distance units included in the selected item. The current odometer reading is not audited prior to or during the purchase transaction.

The invention discloses a vehicle ranging method based on monocular vision, and belongs to the field of target detection and ranging. The method comprises the steps of installing a monocular camera on a vehicle, measuring the height and the pitching angle of the camera, and determining focal distance parameters of the camera; acquiring a video image in an expressway environment; performing preliminary de-noising and filtration on the video image by adopting Gaussian filtration; performing interest region segmentation preprocessing before detection of a target vehicle on the video image; performing vehicle detection in a segmented video image region, wherein an Haar feature for increasing a wheel feature and a tail feature is adopted in the target vehicle detection, so as to effectively improve the accuracy of target vehicle identification; and measuring the distance of the target vehicle, wherein a ranging method based on pin-hole imaging is adopted within a short-distance range, while a ranging method of data fitting is adopted within a long-distance range, so that the error rate is reduced, and a real-time ranging effect can be achieved. The method has the advantages of high detection speed, high accuracy, strong real-time property and low cost.

A system and method is provided for managing digital certificates, the system including one or more a certificate authorities and a vehicle-bound digital certificate manager, the apparatus comprising: a mobile client having a wireless transceiver with internet protocol capabilities and a vehicle communication device; the client further including at least one processor and at least one non-transitory computer readable medium encoded with instructions, which when loaded on the at least one computer, establishes processes for information handling, comprising: establishing secure communications with a certificate authority to receive at least one of a Vehicle Identification Digital Certificate (“VIDC”), an Anonymous Vehicle digital Certificate (“AVDC”), and a Certificate Revocation Lists (“CRLs”); storage management of at least one of the VIDC, AVDCs, and CRLs; and forwarding of at least one of the VIDC, AVDCs, and CRLs received from the certificate authority to the digital certificate manager using the vehicle communication device.

The present invention relates to a ‘smart traffic ticket device’ with means to 1) determine the identity of a vehicle; 2) determine the identity of the offending driver; 3) issue traffic tickets according to applicable traffic laws. The smart traffic ticket device comprises of; 1 ) an interrogator in the form of a radiofrequency (RF) reader; 2) communication means comprising of a wireless transceiver, modem and communication ports; and 3) a central processing unit comprising of a processor and memory chip that controls the functioning of the smart traffic ticket device. Transponders, comprising of radiofrequency (RF) tags, are mounted on vehicles; and contain vehicle identification information. Similarly, transponders, comprising of radiofrequency (RF) tags, are present on the driver's license; and contain driver identification information. The RF reader of the smart traffic ticket device has means to interrogate the RF tag on vehicles and the RF tag on the driver's license from a safe distance; both while the said vehicle is at rest and while the said vehicle is in motion. The information thus obtained is used to issue a traffic ticket bearing; 1 ) vehicle identification information; 2) driver identification information and; 3) nature of violation and; 4) the associated fine. According to another aspect of the present invention, the smart traffic ticket device is equipped with a traffic violation sensing device, such as a speed sensor, to form a ‘smart speeding ticket device’ . The smart speeding ticket device has means to 1) identify a vehicle driving over allowed speed limit; 2) determine the identity of the said speeding vehicle; 3) determine the identity of the driver of the said speeding vehicle; and 3) issue a speeding ticket to the said speeding vehicle according the applicable traffic laws.