Abstract:
Eine oder mehrere Techniken und/oder Systeme werden bereitgestellt, um Fahrer zu benachrichtigen, manuelle Fahrzeugsteuerung von Fahrzeugen zu übernehmen. Zum Beispiel werden Sensordaten von bordeigenen Fahrzeugsensoren (z.B. Radar, Sonar, und/oder Kamerabilder eines Fußgängerübergangs) eines Fahrzeugs erfasst, welches sich in einem autonomen Fahrmodus befindet. In einem Beispiel werden die Sensordaten um Fahrzustandsdaten ergänzt, die aus Fahrzeugsensordaten anderer Fahrzeuge gesammelt werden (z.B. sammelt und häuft ein Cloud-Dienst Fahrzeugsensordaten von Fahrzeugen innerhalb des Fußgängerübergangs, um die Fahrzustandsdaten für das Fahrzeug zu identifizieren und bereitzustellen). Die Sensordaten (z.B. ergänzte Sensordaten) werden ausgewertet, um einen Fahrzustand eines Straßensegments zu identifizieren, wie etwa den Fußgängerübergang (z.B. Fußgänger, die innerhalb des Fußgängerübergangs protestieren). Als Antwort darauf, dass der Fahrzustand einen Komplexitätsschwellenwert für eine Autonomes-Fahren-Entscheidungsfindungsfunktionalität überschreitet, kann eine Fahrerwarnung, um eine manuelle Fahrzeugsteuerung zu übernehmen, einem Fahrer bereitgestellt werden.
Abstract:
Among other things, one or more techniques and/or systems for parking based route navigation and/or parking resource management are disclosed to facilitate navigation to parking spots associated with a destination and/or management of respective parking spots. Navigation may be provided to a parking spot based upon parking criteria (e.g., such as distance to a destination and/or costs associated with the parking spot). Additionally, navigation (e.g., instructions, alternate transport, such as public transit) from the parking spot to the destination may be provided. Parking spots may be reserved by a parking management system based upon reservations received through a parking based route navigation system. Travelers may be re-routed based upon parking factors (e.g., traffic around a parking location, parking density, etc.). Accordingly, travelers may be routed to a destination in a more efficient manner and/or a management system may price and/or allocate parking spots in a desired manner.
Abstract:
Un método para proporcionar un aviso de repostaje de combustible utilizando un sistema que comprende al menos una unidad de procesamiento, comprendiendo el método: identificar (104) una ruta de desplazamiento para alcanzar un destino a partir de una posición actual de un vehículo (204); determinar (106) si el vehículo (204) puede llegar al destino siguiendo la ruta de desplazamiento sin repostaje, estando dicha determinación basada, al menos en parte, sobre un nivel actual de combustible y una tasa de consumo prevista para la ruta de desplazamiento; determinar la tasa de consumo sobre la base al menos en parte, de una forma de conducir prevista de un usuario que opera el vehículo (204); predecir la forma de conducir prevista del usuario sobre la base, al menos en parte, de una forma de conducir de uno o más otros usuarios que se desplazan al menos a través de una parte de la ruta de desplazamiento, en donde la información sobre la forma de conducir de los uno o más otros usuarios se adquiere a partir de un servicio exterior al vehículo (204), en donde el servicio está configurado para supervisar dicha información; y proporcionar (108) un aviso de repostaje de combustible (310) cuando se determina que el vehículo (204) no puede llegar a su destino sin repostar.
Abstract:
One or more techniques and/or systems are provided for generating a trip library. Locational information, obtained from a device of a user (e.g., a mobile device, a wearable device, etc.), may be evaluated to identify trips traveled by the user and terminals traveled to by the user above a visitation frequency threshold (e.g., work, a favorite coffee shop, school, etc.). The trips and terminals may be evaluated to determined preferred trips that the user travels above a travel frequency threshold (e.g., routes that the user prefers to travel when going to a terminal, such as routine routes to a grocery store, work, etc.). A trip library, comprising the terminals, the preferred trips, and conditional likelihoods that he user will travel to a terminal given one or more conditions, may be created and used to preemptively provide the user with suggestions (e.g., notice of an event, coupon, alternative route, accident, etc.).
Abstract:
One or more techniques and/or systems are provided for selectively collecting vehicle telemetry data from one or more vehicles. For example, a communication data budget for a vehicle may be identified (e.g., a 5 GB per month data connection plan). A determination may be made as to whether the vehicle can provide vehicle telemetry data used to model a travel condition (e.g., road imagery, temperature, a windshield wiper state, and/or other vehicle telemetry data used to model a road safety condition). If the vehicle has remaining communication data budget available for transmission of the vehicle telemetry data without the vehicle exceeding the communication data budget for a billing cycle, then a data request for the vehicle telemetry data may be sent to the vehicle. Responsive to receiving the vehicle telemetry data from the vehicle, the travel condition may be modeled (e.g., the road condition may be determined as icy).
Abstract:
In many vehicular control contexts, a vehicle may monitor the vehicle input control from a driver to detect warning conditions that entail a warning to the user and/or an automatic mitigating action (e.g., detecting hard braking that causes brake lockup, and automatically activating anti-lock braking). Warning and mitigation techniques may address the instant driving conditions, but may not the user driving behavior that caused the condition (e.g., a driving style of the user that resulted in hard braking, such as excessive speed for current driving conditions). Presented herein are techniques for monitoring the user driving behavior of the user in various driving contexts, and presenting driving suggestions of alternative driving behaviors providing advantages over the current user driving behavior of the user. The presentation of the alternative driving behaviors to the user may facilitate changes in user driving behavior that improve the safety, efficiency, and/or comfort of the driving experience.
Abstract:
One or more techniques and/or systems are provided for providing search results for presentation as a function of the availability of respective providers comprised in the search results. For example, a user may perform a search for local groceries stores and stores within a 5 miles geographic radius of the user may be identified and filtered/distinguished as a function of the availability of respective stores. Such availability may be a function of whether respective stores are open or closed at the time of the search, whether respective stores are expected to be open or closed at an estimated time of arrival (e.g., based upon travel time from the user's location at the time of the search to respective stores), and/or parking considerations (e.g., parking availability, type of parking, and/or parking cost) at respective stores.
Abstract:
Vehicles operation is often regulated by vehicle operation policies, such as operator and vehicle licensing, safe operation rules, and emissions testing, as well as advisory policies (e.g., safety tips) and infrastructure policies (e.g., traffic congestion reduction). However, enforcement of vehicle operation policies may be infrequent, costly, inaccurate, and/or ineffective for particular types of problems. Presented herein are techniques for enforcing vehicle operation policies using vehicle telemetries detected by a vehicle telemetry sensor and reported to telemetric monitoring components during operation of the vehicles. For example, in-car emissions sensors may regularly report emissions data to roadside monitors, enabling continuous monitoring, early detection of emissions problems, and accurate measurements during road travel. Additional telemetric exchange may promote the persuasion of advisory vehicle operation policies, such as safety tips, and the transmission of travel information of interest to other vehicles and individuals, such as road hazards, traffic congestion, and available parking spots.
Abstract:
One or more techniques and/or systems are provided for providing driver alerts. For example, a client device module (e.g., a smartphone, a vehicle navigation unit, etc.) may collect driving behavior information (e.g., braking patterns, vehicle speed, weather conditions, acceleration/deceleration patterns, etc.) and/or user specified information (e.g., a number of passengers) of a driver driving a vehicle. The client device module may provide the driving behavior information and/or the user specified information to a driver alert provider. The driver alert provider may maintain a driver profile for the driver based upon the driving behavior information and/or the user specified information. The driver alert provider may generate a driver alert (e.g., a driver risk score of the driver) based upon the driver profile, and may provide the driver alert to other drivers that are within a threshold distance of the vehicle.