Abstract:
A vehicle interface input receiving method comprises operating a controller to selectively enter or refrain from entering a user input device controlling mode. While in the user input device controlling mode, the method determines a presence of first and second contact conditions at first and second predetermined locations, respectively, with the first contact condition being on a vehicle steering wheel, and controls a user input device to change from a deactivated state to an activated state in response to the simultaneous existence of the first and second contact conditions. Also, an indicator provides an indication of the activated state, and the user input device is maintained in the activated state while the first contact condition continues to exist. The user input device provides input to the controller in the activated state and refrains from providing such input in the deactivated state, and afterward returns to the deactivated state.
Abstract:
A vehicle compartment assembly includes a housing with a first site wall, a second side wall, a first end wall, a second end wall and a bottom wall. The first and second side walls, the first and second end walls and the bottom wall define a storage cavity within the housing. The first side wall includes a first projection extending into the storage cavity. The second side wall includes a second projection extending into the storage cavity toward the first projection. The first projection, the second projection and the first end wall define a device slot within the storage cavity. The device slot is dimensioned such that with a conventional media device disposed within the device slot an upper section of the conventional media device extends above the upper end of the housing and is exposed above the upper end.
Abstract:
A method and apparatus for autonomous vehicle routing and navigation using passenger docking locations are disclosed. Autonomous vehicle routing and navigation using passenger docking locations may include an autonomous vehicle identifying map information representing a vehicle transportation network, the vehicle transportation network including a primary destination and a docking location, wherein identifying the map information includes identifying the map information such that the map information includes docking location information representing the docking location. The autonomous vehicle may identify the docking location as a target docking location for the primary destination based on the map information, generate, based on the map information, route information representing a route for the autonomous vehicle to traverse the vehicle transportation network from an origin in the vehicle transportation network to the target docking location, and traverse the vehicle transportation network from the origin to the target docking location in accordance with the route information.
Abstract:
Electrocatalysts having non-corrosive, non-carbon support particles are provided as well as the method of making the electrocatalysts and the non-corrosive, non-carbon support particles. Embodiments of the non-corrosive, non-carbon support particle consists essentially of titanium dioxide and ruthenium dioxide. The electrocatalyst can be used in fuel cells, for example.
Abstract:
A computer-implemented system includes one or more mobile computers, at least one server, and digital data storage accessible by the server. The storage includes records describing automobiles in an inventory, such as vehicle identification numbers (VINs) referenced to automobile site availability and specific features from a set of available automotive features. One or more mobile computers present a consultant with an interactive automobile specific pre-delivery checklist, and also provide a customer with a guided, interactive multimedia presentation of automotive features of interest to that customer, omitting any automotive features that are absent from the delivery automobile.
Abstract:
Electric vehicle range prediction may include identifying vehicle transportation network information representing a vehicle transportation network, identifying expected departure temporal information, identifying a route from a first location to a second location in the vehicle transportation network using the vehicle transportation network information, identifying a predicted ambient temperature based on the first location and the expected departure temporal information, identifying vehicle state information for an electric vehicle, identifying an expected efficiency value for the electric vehicle based on the predicted ambient temperature, determining an expected operational range, such that, on a condition that the electric vehicle traverses the vehicle transportation network from the first location to the second location in accordance with the expected departure temporal information and the route, the expected operational range indicates an estimated operational range from the second location, and outputting the expected operational range for presentation at a portable electronic computing and communication device.
Abstract:
A vehicle orientation indicator comprises a sensor and a controller. The sensor is configured to sense a force magnitude imposed on a vehicle during movement of the vehicle. The force magnitude includes an acceleration force component generated by the movement of the vehicle and a gravitational force component. The controller is configured to determine a value of the acceleration force component based on an acceleration of the vehicle with respect to a fixed plane, calculate a modified force magnitude by removing the value of the acceleration force component from the force magnitude, determine an orientation of the vehicle with respect to the fixed plane based on the modified force magnitude and control an indicator device to provide a representation of the orientation of the vehicle.
Abstract:
Methods for the rapid synthesis of catalyst are provided, as well as catalyst formed from such methods. One method of the rapid synthesis of catalyst comprises forming a homogenous solution comprising a precious metal precursor and a catalyst substrate, reducing the precious metal precursor to precious metal nanoparticles, and depositing the precious metal nanoparticles onto the catalyst substrate to form catalyst particles. The reducing and depositing steps comprise controlling a rate of increase in temperature of the solution with microwave irradiation until the solution is a predetermined temperature and maintaining the solution at the predetermined temperature with microwave irradiation. The method further comprises detecting completion of the reduction and deposition and ceasing microwave irradiation upon detection.
Abstract:
A vehicle storage structure has a box structure with a cargo compartment, a lid and a locking mechanism. The lid is movable between a lowered orientation covering the cargo compartment and a raised orientation exposing the cargo compartment. The lid has a first section and a second section connected to one another via a hinge. The second section is pivotally movable such that with the first section in the lowered orientation, the second section pivots between a retracted position overlaying the first section and an extended position defining a flat cargo receiving surface. The locking mechanism is fixedly attached to the first section of the lid and is configured to releasably lock the lid in the lowered orientation.
Abstract:
An automatic transmission control arrangement includes an automatic transmission coupled to a propulsion device. A selector device is operably connected to the automatic transmission for selecting a mode of operation of the automatic transmission including at least a forward drive setting. A temperature sensor arrangement measures a control temperature of at least one of a cooling system of the propulsion device and the automatic transmission. A motion sensor arrangement detects a motion status of the vehicle. The controller temporarily operates the automatic transmission in a decoupled mode in which the automatic transmission is at least partially decoupled from the propulsion device with the selector device in the forward drive setting in order to reduce heat generation in response to the temperature sensor arrangement detecting the control temperature is greater than a predetermined temperature and the motion sensor indicating that the vehicle is not in motion.