Systems, methods and computer readable storage media provide a flexible and variability-accommodating instrument cluster for display on an in-vehicle screen and a user experience interaction model for providing vehicle status-related information via the instrument cluster. The instrument cluster may be shown in a minimized content view, basic content view, or enhanced content view, wherein each content view may include a varying range of displayed information based on a layout template. The driver can easily scroll between the various content views while driving. The instrument cluster may alternatively be shown in a favorites view, amongst a plurality of preconfigured favorites views associated with different drivers, the favorites view including a user-selected set of gauges in a user-selected layout. A steering wheel-based shortcut control is provided that can be assigned to a changeable parameter and used to toggle the parameter in association with an instrument cluster display element while driving.

The invention relates to a round instrument for a vehicle (1), comprising a vehicle interface (3) for transmitting signals (4) between the vehicle (1) and the round instrument (2), comprising an electrical controller (5) for processing at least one signal (4) transmitted from the vehicle (1) to the round instrument (2) via the vehicle interface (3) and for generating at least one piece of vehicle information (6) from the signal (4), comprising a communication interface (7) for communication between the round instrument (2) and a mobile device (8), in particular a smartphone, and comprising a front digital display (9) for displaying the at least one piece of vehicle information (6) and/or a piece of mobile information (10) received from the mobile device (8) via the communication interface (7).

A pointer is rotational relative to a screen. A driver unit is equipped with the pointer and configured to rotate the pointer. A controller sends an output signal to the driver unit to rotate the pointer at a rotational position in a rotational range. The controller is configured to modify the rotational range. The controller is configured to modify the graphic according to the rotational range, which is modified.

A meter device includes an instrument panel, a coaxial motor, a central light source, a peripheral light source, and units. The coaxial motor includes rotation shafts which rotate around a single axis perpendicular to the instrument panel. The central light source is disposed near the rotation shafts. The peripheral light source is disposed more distantly from the rotation shafts than the central light source. The units rotate together with the rotation shafts, respectively. The units includes indicator parts, respectively. Each of the indicator parts guides light to emit the light, thereby indicating a surface of the instrument panel. The units include a first unit and a second unit. The first unit includes a light path which guides light from the central light source to the indicator part. The second unit includes a light path which guides light from the peripheral light source to the indicator part, and a non-light guide part that prevents the light of the central light source from being guided to the indicator part.

A display screen arrangement is for use in a motor vehicle and includes an electronic display screen. A pair of optical elements are slidably mounted over the display screen and are movable in opposite lateral directions. An actuator is coupled to the optical elements and moves the optical elements in the opposite lateral directions. A processor is communicatively coupled to the actuator and causes the actuator to move the optical elements to positions dependent upon an image being presented on the display screen.

A dial plate being nonopaque is in a disc shape. A slit member has slits each extending through the slit member in a thickness direction. A light source is located on an opposite side of the slit member from the dial plate. The light source is configured to emit light through the slits of the slit member toward the dial plate to project images on the dial plate.

Methods and vehicle interfaces are provided. One example method includes receiving, by a cloud processing service, data from a vehicle over a wireless network. The data includes information usable to identify a user account. The user account is accessible by one or more processing entities of the cloud processing service to identify a profile of a user. The profile of the user includes preferences of the user for the vehicle and learned behavior data of the user for the vehicle. Confirming, by one or more of said process entities, an identity of the user. Identifying, by one or more of said process entities, the preferences of the user responsive to confirming said identity of the user. Sending, by one or more of said process entities, the preferences of the user for the vehicle to electronics of the vehicle. The preferences including an assignment of control functions and associated display interface data to be rendered on display screen of a plurality of dials of a control interface of the vehicle. Each one of the plurality of dials is configured to render different display interface data based on the assignment of types of control functions selected for each of the plurality of dials. The preferences of the user are saved to memory of the vehicle for use with the user profile and saved to storage of the cloud processing service.

Systems, methods and computer readable storage media provide a flexible and variability-accommodating instrument cluster for display on an in-vehicle screen and a user experience interaction model for providing dynamic driving-context-relevant information via the instrument cluster. The instrument cluster may be shown in a contextual content view, wherein the contextual content view may include a one or more gauges and/or messaging that are determined to be relevant to a determined contextual state of the vehicle. The contextual state of the vehicle may be determined based on signaling data provided by a plurality of data sources, wherein the signaling data may indicate one or a combination of conditions associated with the contextual state. The instrument cluster may be dynamically updated to display the driving-context-relevant information when the contextual state is detected.

A step motor that drives a rotary body to rotate includes: an output shaft that outputs a rotational driving force to the rotary body, the output shaft having an insertion hole in which the rotary body is arranged so as to be integrally rotatable on an inner circumference side of a top portion of a tip end of the output shaft; a radial bearing radially supporting the output shaft from an outer circumference side; and a cover protruding from the radial bearing radially inward. The cover opposing the top portion through an axial gap at an outer circumference side of the insertion hole. The output shaft has an inner tapered portion which decreases in diameter as approaching the insertion hole radially inward from the top portion. The cover opposes the top portion through the axial gap at an outer circumference side of the inner tapered portion.

The present disclosure generally relates to variable appearances of user interfaces. In some examples, user interfaces are user-customizable. In some examples, user interfaces provide indications of exceed limits. In some examples, a layout/appearance elements of the user interface dynamically change to adapt to changing parameters.