Various embodiments generally relate to systems and methods for creation of voice memos while an electronic device is in a driving mode. In some embodiments, a triggering event can be used to indicate that the electronic device is within a car or about to be within a car and that text communications should be translated (e.g., via an application or a conversion platform) into a voice memo that can be played via a speaker. These triggering events can include a manual selection or an automatic selection based on a set of transition criteria (e.g., electronic device moving above a certain speed, following a roadway, approaching a location in a map of a marked car, etc.).

Various embodiments generally relate to systems and methods for creation of voice memos while an electronic device is in a driving mode. In some embodiments, a triggering event can be used to indicate that the electronic device is within a car or about to be within a car and that text communications should be translated (e.g., via an application or a conversion platform) into a voice memo that can be played via a speaker. These triggering events can include a manual selection or an automatic selection based on a set of transition criteria (e.g., electronic device moving above a certain speed, following a roadway, approaching a location in a map of a marked car, etc.).

An assembly for mounting a mobile terminal in or on a vehicle, having a mounting console which has a receiving portion for the mobile terminal. The receiving portion has a support surface for the mobile terminal starting from a vertical and being arranged in an inclined manner relative to same, and a base which delimits the bottom of the receiving portion and supports the bottom of the mobile terminal. The mounting console is arranged in a compulsory manner in or on the vehicle and its support surface is inclined towards a vehicle driver of the vehicle in such a way that when the mobile terminal is arranged as intended in the mounting console such that an operating and/or display surface of the mounted mobile terminal faces away from the vehicle driver, the operating and/or display surface is not visible to the vehicle driver.

A communication device includes one or more processors and one or more memories supporting communication, the device comprising a plurality of modes, including at least one focused mode. When the device is in the focused mode, one or more features of the device are at least partially disabled, and wherein the one or more features of the device that are at least partially disabled in the focused mode include one or more features relating to communication supported by the device. The device supports a user interface for setting the device into a focused mode. The interface may have a “focus” button. A focused mode is implemented, at least in part, by an operating system of the device. Setting the device in focus mode causes at least one other device associated with the user to be set to focus mode.

A hands-free device is disclosed, in which a memory and a hardware processor connected to the memory are included. The hardware processor establishes a connection with a mobile phone using a hands-free communication protocol for making a hands-free call. The hardware processor establishes a connection with the mobile phone using a data transfer protocol for transferring phone data about a phone to receive the phone data transferred from the mobile phone, and stores the phone data into the memory. When a phone communication state of the mobile phone is transitioned while the phone data is being transferred, the hardware processor executes transfer control in accordance with transfer criteria, each depending on a type of the phone data being transferred and the phone communication state after the transition.

A crash detection system for a vehicle comprises first and second batteries and a computational system comprising a processor and a non-transitory computer-readable medium. First and second antennas are both in electronic communication with the computational system and powered by one of the batteries, with the antennas configured to independently wirelessly communicate with an external network. A microphone powered by one of the batteries and in electronic communication with the computational system. The microphone continuously receives sound waves in real time and transmits sound signals to the processor. The processor monitors properties of the sound waves within the sound signals, compares the properties to thresholds stored in the non-transitory computer-readable medium, determines if the vehicle has been involved in a collision if at least one of the properties crosses the respective threshold, and communicates with the external network to report the collision with one of the antennas.

Proposed is a vehicle hands-free incoming call notification system that is connected to a driver's phone through short-range wireless communication and supports a hands-free function. The system includes a caller information reception unit configured to receive caller information through the short-range wireless communication from a driver's phone to which an incoming call is connected according to a call origination of a caller terminal, and a notification unit for a driver configured to output the received caller information to at least some displays among a plurality of vehicle displays, to output an incoming call tone to a speaker, but when an incoming call-incognito mode is set, to output the caller information only to at least one exclusive display for a driver so that only the driver is able to check.

An example system according to an example of the present disclosure includes a wireless headset having a speaker and a microphone. Control circuitry is disposed in a vehicle and is in communication with a plurality of vehicle systems. The control circuitry is configured to provide alerts through the speaker based on information from the plurality of vehicle systems indicating occurrence of trigger events, and to determine when to provide each alert based on a priority level of the alert within a multi-level hierarchy of priority levels.

This disclosure provides function conflict processing methods and apparatuses. In an implementation, a method includes: receiving, from a first device and by a second device, projection data and first status information of a first function of the first device, wherein the first status information indicates a working status of the first function of the first device, and in response to determining that: (1) the first status information indicates that the first function of the first device is in a working state and (2) a first function of the second device is in a working state, processing, by the second device, a conflict of the first function.

A wireless connection device comprises: a display unit; a pairing unit for pairing a plurality of communication terminals; a display control unit for displaying a query screen for querying whether or not to connect a first communication terminal with priority over another communication terminal when pairing has been established for the first communication terminal; a receiving unit for receiving an instruction for connecting the first communication terminal with priority over another communication terminal; a priority information control unit for storing a priority setting indicating the first communication terminal is to be connected with priority over another communication terminal; a detecting unit for detecting the presence of a plurality of communication terminals; and a connection control unit for connecting the first communication terminal when the detecting unit has detected the presence of the first communication terminal and the priority setting is stored in the storing unit.