A method includes receiving at a media broadcast system, via a first packet-switched network interface, a station identifier transmitted from a hybrid media device using a second packet-switched network interface included in the hybrid media device. The station identifier corresponds to an over-the-air media station received by an over-the-air tuner included in the hybrid media device. An address of a streaming media station corresponding to the station identifier is transmitted from the media broadcast system to the hybrid media device. A request to receive the streaming media station is transmitted from the hybrid media device and received at the media broadcast system, which transmits the streaming media station to the hybrid media device, in response to the request.

A preprocessing system includes a first port, where one end of the first port is coupled to a first switch, and the other end of the first port is suspended, where the first switch has a connecting end configured to couple to a first interface and is configured to connect a filter and the first interface, a second port configured to receive a first signal or a second signal, where the filter is configured to filter the first signal to obtain a first positioning signal and a second positioning signal, provide the first positioning signal for the first switch, and provide the second positioning signal for a second interface of a global navigation satellite system (GNSS) chip to adapt to a plurality of antenna configuration types and to achieve universality.

Various data transmission detection systems are described. A receiver input through which a wireless data transmission signal is received may be present. A plurality of mixers in communication with the receiver input may be present, which may be digitally implemented. A data transmission detector may be present that receives a mixed wireless data transmission signal from each mixer and creates a plurality of scores. A match detection module may be present that receives the scores and identifies a highest score. The signal mapped to the highest score to be selected for further processing.

A rear glass according to the present invention is a rear glass that is attachable to a resin lift-up back door in a rear of a vehicle, the rear glass including a glass plate, a defogger that is arranged in the vicinity of a center of the glass plate in an up-down direction, and an AM antenna that is arranged upward of the defogger on the glass plate, in which the AM antenna includes a power supply part and an antenna element that extends from the power supply part.

A vehicle and a controlling method of the same include a speaker outputting virtual engine sound integrated with a head lamp. The vehicle includes the head lamp; a head lamp case in which the head lamp is provided; and a speaker for outputting a virtual engine sound, and provided inside the head lamp case, where an internal cross-sectional area of the head lamp case may increase in a direction toward a front of the vehicle based on a position where the speaker is provided.

A vehicle has a driver's position, a passenger position and a center console which is arranged between the driver's position and the passenger position. The center console includes an antenna which is designed to establish a wireless, radio-based near-field communication link.

A hybrid media device includes an over-the-air radio tuner, processing circuitry that includes an extraction module and an association module, and a network interface. the media device is tuned to an initial station, which provides providing a broadcast having embedded information. The embedded information is extracted, and used to identify a streaming media station corresponding to the broadcast station. The hybrid media device receives and stores the network address of the corresponding streaming media station, so the next time the device is instructed to tune to the initial broadcast station, the device instead connects to the streaming station at the stored address.

An antenna assembly comprising a base, a modem, a top lid and a housing is disclosed herein. The base is composed of an aluminum material. The modem is disposed on the base. The top lid is for the base, and the top lid comprises at least one antenna element disposed on an exterior surface. The housing covers the top lid and base. The top lid acts as an electro-magnetic barrier for the modem. A communication cable is connected to the modem at one end and extending to and connected to a vehicle internal router with a vehicle modem at the other end.

An auxiliary Battery Eliminator Circuit (BEC) and method are provided. The auxiliary BEC may include a receiver plug-in port with a low voltage power and ground connection and a receiver communication connection and an electronic speed control plug-in port comprising a low voltage power and ground connection and an electronic speed control communication connection. In addition the auxiliary BEC may include a battery pre-wire connection for electrically coupling to a high voltage positive terminal of a high voltage battery. Wherein the auxiliary BEC passes through communication signals between a receiver and the electronic speed control via the receiver communication connection and the electronic speed control communication connection. Wherein the auxiliary BEC provides converted high voltage power from the high voltage battery for the receiver and herein the auxiliary BEC powers on and off corresponding to input from the low voltage power and ground connection of the electronic speed control.

A system may include a receiver, an input digitized data buffer, and a processor. The input digitized data buffer may be configured to accumulate samples of a time domain signal, s(t), from the receiver. The processor may be configured to: remove a confirmed peak from a frequency domain signal, S(f), to produce a corrected frequency domain signal, S′(f); perform an inverse fast Fourier transform to transform the corrected frequency domain signal, S′(f), to a corrected time domain signal, s′(t); perform an inverse window operation on the corrected time domain signal, s′(t), to recover original signal magnitudes; and output digitized data of the corrected time domain signal, s′(t), for signal processing.