Abstract: A riding type vehicle has a driving source, a left wheel and a right wheel, a transmission configured to receive power from the driving source to independently operate and drive the left wheel and the right wheel with regard to a rotation direction and a rotation speed, and caster wheels separately provided in a front-rear direction with respect to the left wheel and the right wheel, the riding type vehicle including two first sensors arranged on both left and right sides more to a front side than a rear end of the vehicle, the two first sensors configured to detect an obstacle target located on a rear side, the obstacle target being a target becoming an obstacle at the time of reversing or turning.

Abstract: A riding type vehicle has a driving source, a left wheel and a right wheel, a transmission configured to receive power from the driving source to independently operate and drive the left wheel and the right wheel with regard to a rotation direction and a rotation speed, and caster wheels separately provided in a front-rear direction with respect to the left wheel and the right wheel, the riding type vehicle including two first sensors arranged on both left and right sides more to a front side than a rear end of the vehicle, the two first sensors configured to detect an obstacle target located on a rear side, the obstacle target being a target becoming an obstacle at the time of reversing or turning.

Abstract: A riding type vehicle has a driving source, a left wheel and a right wheel, a transmission configured to receive power from the driving source to independently operate and drive the left wheel and the right wheel with regard to a rotation direction and a rotation speed, and caster wheels separately provided in a front-rear direction with respect to the left wheel and the right wheel, the riding type vehicle including two first sensors arranged on both left and right sides more to a front side than a rear end of the vehicle, the two first sensors configured to detect an obstacle target located on a rear side, the obstacle target being a target becoming an obstacle at the time of reversing or turning.

Abstract: A receiving device includes a receiving unit receiving a transmission signal of audio data sampled by a first clock from a transmitting device, a received data processing unit selectively executing an asynchronous mode process for executing demodulation of the audio data with respect to the transmission signal received in the receiving unit with a second clock which is asynchronous with the first clock and has the same frequency as the first clock and outputting the demodulated audio data and a re-sampling mode process for performing re-sampling with respect to the audio data obtained from the transmission signal received in the receiving unit and outputting the audio data re-sampled with the second clock, and a control unit controlling the received data processing unit to execute any one of the asynchronous mode process and the re-sampling mode process.

Abstract: A transmission device includes a transmission power setting unit that respectively sets a transmission power for transmitting a main sound signal indicating a main sound and transmission powers for transmitting one or two or more subsidiary sound signals which pertain to the main sound signal and which realize a predetermined sound effect, and a first communication unit that respectively transmits the main sound signal and the one or two or more subsidiary sound signals on time division channels using the same frequency band, based on the transmission powers set by the transmission power setting unit, wherein the transmission power setting unit sets the transmission power for the main sound signal to a first reference value, and sets the transmission powers for the subsidiary sound signals to a second reference value smaller than the first reference value.

Abstract: An audio data receiving apparatus includes a receiving unit configured to receive audio data sampled in accordance with a first clock signal; a synchronization unit configured to generate a second clock signal that is synchronized with the first clock signal by extracting clock components contained in the audio data; a demodulator configured to demodulate the audio data in accordance with the second clock signal; an oversampling unit configured to oversample the audio data demodulated by the demodulator by using a frequency higher than a frequency of the second clock signal; a clock generator configured to generate a third clock signal having a frequency nearly equal to the first clock signal; and a data output unit configured to output the audio data oversampled by the oversampling unit in accordance with the third clock signal generated by the clock generator.

Abstract: A receiving device includes a receiving unit receiving a transmission signal of audio data sampled by a first clock from a transmitting device, a received data processing unit selectively executing an asynchronous mode process for executing demodulation of the audio data with respect to the transmission signal received in the receiving unit with a second clock which is asynchronous with the first clock and has the same frequency as the first clock and outputting the demodulated audio data and a re-sampling mode process for performing re-sampling with respect to the audio data obtained from the transmission signal received in the receiving unit and outputting the audio data re-sampled with the second clock, and a control unit controlling the received data processing unit to execute any one of the asynchronous mode process and the re-sampling mode process.

Abstract: According to the invention, there is provided an audio signal receiving apparatus which receives audio signals transmitted from external connection apparatuses through a plurality of channels, including an audio signal transmitting scheme determining unit which determines a transmitting scheme of the audio signal in the external connection apparatus on the basis of channel mapping information representing types of the audio signals transmitted by the external connection apparatuses. When the audio signal to be received is changed, a process to be executed is changed depending on the transmitting scheme of the audio signal.

Abstract: There is provided an information processing apparatus according to the present invention performing a bidirectional communication with another information processing apparatus through a plurality of channels in a predetermined frequency band, and including a selecting portion for selecting an identifier from a plurality of identifiers to use for connection with the another information processing apparatus; a radio wave state monitoring portion for monitoring a radio wave state of the plurality of channels; and a channel controlling portion for setting the channel having satisfactory radio wave state as the channel to use in the bidirectional communication based on a monitoring result of the radio wave state.

Abstract: There is provided an audio signal transmitting apparatus including: a channel mapping unit which determines the audio signals allocated to each of the channels and generates channel mapping information representing types of the audio signals allocated to each of the channels; an audio signal transmitting unit which transmits the audio signals allocated to each of the channels by the channel mapping unit to the external connection apparatuses by a first transmitting scheme or a second transmitting scheme; and a connection management information providing unit which provides connection management information including the channel mapping information and transmitting scheme information representing the transmitting scheme of the audio signals to the external connection apparatuses.

Abstract: A signal reproduction device and signal reproduction method capable of automatically discriminating the format of input data and reproducing the data is provided.

Abstract: A transmission device includes a transmission power setting unit that respectively sets a transmission power for transmitting a main sound signal indicating a main sound and transmission powers for transmitting one or two or more subsidiary sound signals which pertain to the main sound signal and which realize a predetermined sound effect, and a first communication unit that respectively transmits the main sound signal and the one or two or more subsidiary sound signals on time division channels using the same frequency band, based on the transmission powers set by the transmission power setting unit, wherein the transmission power setting unit sets the transmission power for the main sound signal to a first reference value, and sets the transmission powers for the subsidiary sound signals to a second reference value smaller than the first reference value.

Abstract: An audio data receiving apparatus includes a receiving unit configured to receive audio data sampled in accordance with a first clock signal; a synchronization unit configured to generate a second clock signal that is synchronized with the first clock signal by extracting clock components contained in the audio data; a demodulator configured to demodulate the audio data in accordance with the second clock signal; an oversampling unit configured to oversample the audio data demodulated by the demodulator by using a frequency higher than a frequency of the second clock signal; a clock generator configured to generate a third clock signal having a frequency nearly equal to the first clock signal; and a data output unit configured to output the audio data oversampled by the oversampling unit in accordance with the third clock signal generated by the clock generator.

Abstract: A transmission includes a transmission case accommodating a planetary gear mechanism, a traveling speed change mechanism, a differential gear mechanism and a PTO clutch mechanism, and supporting an HST. The HST is connected to a first end wall of the transmission case positioned on one side in a vehicle longitudinal direction in a state that its HST output shaft is positioned its HST input shaft. A plurality of traveling rotational shafts forming a traveling transmission path are positioned coaxially with the HST output shaft, or on a first side of the HST output shaft in a vehicle width direction and below the HST output shaft. A plurality of PTO rotational shafts forming the PTO transmission path are positioned coaxially with or below the HST input shaft.

Abstract: There is provided an information processing apparatus according to the present invention performing a bidirectional communication with another information processing apparatus through a plurality of channels in a predetermined frequency band, and including a selecting portion for selecting an identifier from a plurality of identifiers to use for connection with the another information processing apparatus; a radio wave state monitoring portion for monitoring a radio wave state of the plurality of channels; and a channel controlling portion for setting the channel having satisfactory radio wave state as the channel to use in the bidirectional communication based on a monitoring result of the radio wave state.

Abstract: A transmission includes a transmission case accommodating a planetary gear mechanism, a traveling speed change mechanism, a differential gear mechanism and a PTO clutch mechanism, and supporting an HST. The HST is connected to a first end wall of the transmission case positioned on one side in a vehicle longitudinal direction in a state that its HST output shaft is positioned its HST input shaft. A plurality of traveling rotational shafts forming a traveling transmission path are positioned coaxially with the HST output shaft, or on a first side of the HST output shaft in a vehicle width direction and below the HST output shaft. A plurality of PTO rotational shafts forming the PTO transmission path are positioned coaxially with or below the HST input shaft.

Abstract: There is provided an audio signal transmitting apparatus including: a channel mapping unit which determines the audio signals allocated to each of the channels and generates channel mapping information representing types of the audio signals allocated to each of the channels; an audio signal transmitting unit which transmits the audio signals allocated to each of the channels by the channel mapping unit to the external connection apparatuses by a first transmitting scheme or a second transmitting scheme; and a connection management information providing unit which provides connection management information including the channel mapping information and transmitting scheme information representing the transmitting scheme of the audio signals to the external connection apparatuses.

Abstract: According to the invention, there is provided an audio signal receiving apparatus which receives audio signals transmitted from external connection apparatuses through a plurality of channels, including an audio signal transmitting scheme determining unit which determines a transmitting scheme of the audio signal in the external connection apparatus on the basis of channel mapping information representing types of the audio signals transmitted by the external connection apparatuses. When the audio signal to be received is changed, a process to be executed is changed depending on the transmitting scheme of the audio signal.

Abstract: A data output system includes an information processing apparatus, a first terminal, a second terminal, and a mounting base device that is electrically connected to one of the first terminal and the second terminal when the one of the first terminal and the second terminal is mounted on the mounting base device, the information processing apparatus includes a storage for storing time-series play data, and a wireless communication unit for communicating with the second terminal in a wireless communication, the first terminal including a storage for storing time-series play data, the second terminal including a first wireless communication unit for communicating with the information processing apparatus in a wireless communication, and the mounting base device including an output unit for outputting time-series play data.