An electronic musical instrument according to one aspect of the invention is configured to generate, in response to an excitation signal corresponding to a specified pitch, a first string signal to be output from one of right and left channels based on a first accumulated signal in which outputs of at least a first closed-loop circuit and a second closed-loop circuit among the first closed-loop circuit, the second closed-loop circuit and a third closed-loop circuit, which are provided to correspond to the specified pitch, are accumulated, and generate a second string signal to be output from the other channel based on a second accumulated signal in which outputs of the second closed-loop circuit and the third closed-loop circuit are accumulated.

Disclosed are methods, systems, and non-transitory computer-readable storage media for reproducing music to mimic a live performance. The present technology includes means for receiving input corresponding to a plurality of component audio files associated with an original audio file; determining audio profiles of the plurality of component audio files and frequency profiles of a plurality of audio generators; determining a routing scheme for the plurality of component audio files and the plurality of audio generators, wherein the routing scheme is based on the audio profiles and the frequency profiles; and generating an output based on the routing scheme.

Systems and methods selectively mix a first and second song together during a live performance. The first song has a plurality of first stems, each having stereo audio that combine to form the audio of the first song. The second song has a plurality of second stems, each having stereo audio that combine to form the audio of the second song. A computer, with memory and a processor, executes machine readable instructions of a multiple channel audio mixing application with stored within the memory. The multiple channel audio mixing application plays and mixes audio of at least one of the first stems with audio of at least one of the second stems. The multiple channel audio mixing application is controlled in real-time during the performance to select the at least one first stem and the at least one second stem for the mixing.

A content control device includes: a plurality of controls to which a plurality of parameters for controlling properties of a content containing at least one of sound and video are respectively assigned, each of the plurality of controls outputting a first indicated value in accordance with an operation amount of the control; and a processor configured to previously create setting information used to determine respective values of the plurality of parameters in accordance with the second indicated value; determine the values of the plurality of parameters corresponding to the second indicated value respectively in accordance with the second indicated value and the setting information; and revise each of the values of the parameters to be determined in accordance with the first indicated value outputted for the control assigned to the parameter.

An apparatus for combining input signals produced by a plurality of electric musical devices includes a plurality of audio buses and a plurality of segments. Each segment includes input circuitry configured to receive at least one input signal from at least one electric musical device and to deliver the at least one input signal to one of the plurality of audio buses; a plurality of variable adjustment devices each associated with a corresponding one of the audio buses and each configured to change at least one property of an input signal received by another of the plurality of segments and carried on the corresponding one of the audio buses independent from input signals carried on other of the plurality of audio buses; and a mixer configured to combine the input signals carried on each of the plurality of audio buses into an output signal.

A sound signal generation method includes receiving a pitch and an intensity, and generating a sound signal corresponding to the pitch such that a size of a sound image of the sound signal is adjusted in accordance with the intensity.

Reverberation techniques for 3D audio are disclosed. In an example method, a three-dimensional (3D) reverberation is applied to a sound object placed at a sound object position in a sound room. The sound object originates from a sound object position. A sound object signal is received. A 3D spatial room response (SRR) signal is computed corresponding to the user-selected position. A time convolution operation is performed between an audio signal of the sound object signal and the computed SRR value to generate a reverberated signal.

Provided is an electronic keyboard instrument and sound releasing method thereof. The electronic keyboard instrument includes: a plurality of keys, a housing that supports the plurality of keys, and one or more speakers arranged in the housing. At least one of the speakers is configured as a flat-plate speaker that includes a vibrating membrane on which a pattern of a conducting wire is formed and a pair of magnet plates disposed facing both surfaces of the vibrating membrane, and the flat-plate speaker vibrates the vibrating membrane with an electromagnetic force accompanying energization of the conducting wire.

There are disclosed automatic mixers and methods for creating a surround audio mix. A set of rules may be stored in a rule base. A rule engine may select a subset of the set of rules based, at least in part, on metadata associated with a plurality of stems. A mixing matrix may mix the plurality of stems in accordance with the selected subset of rules to provide three or more output channels.

For preceding and succeeding musical pieces, an extraction unit extracts audio signal of each of a centrally localized region and a non-centrally localized region, from L and R channel signals. A reproduction control unit makes the length of a first interval from start of fade-out to end of fade-in processing for the centrally localized region shorter than that of a second interval from start of fade-out to end of fade-in processing for the non-centrally localized region, and the reproduction control unit sets the first within the second interval. The reproduction control unit causes the fade-out processing for the non-centrally localized region to end after fade-in for the non-centrally localized region started, and performs cross-fade. The reproduction control unit causes fade-out processing pertaining to the centrally localized region to end after the fade-in processing pertaining to the centrally localized region has started, and causes cross-fader reproduction to be carried out.