An electronic wind instrument is provided with a processor (CPU 5) and plural touch sensors (a detecting unit 12s and detecting units 13s) disposed along a first direction. A first output variable da/dt is obtained, representing a variation per unit time of an output value from a first sensor (detecting unit 12s) in the plural touch sensors disposed on the side close to first end (tip side) in the first direction. A second output variable dS/dt is obtained, representing a variation per unit time of a sum of output values from second sensors (detecting units 13s) disposed between a second end (heel side) and the first sensor in the first direction. The processor judges based on the first output variable da/dt and the second output variable dS/dt whether a tonging process should be performed.

An electronic wind instrument is provided, which is capable of representing a wide range of performances using a tonguing operation. The electronic wind instrument has at least one sensor, a sound source for generating a tone, and a controller. The controller controls a tonguing performance detecting process for detecting a tonguing performance played by the player based on the output value from the one sensor, and a tone muting process for muting the tone output from the speaker in accordance with the lip position of the player determined in the lip position determining process, while the tonguing performance is being detected in the tonguing performance detecting process.

An electronic wind instrument is provided, which is capable of representing a wide range of performances using a tonguing operation. The electronic wind instrument has at least one sensor, a sound source for generating a tone, and a controller. The controller controls a tonguing performance detecting process for detecting a tonguing performance played by the player based on the output value from the one sensor, and a tone muting process for muting the tone output from the speaker in accordance with the lip position of the player determined in the lip position determining process, while the tonguing performance is being detected in the tonguing performance detecting process.

A dynamic audio signal processing system for dynamically and continuously applying effects to an audio signal in real-time based on detected audio signal attributes. The dynamic audio signal processing system generally includes a signal processor including an input for receiving an audio signal, such as from an instrument. The signal processor may include an input analyzer adapted to detect one or more attributes of the audio signal continuously and in real-time. The signal processor may also include one or more signal conditioners in parallel with the input analyzer; each of the signal conditioners being adapted to dynamically apply one or more effects to the audio signal based on the one or more attributes detected by the input analyzer. The signal processor may include a selector for selecting which, if any, of the signal conditioners to apply effects to the audio signal based on detected attributes.

Dynamic user-defined stave filters enable users of scorewriter software applications to generate de-condensed musical parts from condensed scores. When a stave filter is applied to some or all of a stave displaying multiple types of musical element, one or more of the musical element types are hidden from view. Stave filters remove from display note and/or non-note element types. Filtered staves are linked to corresponding unfiltered staves such that compositional changes in a condensed score are reflected in the linked de-condensed staves. Uses include generation of individual parts from a score or generation of different orchestrations or arrangements. Filtered staves are drawn in an intelligent fashion to ensure that musical data are displayed in a musically valid form that conforms to stylistic conventions.

An electronic musical instrument includes a plurality of keys respectively specifying different pitches when operated; a memory; and a sound processor. In response to a current operation of a current key, which is one of the plurality of keys, the sound processor retrieves the information stored in the memory for a previous operation, if any, of a previous key, which is a same as the current key or is another one of the plurality of keys, and performs a prescribed processing on a beginning part of the waveform data generated for the current operation of the current key in accordance with the retrieved information stored in the memory for the previous operation of the previous key so as to generate processed waveform data in response to the current operation of the current key. The resulting processed waveform data can be configured to better mimic artists' performance of an original instrument.

An electronic musical instrument includes a performance operator and at least one processor. In accordance with pitch data associated with the performance operator operated by a user, the at least one processor digitally synthesizes and outputs inferential musical sound data including inferential performance technique of a player. The inferential performance technique of the player is based on acoustic feature data output by a trained acoustic model obtained by performing machine learning on: a training score data set including training pitch data; and a training performance data set obtained by the player playing a musical instrument and is not played in the user operation of the performance operator.