Abstract:
Embodiments of the present disclosure can provide systems, methods, and computer-readable medium for implementing user interfaces for interacting with a virtual instrument. For example, first touch input indicating a string location of a plurality of string locations within the note selection area. Audio output corresponding to the sting location may be presented on a speaker based at least in part on the first touch input. Second touch input corresponding to an ornamental interface element of the user interface may be received. In response to the first and second touch input, a series of two or more audio outputs may be presented on the speaker according to a predetermined pattern.
Abstract:
A virtual instrument can manage separate static and dynamic samples for various notes that can be played by the virtual instrument. In some cases, the static samples correspond to resonance sounds recorded for an instrument and are the same for every note. However, the dynamic samples may correspond to isolated sounds that are recorded for each variation of a note that can be played. In response to a user's selection of a note on a user interface of the virtual instrument, the virtual instrument may determine a rule for layering the various static and dynamic samples for playback.
Abstract:
Embodiments of the present disclosure can provide systems, methods, and computer-readable medium for implementing user interfaces for interacting with a virtual instrument. For example, first touch input indicating a string location of a plurality of string locations within the note selection area. Audio output corresponding to the sting location may be presented on a speaker based at least in part on the first touch input. Second touch input corresponding to an ornamental interface element of the user interface may be received. In response to the first and second touch input, a series of two or more audio outputs may be presented on the speaker according to a predetermined pattern.
Abstract:
A virtual instrument can manage separate static and dynamic samples for various notes that can be played by the virtual instrument. In some cases, the static samples correspond to resonance sounds recorded for an instrument and are the same for every note. However, the dynamic samples may correspond to isolated sounds that are recorded for each variation of a note that can be played. In response to a user's selection of a note on a user interface of the virtual instrument, the virtual instrument may determine a rule for layering the various static and dynamic samples for playback.
Abstract:
Each parameter is provided with increase/decrease switches and a slider. In a case where a user desires seamless rough control of the value of a target parameter, the user is to use the slider. In a case where the user desires easy control of the value of the parameter with the smallest unit of the resolution, the user is to use the increase/decrease switches. Since the slider specifies a parameter value in accordance with the position of the manipulated slider, the range within which the parameter value can change is determined on the basis of the current parameter value and the maximum value and the minimum value of the parameter. Because the increase/decrease switch increases/decreases a parameter value by “1” at each manipulation, the range within which the parameter value can change by a single manipulation of the increase/decrease switch is “±1”.
Abstract:
Multiple kernel-mode audio processing modules or filters are combined to form a module or filter graph. The graph is implemented in kernel-mode, reducing latency and jitter when handling audio data (e.g., MIDI data) by avoiding transfers of the audio data to user-mode applications for processing. A variety of different audio processing modules can be used to provide various pieces of functionality when processing audio data.
Abstract:
Multiple kernel-mode audio processing modules or filters are combined to form a module or filter graph. The graph is implemented in kernel-mode, reducing latency and jitter when handling audio data (e.g., MIDI data) by avoiding transfers of the audio data to user-mode applications for processing. A variety of different audio processing modules can be used to provide various pieces of functionality when processing audio data.
Abstract:
Multiple kernel-mode audio processing modules or filters are combined to form a module or filter graph. The graph is implemented in kernel-mode, reducing latency and jitter when handling audio data (e.g., MIDI data) by avoiding transfers of the audio data to user-mode applications for processing. A variety of different audio processing modules can be used to provide various pieces of functionality when processing audio data.
Abstract:
The present invention is a musical synthesizer that can respond to a pitch wheel control by generating realistic slide-step-slide and slide-step portamento pitch curves. The musical synthesizer responds to a pitch wheel control in a context sensitive manner. When a first note-on occurs the pitch wheel behaves in the standard fashion. However, when a second-note on occurs, if the pitch wheel is still being held after the second note-on then the effects of the pitch wheel are disabled. The result is a clean slide-step portamento curve. In addition, the effects of the pitch wheel are delayed slightly relative to the raw pitch wheel signal. The result is that if the pitch wheel is released slightly before a second note-on occurs then the delayed pitch wheel signal will still be at substantially the previous held value when the second note-on occurs. The result is a clean slide-step portamento curve. In another embodiment when a second-note on occurs, if the pitch wheel is still being held after the second note-on, effects of the pitch wheel are disabled and, in addition, the pitch curve is forced to make a small ramp beginning towards the pitch of the second note-on. The result is a clean slide-step-slide portamento curve.
Abstract:
An electronic musical instrument which can realize a choking effect by a simple operation. The electronic musical instrument is constructed such that a neck provided with a fingerboard is fixed to a body. A plurality of (twelve) fret operating elements are provided for each of six sounding channels. The body is provided with a string input section and an arm, and six stringed operating elements are provided for the respective sounding channels. For each sounding channel, a tone generator generates a musical tone at a pitch determined by the corresponding fret operating element and in sounding timing determined by the corresponding stringed operating element. When the arm is operated, a CPU provides control to apply a choking effect to a musical tone for a sounding channel, in which the musical tone is being sounded, by raising the pitch of the musical tone by a predetermined amount.