JP2008164968A - Performance pattern reproduction device and its computer program - Google Patents

Abstract

<P>PROBLEM TO BE SOLVED: To provide a performance pattern reproduction device and its computer program, providing well-balanced and harmonious performance with a variety of patterns, even when performance patterns with different volume feeling and rhythm feeling etc. are simultaneously reproduced or switched. <P>SOLUTION: The performance pattern reproduction device comprises: a performance pattern selecting means for selecting a plurality of arbitrary performance patterns out of a plurality of performance patterns; a common offset data setting means for setting one common offset data for the selected performance patterns; a specific offset data setting means for setting one specific offset data for each of the selected performance patterns; a reproduction start instructing means for instructing the performance pattern for starting reproduction out of the performance patterns selected by the performance pattern selecting means; and a performance pattern reproducing means for reproducing the instructed performance pattern with an offset value after offsetting a parameter value of the instructed performance pattern, based on the common offset data and the specific offset data. <P>COPYRIGHT: (C)2008,JPO&INPIT

Description

  The present invention relates to a performance pattern reproducing apparatus capable of simultaneously reproducing a plurality of performance patterns and a computer program applied to the performance pattern reproducing apparatus.

A performance pattern (for example, an arpeggio pattern) of a conventional electronic musical instrument is a set of data that defines parameters such as the sound generation timing, tone length, volume, or octave shift of the pitch of the constituent sounds of the performance. One selected from a plurality of performance patterns, such as those set by the user, was used.
However, there is a demand for enjoying a variety of performances by simultaneously reproducing a plurality of performance patterns or switching performance patterns during performance.

Then, in order to implement | achieve various performances, the invention of the following patent document 1 is proposed, for example.
JP 2000-356987 A

The performance pattern prepared in advance in Patent Document 1 is an arpeggio pattern, but since this arpeggio pattern is created independently, a sense of volume, a sense of rhythm, etc. for each arpeggio pattern Is different.
In other words, when using arpeggio patterns with different volume or rhythm, as described above, if you play multiple arpeggio patterns at the same time or switch between arpeggio patterns during a performance, Deviations in volume, rhythm, etc. occur between the patterns, and this deviation may result in unbalanced reproduction arpeggio patterns, resulting in an unbalanced performance.

  An object of the present invention is to make it possible to perform a variety of balanced and harmonious performances even when simultaneously playing or switching performance patterns having different volume feelings, rhythmic feelings, etc. It is an object of the present invention to provide a performance pattern reproducing apparatus and a computer program applied to the performance pattern reproducing apparatus.

  In order to achieve the above object, the technical means adopted by the present invention is a performance pattern reproducing apparatus capable of simultaneously reproducing a plurality of performance patterns, and among the plurality of performance patterns stored in the storage means. A performance pattern selection means for selecting a plurality of performance patterns from a plurality of performance patterns, and a common offset data setting means for setting common offset data for correcting a parameter value included in the performance pattern. Common offset data setting means for setting one common offset data for a pattern, and dedicated offset data setting means for setting dedicated offset data for correcting a parameter value included in a performance pattern, the selected Set one dedicated offset data for each of multiple performance patterns. Dedicated offset data setting means, reproduction start instruction means for instructing a performance pattern to start reproduction from among a plurality of performance patterns selected by the performance pattern selection means, and a performance pattern designated by the performance pattern selection means Performance pattern reproducing means for reproducing, wherein the common offset data set by the common offset data setting means and the dedicated offset data set for the instructed performance pattern by the dedicated offset data setting means A performance pattern reproducing means for offsetting the parameter value of the instructed performance pattern and reproducing the instructed performance pattern with the offset value. This is a playback device.

  Further, the performance pattern reproducing means is configured to be offset for each event processing of the performance pattern during reproduction of the performance pattern.

  The reproduction start instructing means includes a plurality of reproduction start instructing means to which a plurality of performance patterns selected by the performance pattern selection means are assigned one by one. is there.

And a step of selecting a plurality of arbitrary performance patterns from among the plurality of performance patterns stored in the storage means, which is applied to a performance pattern reproducing apparatus capable of simultaneously reproducing a plurality of performance patterns. A step of setting common offset data for correcting a value of a parameter included in the performance pattern, the step of setting one common offset data for the plurality of selected performance patterns; A step of setting dedicated offset data for correcting the value of the included parameter, the step of setting one dedicated offset data for each of the selected plurality of performance patterns;
A step of designating a performance pattern to start reproduction from among a plurality of performance patterns selected by the performance pattern selection means; and a step of reproducing the performance pattern designated by the performance pattern selection means, the common offset Based on the common offset data set by the data setting means and the dedicated offset data set for the specified performance pattern by the dedicated offset data setting means, the parameter of the specified performance pattern is set. Offsetting the value and reproducing the indicated performance pattern with the offset value.

  The parameters referred to in the present invention include “gate time”, “velocity”, “note number”, “octave”, “timing”, etc., which are arpeggio pattern formats that are examples of performance patterns. The common and dedicated offset data offset by an arbitrary value is reflected, and reproduction is performed with an arpeggio pattern reflecting the common and dedicated offset data.

  According to the present invention, a performance pattern reproducing apparatus and a performance pattern reproducing apparatus capable of performing various patterns in a well-balanced and harmonious manner even when performance patterns having different volume feelings, rhythmic feelings, and the like are simultaneously reproduced or switched. A computer program applied to the pattern reproduction apparatus can be provided.

The best mode for carrying out a performance pattern reproducing apparatus according to the present invention will be described below with reference to the drawings.
Note that the performance pattern reproducing apparatus exemplified in this embodiment is exemplified in a form applied to an electronic music apparatus such as an electronic keyboard instrument or a synthesizer.
The performance pattern exemplified in this embodiment is an arpeggio pattern.

FIG. 1 is a block diagram showing a schematic configuration of the electronic music apparatus of the present embodiment.
The electronic music apparatus A according to this embodiment includes a performance operator 1 including a keyboard for inputting performance information, a setting operator 2 including a plurality of selection switches and adjustment switches for inputting various information, and a performance operation. A detection circuit 3 for detecting an operation state of the child 1, a detection circuit 4 for detecting an operation state of the setting operator 2, a CPU 5 for controlling the entire apparatus, a control program executed by the CPU 5, and a plurality of arpeggio patterns ROM 6 for storing data, RAM 7 for temporarily storing arpeggio pattern data, performance data, various input information and calculation results, timer 8 for measuring interrupt time and various times in timer interrupt processing, and various editing screens And a display 9 for displaying various information, a display circuit 91 for detecting various display states, and various applications including the control program. A storage device 10 for storing programs and various data, and a MIDI interface (I / F) 11 for inputting a MIDI signal from an external MIDI (Musical Instrument Digital Interface) device 110 and outputting a MIDI signal to the outside. And a communication interface (I / F) 12 for transmitting / receiving data to / from a server computer (hereinafter referred to as “server”) 102 via the communication network 101, performance data input from the performance operator 1, and preset data A sound source circuit 13 for converting performance data or the like into a musical sound signal, an effect circuit 14 for imparting various effects to the musical sound signal from the sound source circuit 13, and a musical sound signal from the effect circuit 14 are converted into sound, for example And a sound system 15 such as a DAC (Digital-to-Analog Converter), an amplifier, and a speaker. .

  The above components 3-7, 10-14, 91 are connected to each other via the bus 16, the timer 5 is connected to the CPU 5, the other MIDI device 110 is connected to the MID II / F 11, and the communication I The communication network 101 is connected to / F12, the effect circuit 14 is connected to the sound source circuit 13, the sound system 15 is connected to the effect circuit 14, and the display 9 is connected to the display circuit 91.

Examples of the storage device 10 include a flexible disk drive (FDD), a hard disk drive (HDD), a CD-R / RW drive, a magneto-optical disk (MO) drive, and the like.
In these storage devices (drives) 10, a storage device (for example, a disk-type storage device such as a flexible disk or a hard disk) in which data can be written and can be permanently stored is mounted or incorporated.
Note that the present invention is not limited to the disk-type storage device, and any storage device that can store data permanently (non-volatile) may be used.

As described above, the storage device 10 can also store the control program executed by the CPU 5. If the control program is not stored in the ROM 6, the control program is stored in the storage device 10 and stored therein. Is read into the RAM 7, the CPU 5 can be operated in the same manner as when the control program is stored in the ROM 6.
In this way, control programs can be easily added and upgraded.

  The MIDII / F11 is not limited to a dedicated one, and may be configured from a general-purpose interface such as RS-232C, USB (Universal Serial Bus), IEEE 1394 (Eye Triple E 1394). In this case, data other than MIDI messages may be transmitted and received simultaneously.

As described above, the communication I / F 12 is connected to the communication network 101 such as a LAN (Local Area Network), the Internet, or a telephone line, and is connected to the server 102 via the communication network 101.
When the above programs and various music data are not stored in the storage device 10, the communication I / F 12 is used to download the programs and various music data from the server 102.

A computer that serves as a client (in this embodiment, an electronic music device) transmits a command requesting download of a program and various music data to the server 102 via the communication I / F 12 and the communication network 101.
Upon receiving this command, the server 102 distributes the requested program and various music data to the computer via the communication network 101, and the computer receives the program and music data via the communication I / F 12. Downloading is completed by accumulating in the storage device 10.

As shown in FIG. 2, the electronic music apparatus A of this embodiment includes four independent arpeggiators 1 to 4 for reproducing arpeggio patterns. One arpeggiator 1 to 4 is provided for each arpeggiator. One arpeggio pattern can be reproduced, and the four arpeggiators 1 to 4 operate simultaneously so that the respective arpeggio patterns can be reproduced simultaneously.
Each of the arpeggiators 1 to 4 reproduces an arpeggio pattern by an arpeggio pattern reproduction program shown in FIG. 9 to be described later, and the arpeggio pattern reproduction program is activated for each arpeggiator.
That is, when a plurality of arpeggiators are activated, the same number of the reproduction programs as the activated arpeggiators are activated simultaneously.

FIG. 2 is a block diagram showing an example of a voice data working buffer corresponding to each arpeggiator provided in the RAM 7.
The work buffer according to this embodiment includes one common work buffer that is common to each arpeggiator and four independent work buffers for each of the arpeggiators 1 to 4 (the number of arpeggiators that can be activated simultaneously).
The common work buffer is used in common by an arpeggio key range buffer for storing data representing a key range commonly used by the four arpeggiators 1 to 4 and a plurality of arpeggio patterns to be reproduced. A voice offset buffer (referred to as “common offset buffer” in FIG. 2 and referred to as “common offset buffer” in the following description) is provided for storing data representing values for correcting parameter values. ing.
In this embodiment, parameters to be corrected are velocity and gate time, and one common velocity offset value and one common gate time offset value are stored as data representing values to be corrected (details will be described later in FIG. 6). Description).

In the dedicated work buffer, one dedicated work buffer is prepared for one arpeggiator, and four dedicated work buffers are prepared in order to use the four arpeggiators 1 to 4 at the same time.
In each dedicated work buffer, an arpeggio pattern buffer in an area for storing data representing an arpeggio pattern to be played back by the arpeggiator corresponding to the buffer, and a parameter value adapted only to the arpeggio pattern being played back by the arpeggiator are corrected. A part offset buffer (described as “dedicated offset buffer” in FIG. 2 and referred to as “dedicated offset buffer” in the following description) is provided.
The parameters to be corrected in this embodiment are the velocity and the gate time, similar to the parameters to be corrected in the common offset buffer, and one dedicated velocity offset value and one dedicated gate time offset value are used as data representing the correction values. (Details are described in FIG. 6 described later).

FIG. 3 is a block diagram schematically showing an example of the configuration of voice data according to the present embodiment.
In this embodiment, it has a plurality of voice data in advance, and each voice data includes one element data, five arpeggio pattern data, five dedicated offset data, one arpeggio key range data, and one arpeggio key range data. And common offset data.
This voice data is data for setting a timbre to be used for sound generation. When playing with the keyboard, one of the voice data is selected as a timbre used for sounding the performance with the keyboard.

The element data is data representing a tone color used for sound generation, and is data representing one waveform data used for sound generation.
In this embodiment, the voice data has one element data as an example. However, in the present invention, the voice data may have a plurality of element data. Depending on the pitch and velocity of the musical sound to be played, the musical sound is produced using different waveform data.For example, the velocity range is divided into multiple parts, different elements are assigned to each range, and the keyboard range is set. It is possible to divide into multiple parts and assign different elements for each range.

The arpeggio pattern data is data representing an arpeggio pattern that can be used when voice data is selected, and stores arpeggio pattern data itself or instruction data representing the storage location of the arpeggio pattern.
In the arpeggio pattern data, as shown in FIG. 4, one arpeggio pattern data represents one arpeggio pattern.
This arpeggio pattern shows the format of the arpeggio pattern. The arpeggio pattern is composed of five sets of “timing”, “gate time”, “key number”, “octave” and “velocity” in one musical tone. Corresponding one pronunciation data (one event data) is stored as much as one pronunciation data corresponding to one measure until the last “end data”.

  “Timing” is data representing the clock value (timing for processing the event data) corresponding to the tone generation start timing of the musical sound, and “Gate time” is the time length (clock value) from key-on to key-off of the musical tone to be generated. It is data to represent.

“Key number” is data for determining the pitch of a musical tone to be generated. That is, a register corresponding to this “key number” is set in the RAM 3 in advance, and the note number detected in the arpeggio key area is stored in the register, so that the note number for the data of “key number” is determined according to a predetermined rule. Assign.
Then, in the arpeggio sound generation process, the note number assigned to the “key number” in the arpeggio pattern is read from the register and used as a note number for determining the pitch of the musical sound that produces this note number.
Note that the note number does not always become the pitch of the musical tone because it has processing such as octave shift.

For example, when the number of keys that can be detected in the arpeggio key range is set to four, the “key number” is a number from “1” to “4”, and this “key number” value corresponds to the pitch change pattern of the arpeggio. Thus, it is predetermined for each pronunciation data.
Further, in this embodiment, the rule is that the note numbers of keys pressed in the arpeggio key range are assigned in order from the younger “key number” in order from the note number on the bass side.

“Octave” is data for designating how many octaves are changed when a pitch designated in the arpeggio key range is changed in units of octaves.
For example, when the note number assigned to the “key number” is C3 and the value of “octave” is stored as “0”, the sound of the C3 is sounded at the timing of sounding the pitch of the C3. If the value of “Octave” is stored as “+1”, the sound is generated at the pitch of C4 that is shifted up by one octave at the timing of generating the pitch of C3. .

“Velocity” is data representing the velocity value (data used for volume control etc.) of a musical sound to be generated.
When the arpeggio function of this embodiment is used on a keyboard capable of detecting a velocity value, the velocity value corresponding to each key detected at the time of key depression is used while ignoring the data relating to the “velocity”. Also good.

The dedicated offset data is one arpeggio pattern for each arpeggio pattern stored in the voice data (for each of the arpeggio patterns that can be used during performance using the selected voice data). One dedicated offset data is stored for the data (one dedicated offset data is stored for each of the five arpeggio pattern data).
In addition, data representing a value for correcting a parameter value of the arpeggio pattern when the corresponding arpeggio pattern is reproduced is stored.
The parameters to be corrected are velocity and gate time. A dedicated velocity offset value and a dedicated gate time offset value are stored one by one as data representing values for correcting the velocity and gate time. Adjusts the volume balance (velocity balance) and rhythmic balance (gate time balance) between patterns.

Arpeggio key range data is data that defines the key range (pitch range) used when playing back the arpeggio pattern stored in the voice data. One arpeggio key range data is stored in one voice data. ing.
When one voice data is used, the key range assigned to a plurality of arpeggio patterns is the same.

The common offset data is data that is commonly used by the five arpeggio patterns stored in the voice data, and stores data representing values for correcting the parameter values of the arpeggio pattern to be reproduced.
The parameters to be corrected are velocity and gate time, and one common velocity offset value and one common gate time offset value are stored as data representing values for correcting the velocity and gate time, respectively. Adjust the volume level and gate time length of the entire pattern.

  Then, it is possible to adjust the balance between the velocity and the gate time between the arpeggio patterns with the dedicated offset data, and collectively adjust the velocity and the gate time of the entire arpeggio pattern with the common offset data.

  Hereinafter, the procedure for executing the program of the pattern reproduction apparatus of the present embodiment will be described based on the flowcharts shown in FIGS.

(Voice selection: Fig. 5)
The flowchart shown in FIG. 5 is a program that is activated when an operation (instruction) for selecting one piece of voice data is performed.
The operation for selecting voice data is an operation in which a list of voice data is displayed on the display 9 and the user selects one voice data from the list, which is arranged on the panel of the electronic music apparatus. The selection switch for voice data in the setting operator 2 is used.
Then, the arpeggio key range data is read from the selected voice data and overwritten on the arpeggio key range buffer in the common work buffer (step S1).
As a result, until a new voice data is selected, the key range defined in the selected voice data is used as the key range used when the arpeggio is played.
Further, the common offset data is read from the selected voice data, and overwritten on the common offset buffer in the common work buffer.
As a result, until the new voice data is selected thereafter, the common offset data value defined in the selected voice data is used as the common offset value used when the arpeggio is played. .

Next, the arpeggio pattern buffer and the dedicated offset buffer in the four dedicated work buffers are cleared (step S2).
When voice data is selected, if there is an active arpeggiator (the program shown in FIG. 9), the arpeggiator is stopped.

Next, a selection switch (playback start instructing means) for selecting an arpeggio pattern in the setting operation element 2 arranged on the panel of the electronic music apparatus is defined by the selected voice data (voice data Five arpeggio patterns (stored therein) are assigned (step S3).
Here, assigning means setting the state in which five arpeggio patterns can be selected using the selection switch.
Specifically, five arpeggio patterns defined by the selected voice data are assigned to each of the five selection switches that are numbered 1 to 5 in sequence, one by one, This is to set a state in which one arpeggio pattern can be selected when one selection switch is operated, and the user can select an arpeggio pattern to be played back or stopped by operating this selection switch.
Further, the arpeggio pattern can be switched by operating the selection switch during reproduction of the arpeggio pattern.
Note that the arpeggio patterns that can be used by the user during the performance are limited to only five arpeggio patterns defined by the currently selected voice data.

Next, the sound source is set so that the tone of the tone generated by playing the keyboard (and the tone generated by playing the arpeggio pattern) becomes the element data defined by the selected voice data (step S4). ).
In other words, until the next voice data is selected after the voice data is selected, the tone generated by playing the keyboard and playing the arpeggio pattern is played with the timbre using the element set here. Will be.

(Parameter editing: Fig. 6)
The flowchart shown in FIG. 6 is a program that is activated when an operation (instruction) for editing common offset data and dedicated offset data is performed.
In editing this parameter, first, a screen for editing the common offset data and the dedicated offset data is displayed on the display 9 by the operation of the setting operator 2.
On the screen, the common offset data and the dedicated data specified by the currently selected voice data are edited so that the common offset data and the dedicated offset data specified by the currently selected voice data can be edited. Offset data is displayed.
At this time, the value of velocity offset data and the value of gate time offset data are displayed separately, and the value of each data can be changed by the user operating various setting operators 2.
The common offset data and the dedicated offset data can be edited on one screen, or the screens to be edited may be provided separately, as long as the user can adjust the balance while looking at the screen and edit it Good.
On the screen to be edited, the user inputs the edited value for the data to be edited, instructs the confirmation of the change after input by operating the setting operator, and when this change confirmation is instructed, The program shown in FIG. 6 starts.
Then, by the user's operation, the newly input value is overwritten on the data corresponding to the currently selected voice data (step S5).

Here, for example, when the user operates to edit the value of the common velocity offset data, the user selects the value of the common velocity offset data in the common offset data in the currently selected voice data. Change to the specified new value.
Furthermore, when the user operates to edit the value of the dedicated gate time offset data, the dedicated data in the dedicated offset data corresponding to the arpeggio pattern instructed to be edited by the user's operation in the currently selected voice data. The value of the gate time offset data is changed to a new value designated by the user.
In this case, the user also designates which of the five arpeggio patterns defined by the voice data corresponds to.
In addition, each offset data value can be edited individually and independently, and this edit is generated by playing the keyboard and playing a plurality of arpeggio patterns using the currently selected voice data. It is adjusted so that the balance of volume and rhythm between multiple musical sounds is harmonized without a sense of incongruity.
Also, the new value entered by the user is reflected in the common work buffer and the dedicated work buffer. In the case of the common work buffer, the value stored in the buffer is changed to a new value for each edit, and the dedicated work buffer is changed. In the case of a buffer, the value of the read buffer is changed to a new value only when the edited parameter is read into the dedicated work buffer at the time of editing.

When setting the offset value, the arpeggio pattern that can be selected is defined by the currently selected voice data, as in the process of selecting (setting) the arpeggio pattern to be reproduced in FIG. 7 described later. Limited to only five arpeggio patterns.
In other words, for each voice data, considering the balance between the sense of volume and rhythm between the five arpeggio patterns specified in the voice data, it is only necessary to set the offset value stored in the voice data, There are only five patterns that should take into account the balance between volume and rhythm.

The common offset data and the dedicated offset data illustrate, for example, a mode in which n% correction (offset) is performed on the velocity value and the gate time value as a method of setting the offset value.
For example, the velocity value in the event data is “60”, the dedicated velocity offset value in the dedicated offset data is “10%”, and the common velocity offset value “20” in the common offset data with respect to this velocity value. % ", The arpeggio is played with the following velocity value.
Correction (offset) for the gate time value can be performed in the same manner.

(Equation 1)
Velocity value = 60 x (0.1 x 0.2)

In the calculation of the offset value shown in the example, the value of the offset value is used as a percentage and multiplied by the value in the event data. However, the format of the offset value is not limited to this, and the value of the data in the event data is not limited to this. Any format that can correct the error can be used.
For example, the offset value may be an increase / decrease value, and the offset value may be added to or subtracted from the data value in the pattern.
Also, the format of the dedicated offset value and the common offset value may be different so that the common offset value is the ratio while the dedicated offset value is the increase / decrease value.

(Arpeggio pattern selection: Fig. 7)
The flowchart shown in FIG. 7 is a program that is activated when a selection switch for selecting an arpeggio pattern to be reproduced is operated.
The arpeggio pattern that can be simultaneously played back by the electronic music apparatus A exemplified in this embodiment is the number of dedicated work buffers, that is, four, but the arpeggio pattern that can be selected as the arpeggio pattern to be played back is the number of selection switches, that is, five. Five arpeggio patterns defined by the prepared and selected voice data can be selected as arpeggio patterns to be reproduced.

When one of the five selection switches is operated and a program for performing the processing shown in FIG. 7 is started, first, it is determined whether or not there is an arpeggiator that is not currently used (step S6).
Here, the determination of an unused arpeggiator is to refer to the work buffer and check whether there is a dedicated work buffer in which no data is recorded among the four dedicated work buffers.
Then, the arpeggiator that is not used is set as an arpeggiator to be used with the arpeggio pattern newly selected by the user this time.

Next, when it is determined that there is no unused arpeggiator (there is no dedicated work buffer in which no data is recorded), one of the arpeggiators is determined according to the prescribed rule, and its reproduction is stopped (step S7). ).
Here, the rule defined in the present embodiment is, for example, a rule in which the arpeggiator that has been used for the longest time is selected or sequentially selected in the order of the arpeggiator number.
Then, the arpeggiator selected by the prescribed rule is set as an arpeggiator to be used in the arpeggio pattern newly selected by the user this time.

  Next, out of the five arpeggio patterns defined by the selected voice data, one arpeggio pattern selected by the user's selection operation is read out, and the arpeggio pattern is read out in step S6 or step S7. The data is registered (overwritten) in the arpeggio pattern buffer of the dedicated work buffer corresponding to the arpeggiator determined in the process (step S8).

Next, as in step S8, the dedicated offset data stored in correspondence with one arpeggio pattern selected by the user's selection operation is read out from the voice data, and the dedicated offset data is read out in step S6. Alternatively, registration (overwriting) is performed in the dedicated offset buffer of the dedicated work buffer corresponding to the arpeggiator determined in the process of step S7 (step S9).
At this time, in order to reproduce the arpeggio pattern selected by the user's selection operation this time, a program for reproducing the selected arpeggio pattern (details will be described in FIG. 9 described later) can be activated (reproduction Waiting for the start, and the playback has not started yet).
The timing for starting the program in FIG. 9 is, for example, that the program is started immediately, that is, if a key is pressed in the arpeggio key range, and that the key is generated in the arpeggio key range for the first time. For example.
In this embodiment, the last operation is adopted.
If the arpeggio pattern assigned to the selection switch operated by the user is being played back (assigned to one of the dedicated work buffers) when the selection switch is operated by the user, the selection switch Is recognized as an instruction to stop the reproduction of the arpeggio pattern, the reproduction of the arpeggio pattern is stopped (program stop in FIG. 9), and the dedicated work buffer used by the arpeggio pattern is cleared.

(Key pressing process activated by key pressing: Fig. 8)
The flowchart shown in FIG. 8 is a program for performing a key pressing process that is activated when any key on the keyboard is pressed.
When the program starts, it refers to the data representing the key range recorded in the arpeggio key range buffer of the common work buffer, and the sound of the key that has been newly pressed this time within that key range (pitch range). Determine whether high belongs. (Step S10)

If it is determined that it is not included in step S10, the tone corresponding to the newly pressed key is sounded with the tone set by the selected voice data (element data in the voice data). (Step S11), and this program is terminated.
Note that the musical sound generated in step S11 is muted in a key release process that is activated when the key is released (not shown).
The program ends when the key is released.
If it is determined that the key is included in step S10, “key number” is assigned to the pitch (note number) as the pitch to be used for playing the arpeggio pattern, and the currently played key is being played. A new pitch (note number) used in the arpeggio pattern is set (step S12).

Next, through the processing of FIG. 7, it is determined whether there is an arpeggiator that can be activated (waiting for the start of reproduction and not yet started) (step S13).
If it is determined in step S13 that there is a waiting arpeggiator, the waiting arpeggiator (the program of FIG. 9 corresponding to the arpeggiator) is activated (set to be activated at each MIDI clock timing) If there are a plurality of arpeggiators, all arpeggiators are activated to reproduce the arpeggio pattern (step S14).
If it is determined in step S12 that there is no standby arpeggiator, this program ends.

(Reproduction of an arpeggio pattern activated at each MIDI clock timing: FIG. 9)
The flowchart shown in FIG. 9 is a program that performs an arpeggio pattern playback process that is activated for each MIDI clock timing and for the number of arpeggiators being played back.
For example, if three arpeggiators are activated, three programs shown in FIG. 9 corresponding to the three arpeggiators are activated.
Further, as described above, the arpeggio pattern to be reproduced for each arpeggiator is specified in steps S8 and S9 of the program of FIG.
In the description of the present embodiment, a flowchart of one program in FIG. 9 activated corresponding to one arpeggiator will be described.
In addition, when a plurality of arpeggiators are activated, only a plurality of arpeggio patterns to be processed and dedicated work buffers are activated in parallel in the flowchart of the program of FIG. 9 illustrated. Will be.

When the program of FIG. 9 is activated, it is determined whether there is event data to be read at this timing with reference to the arpeggio pattern to be read by the program (step S15), and there is no event data. If it is determined, the program ends.
If it is determined that there is event data, the event data is read from the arpeggio pattern buffer of the dedicated work buffer in the target arpeggiator (step S16).
In this reading, the buffer to be read is different for each target arpeggiator.

Next, a velocity offset (dedicated velocity offset) value is read from the dedicated offset buffer of the dedicated work buffer in the target arpeggiator (step S17).
In this reading, the buffer to be read is different for each target arpeggiator.
Next, a velocity offset (common velocity offset) value is read from the common offset buffer of the common work buffer (step S18).
In this reading, regardless of the target arpeggiator, the buffer to be read is a common offset buffer.
Next, the gate time value in the event data read in step S16 is changed using the dedicated velocity offset value and the common velocity offset value (step S19).

Next, a gate time offset (dedicated gate time offset) value is read from the dedicated offset buffer of the dedicated work buffer in the target arpeggiator (step S20).
In this reading, the buffer to be read is different for each target arpeggiator.
Next, a gate time offset (common gate time offset) value is read from the common offset buffer of the common work buffer (step S21).
In this reading, regardless of the target arpeggiator, the buffer to be read is a common offset buffer.
Next, the gate time value in the event data read in step S16 is changed using the dedicated gate time offset value and the common gate time offset value (step S22).

  Through the processes in steps S17 to S22, the velocity value and gate time value of the arpeggio pattern prepared in advance are corrected to values that balance the sense of volume and rhythm with other arpeggio patterns.

  Next, sound generation is started with the velocity value and the gate time value determined above (step S23), and the tone color of the tone generated here is the same as the tone color used in step S11 of FIG. is there.

  According to this embodiment, in the reproduction of the arpeggio pattern, the edited velocity value and gate time value of the voice offset data and / or pattern offset data are added to the velocity value and gate time value of the arpeggio pattern data. Plays with corrected velocity values and gate time values, so you can play a balanced and harmonious arpeggio even if you play or switch arpeggio patterns with different volume or rhythm. Can do.

Note that the present invention can also be applied to playing performance patterns other than arpeggio patterns (patterns in which recorded event data is read out without considering the pitch being pressed and reproduced as it is).
The offset parameter is not limited to the illustrated velocity and gate time. For example, when changing the pitch specified in the arpeggio key range in octave units, the number of octaves is changed. Also included are various parameters such as “octave”, which is data for designating the sound, and “timing”, which is data representing the clock value corresponding to the tone generation start timing of the musical sound.

1 is a block diagram showing a schematic configuration of an electronic music apparatus to which a pattern reproduction apparatus according to the present invention is applied. The block diagram which shows an example of the work buffer for voice data. The block diagram which shows an example of a structure of voice data roughly. The block diagram which shows an example of arpeggio pattern data. The flowchart which shows an example of the selection procedure of a voice. The flowchart which shows an example of the edit procedure of a parameter. The flowchart which shows an example of the selection procedure of an arpeggio pattern. The flowchart which shows an example of the reproduction | regeneration procedure of an arpeggio pattern. The flowchart which shows an example of the reproduction | regeneration procedure of an arpeggio pattern.

Explanation of symbols

A: Electronic music apparatus 1: Performance operator 2: Setting operator 3: Detection circuit 4: Detection circuit 5: CPU
6: ROM
7: RAM
8: Timer 9: Display 10: Storage device 11: MIDI interface 12: Communication interface 13: Sound source circuit 14: Effect circuit 15: Sound system 91: Display circuit 110: MIDI device

Claims (4)

A performance pattern reproducing device capable of simultaneously reproducing a plurality of performance patterns,
A performance pattern selection means for selecting a plurality of performance patterns from a plurality of performance patterns stored in the storage means;
Common offset data setting means for setting common offset data for correcting a parameter value included in a performance pattern, wherein the common offset data sets one common offset data for the selected plurality of performance patterns Setting means;
Dedicated offset data setting means for setting dedicated offset data for correcting a parameter value included in a performance pattern, wherein one dedicated offset data is set for each of the selected plurality of performance patterns. Dedicated offset data setting means,
Playback start instruction means for instructing a performance pattern to start playback from among the plurality of performance patterns selected by the performance pattern selection means;
Performance pattern reproducing means for reproducing the performance pattern instructed by the performance pattern selecting means, the common offset data set by the common offset data setting means, and the instructed by the dedicated offset data setting means Performance pattern reproducing means for offsetting the parameter value of the designated performance pattern based on dedicated offset data set for the performance pattern, and reproducing the designated performance pattern with the offset value ,
A performance pattern reproducing apparatus comprising:   2. The performance pattern reproducing apparatus according to claim 1, wherein the performance pattern reproducing means offsets each event processing of the performance pattern during reproduction of the performance pattern.   3. The reproduction start instructing unit includes a plurality of reproduction start instructing units to which a plurality of performance patterns selected by the performance pattern selection unit are assigned one by one. Performance pattern playback device. The present invention is applied to a performance pattern reproducing device capable of reproducing a plurality of performance patterns simultaneously,
Selecting a plurality of arbitrary performance patterns from among the plurality of performance patterns stored in the storage means;
Setting common offset data for correcting the value of a parameter included in the performance pattern, wherein one common offset data is set for the plurality of selected performance patterns;
Setting dedicated offset data for correcting the value of a parameter included in the performance pattern, the step of setting one dedicated offset data for each of the selected plurality of performance patterns;
Instructing a performance pattern to start reproduction from among a plurality of performance patterns selected by the performance pattern selection means;
Replaying the performance pattern instructed by the performance pattern selection means, the common offset data set by the common offset data setting means, and the instructed performance pattern by the dedicated offset data setting means Offsetting the value of the parameter of the designated performance pattern based on the dedicated offset data set for the specified performance pattern, and reproducing the designated performance pattern with the offset value;
A computer program comprising:

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