Exemplo n.º 1
0
def change_octave(
    nth_event: int,
    n_octaves: int,
    novent_line: lily.NOventLine,
    change_main_pitches: bool = True,
    change_acciaccatura_pitches: bool = True,
) -> None:
    if change_main_pitches:
        novent_line[nth_event].pitch = [
            p + ji.JIPitch([n_octaves]) for p in novent_line[nth_event].pitch
        ]

    if novent_line[nth_event].acciaccatura and change_acciaccatura_pitches:
        novent_line[nth_event].acciaccatura.mu_pitches = tuple(
            p + ji.JIPitch([n_octaves])
            for p in novent_line[nth_event].acciaccatura.mu_pitches)
        previous_abjad_note = novent_line[nth_event].acciaccatura.abjad
        novent_line[nth_event].acciaccatura.abjad = abjad.Note(
            abjad.NamedPitch(
                name=previous_abjad_note.written_pitch.pitch_class.name,
                octave=previous_abjad_note.written_pitch.octave.number +
                n_octaves,
            ),
            abjad.Duration(previous_abjad_note.written_duration),
        )
Exemplo n.º 2
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def add_glissando(
    nth_event: int,
    scale_degrees: tuple,
    novent_line: lily.NOventLine,
    durations: tuple = tuple([]),
    verse_maker: mus.SegmentMaker = None,
    adapt_by_changed_structure: bool = False,
):
    n_scale_degrees = len(scale_degrees)

    assert verse_maker or durations or n_scale_degrees in (1, 2)

    if not durations:
        if n_scale_degrees == 2:
            durations = (novent_line[nth_event].duration, )
        elif n_scale_degrees > 2:
            durations = tuple(
                fractions.Fraction(nv.delay) for nv in split_by_structure(
                    nth_event,
                    n_scale_degrees - 1,
                    novent_line,
                    verse_maker=verse_maker,
                    change_novent_line=False,
                    adapt_by_changed_structure=adapt_by_changed_structure,
                ))

    assert len(durations) == len(scale_degrees) - 1

    novent = novent_line[nth_event].copy()
    normalized_pitch = novent.pitch[0].normalize()

    instrument = globals_.PITCH2INSTRUMENT[normalized_pitch]
    octave = novent.pitch[0].octave
    pitch_zone = tuple(
        p.register(octave) for p in sorted(
            tuple(
                p.copy() for p in globals_.SCALE_PER_INSTRUMENT[instrument])))
    pitch_zone = functools.reduce(
        operator.add,
        (tuple(p + ji.JIPitch([n - 1]) for p in pitch_zone) for n in range(3)),
    )

    pitch_null_idx = pitch_zone.index(novent.pitch[0])

    durations += (0, )

    interpolation_line = []
    for relative_pitch_class, duration in zip(scale_degrees, durations):
        pc = relative_pitch_class % 7
        octave = relative_pitch_class // 7
        pitch = pitch_zone[pc + pitch_null_idx] + ji.JIPitch(
            [octave]) - novent.pitch[0]
        interpolation_line.append(old.PitchInterpolation(duration, pitch))

    novent_line[nth_event].glissando = old.GlissandoLine(
        interpolations.InterpolationLine(interpolation_line))
Exemplo n.º 3
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def harmonic_synthesis(poly_per_interlocking: tuple):
    import pyteq

    for poly_idx, poly in enumerate(poly_per_interlocking):
        for melody_idx, voice in enumerate(poly):
            voice = old.Melody(voice[:280])
            melody = [
                pyteq.PyteqTone(
                    ji.JIPitch(t.pitch, multiply=250),
                    t.delay,
                    t.duration,
                    volume=t.volume,
                    impedance=2,
                    q_factor=0.2,
                    string_length=9.9,
                    sustain_pedal=1,
                ) if t.pitch != mel.TheEmptyPitch else pyteq.PyteqTone(
                    t.pitch, t.delay, t.duration) for t in voice
            ]
            instr_range = tuple(n for n in range(10, 125))
            f = pyteq.Pianoteq(melody, available_midi_notes=instr_range)
            f.export2wav(
                "pianoteq_output/glitter_{0}_{1}".format(poly_idx, melody_idx),
                # preset='"Kalimba Spacey"',
                preset='"Celtic Harp Bright"',
            )
Exemplo n.º 4
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def mk_empty_attack(
    duration: float,
    volume: float,
    frequency: float = 35,
    hammer_noise: float = 3,
    impedance: float = 0.3,
    cutoff: float = 0.3,
    q_factor: float = 5,
    string_length: float = 0.8,
    strike_point: float = 1 / 2,
    hammer_hard_piano: float = 1,
    hammer_hard_mezzo: float = 1.5,
    hammer_hard_forte: float = 2,
    blooming_energy: float = 0,
) -> midiplug.PyteqTone:
    """Helps making percussive sounds with Pianoteq."""
    return midiplug.PyteqTone(
        ji.JIPitch(ji.r(1, 1), multiply=frequency),
        duration,
        duration,
        volume=volume,
        hammer_noise=hammer_noise,
        impedance=impedance,
        cutoff=cutoff,
        q_factor=q_factor,
        string_length=string_length,
        strike_point=strike_point,
        hammer_hard_piano=hammer_hard_piano,
        hammer_hard_mezzo=hammer_hard_mezzo,
        hammer_hard_forte=hammer_hard_forte,
        blooming_energy=blooming_energy,
    )
Exemplo n.º 5
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    def render(self, name: str, cadence: old.Cadence) -> subprocess.Popen:
        seq = []
        for chord in cadence:
            dur = float(chord.delay)
            if chord.pitch != mel.TheEmptyPitch and bool(chord.pitch):
                size = len(chord.pitch)
                for idx, pi in enumerate(chord.pitch):
                    if idx + 1 == size:
                        de = float(dur)
                    else:
                        de = 0
                    if pi != mel.TheEmptyPitch:
                        if chord.volume:
                            volume = chord.volume
                        else:
                            volume = self.volume

                        tone = midiplug.PyteqTone(
                            ji.JIPitch(pi, multiply=self.CONCERT_PITCH),
                            de,
                            dur,
                            volume=volume,
                        )
                    else:
                        tone = midiplug.PyteqTone(
                            mel.TheEmptyPitch, de, dur, volume=self.volume
                        )
                    seq.append(tone)
            else:
                seq.append(old.Rest(dur))

        pt = midiplug.Pianoteq(tuple(seq), self.available_midi_notes)
        return pt.export2wav(name, 1, self.preset, self.fxp)
Exemplo n.º 6
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def simple_synthesis(melodies: tuple, make_diva=True):
    import random

    random.seed(10)

    import pyteq

    for idx, voice in enumerate(melodies):
        # voice = old.Melody(voice[:120]).tie()
        voice = old.Melody(voice[:200])
        if make_diva:
            melody_diva = [
                pyteq.DivaTone(
                    ji.JIPitch(t.pitch, multiply=250),
                    t.delay,
                    t.duration,
                    glissando=t.glissando,
                    volume=t.volume,
                ) if t.pitch != mel.TheEmptyPitch else pyteq.PyteqTone(
                    t.pitch, t.delay, t.duration) for t in voice
            ]
            pyteq.Diva(melody_diva).export(
                "pianoteq_output/test_diva{0}.mid".format(idx))
        melody_pteq = [
            pyteq.PyteqTone(
                ji.JIPitch(t.pitch, multiply=250),
                t.delay,
                t.duration,
                volume=t.volume,
                glissando=t.glissando,
                # impedance=random.uniform(2.801, 2.98),
                q_factor=random.uniform(0.201, 0.28),
                string_length=random.uniform(8.9, 9.8),
                sustain_pedal=1,
            ) if t.pitch != mel.TheEmptyPitch else pyteq.PyteqTone(
                t.pitch, t.delay, t.duration) for t in voice
        ]
        f = pyteq.Pianoteq(melody_pteq,
                           available_midi_notes=tuple(n
                                                      for n in range(20, 125)))
        f.export2wav("pianoteq_output/test{0}".format(idx),
                     preset='"Concert Harp Daily"')
Exemplo n.º 7
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    def __init__(
        self,
        tempo_factor: float,
        pitches: tuple,
        rhythm: binr.Compound,
        discard_rests: bool = True,
    ):
        self.__tempo_factor = tempo_factor
        self.__pitches = pitches
        self.__rhythm = rhythm

        melody = old.Melody(
            old.Tone(ji.JIPitch(p, multiply=globals.CONCERT_PITCH), r *
                     tempo_factor) if not p.is_empty else old.
            Rest(r * tempo_factor) for p, r in zip(pitches, rhythm))
        if discard_rests:
            melody = melody.discard_rests()
        super().__init__(melody, attack=0.08, decay=0.05, release=0.25)
Exemplo n.º 8
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    def make_data(self) -> tuple:
        """set orc and sco attributes."""

        start_per_attack, duration_per_attack, volume_per_attack = (
            self.find_start_and_duration_and_volume())

        orc_lines = []
        sco_lines = []

        for instr_idx, start, duration, volume in zip(
                range(len(start_per_attack)),
                start_per_attack,
                duration_per_attack,
                volume_per_attack,
        ):

            valid_pitches = functools.reduce(
                operator.add,
                tuple(
                    tuple(
                        ji.JIPitch(p, multiply=globals.CONCERT_PITCH).register(
                            octave).freq for octave in self._octaves)
                    for p in next(self._chord)[0](
                        *globals.MALE_SOIL.harmonic_primes_per_bar[
                            self.segment._bar_number])),
            )
            orc_data, sco_data = next(self._sample_maker)(
                instrument_idx=instr_idx + 1,
                start=start,
                duration=duration,
                volume=volume,
                pitch=valid_pitches,
            )

            orc_lines.extend(orc_data + ("", ))
            sco_lines.extend(sco_data)

        self._orc = "\n".join(orc_lines)
        self._sco = "\n".join(sco_lines)
Exemplo n.º 9
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    def __call__(self, name: str, cadence: old.JICadence) -> None:
        seq = []
        for chord in cadence:
            dur = float(chord.delay)
            if chord.pitch != mel.TheEmptyPitch and bool(chord.pitch):
                size = len(chord.pitch)
                for idx, pi in enumerate(chord.pitch):
                    if idx + 1 == size:
                        de = float(dur)
                    else:
                        de = 0
                    tone = pyteq.PyteqTone(
                        ji.JIPitch(pi, multiply=self.CONCERT_PITCH),
                        de,
                        dur,
                        volume=self.volume,
                    )
                    seq.append(tone)
            else:
                seq.append(old.Rest(dur))

        pt = pyteq.Pianoteq(tuple(seq), self.available_midi_notes)
        pt.export2wav(name, 1, self.preset, self.fxp)
Exemplo n.º 10
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    def make_diva_sequence(self, voice: tuple, tempo_factor: float) -> tuple:
        diva_sequence = []

        for tone in voice:
            delay = tone.delay * tempo_factor

            if tone.pitch.is_empty:
                dt = old.Rest(delay)

            else:
                div_synth_args = {
                    arg: next(self.init_arguments[arg])
                    for arg in self.init_arguments
                }
                dt = midiplug.DivaTone(ji.JIPitch(
                    tone.pitch, multiply=globals.CONCERT_PITCH),
                                       delay,
                                       delay,
                                       volume=tone.volume,
                                       **div_synth_args)

            diva_sequence.append(dt)

        return tuple(diva_sequence)
Exemplo n.º 11
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        p0 += ji.r(2, 1)
        p1 += ji.r(2, 1)
    p2 = p1 + ji.r(4, 1)
    p3 = p0 + ji.r(4, 1)
    PITCHES_POSITIVE.append(p0)
    PITCHES_POSITIVE.append(p2)
    PITCHES_NEGATIVE.append(p1)
    PITCHES_NEGATIVE.append(p3)

if __name__ == "__main__":
    import pyteqNew as pyteq

    for idx, pitches in enumerate([PITCHES_POSITIVE, PITCHES_NEGATIVE]):
        if idx < 1:
            name = "Positive"
        else:
            name = "Negative"

        for p_idx, pitch in enumerate(sorted(pitches)):
            local_name = name + str(p_idx)
            melody = [
                pyteq.MidiTone(ji.JIPitch(pitch, multiply=CONCERT_PITCH),
                               4,
                               4,
                               volume=1)
            ]

            harp_range = tuple(n for n in range(20, 125))
            f = pyteq.Pianoteq(melody, available_midi_notes=harp_range)
            f.export2wav(local_name, preset='"Erard Player"')
Exemplo n.º 12
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    def render(self, path: str) -> subprocess.Popen:
        adapted_rhythms = [
            rhythm * self.__tempo_factor for rhythm in self.__rhythm
        ]
        adapted_rhythms[-1] += self.__overlaying_time

        melody = old.Melody(
            tuple(
                old.Tone(p, r, r, volume=v) for p, r, v in zip(
                    self.__pitches, adapted_rhythms, self.__dynamics)))

        is_consonant_pitch_per_tone = tuple(
            self.__is_not_dissonant_pitch_per_tone)
        spectrum_profile_per_tone = tuple(self.__spectrum_profile_per_tone)

        if self.convert_dissonant_tones2glissandi:
            melody = self._convert_dissonant_tones2glissandi(melody)

        if self.__tremolo is not None:
            info = self.__tremolo(melody, is_consonant_pitch_per_tone,
                                  spectrum_profile_per_tone)
            melody, is_consonant_pitch_per_tone, spectrum_profile_per_tone = info

        for modulator in self.modulator:
            melody = modulator(melody)

        sequence = []
        for tone, is_not_dissonant_pitch, spectrum_profile in zip(
                melody, is_consonant_pitch_per_tone,
                spectrum_profile_per_tone):

            pitch, rhythm, volume, glissando = (
                tone.pitch,
                tone.delay,
                tone.volume,
                tone.glissando,
            )

            if pitch.is_empty:
                tone = pteqer.mk_empty_attack(
                    rhythm, next(self.empty_attack_dynamic_maker))

            else:
                if is_not_dissonant_pitch:
                    parameters = dict(self.parameter_non_dissonant_pitches)

                else:
                    parameters = dict(self.parameter_dissonant_pitches)

                for par in parameters:
                    value = parameters[par]
                    if isinstance(value, infit.InfIt):
                        parameters[par] = next(value)
                    elif (isinstance(value, float) or isinstance(value, int)
                          or value is None):
                        parameters[par] = value
                    else:
                        msg = "Unknown value type: {}.".format(type(value))
                        raise TypeError(msg)

                if parameters["pinch_harmonic_pedal"] == 1:
                    if parameters["pinch_harmonic_pedal"]:
                        pitch -= ji.r(2, 1)

                tone = midiplug.PyteqTone(
                    ji.JIPitch(pitch, multiply=globals.CONCERT_PITCH),
                    rhythm,
                    rhythm,
                    volume=volume,
                    glissando=glissando,
                    spectrum_profile_3=spectrum_profile[0],
                    spectrum_profile_5=spectrum_profile[1],
                    spectrum_profile_6=spectrum_profile[0],
                    spectrum_profile_7=spectrum_profile[2],
                    **parameters,
                )

            sequence.append(tone)

        pteq = midiplug.Pianoteq(tuple(sequence))
        return pteq.export2wav(path, preset=self.preset, fxp=self.fxp)
Exemplo n.º 13
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def _notate(name: str, instrument: str, scale: tuple) -> None:
    for add_harmonics in (False, True):
        if add_harmonics:
            harmonics_dict = {
                key: value[0]
                for key, value in globals_.RATIO2ARTIFICAL_HARMONIC_PITCHCLASS_AND_ARTIFICIAL_HARMONIC_OCTAVE.items()
            }

        if instrument == "violin":
            clef = abjad.Clef("treble")
            header_distance = -0.4
        elif instrument == "viola":
            clef = abjad.Clef("alto")
            header_distance = -1
        elif instrument == "cello":
            clef = abjad.Clef("bass")
            header_distance = -1
        else:
            raise NotImplementedError(instrument)

        staff = abjad.Staff([])
        for idx, pitch in enumerate(scale):
            abjad_pitch = lily.convert2abjad_pitch(pitch, globals_.RATIO2PITCHCLASS)

            if add_harmonics:
                (
                    _,
                    octave,
                ) = globals_.RATIO2ARTIFICAL_HARMONIC_PITCHCLASS_AND_ARTIFICIAL_HARMONIC_OCTAVE[
                    pitch.register(0)
                ]
                harmonic_pitch = lily.convert2abjad_pitch(
                    pitch + ji.JIPitch([octave]), harmonics_dict
                )
                chord = abjad.Chord(
                    sorted([abjad_pitch, harmonic_pitch]), abjad.Duration(1)
                )
                abjad.tweak(chord.note_heads[1]).style = "harmonic"
                staff.append(chord)
            else:
                staff.append(abjad.Note(abjad_pitch, abjad.Duration(1)))

        abjad.attach(lily.mk_no_time_signature(), staff[0])
        abjad.attach(abjad.TimeSignature((len(staff), 1)), staff[0])
        abjad.attach(clef, staff[0])
        abjad.attach(
            abjad.LilyPondLiteral(
                "\\override Score.SpacingSpanner.strict-note-spacing = ##t",
                format_slot="before",
            ),
            staff[0],
        )
        abjad.attach(
            abjad.LilyPondLiteral("\\newSpacingSection", format_slot="before"), staff[0]
        )
        abjad.attach(
            abjad.LilyPondLiteral(
                "\\override Score.SpacingSpanner.base-shortest-duration ="
                " #(ly:make-moment"
                + " 1/8)",
                format_slot="before",
            ),
            staff[0],
        )

        abjad.attach(
            abjad.LilyPondLiteral("\\accidentalStyle dodecaphonic", "before"), staff[0],
        )

        sco = abjad.Score([staff])

        if add_harmonics:
            descr = "scale for {} with artificial harmonics".format(instrument)
        else:
            descr = "scale for {}".format(instrument)

        header_block = abjad.Block("header")
        header_block.piece = abjad.Markup(
            abjad.MarkupCommand(
                "center-column",
                [
                    abjad.MarkupCommand("fontsize", -1.5),
                    abjad.MarkupCommand("smallCaps"),
                    descr,
                    abjad.MarkupCommand("vspace", header_distance),
                ],
            )
        )
        final_file_name = "{}/pictures/scale_{}".format(name, instrument)

        if add_harmonics:
            final_file_name = "{}_artificial_harmonics".format(final_file_name)

        lily.make_small_example(sco, final_file_name, header_block=header_block)