mutable marbles Скачать руководство пользователя страница 3

From 7 o’clock to 12 o’clock, this probability goes from 0 (completely random) to 1 (locked loop).
At 12 o’clock, the module is thus stuck in a loop, because it never generates fresh random data. In this case,
the illuminated pushbuttons [F] and [G] blink.
From 12 o’clock to 5 o’clock, the probability of randomly jumping within the loop goes from 0 to 1.
At 5 o’clock, the module thus plays random permutations of the same set of decisions/voltages.

I. Loop length.

 Lengths of 5, 7, 10 and 14 can be obtained by setting the knob between the graduations

printed on the panel.

4. DEJA VU CV input.

The X generator generates 

three independent random

 voltages output on 

X

1

X

2

 and 

X

3

. They are

clocked by the three outputs from the 

t

 section, or by a common external clock.

J. Output voltage range.

 0 to +2V, 0 to +5V or -5 to +5V.

K. Probability distribution

 width and shape. Turning counter-clockwise from 12 o’clock, the voltages are

increasingly concentrated near the center of the range. Fully counter-clockwise, a constant voltage is
output. At 12 o’clock, they follow a bell curve - more likely to occur near the center but able to reach the
extremes. At 2 o’clock, they occupy the entire voltage range with equal probability. Past this point, extreme
values become more likely. Fully clockwise, only the minimum and maximum voltages are possible,
turning 

X

1

X

2

 and 

X

3

 into random gates.

L. Distribution bias.

 Skews the distribution towards low or high voltages. Think of this as the probabilistic

equivalent of an offset: it does not shift the voltage down or up, but biases the decision towards the bottom
or top of the voltage range.

In the illustration below, the pink histogram represents the distribution of possible output voltages: the
tallest bar corresponds to the most likely outcome. The teal oscillogram is an example of output voltage
sequence.

M. Horizontal and vertical “steppiness”

 of the generated voltages. At 12 o’clock, generates the typical

S&H steps. Turn CCW to generate smoother edges, then random linear segments, then smooth random
curves. Turn CW to quantize the generated voltages to a scale, then to progressively strip the scale of its
notes until only the root note remains.

Mutable Instruments | Marbles

3 of 8

Содержание marbles

Страница 1: ...rasting rhythmic patterns complementing the main clock 3 Generate three random voltages in sync with the rhythmic patterns obtained at the previous step 4 Transform the random voltages to spread them...

Страница 2: ...ling and JITTER CV inputs 2 External clock input The clock signal patched in this input replaces the internal clock In this case the RATE knob and CV input are re purposed as a division multiplication...

Страница 3: ...oltage is output At 12 o clock they follow a bell curve more likely to occur near the center but able to reach the extremes At 2 o clock they occupy the entire voltage range with equal probability Pas...

Страница 4: ...D K controls the range of this transposition When no patch cable is inserted in the X section s clock input 6 the three X output will contain the same melody but with some notes frozen sustained on ou...

Страница 5: ...t ones in this scale The example below is for a C major scale first factory preset Hold the voltage range button J for 2 seconds and repeatedly press it to select a scale The color of the blinking LED...

Страница 6: ...eliminated then C F G less frequent notes D and A eliminated then C G F is the next to be eliminated then C which is the most frequent note in the fragment Hold the external processing mode button O f...

Страница 7: ...voltage levels or exposure to extreme temperature or moisture levels The warranty covers replacement or repair as decided by Mutable Instruments Please contact our customer service support mutable in...

Страница 8: ...Mutable Instruments Marbles 8 of 8...

Отзывы: