Deluxe Pack

Biased Switcher

This module works similarly to the Mutable Instruments Branches eurorack module. When triggered, the device flips a virtual coin to decide which incoming signal it'll output (BS 1 or BS 2). You can also bias the coin, increasing the chances of either outputting input 1 or 2.


Gate Bus	Receives
Pitch Bus	–––
Input 1 (Main)	BS 1
Input 2 (Control)	BS 2

Parameters:

Clock: sets the clock source to either internal or Gate Bus.
Rate: sets the rate of the internal clock.
Bias: sets the bias of the virtual coin.

Euclidean Sequencer

The Euclidean Sequencer generates rhythmic trigger patterns using an euclidean algorithm.


Gate Bus	Receives
Pitch Bus	–––
Input 1 (Main)	–––
Input 2 (Control)	–––

Parameters:

Hits: sets the number of hits per sequence.
Steps: sets the length of the sequence.
Shift: shits the sequence forward.

Logic

The logic module can perform different boolean logic operations to the two incoming signals and output the result to the Gate Bus.
The two incoming signals first go through an internal comparator in order to be transformed into boolean signals.


Gate Bus	Sends
Pitch Bus	–––
Input 1 (Main)	Logic Input 1
Input 2 (Control)	Logic Input 2

Parameters:

Threshold: sets the threshold of the internal comparator.
Mode: selects the boolean logic operation.

Matrix Sequencer

The Matrix Sequencer combines a step sequencer, a shift register, and a 9x9 matrix. The sequencer works by reading a 2x2 segment of the 9x9 matrix and transforming those 4 values into a voltage value (via a 4-bit DAC).
By triggering the Matrix Sequencer via the Gate Bus, you can advance the sequencer in different ways depending on the Mode selected.
Since the 2x2 readout advances 1 step for each time it receives a trigger / gate signal, each dot of the 9x9 matrix effectively affects many different steps of the step sequencer.
While the concept for this module may be complicated to understand, the module itself is very intuitive and easy to use.


Gate Bus	Receives
Pitch Bus	–––
Input 1 (Main)	–––
Input 2 (Control)	–––

Parameters:

X: sets the X position of the 2x2 readout on the 9x9 matrix.
Y: sets the Y position of the 2x2 readout on the 9x9 matrix.
Mode: sets sequencer mode.
Rand: randomizes the matrix.
Clear: clears the matrix.

MIDI Control

MIDI Control lets you use a MIDI controller as a CV source. It features 3 different Control Modes (CC, Pitch Bend, and Aftertouch), a Learn option, and a Smooth setting.
This module will only receive MIDI messages from the MIDI IN device selected in the MIDI Settings.


Gate Bus	–––
Pitch Bus	–––
Input 1 (Main)	–––
Input 2 (Control)	–––

Parameters:

Control Mode: selects what kind of MIDI message to transform into CV (CC, Pitch Bend, or Aftertouch).
Learn: activates learning mode.
CC #: selects the MIDI CC #.
Channel: selects which MIDI channel the module will listen to.
Smooth: sets the smoothing time.

Shift Register

Inspired by the Malekko / Wiard Noisering and MusicThing Turing Machine, the Shift Register module uses a 8bit analog-style shift register to create random sequences. It’s great for creating random sequences that slowly change over time.
For every clock pulse, the shift register advances 1 step and copies the value of the previous step to the next one (Step 1 gets copied to step 2, step 3 to step 4, etc). Once it gets to step 8, the algorithm decides (based on the Loop parameter) the probability of copying the last step (#8) back into Step 1 (therefore looping the sequence) or adding a new / random value to Step 1.
The output of the 8 steps go through an “DAC” that converts that 8-bit memory into a proper voltage level.


Gate Bus	Sends / Receives
Pitch Bus	–––
Input 1 (Main)	–––
Input 2 (Control)	–––

Parameters:

Clock: selects clock source (internal or Gate Bus).
Rate: sets the rate of the internal clock.
Loop: sets the probably of looping the 8-step sequence or introducing random values into Step #1.
Probability: sets the balance between 0 and 1 for new random values.

Trigger Burst

The Trigger Burst module generates bursts of trigger signals which can be used to create exponential rhythms. The parameter available in this module let you shape the bursts in many different ways.


Gate Bus	Receives
Pitch Bus	–––
Input 1 (Main)	Speed CV Input
Input 2 (Control)	Time CV Input

Parameters:

Speed: sets the top speed (frequency) of the trigger burst.
Speed CV: sets the amount of Speed CV (via the Main input).
Time: sets the total length of the trigger burst.
Time CV: sets the amount of Time CV (via the Control input).
Curve: sets the curve of the burst (which affects the way how the individual trigger signals are spread apart from each other).
- CCW: Logarithmic
- Middle: Linear
- CW: Exponential
Shape: sets the shape of the burst (which affects the density of trigger signals in the different stages of the burst).
- CCW: Sawtooth
- Middle: Triangle
- CW: Ramp
Trigger: manually triggers the module.

VC Switch

VC Switch is a two-way switch which can be used to alternate between different incoming CV signals. The module uses incoming gate signals from the Gate Bus to switch between its two inputs.


Gate Bus	Receives
Pitch Bus	–––
Input 1 (Main)	Switch Input 1
Input 2 (Control)	Switch Input 2

Parameters:

Mode: selects the switching mode. (Latch alternates between the two inputs everytime the module receives a gate signal while Gate momentarely selects the second input while the incoming gate signal is high.)
Slide: activates the slide funcionality. Slide will quickly crossfade between the two signals (20ms) instead of abruptly switching between them.

VCA

The VCA module (Voltage Controlled Amplifier) lets you use a control signal to control the gain of the main signal.


Gate Bus	–––
Pitch Bus	–––
Input 1 (Main)	Signal Input
Input 2 (Control)	Control Input

Parameters:

Expo: sets the curve of the VCA response (0% = Linear, 100% = Exponential).
Bias: sets the initial gain of the Main signal.
Gain: sets the amount of amplitude modulation caused by the Control input.