The space also contains two orbs, blue
(4) and green
The blue orb follows a given trajectory within the two-dimensional space, which
is determined by Warp.
The green orb orbits around the blue orb in a circular motion. This motion is
referred to as Suborbit and its speed can be synchronized to the master
Suborbit Size and Suborbit Speed can be controlled by dedicated knobs.
The whole mechanism is called the Orbiter.
When a note is triggered, all four Corners play simultaneously and the final mix point of their outputs is determined by the green orb’s position.
The centre point
(2) as well as the rotation and size of the Orbiter trajectory
can be set from the touchscreen interface.
When Retrigger is enabled, the Orbiter motion always starts from
the beginning of the shape – its zero phase
(3) – on note input or after each
cycle of the Arpeggiator sequence. Note that the zero phase can be changed by
To control the movement of the Orbiter manually, press the Focus button once to stop the Orbiter movement along the warped trajectory.
The centre point of the Orbiter can be also controlled by MIDI Control Change (CC) messages.
If your MIDI controller supports aftertouch, try routing it to the Suborbit Speed CC.
Corners are the origin of sound synthesis in Vector.
Each of the four Corners consists of two Overtone Generators with six specific overtone patterns. The two generators are combined by the Blend element – additive in the first half (G1+G2), modulated in the second (G1×G2). In addition, each of the Corners has an associated filter which can be placed after Generator, Blend or Mix in the Corner Matrix.
All four Corners play at the same time and the resulting Mix is modulated by the position of the Orbiter.
Each Corner is controlled by five parameters (Overtone Gen 1 and 2, Overtone Blend, Filter Cutoff and Filter Resonance) which are assigned to the five knobs just below the display. These knobs increase or decrease values of the selected Corners’ parameters.
The individual filters’ resonances are limited by the Master Resonance knob.
The Corners under editing can be changed in the Corner Matrix accessible by the Corner Select button.
The Orbiter trajectory is defined by a warped shape.
Three Lissajous shapes with increasing complexity or an ADSR shape can be selected on the Orbiter screen . These shapes can then be distorted by dragging the rectangular Warp Pad (just below the shape selector) horizontally and vertically.
The Lissajous shapes are always perodic and their sped can be set relatively (1× to 8×) to the master Tempo using one of the speed selectors below the Warp Pad. Moreover, the resulting trajectory can be resized, moved or rotated by dragging it on the Orbiter screen.
When the ADSR shape is selected, the Orbiter follows a figure in which each stage of the envelope covers a different segment of the 2D space. The segments can be warped individually based on the segment selectors below the Warp Pad (A-D, D-S, S-R), while their endpoints can be moved on the Orbiter screen to form the desired trajectory. It is possible to use the same ADSR envelope for both amplitude and Orbiter or to have two independent sets of values depending on the selected configuration. See the Envelope section for more details.
The initial orbiter shape and position can be restored using the Warp Reset button.
The picture below shows examples of warped Lissajous and ADSR shapes.
The Overtone Generators produce overtones (harmonics) in seven specific patterns. The first six patterns A-F are described in the table below while the seventh pattern, N, generates random noise. For a familiar mental model, It might be useful to think of the overtone patterns in a similar way as you would think of accordion or organ registers.
Patterns A–C include even-ish overtones while patterns D–F are more odd-ish (note that the 1st overtone, the fundamental, is always present). Some overtones are present with positive and other with negative amplitudes, making it possible to subtract overtones when blending two patterns together.
The blend of overtone patterns C and D produces a sawtooth waveform.
The amplitudes of the overtones decrease such that the amplitude of the n-th overtone is either 1/n or -1/n, depending on the sign in the table.
The Noisy overtones pattern (N) generates random noisy content above the fundamental frequency played. It is based on a pink noise (1/f) generator with a resonant high pass filter tuned to the fundamental and can be used on its own or employed as a modulator or carrier in the all Blend modes.
The Overtone Generators 1 and 2 can be blended together using the Overtone Blend knob. When the knob is in the centre position, the resulting set of overtones equals to Generator 1 (while Generator 2 is ignored).
Outside of the centre position, Blend operates in two different modes: Additive in the left and Modulated in the right half of the range.
When moving the knob to the left from the centre, the two generators are blended additively and the Overtone Blend knob determines the amount of Generator 2 overtones added to or subtracted from the overtones produced by Generator 1 (depending on the +/- signs in the Overtone Generators table), with the leftmost position corresponding to G1+G2.
When turning the knob to the right from the centre, the two generators are modulated (marked as G1×G2). Three different modulations are available for selection in the Corner Matrix for each Overtone Blend:
Amplitude modulation (AM),
Phase modulation (PM), and
Combination of both (PM+AM).
In the Amplitude modulation mode, Generator 1 and Generator 2 are amplitude cross-modulated at the audio rate.
In the Phase modulation mode, Generator 1 is a carrier and Generator 2 is a modulator while the Overtone Blend knob determines the amount of the modulation.
Finally, in the Combined PM+AM modulation mode, Generator 2 frequency-modulates Generator 1, and then the result is audio-rate amplitude cross-modulated between the frequency-modulated Generator 1 and the original Generator 2.
The Corner Matrix is accessible on the Orbiter screen through the Corner Select button and allows for
selection of the Corners under editing (with Single or Multi selection possible),
versatile configuration of four independent filters (each filter can be placed to any point in the synthesis engine pipeline or Bypassed),
selection of the modulation (G1×G2) mode for each Overtone Blend (PM, AM or Both), and
configuration of the Randomizer (Corners, Matrix or Both).
The picture above shows the Corner Matrix interface with four tabs representing each filter and four rows corresponding to each Corner.
To select Corners for editing, tap one or more of the buttons (labeled 1 to 4) in the first column. The selected Corners can then be controlled by the five Corner parameters knobs just below the display.
To slot a filter, select one of the four filters on the tabs (labeled Filter 1 to Filter 4) and then tap one of the elements in the Corner Matrix. The filter is then placed between the selected element’s output and the next element’s input, as an insert.
In this particular example, Filter 1 is currently under editing and it is configured as a high-pass filter tracking the fundamental frequency of played notes. Filter 2 is placed after Blend of Corner 2, Filter 3 is placed after Generator 2 of Corner 3 and Filter 4 is placed after Generator 1 of Corner 4 – the number of the filter is always indicated by one of the four icons for convenience. Two Corners 1 and 2 are selected, which means their values are changed by the five knobs just below the display.
Notice the signal flow of the corners pipeline: the signal is cascading down in such a way, that if a filter is placed on the Mix element, that filter will process the sum of all previous corners’ outputs.
The behaviour of the Corner Select button can be configured in Global settings.
Three different 12dB per octave filter types are available:
High-pass filter passes frequencies above Filter Cutoff (and attenuates frequencies below the cut-off frequency).
Low-pass filter passes frequencies below Filter Cutoff.
Band-pass filter passes frequencies inside a band with its centre (resonant) frequency defined by Filter Cutoff.
A filter can be configured to either Track the played notes (so the cut-off frequency is relative to the fundamental frequency of the note) or interpret the cut-off frequency as an absolute value.
If a filter is Static, it is assigned to one specific Corner of the Orbiter (Filter 1 to Corner 1 etc.), which means its properties are always controlled by the specific Corner’s parameter no matter where in the Corner Matrix the it is placed. Otherwise the parameters Filter Cutoff and Filter Resonance are modulated by the current Orbiter’s position, as shown by the top-most bar of the Resonance and Cutoff indicators at the bottom of the screen.
By stacking filters on top of each other, they will be processed serially. Filters of the same type and tuning will effectively increase their total cutoff to up to 48dB/oct, but beware of out of control resonances in such scenarios.
The Randomize button generates a new set of parameters for all selected Corners (and the Corner Matrix) while the Undo button reverts back to the previous state.
The scope of the Randomizer can be configured in the Corner Matrix.
Vector supports three distinct polyphony modes with different sets of parameters.
1 to 16
In the Poly Mode, each new note is played by a separate voice, resulting in a 16-voice polyphony. New individual voices can be randomly scattered (panned) across the stereo space using the Glide/Stereo knob and periodically randomly detuned by an amount controlled by the Detune Drift knob.
In the Dual Mode, each note is played by a separate voice which is complemented by a second follower voice with an altered pitch and amplitude. This mode thus effectively reduces the maximum number of concurrently playing voices to eight.
The pitch of the follower voice can be adjusted by the Detune Follower knob while the amplitude is controlled by the Follower Volume slider on the Effects screen .
The Suborbit Offset slider controls the suborbit phase offset between the main and the follower voice and the Glide/Stereo knob controls the stereo bias of the main voice (with the 50% value representing no bias). When the main voice is biased to the left, the follower voice is panned to the right and vice versa.
In the Mono Mode, all voices form a voice stack dedicated to playing one note, with each of the voices being slightly detuned by an amount derived from the Detune Stack knob and panned (evenly spread across the stereo space).
The number of available voices can be reduced using the Voices slider on the Effects screen , which when reduced to a single voice makes Vector act as a monophonic synthesizer. The Stack Volume controls the relative amplitudes of the voices in the stack except for the first voice.
The Glide knob controls the portamento time (i.e. the amount of time it takes to change the oscillator pitch between two overlapping notes). Glide can thus be used to play a legato effect by pressing a note followed by another note without releasing the first one. Legato can be also played by the Arpeggiator if two adjacent steps are chained together.
The Arpeggiator records notes from its input and plays them out sequentially in eight steps, with multi-octave transpositions.
The Active switch enables or disables the arpeggiator while the Note Length knob adjusts the length of notes played in each step relatively to the arpeggiator tempo (which is derived from the master Tempo and can be set to different time signatures).
The Effects screen allows for more detailed control over
the arpeggiator. The Step Grid
(2) represents the arpeggiator sequence with
octaves spread vertically. It is possible to select octave transposition for
each step or to disable it completely. The velocity of each step in the sequence
can be adjusted using the sliders below
(3). The adjacent notes can be chained
(1) into one.
The chaining either generates legato in the Mono polyphony mode or joins two steps with equal octaves in the Dual and Poly modes.
The arpeggiator note memory can be temporary (with arpeggiator playing only the currently pressed notes), Latched (notes stay in memory even after they are released), or Step-recorded . The order in which the notes are played out can be sorted Up , Down or Shuffled .
To make the pattern produced by the arpeggiator vary over time, some of the parameters can be set to be automatically randomized while the arpeggiator is playing:
Octave Walk periodically alters octave transpositions of the individual steps.
Chain Walk alters the steps’ chaining.
Humanize alters note lengths.
To feed notes into the arpeggiator, the Feed Direction switch must be set to Arp or Both and the Feed button has to be active (indicated by flashing LED), as described in section Feed.
Depending on the Feed configuration, the arpeggiator can play in the background.
To release notes from the arpeggiator, press the Latch button twice.
At least some octaves in the grid have to be enabled in order to make the arpeggiator output notes.
The arpeggiator can be fed from a separate MIDI channel as described in MIDI configuration. It can be also configured to output notes to a selected MIDI channel.
The Effects’ parameters are accessible on the two bottom-most rows of encoders (depending on the Control switch configuration for some of them) with additional options available on the Effects screen .
Vibrato and Tremolo¶
Vibrato and tremolo are effects which periodically modulate the pitch and amplitude of the played notes. They are characterized by two parameters, depth and speed.
Vibrato Depth controls the amount of the pitch variation and Tremolo Depth controls the amplitude variation, while Vibrato Speed and Tremolo Speed control the frequency of each variation.
To disable Vibrato or Tremolo, turn the respective Depth knob to zero.
Drive is derived from an overdrive effect known from guitar amplifiers where the input signal is saturated so that clipping occurs, adding a number of new harmonics to the signal.
The effect consists of a band-pass filter followed by a saturator, wired in parallel. The filter’s cut-off frequency is controlled by the Drive Colour knob, while Drive Amount controls both the input gain of the saturator and the contribution of the Drive effect to the final mix.
The Bypass button on the Effects screen disables the saturator. In this case, the Drive Amout only sets the mix level of the effect’s band-pass filter.
Chorus mixes together sounds played back at different pitches, resembling the effect of a choir or an orchestra section. It consists of several variable delay lines and an optional band-pass filter which are characterized by three parameters:
Chorus Depth controls the amount of detuning.
Chorus Speed determines the speeds of the variable delay lines (this can be synchronized with the master Tempo using one of the switches in the Sync section and additionally slowed down by a factor of two).
Chorus Colour controls the band-pass filter’s cutoff frequency if the filter is enabled .
The effect can operate in mono or stereo. If the Stereo Mode is enabled, the effect’s output is different for the left and right channels.
The Delay effect adds a delayed version of the audio signal to the final mix.
Delay Time controls how much is the signal delayed and Delay Feedback controls the amount of output signal being fed back into the delay. The feedback signal is also affected by an optional Band-pass Filter .
If the Delay Feedback is set to a maximum (and the band-pass filter is disabled), the Delay effect behaves as a looper. If the feedback is set to zero, the internal audio buffer is fully cleared after one Delay Time period. If needed, the buffer can be cleared manually .
Delay can operate in mono or stereo. In the Stereo Mode , the effect’s output is different for the left and right channels (“ping-pong”).
Reverb simulates the reverberation of sound in a physical environment caused by reflections from the boundaries (walls of a concert hall for example).
Reverb Size increases the persistence of the processed sound (in the same way as larger rooms produce longer reverberation), while Reverb Colour controls the cutoff frequency of a band-pass filter at the effect’s output.
The effect operates in stereo mode so its output is different for the left and right channels.