1. First steps in Reaktor Core - Native Instruments

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Connect the mixer and the oscillator together and use their combination to replace the sawtooth oscillator: Switch to the panel view. Now you can use the four faders of the mixer to vary the waveform mix. Let’s do one more modification to the instrument and add a Reaktor Core-based chorus effect. We say Reaktor Core based, because although the chorus itself is built as a core cell, the part containing panel controls for this chorus is still built using the primary-level features. That’s because at this time Reaktor Core structures cannot have their own control panels – the panels have to be built on the primary level. Select Insert Macro > Building Blocks > Effects > SE-IV Chorus and insert it after the Voice Combiner module: If you look inside the chorus you can see the chorus core cell and the panel controls: 16 – REAKTOR CORE
1.4. Basic editing of core cells Now we are about to learn a few things about editing core cells. We are going to start with something simple: modifying an existing core cell to your particular needs. First, double-click the MultiWave Osc to go inside: Inputs Normal Outputs What you see now is a Reaktor Core structure. The three areas separated by vertical lines are for three different kinds of modules: inputs (on the left), outputs (on the right), and normal modules (center). Whereas normal modules can move in all directions, the inputs and outputs can only be moved vertically, and their relative order matches the order in which they appear outside. So, you can easily rearrange their outside order by moving them around. Try moving the FM input below the PW input: REAKTOR CORE – 17
Page 1 and 2: REAKTOR CORE Tutorial
Page 3 and 4: Table of Contents 1. First steps in
Page 5 and 6: Appendix D. Core cell ports .......
Page 7 and 8: H.7. Audio Mix-Amp > Gain (dB) ....
Page 9 and 10: H.88. Logic > GT / IGT ............
Page 11 and 12: 1. First steps in Reaktor Core 1.1.
Page 13 and 14: You may also want to save core cell
Page 15: 1.3. Using core cells in a real exa
Page 19 and 20: You can shrink them back by right-c
Page 21 and 22: or design of the module. Generally,
Page 23 and 24: And here is an example of an event
Page 25 and 26: converter. As a result, our control
Page 27 and 28: The VCF section could be promising,
Page 29 and 30: There’s only one kind of module y
Page 31 and 32: As the name implies (and the info t
Page 33 and 34: Now you can type some text into the
Page 35 and 36: Instead of a nasty looking diagonal
Page 37 and 38: Some types of processing, mixing fo
Page 39 and 40: mix it with the delayed signal. Bec
Page 41 and 42: 0.02ms at 44.1kHz, even less at hig
Page 43 and 44: The Latch and Bool C types of ports
Page 45 and 46: In the value field type a new value
Page 47 and 48: modules in the same way we did earl
Page 49 and 50: 2.5. Using audio as control signal
Page 51 and 52: some primary-level event signals us
Page 53 and 54: is always at full amplitude. At 1 t
Page 55 and 56: The Gate2L, AND, and L2Gate modules
Page 57 and 58: Here is a picture of a continuous s
Page 59 and 60: 3.3. Simultaneous events Consider t
Page 61 and 62: 3.4. Processing order As you have s
Page 63 and 64: Event Inputs send core events to th
Page 65 and 66: Of course, in this particular case
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Now move the knob and watch the out
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4.2. Object Bus Connections Object
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As mentioned, the above structure i
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constants would send their values a
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4.4. Building an event accumulator
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� ��
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Now the reset works as specified. T
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output values. Let’s try that wit
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Should any files be found in this C
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The name “Modulation”, although
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5. Audio processing at its core 5.1
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5.2. Sampling rate clock bus A coup
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We have already seen a structure bu
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connections will be marked as inval
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As you can see, the clock input of
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left which we cannot see from the o
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samples, we have to produce several
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5.6. Other bad numbers Denormal num
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6.28319 is 2*π, which is then divi
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6. Conditional processing 6.1. Even
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In this version, the 0 output of th
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First we are going to build the cir
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default means use whatever precisio
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Switching between float and integer
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The output and all built-in modules
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The OBC chain at the bottom keeps t
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The speed of the number change in t
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And now the connection: The upper i
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This macro internally has an Index
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The four Write [] modules will take
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In general, you should also take ca
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� ��
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The size property of the array can
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So we include another macro for wra
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A new dialog will appear: What you
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Formal output precision Now that we
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9. Building optimal structures As a
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9.3. Numerical operations Floating
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Appendix A. Reaktor Core user inter
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Appendix B. Reaktor Core concept B.
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Appendix C. Core macro ports C.1. I
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Appendix D. Core cell ports D.1. In
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F.3. Math > - Produces the differen
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F.12. Bit > Bit OR Performs the bit
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that the module on the picture abov
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connected to the sidechain input. T
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Appendix G. Expert macros G.1. Clip
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G.12. Math > sqrt Square root appro
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G.24. Memory > Read [] Reads a valu
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Appendix H. Standard macros H.1. Au
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H.8. Audio Mix-Amp > Invert Inverts
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H.15. Audio Mix-Amp > XFade (lin) A
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H.22. Audio Shaper > Sine Shaper 4
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H.30. Control > Ctl Pan “Pans”
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H.38. Convert > ms2sec Converts the
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to positive. The allowed RM values
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H.53. EQ > Static Filter > 1-pole s
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H.62. EQ > Static Filter > 2-pole s
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H.70. Event Processing > Ctl2Gate C
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H.79. LFO > Random LFO Generates a
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H.88. Logic > GT / IGT Compares the
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Generates 4 phase-locked audio wave
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H.105. Oscillators > Quad Osc Gener
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H.112. VCF > Diode Ladder Diode-lad
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I.4. Audio Shaper > Parabol Sat Sim
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I.10. Control > Par Ctl Shaper Appl
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I.17. EQ > HighShelf EQ 1-pole high
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I.25. EQ > Static Filter > 2-pole s
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I.33. Oscillator > 4-Wave Mst Gener
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I.39. Oscillator > MultiWave Osc Ge
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I.44. VCF > 2 Pole SV x3 S 2-pole s
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Index A Array module ..............
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1. First steps in Reaktor Core - Native Instruments

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