Complex Absolute Value

calcAntiLogControl: accepts a float variable from 0.0 to 1.0 returns an anti-log version from 0.0 to 1.0 y = (10^x - 1)/9 | 1.0 | * | * |

Helpers for advanced users who make their own GUI

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per voice

not per voice

calcInverseAntiLogControl: accepts a float variable from 0.0 t0 1.0 returns an anti-log version from 1.0 to 0.0 y = (10^(1-x) - 1)/9 | 1.0 |* |* | * |

calcInverseLogControl:accepts a float variable from 0.0 t0 1.0 returns an anti-log version from 1.0 to 0.0 y = log(9*(1-x)+1) | 1.0 |* | * | * |

Helper Functions ------------------------------------------------------------- // These log/antilog control functions are plotted at this website: htt

calcModulatedValueLin() returns the new linearly modulated control value dLowLimit = low limit of control dHighLimit = high limit of control dContro

calcModulatedValueExp() returns the new exponentially modulated control value dLowLimit = low limit of control dHighLimit = high limit of control dC

0->1

calcValueVoltOctaveExp() returns the volt/octave exponential value dLowLimit = low limit of control dHighLimit = high limit of control dControlValue

calculateDelayOffset(): fLFOSample: a value from 0.0 to 1.0 from the LFO object returns: the calculated delay time in mSec for each effect NOTES:

calculatePanValues() calculates the left and right pan values dPanMod = bipolar (-1 -> 1) pan modulation value returns are via pass-by-reference me

capChargeTransform() calculates the expDecayTransform of the input dValue = the unipolar (0 -> 1) value to convert returns a value from 0 up to 1.0

capDischargeTransform() calculates the capDischargeTransform of the input dValue = the unipolar (0 -> 1) value to convert */

Complex Exponential

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Reset all max numbers */

Reset the clip flag to reset the indicator in the meter */