| 57 | } |
| 58 | |
| 59 | void process(const ProcessArgs& args) override { |
| 60 | |
| 61 | const int numPolyphonyEngines = inputs[CLOCK_INPUT].getChannels(); |
| 62 | |
| 63 | for (int c = 0; c < numPolyphonyEngines; c += 4) { |
| 64 | // reset |
| 65 | float_4 reset = resetTrigger[c / 4].process(inputs[RESET_INPUT].getPolyVoltageSimd<float_4>(c)); |
| 66 | clockState_2[c / 4] = ifelse(reset, 0.f, clockState_2[c / 4]); |
| 67 | clockState_4[c / 4] = ifelse(reset, 0.f, clockState_4[c / 4]); |
| 68 | clockState_8[c / 4] = ifelse(reset, 0.f, clockState_8[c / 4]); |
| 69 | clockState_16[c / 4] = ifelse(reset, 0.f, clockState_16[c / 4]); |
| 70 | |
| 71 | // base derived clock |
| 72 | float_4 triggered = clockTrigger_1[c / 4].process(inputs[CLOCK_INPUT].getVoltageSimd<float_4>(c)); |
| 73 | clockState_1[c / 4] = clockTrigger_1[c / 4].isHigh(); |
| 74 | |
| 75 | // 1/2 derived clock changes state on every rising edge of the base clock |
| 76 | clockState_2[c / 4] = ifelse(triggered, ~clockState_2[c / 4], clockState_2[c / 4]); |
| 77 | float_4 clockTriggered_2 = clockTrigger_2[c / 4].process(ifelse(clockState_2[c / 4], 10.f, 0.f)); |
| 78 | |
| 79 | // 1/4 derived clock changes state on every rising edge of the 1/2 derived clock |
| 80 | clockState_4[c / 4] = ifelse(clockTriggered_2, ~clockState_4[c / 4], clockState_4[c / 4]); |
| 81 | float_4 clockTriggered_4 = clockTrigger_4[c / 4].process(ifelse(clockState_4[c / 4], 10.f, 0.f)); |
| 82 | |
| 83 | // 1/8 derived clock changes state on every rising edge of the 1/4 derived clock |
| 84 | clockState_8[c / 4] = ifelse(clockTriggered_4, ~clockState_8[c / 4], clockState_8[c / 4]); |
| 85 | float_4 clockTriggered_8 = clockTrigger_8[c / 4].process(ifelse(clockState_8[c / 4], 10.f, 0.f)); |
| 86 | |
| 87 | // 1/16 derived clock changes state on every rising edge of the 1/8 derived clock |
| 88 | clockState_16[c / 4] = ifelse(clockTriggered_8, ~clockState_16[c / 4], clockState_16[c / 4]); |
| 89 | |
| 90 | // Set outputs |
| 91 | outputs[F_1_OUTPUT].setVoltageSimd(ifelse(clockState_1[c / 4], 10.f, 0.f) - 5.f * removeClockDC, c); |
| 92 | outputs[F_2_OUTPUT].setVoltageSimd(ifelse(clockState_2[c / 4], 10.f, 0.f) - 5.f * removeClockDC, c); |
| 93 | outputs[F_4_OUTPUT].setVoltageSimd(ifelse(clockState_4[c / 4], 10.f, 0.f) - 5.f * removeClockDC, c); |
| 94 | outputs[F_8_OUTPUT].setVoltageSimd(ifelse(clockState_8[c / 4], 10.f, 0.f) - 5.f * removeClockDC, c); |
| 95 | outputs[F_16_OUTPUT].setVoltageSimd(ifelse(clockState_16[c / 4], 10.f, 0.f) - 5.f * removeClockDC, c); |
| 96 | } |
| 97 | |
| 98 | outputs[F_1_OUTPUT].setChannels(numPolyphonyEngines); |
| 99 | outputs[F_2_OUTPUT].setChannels(numPolyphonyEngines); |
| 100 | outputs[F_4_OUTPUT].setChannels(numPolyphonyEngines); |
| 101 | outputs[F_8_OUTPUT].setChannels(numPolyphonyEngines); |
| 102 | outputs[F_16_OUTPUT].setChannels(numPolyphonyEngines); |
| 103 | |
| 104 | bool anyState[5] = {}; |
| 105 | for (int c = 0; c < numPolyphonyEngines; c++) { |
| 106 | anyState[0] |= ifelse(clockState_1[c / 4], 1.f, 0.f)[c % 4] > 0.f; |
| 107 | anyState[1] |= ifelse(clockState_2[c / 4], 1.f, 0.f)[c % 4] > 0.f; |
| 108 | anyState[2] |= ifelse(clockState_4[c / 4], 1.f, 0.f)[c % 4] > 0.f; |
| 109 | anyState[3] |= ifelse(clockState_8[c / 4], 1.f, 0.f)[c % 4] > 0.f; |
| 110 | anyState[4] |= ifelse(clockState_16[c / 4], 1.f, 0.f)[c % 4] > 0.f; |
| 111 | } |
| 112 | |
| 113 | // Set lights |
| 114 | if (lightDivider.process()) { |
| 115 | float lightTime = args.sampleTime * lightDivider.getDivision(); |
| 116 |
nothing calls this directly
no test coverage detected