Method process

src/Muxlicer.cpp:114–163

returns the gated clock signal, returns true when high

	// returns the gated clock signal, returns true when high
	bool process(float deltaTime, bool clockPulseReceived) {

		if (clockPulseReceived) {
			// update our record of the incoming clock spacing
			if (secondsSinceLastClock > 0.0f) {
				inputClockLengthSeconds = secondsSinceLastClock;
			}
			secondsSinceLastClock = 0.0f;
		}

		bool out = false;
		if (secondsSinceLastClock >= 0.0f) {
			secondsSinceLastClock += deltaTime;

			// negative values are used for division (x 1/mult), positive for multiplication (x mult)
			const int division = std::max(-multDiv, 1);
			const int multiplication = std::max(multDiv, 1);

			if (clockPulseReceived) {
				if (dividerCount < 1) {
					dividedProgressSeconds = 0.0f;
				}
				else {
					dividedProgressSeconds += deltaTime;
				}
				++dividerCount;
				if (dividerCount >= division) {
					dividerCount = 0;
				}
			}
			else {
				dividedProgressSeconds += deltaTime;
			}

			// lengths of the mult/div versions of the clock
			const float dividedSeconds = inputClockLengthSeconds * (float) division;
			const float multipliedSeconds = dividedSeconds / (float) multiplication;

			// length of the output gate (s)
			const float gateSeconds = std::max(0.001f, multipliedSeconds * 0.5f);

			if (dividedProgressSeconds < dividedSeconds) {
				float multipliedProgressSeconds = dividedProgressSeconds / multipliedSeconds;
				multipliedProgressSeconds -= (float)(int)multipliedProgressSeconds;
				multipliedProgressSeconds *= multipliedSeconds;
				out = (multipliedProgressSeconds <= gateSeconds);
			}
		}
		return out;
	}

	float getEffectiveClockLength() {
		// negative values are used for division (x 1/mult), positive for multiplication (x mult)