From your message, it sounds like you're interested in constructing a circuit that cycles through three states (green, yellow, red) and then returns to the green state. A simple way to achieve this is with a microcontroller, e.g. an Arduino, and a tri-color LED, or three separate LEDs (Green, Yellow, Red).

However, if you're looking for a more analog design, you could use a 555 timer in astable mode, a counter, and a decoder to drive the LEDs.

Let me know, which method would you prefer to use: microcontroller-based or a 555 timer-based circuit? By selecting one of these methods, I can give you clearer instructions on how to add the components to the Flux project.

Sure, let's design a simple timing circuit using a 555 Timer, a CD4017 Decade Counter, and a 74HC238 3-to-8 line decoder to control three distinct LEDs (green, yellow, red).

Here are the components you will need to add to your project in Flux:

Once you added these components to your Flux project, here's a simple way to wire them:

Note: The designator will follow the pattern "Xn" for ICs "Rn" for resistors, "Cn" for capacitors, and "LEDn" for LEDs.

Remember to use a power supply that matches the requirements of your components. A supply of 5V to 9V should be suitable in most cases.

These instructions should create a circuit that sequences through each LED in continuous rotation: Green, then Yellow, then Red, then back to Green.

These assumptions are made based on standard component values and may need to be updated based on your specific requirements. Do let me know if you have any questions or if there's anything more you'd like to add.

@copilot use a timer

To simulate a traffic light using one-hot encoding, we'll need a state machine circuit that will cycle through the four states of a standard traffic light:

Each of these stages will correspond to one-hot coding value. So, if we assign the states bits as follows:

We can design our circuit using D flip-flops and logic gates to transition through these stages. Here's our assumption; we assume that clock pulses are used to change states.

Our digital logic circuit can be set up using Flux as follows:

Note: The naming convention Qn corresponds to each flip flop state and the LED colour it controls.

Please note that the transition implementation might vary depending on the exact model of D flip-flops and the logic used. So, adapt this design to fit with the specific components you are using. The duration for which each light displays can be controlled by the frequency of the clock signal coming in. Higher frequency (more frequent clock pulses) would change the states faster and vice versa.