Select a pre-defined initial state for your three-qubit system. This system has $2^3 = 8$ basis states:
$|000\rangle, |001\rangle, |010\rangle, |011\rangle, |100\rangle, |101\rangle, |110\rangle, |111\rangle$
The sum of the squares of the magnitudes of all amplitudes must be 1.
The **Toffoli (CCNOT) gate** is a three-qubit gate. It flips the **target qubit** only if **both control qubits are $|1\rangle$**.
This gate is universal for classical computation and crucial for quantum algorithms.
The **complex amplitudes** show the full quantum state, including phase information crucial for entanglement.
The **measurement probabilities** tell you the likelihood of observing each classical outcome when you measure the qubits.
This interactive 3D bar chart visualizes the quantum state of your three qubits. It helps you understand how the probabilities and phases of different measurement outcomes change as you apply quantum gates.