A course you actually take. Work through the hands-on track below to build and run real circuits in your browser with instant feedback, then watch the lecture series where each algorithm is executed live on a backend and explained from the measured results. No installs, no hand-waving.
LECTURE 011:28RAN LIVE ON SV1512 SHOTS|101⟩ AT 94.7%
Grover's search: find the needle in 2 steps
Start from a blank editor, ask Qpilot for a Grover circuit that finds |101⟩ in a 3-qubit search space, and watch it plan the oracle, generate the code, and run 512 shots. Follow the cursor through the whole flow: the marked state comes back at 94.7%, against a theoretical 94.5%, and Qpilot walks through why two iterations is optimal.
LECTURE 021:26RAN LIVE ON SV1512 SHOTS2 OUTCOMES ONLY
GHZ states: entanglement beyond two qubits
One prompt entangles five qubits. Qpilot proposes the circuit as a reviewable diff, 512 shots run on SV1, and the histogram shows |00000⟩ and |11111⟩ splitting 52.0% / 48.0% with zero counts anywhere else. Qpilot then walks through why measuring one qubit decides all five.
LECTURE 031:31RAN LIVE ON SV1512 SHOTSARRIVED 512/512
Quantum teleportation, gate by gate
Prepare |1⟩ on Alice's qubit, entangle an EPR pair, and let deferred measurement carry the corrections. Across all 512 shots Bob's qubit reads 1 in every single one, with zero counts anywhere else. Qpilot explains why the state always arrives even though Alice's bits come out random.
LECTURE 041:33RAN LIVE ON SV1512 SHOTSSOLVED EXACTLY
QAOA: optimization on a quantum computer
MaxCut on a 4-node ring with two QAOA layers and tuned angles: γ = (π/4, 5π/8), β = (3π/8, π/4). All 512 shots land on the two perfect cuts, |0101⟩ and |1010⟩, with zero counts on the other 14 states. Qpilot explains what the cost and mixer layers each contribute, and why depth buys concentration.
LECTURE 05 · FINALE1:32RAN LIVE ON SV1512 SHOTS15 = 3 × 5
Shor's algorithm: factoring 15 for real
The famous one. A compiled period-finding circuit (4 counting + 4 work qubits, 62 CX) runs 512 shots and every single one lands on a period peak: counting values 0, 4, 8, 12 → r = 4. The classical finish on camera: gcd(7²±1, 15) = 3 and 5. That's the algorithm that changed cryptography, on your screen.