Foundations of Quantum Computing with IBM Qiskit
Practical command of quantum circuit development with IBM Qiskit — from qubits and gates through execution on real IBM Quantum hardware, and encoding real optimization problems for a hybrid classical–quantum solver.
Issued by National Center for Secure AI Education · Does not expire
What it covers
- Qubits, superposition and the Born rule — a quantum state as a normalized vector, and global vs. relative phase
- The Qiskit SDK: building a quantum circuit and running it two ways — exact statevector and sampled shots
- Single-qubit gates as unitary matrices, and placing an arbitrary state on the Bloch sphere with rotation gates
- Multi-qubit circuits, controlled gates and entanglement — Bell and GHZ states, and why entanglement is the source of the advantage
- Measurement in the computational basis: shots, sampling error, and estimating expectation values from counts
- Running on real IBM Quantum hardware — transpiling to a device's basis gates and coupling map, recognizing noise, and the error-mitigation levers
- Foundational quantum algorithms: oracles and phase kickback, Deutsch–Jozsa, Bernstein–Vazirani, and Grover search
- Encoding an optimization problem as a QUBO — cost functions over binary variables, hard constraints as penalties — and mapping it to an Ising Hamiltonian
- Quantum optimization with QAOA: the cost and mixer ansatz, the hybrid quantum–classical loop, and how circuit depth trades against solution quality
- Classical optimization with OR-Tools CP-SAT as an honest baseline — and judging when classical is simply the right tool
- Hybrid decision intelligence: routing sub-problems between classical and quantum solvers, classical warm-starts, and merging sub-solutions into one plan
- Delivering a working decision-intelligence engine end to end — ingesting data, optimizing with a hybrid solver, and emitting an explained mission plan
How it is earned
Earners must complete the required course, participate in hands-on circuit development activities, build and execute quantum circuits using IBM Qiskit, and successfully complete the course assessment or final practical project.
The credential you receive
Earn this certification and National Center for Secure AI Education issues you a credential: a signed Open Badges 3.0 record with its own page, and the printable sheet below. The specimen shows the layout with a sample holder — a real credential carries the holder's name, its issue date and a verification link anyone can check.
Specimen — not an issued credential. Machine-readable Open Badges achievement
Industry Collaboration

A quantum computing company engineered for domains where performance is not optional — space exploration, advanced robotics, and national defense — powered by SaxonQ's room-temperature, diamond-chip NV-center platform.
“Intelligent IT” — a full-suite technology support provider specializing in cybersecurity, IT professional services, and IT project staffing, contributing hands-on security engineering and risk-management practice from real enterprise environments.
