This page is: qisk.it/gids
Presenter: James Weaver
- James Weaver's presentations slides
- QiskitBlocks game site qisk.it/blocks
- Open-source quantum computing software development framework site Qiskit.org
- Quantum computing textbook that leverages Qiskit qisk.it/textbook
IBM Quantum Experience (where you'll create a quantum game)
- Optional but recommended if you're new to Qiskit:
- Take the Create your first quantum circuit tutorial (great primer on using Circuit Composer).
- Take the Code your first quantum circuit tutorial (great primer on using Qiskit Notebooks).
- In the IBM Quantum Experience Circuit Composer, create a three-wire circuit whose measurements are randomly distributed among 000 - 111.
- View the Statevector and Measurement Probabilities from the Visualizations tab (bar graph image) on the left side of the page.
- Observe the results when running your circuit on a backend quantum system or simulator. The shortest queues are typically with the 32 qubit simulator
ibmq_qasm_simulator in ibm-q/open/main
- Create the circuit using Python and Qiskit in an IBM Quantum Experience Jupyter notebook.
- Make the program print out a message unique to each measured state (e.g. state 000 message might be "The quantum 8-ball says it's most likely"). For reference, here are the possible answers from the original Magic 8-Ball.
- If you'd like some hints, please see this partial solution
- For reference, here is one possible solution
- If you have time:
- Rather than using a simulator, use the
from_instruction()andsample_counts()methods of theqiskit.quantum_info.Statevectorclass. Your circuit should not have measure operations. - Expand the circuit to four or five wires.
- Add various single and multi-qubit gates to the circuit (in the Circuit Composer first if you'd like) and observe their effects on the measurement probabilities and results.
- Rather than using a simulator, use the
