characterize_and_validate¶
- characterize_and_validate(problem, target_states, *, service, options=None)[source]¶
One-call QUBO/HUBO characterization with rich notebook display.
Converts the problem to wire format, submits it to the Qoro Characterization Service, and returns a
CharacterizationResultthat renders a styled report in Jupyter.- Parameters:
problem (divi.qprog.problems.BinaryOptimizationProblem) – A
BinaryOptimizationProblem. Wrap raw inputs (ndarray, sparse, BQM, HUBO dict, etc.) by constructing one — the constructor accepts every shape this function used to take directly.target_states (
list[str]) – Bitstrings of the known optimal / target states.service (
QoroService) – AQoroServiceinstance to drive the API calls.options (
CharacterizationOptions|None) – OptionalCharacterizationOptionsconfiguring sub-analyses, fixed parameters, ansatz, and constraints. Defaults to a no-op options object (server-side defaults).
- Returns:
Rich result object. Displaying it in Jupyter shows a styled HTML report.
- Return type:
- Raises:
requests.exceptions.HTTPError – On API errors.
Examples
>>> import numpy as np >>> from divi.backends import ( ... CharacterizationOptions, ... QoroService, ... characterize_and_validate, ... ) >>> from divi.qprog.problems import BinaryOptimizationProblem >>> problem = BinaryOptimizationProblem(np.array([[-1, 2], [0, -1]])) >>> result = characterize_and_validate( ... problem, ... target_states=["01", "10"], ... service=QoroService(), ... options=CharacterizationOptions(parameter_sweep=True), ... ) >>> result.quality_score 78.5
Note
Credit cost scales with QUBO size.