Efficient Quantum Machine Learning with Quantum Annealers: Overcoming Qubit and Connectivity Limitations for Classification and Regression Problems

Quantum Computing Category: Quantum Machine Learning
Scientific Domain: Machine Learning / Data Science

Figure 1 of the publication: Visualization of the results obtained by the multiclass classification methods on the second test set for the large-scale experiment. Color legend: blue = building, light blue = low vegetation, and green = tree.

Support-vector machines trained with quantum annealing can reproduce the performance of classical models, but current annealers restrict the size of the training set that can be embedded directly. This work addresses that limitation by combining quantum-trained support-vector machines with a local learning strategy that selects nearby training samples before optimization. The resulting approach supports binary and multiclass classification on larger real-world datasets and demonstrates how hybrid quantum-classical machine-learning workflows can work around present-day qubit-connectivity and problem-size constraints.

Publication:
Zardini, E., Delilbasic, A., Blanzieri, E., Cavallaro, G. Pastorello, D. Local Binary and Multiclass SVMs Trained on a Quantum Annealer. IEEE Transactions on Quantum Engineering, vol. 5, pp. 1-12, 2024, Art no. 3103512. https://doi.org/10.1109/TQE.2024.3475875

Last Modified: 27.08.2026