Typical Machine Learning Datasets as Low-Depth Quantum Circuits

• URL: http://arxiv.org/abs/2505.03399v1
• Date: Tue, 06 May 2025 10:27:51 GMT
• Title: Typical Machine Learning Datasets as Low-Depth Quantum Circuits
• Authors: Florian J. Kiwit, Bernhard Jobst, Andre Luckow, Frank Pollmann, Carlos A. Riofrío,
• Abstract summary: We develop an efficient algorithm for finding low-depth quantum circuits to load classical image data as quantum states.<n>We conduct systematic studies on the MNIST, Fashion-MNIST, CIFAR-10, and Imagenette datasets.
• Score: 0.40329768057075643
• License: http://arxiv.org/licenses/nonexclusive-distrib/1.0/
• Abstract: Quantum machine learning (QML) is an emerging field that investigates the capabilities of quantum computers for learning tasks. While QML models can theoretically offer advantages such as exponential speed-ups, challenges in data loading and the ability to scale to relevant problem sizes have prevented demonstrations of such advantages on practical problems. In particular, the encoding of arbitrary classical data into quantum states usually comes at a high computational cost, either in terms of qubits or gate count. However, real-world data typically exhibits some inherent structure (such as image data) which can be leveraged to load them with a much smaller cost on a quantum computer. This work further develops an efficient algorithm for finding low-depth quantum circuits to load classical image data as quantum states. To evaluate its effectiveness, we conduct systematic studies on the MNIST, Fashion-MNIST, CIFAR-10, and Imagenette datasets. The corresponding circuits for loading the full large-scale datasets are available publicly as PennyLane datasets and can be used by the community for their own benchmarks. We further analyze the performance of various quantum classifiers, such as quantum kernel methods, parameterized quantum circuits, and tensor-network classifiers, and we compare them to convolutional neural networks. In particular, we focus on the performance of the quantum classifiers as we introduce nonlinear functions of the input state, e.g., by letting the circuit parameters depend on the input state.

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