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OxIOD: The Dataset for Deep Inertial Odometry
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OxIOD: The Dataset for Deep Inertial Odometry
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Advances in micro-electro-mechanical (MEMS) techniques enable inertial measurements units (IMUs) to be small, cheap, energy efficient, and widely used in smartphones, robots, and drones. Exploiting inertial data for accurate and reliable navigation and localization has attracted significant research and industrial interest, as IMU measurements are completely ego-centric and generally environment agnostic. Recent studies have shown that the notorious issue of drift can be significantly alleviated by using deep neural networks (DNNs), e.g. IONet. However, the lack of sufficient labelled data for training and testing various architectures limits the proliferation of adopting DNNs in IMU-based tasks. In this paper, we propose and release the Oxford Inertial Odometry Dataset (OxIOD), a first-of-its-kind data collection for inertial-odometry research, with all sequences having ground-truth labels. Our dataset contains 158 sequences totalling more than 42 km in total distance, much larger than previous inertial datasets. Another notable feature of this dataset lies in its diversity, which can reflect the complex motions of phone-based IMUs in various everyday usage. The measurements were collected with four different attachments (handheld, in the pocket, in the handbag and on the trolley), four motion modes (halting, walking slowly, walking normally, and running), five different users, four types of off-the-shelf consumer phones, and large-scale localization from office buildings. Deep inertial tracking experiments were conducted to show the effectiveness of our dataset in training deep neural network models and evaluate learning-based and model-based algorithms. The OxIOD Dataset is available at: http://deepio.cs.ox.ac.uk
Forward citations
Cited by 5 Pith papers
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Physical Self-Supervised Learning: IMU Sensing without Manual Labels
A label-free IMU sensing framework whose neural encoder feeds a learnable physics decoder achieves tracking and mocap accuracy that beats supervised baselines on public benchmarks.
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Physical Self-Supervised Learning: IMU Sensing without Manual Labels
A physics-based self-supervised autoencoder achieves label-free IMU tracking and motion capture that outperforms supervised baselines in generalization tests.
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PedestrianDiffusion: Multimodal Generative Denoising and Dense State Estimation for Inertial Navigation
A spectral-domain single-step conditional diffusion model recovers high-fidelity 6D pedestrian motion from MEMS IMU noise and reports SOTA metrics on OxIOD, RIDI, RoNIN, and TLIO.
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FDIO: Frequency Decomposed Inertial Odometry
Splitting pedestrian IMU signals into smooth and jumpy frequency bands — Mamba on the smooth band, multi-scale convolutions on the jumpy band — cuts average trajectory error by roughly a third versus the RoNIN ResNet ...
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CorVS+: Correspondence-Driven Association of Video Trajectories and Sensors for Identity-Aware Person Localization in Warehouses
CorVS+ matches camera trajectories to wearable sensor signals via learned correspondence probabilities and reliabilities, achieving PF1 up to 0.97 (weighted) on a new warehouse dataset.
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