
Developed a real-time anomaly detection feature for the liquidinstruments/moku-examples repository, enabling onboard monitoring on the Moku FPGA. The solution leveraged autoencoders and deep learning techniques, utilizing Python and TensorFlow to construct an end-to-end pipeline from data acquisition on the Moku device through dataset preparation, model training, and on-device evaluation. Integrated Moku API-based data ingestion and preprocessing to support low-latency inference directly on the hardware, reducing reliance on off-device processing. Updated documentation and usage examples to clarify the anomaly detection workflow and deployment steps, ensuring reproducibility and ease of adoption for future contributors and users of the repository.
Month: 2025-07. Focused on delivering a real-time anomaly detection capability on the Moku FPGA within the liquidinstruments/moku-examples repository. Implemented an autoencoder-based detector, establishing a complete end-to-end pipeline from data acquisition on the Moku device through dataset preparation, model training, and on-device evaluation to support onboard, low-latency anomaly monitoring.
Month: 2025-07. Focused on delivering a real-time anomaly detection capability on the Moku FPGA within the liquidinstruments/moku-examples repository. Implemented an autoencoder-based detector, establishing a complete end-to-end pipeline from data acquisition on the Moku device through dataset preparation, model training, and on-device evaluation to support onboard, low-latency anomaly monitoring.

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