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Hardware-software co-design study demonstrates real-time open-set plankton classification on edge hardware, indicating viable autonomous marine monitoring.
Autonomous plankton monitoring needs classifiers that run on low-power edge hardware and reject out-of-distribution (OOD) inputs. Our prior in situ plankton image biomass estimation (IsPlanktonBIO) framework identifies organisms by nearest-neighbour search over a similarity gallery, a memory-resident lookup that stalls 8-bit integer (INT8) acceleration and grows with the corpus. We replace it with a zero look-up-table (Zero-LUT) linear energy head: a matrix-multiply-only scorer over a supervised-contrastive backbone that needs no database and shrinks the footprint sevenfold, to 1.3 MB. We assess recognition and rejection jointly with an open-set protocol based on the correct-classification rate at a fixed OOD-leakage budget, showing that closed-set accuracy alone misleads. Our hardware–software co-design on an AMD Kria KV260 Multiprocessor System-on-Chip (MPSoC) runs the INT8 pipeline in real time at 86.5% end-to-end accuracy; its calibrated gate accepts 82.9% of in-distribution images, rejects 89.0% of OOD inputs, and correctly labels 97.6% of those accepted. INT8 conversion raises two issues: classification varies for background-dominated patterns, and OOD thresholds must be recalibrated on the compressed model, not inherited from full precision. An NVIDIA Jetson Orin Nano Super port reproduces this behaviour: the GPU is faster and more energy-efficient, whereas the MPSoC’s reconfigurable logic can host sensing and control beside the accelerator.
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Trejo et al. (2026) studied this question.
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