NeuroViG - Integrating Event Cameras for Resource-Efficient Video Grounding

Spatio-Temporal Video Grounding (STVG) - the task of identifying the target object in the field-of-view, that the language instruction refers to - is a fundamental vision-language task. Current STVG approaches typically utilize feeds from an RGB camera that is assumed to be always-on and process the video frames using complex neural network pipelines. As a result, they often impose prohibitive system overheads (energy, latency) on pervasive devices. To address this, we propose NeuroViG with two key innovations: (a) leveraging on event streams from a low-power neuromorphic event camera sensor to perform selective triggering of the more energy-hungry RGB camera for STVG, and (b) augmenting the STVG model with a lightweight Adaptive Frame Selector (AFS) that bypasses complex transformer-based operations for a majority of video frames, thereby enabling its execution on a pervasive Jetson AGX device. We have also introduced modifications to the neural network processing pipeline such that the system can offer tunable tradeoffs between accuracy and energy/latency. Our proposed NeuroViG system allows us to reduce the STVG energy overhead and latency by ~ 4x and ~ 3.8x, respectively, for less than 1% loss in accuracy.

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Publication Details

Published
2025-02-26
DOI
https://doi.org/10.1109/wacv61041.2025.00564
Primary Topic
Advanced Memory and Neural Computing
Type
article
Field-Weighted Citation Impact
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article

NeuroViG - Integrating Event Cameras for Resource-Efficient Video Grounding

Dulanga Weerakoon, Vigneshwaran Subbaraju, Archan Misra, Joo‐Hwee Lim
Advanced Memory and Neural Computing
article

NeuroViG - Integrating Event Cameras for Resource-Efficient Video Grounding

Dulanga Weerakoon, Vigneshwaran Subbaraju, Archan Misra, Joo‐Hwee Lim
article en

Abstract

Spatio-Temporal Video Grounding (STVG) - the task of identifying the target object in the field-of-view, that the language instruction refers to - is a fundamental vision-language task. Current STVG approaches typically utilize feeds from an RGB camera that is assumed to be always-on and process the video frames using complex neural network pipelines. As a result, they often impose prohibitive system overheads (energy, latency) on pervasive devices. To address this, we propose NeuroViG with two key innovations: (a) leveraging on event streams from a low-power neuromorphic event camera sensor to perform selective triggering of the more energy-hungry RGB camera for STVG, and (b) augmenting the STVG model with a lightweight Adaptive Frame Selector (AFS) that bypasses complex transformer-based operations for a majority of video frames, thereby enabling its execution on a pervasive Jetson AGX device. We have also introduced modifications to the neural network processing pipeline such that the system can offer tunable tradeoffs between accuracy and energy/latency. Our proposed NeuroViG system allows us to reduce the STVG energy overhead and latency by ~ 4x and ~ 3.8x, respectively, for less than 1% loss in accuracy.

SMART Global Holdings (United States) (US), SMART Reading (US), A*STAR Graduate Academy (SG), Singapore-MIT Alliance for Research and Technology (SG), Singapore Management University (SG)
Decent work and economic growth
Openalex Percentile: Top 94%
Advanced Memory and Neural Computing
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