docs: draft ICASSP abstract and introduction
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% Draft ICASSP 2027 manuscript.
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% Compile from this directory with:
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% pdflatex main && bibtex main && pdflatex main && pdflatex main
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\documentclass{article}
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\usepackage{ICASSP2026_Paper_Templates/spconf}
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\usepackage{amsmath,graphicx,hyperref}
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\title{NOT EVERY TURN IS MINE: ADDRESSEE-GROUNDED FLOOR-ENTRY PROJECTION IN EGOCENTRIC MULTIPARTY CONVERSATION}
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% TODO: Replace these placeholders after the ICASSP 2027 review policy and
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% author list are finalized.
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\name{Author Name(s)}
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\address{Author Affiliation(s)}
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\begin{document}
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\ninept
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\maketitle
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\begin{abstract}
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Egocentric conversational agents must decide not only when a speaking
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opportunity arises, but also whether that opportunity belongs to them.
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Existing speech-initiation forecasting collapses all non-wearer speakers, so
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strong frame-level accuracy can coexist with intrusive entries while two
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bystanders converse. We study addressee-grounded floor-entry projection in
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causal multiparty audio-video streams. Our formulation retains dense forecasts
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of wearer and non-wearer activity at 200-ms resolution over a two-second
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horizon, while grounding the wearer-entry decision in person-aligned visual
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context. Using EasyCom target-of-speech annotations, we introduce an event-level
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protocol that separates addressed-to-wearer responses from third-party
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exchanges and measures false entries at matched response recall, together with
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decision latency. Wrong-person and time-shifted visual controls test whether
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any improvement follows correct social grounding rather than additional model
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capacity. Experiments on EasyCom, with Ego4D as an activity-forecasting
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generalization set, show \textbf{[TODO: insert the final matched-recall and
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latency results]}.
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\end{abstract}
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\begin{keywords}
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turn-taking, speech initiation, addressee detection, egocentric video,
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audio-visual learning
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\end{keywords}
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\section{Introduction}
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\label{sec:intro}
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Low-latency conversational agents must continuously decide whether to speak or
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to keep listening. In a dyadic exchange, a pause or an apparent end of turn is
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often treated as an invitation to respond. This assumption fails in
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multiparty interaction: one participant may finish an utterance addressed to
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another participant, and an egocentric agent that reacts only to acoustic
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availability will enter a floor that was never offered to it. The resulting
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error is socially more disruptive than a small framewise prediction error.
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Accordingly, a useful model must distinguish \emph{when the floor may change}
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from \emph{whether the change is directed to the camera wearer}.
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Voice Activity Projection (VAP) models future joint speech activity and derives
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turn-taking events without manually labeling every event
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\cite{ekstedt2022vap}. EgoSpeak extends future activity prediction to causal,
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untrimmed egocentric video, forecasting wearer and non-wearer activity over the
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next two seconds \cite{kim2025egospeak}. Its role-relative output is attractive
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for a wearable agent, but aggregating all visible participants into a single
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``others'' channel removes the distinction between an utterance addressed to
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the wearer and an exchange among bystanders. Consequently, conventional
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per-frame average precision can be dominated by ordinary speech activity and
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can hide precisely the false-entry behavior that visual social cues should
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prevent. Recent event-oriented evaluation likewise emphasizes the joint
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trade-off among recall, false positives, and latency rather than a single
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frame-level score \cite{jiang2026turnbench}.
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Related work provides two complementary pieces of the problem but does not
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unify them. Egocentric talking-to-me detection predicts whether a completed
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utterance addresses the camera wearer and benefits from long-term social
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context \cite{kong2024sicnet}. Multiparty VAP grounds future activity in
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visible face tracks to predict floor shifts and next speakers
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\cite{qi2026muvap}. The former is generally evaluated as utterance-level
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addressee classification rather than continuous anticipation, whereas the
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latter selects among visible participants and does not ask whether an
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invisible camera wearer should enter. We target the intersection: causal
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floor-entry forecasting for an egocentric agent whose decision depends on the
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speaker--addressee relation among the people in view.
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We formulate this problem as \emph{addressee-conditioned egocentric activity
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projection}. A global streaming audio-video representation predicts future
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wearer and non-wearer activity, while a person-aligned visual pathway preserves
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participant identity and recent social context. The final wearer-entry score
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can therefore represent both floor availability and evidence that the current
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utterance is directed to the wearer. EasyCom is particularly suitable for this
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analysis because it provides synchronized egocentric audio-video, per-person
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tracks, voice activity, and target-of-speech annotations
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\cite{donley2021easycom}. Target annotations are used for training-side
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auxiliary supervision and evaluation strata, never as model input at test
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time.
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Our contributions are threefold. First, we cast speech initiation as
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recipient-aware floor-entry projection, connecting dense egocentric activity
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forecasting with multiparty addressee grounding. Second, we propose an
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event-level evaluation that contrasts addressed-to-wearer response events with
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third-party exchanges and reports false entries at matched response recall,
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alongside latency and the original EgoSpeak metrics. Third, we use
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wrong-person, temporally shifted, and visibility-conditioned visual controls to
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test whether improvements arise from the correct social evidence instead of
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extra feature capacity or globally conservative predictions.
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% TODO: Add Method, Experimental Setup, Results, and Conclusion after the
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% event protocol and person-aligned model are frozen.
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\bibliographystyle{ICASSP2026_Paper_Templates/IEEEbib}
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\bibliography{references}
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\end{document}
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@inproceedings{ekstedt2022vap,
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author = {Erik Ekstedt and Gabriel Skantze},
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title = {Voice Activity Projection: Self-Supervised Learning of Turn-Taking Events},
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booktitle = {Proc. Interspeech},
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year = {2022}
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}
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@inproceedings{kim2025egospeak,
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author = {Junhyeok Kim and Min Soo Kim and Jiwan Chung and Jungbin Cho and Jisoo Kim and Sungwoong Kim and Gyeongbo Sim and Youngjae Yu},
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title = {{EgoSpeak}: Learning When to Speak for Egocentric Conversational Agents in the Wild},
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booktitle = {Findings of the Association for Computational Linguistics: NAACL},
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pages = {2990--3005},
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year = {2025}
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}
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@article{jiang2026turnbench,
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author = {Freeman Jiang and others},
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title = {{TurnBench}: A Multi-Domain Benchmark for Turn-Taking Dynamics in Spoken Dialogue},
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journal = {arXiv preprint arXiv:2608.25218},
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year = {2026}
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}
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@inproceedings{kong2024sicnet,
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author = {Deqian Kong and Furqan Khan and Xu Zhang and Prateek Singhal and Ying Nian Wu},
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title = {Long-Term Social Interaction Context: The Key to Egocentric Addressee Detection},
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booktitle = {Proc. IEEE International Conference on Acoustics, Speech and Signal Processing (ICASSP)},
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year = {2024}
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}
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@article{qi2026muvap,
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author = {Haotian Qi and Gabriel Skantze},
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title = {{MuVAP}: Multimodal Multiparty Voice Activity Projection for Turn-Taking Prediction in the Wild},
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journal = {arXiv preprint arXiv:2606.16731},
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year = {2026}
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}
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@article{donley2021easycom,
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author = {Jacob Donley and Vladimir Tourbabin and Jung-Suk Lee and Mark Broyles and Hao Jiang and Jie Shen and Maja Pantic and Vamsi Krishna Ithapu and Ravish Mehra},
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title = {{EasyCom}: An Augmented Reality Dataset to Support Algorithms for Easy Communication in Noisy Environments},
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journal = {arXiv preprint arXiv:2107.04174},
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year = {2021}
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}
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