Attention, Please! Revisiting Attentive Probing Through the Lens of Efficiency
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Abstract (arXiv)
As fine-tuning becomes impractical at scale, probing is emerging as the preferred evaluation protocol. However, standard linear probing can understate the capability of models whose pre-training optimizes local representations rather than an explicit global representation. This motivates attentive probing, an alternative that uses attention to selectively aggregate patch-level features. Despite growing adoption, attentive probing is still underexplored: existing approaches are often over-parameterized and computationally inefficient. In this work, we revisit attentive probing through the lens of the accuracy vs. parameter-efficiency trade-off. We present the first comprehensive study of existing methods, analyzing their design choices and benchmarking their performance. Building on these insights, we propose efficient probing (EP), a lightweight yet effective multi-query cross-attention mechanism that eliminates redundant projections and reduces the number of trainable parameters. Across multiple benchmarks and pre-training paradigms, EP consistently outperforms linear probing and previous attentive probing methods, and remains effective when combined with parameter-efficient fine-tuning. Beyond evaluation, our analysis uncovers emerging properties of EP, including complementary attention maps, which open new directions for leveraging probing beyond protocol design. Project page: https://vrg.fel.cvut.cz/ep/.
Key facts. Cited by 11 papers in the map (data through 14 Oct 2026). Builds on 56 of its 72 references that are in the map. First posted on arXiv 11 Jun 2025.
Builds on
56 of 72 references.
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50 most cited of 56 All 56 (JSON)
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Citing papers per year: 2026: 11.
11 papers.
- 2026Attentive multilayer fusion for vision transformerscited by 4
- 2026How Do Video Foundation Models Encode Intuitive Physics? Probing Across Pretraining Paradigmscited by 3
- 2026SpaRRTa: A Synthetic Benchmark for Evaluating Spatial Intelligence in Visual Foundation Modelscited by 1
- 2026Evaluating Vision Foundation Models for Pixel and Object Classification in Microscopycited by 1
- 2026AudioMosaic: Contrastive Masked Audio Representation Learningcited by 1
- 2026BAT: Better Audio Transformer Guided by Convex Gated Probingcited by 0
- 2026Where Do We (Not) Need Temporal Context in Low-Resource Video Task Adaptation?cited by 0
- 2026ExPLoRe: Expert Patch-Level Loss Routing for Multi-Objective Masked Image Modelingcited by 0
- 2026The JEPA Predictor: A Transferable Operator for Occluded Feature Completioncited by 0
- 2026Polis: 3D Self-Supervision at City Scalecited by 0
- 2026I Have a Stream: Making Self-Supervised Learning Work on Continuous Videocited by 0
- 2026I Have a Stream: Making Self-Supervised Learning Work on Continuous Video30 Sep 2026
- 2026Polis: 3D Self-Supervision at City Scale29 Aug 2026
- 2026The JEPA Predictor: A Transferable Operator for Occluded Feature Completion8 Jul 2026
- 2026ExPLoRe: Expert Patch-Level Loss Routing for Multi-Objective Masked Image Modeling30 Jun 2026
- 2026How Do Video Foundation Models Encode Intuitive Physics? Probing Across Pretraining Paradigms8 Jun 2026
- 2026Where Do We (Not) Need Temporal Context in Low-Resource Video Task Adaptation?2 Jun 2026
- 2026AudioMosaic: Contrastive Masked Audio Representation Learning14 May 2026
- 2026Evaluating Vision Foundation Models for Pixel and Object Classification in Microscopy20 Mar 2026
- 2026BAT: Better Audio Transformer Guided by Convex Gated Probing18 Feb 2026
- 2026SpaRRTa: A Synthetic Benchmark for Evaluating Spatial Intelligence in Visual Foundation Models16 Jan 2026
- 2026Attentive multilayer fusion for vision transformers14 Jan 2026