• Multimedia and Visual Analytics in the Agentic Era: Additional Material

    Extra information for the paper Marcel Worring and Jan Zahálka and Stef van den Elzen and Maximilian T. Fischer and Daniel A. Keim, Multimedia and Visual Analytics in the Agentic Era, arXiv 2504.06138 (2026).

    To show the potential of the model, we have used Claude Opus 5 to automatically map existing papers, taken from the ones mentioned in the multimedia analytics model paper, to the framework to put the method in the context of the model and to consider how the multimedia analytics model helps in identifying directions to extend these existing methods. Below we give a set of example results. Note that these results are directly taken from Claude they are not checked against the original papers.

    Description of the procedure

    Claude was queried with the following query "Analyze the paper by "first author" et.al based on the instructions provided" where the instructions are defined as:

    Steps:

    • Consider the multimedia analytics model (MMA) by worring et.al. especially by considering the figures in the MMA paper.
    • Take the scientific paper given as input and consider all the processing of the data that is done in the offline stage
    • Consider the output of the offline stage and then analyze the online stage which you should then map to the different components and loops in the MMA model.
    • Having mapped the main elements of the paper into the MMA model identify how the methods in the input paper could be extended based on the components in the model that have not yet been used.
    • As output provide the following elements with all figures in SVG format:
      1. a short textual description of the paper
      2. a figure showing the offline stage where it is clear what data goes in and what data goes out wherever appropriate decomposed into implicit knowledge, factual knowledge, domain specific data and generic data.
      3. an overview figure showing the online stage closely following figure 1 of the MMA model including the different loops.
      4. when appropriate use figures 2, 3, and 4 in the MMA model to create more detailed figures for describing the online stage of the scientific paper.
      5. Provide a textual description of how the method in the paper could be extended when it would be based on visual analytics agents.

    Papers

    Overview of all mappings (according to Claude)

    Five papers, one framework, five near-disjoint realisations.

    Gisolf et al. (hypergraphs, images) Fischer et al. (MULTI-CASE, multimodal) Wang et al. (A-MAR, art) Tran et al. (NII-UIT, video) Feng et al. (PromptMagician, generation)
    What it is visual analytics, pre-agentic visual analytics, pre-agentic agentic pipeline, pre-visual interactive retrieval under a clock creation support; the collection is an output
    Human in the loop 8 experts, studied 11 experts, studied none live, timed, competing 12 novices, studied — expertise inverted
    User interface five coordinated views graph, text, timeline, modules none timeline, previews, answer panel four views, semantic zoom, BioFabric
    Foundation models frozen embedders, offline one fine-tuned, online frozen, reasoning + generation frozen, embedders and generators frozen; CLIP in three roles + SD generating
    AI agents absent absent realised absent absent (named as future work)
    Prompt templates / strategy absent absent realised (Φ_plan, ψ) prompting without a plan one real template with a contract; no strategy
    Actions: generation absent thin realised realised, in four roles primary — the framework's exemplar
    Actions: query formulation absent absent realised as ψ absent — the human routes realised, and novice-operable
    Factual knowledge EXIF only 50+ types, ontology, 6x6 the ACKG self-generated captions/ASR/OCR the crowd's prompts — a consumed commons
    Expert modules barely realised — plugins partial substantial, hard-wired present as code, not callable
    Coordinator absent mechanical plans once, hands off absent — the human, at speed absent — a novice, unsupported
    Session memory a view history a provenance archive none none none — the AI side is stateless
    Trust pillar essentially empty realised, designed for material computed, never shown partial — linked evidence partial — verification by example
    Guidance pillar thin thin, named as a gap absent realised realised in Outputs only
    Strategy loop absent absent (substrate exists) realised, but open absent absent
    Sensemaking loop realised realised absent realised (explore ⇄ verify) realised (generate ⇄ evaluate ⇄ refine)
    Best single extension hook CES re-targeted at analyst edits the schema as an output contract the plan as a user interface a coordinator under the clock slots on the prompt, values from the corpus

    The three patterns from the earlier reading hold, and PromptMagician sharpens each.

    Every system computes a signal it throws away. Gisolf et al. threshold away membership probabilities and discard analyst edits; Fischer et al. write gradings into an archive nothing reads; Wang et al. rank with per-candidate scores and drop them; Tran et al. generate captions, transcripts and detections that disagree and never compare them. Feng et al. discard the most valuable signal of the five, because their models are frozen: the interaction record is the only channel through which this system could ever learn anything, and it is not even observed. The highest-value extension is once again a reader for a record the system already produces.

    No paper has both halves. Gisolf and Fischer have the human, the interface and the sensemaking loop and no agent. Wang has the agent, the plan and the generation action and no human. Tran comes closest and still has no agent to route its own five indices. Feng et al. add a new variant: a rich interface and a genuine guidance channel built on top of two entirely stateless models — everything that would constitute learning or planning is done by the person.

    The complementarity is almost exact, and now includes generation. A-MAR's planner is the missing router for NII-UIT's five indices and the missing decomposer for PromptMagician's single-vector retrieval. MULTI-CASE's provenance archive is the missing session memory for A-MAR, NII-UIT and PromptMagician alike. Gisolf's collection-scale overlapping structure is the missing Knowledge pillar for the retrieval and creation systems both. NII-UIT's hotspot-and-candidate guidance and PromptMagician's keyword-and-criterion guidance are two independent solutions to the same problem — how to make a machine suggestion checkable before it is accepted — arrived at in different media. And PromptMagician contributes the piece none of the other four has: generation as an analytic action, with an interface designed for judging its output rather than merely receiving it.

    The framework's contribution, read across five papers rather than one, is to make visible that these are not five research agendas but five parts of one — and that in every case the missing part has already been built somewhere else in the same list.