Constant density displays using diversity sampling
The paper relies on interactive query-driven layout adjustments, which are absent in the static notebook visualizations.
Mapping nominal values to numbers for effective visualization
No interactive brushing, filtering, or linked views are provided, contrary to the paper's interactive exploration emphasis.
Constant density displays using diversity sampling
The implementation provides static plots with no brushing, filtering, or query‑driven interaction that the academic design relies on.
Constant density displays using diversity sampling
The notebook provides only basic Plotly hover/zoom, missing the query‑driven filtering, brushing, and occlusion‑avoidance interactions described in the paper.
Constant density displays using diversity sampling
The notebook provides no interactive mechanisms like dynamic sampling, selection or layout adjustments required by the academic design.
Constant density displays using diversity sampling
The notebook provides static plots with no brushing, filtering, or query‑driven interaction described in the paper.
Constant density displays using diversity sampling
The notebook provides no interactive query‑driven filtering or linked views described in the paper.
Constant density displays using diversity sampling
No interactive features (brushing, filtering, linked views) are present, unlike the paper’s query‑driven, dynamic visualization.
Constant density displays using diversity sampling
The notebook provides no interactive features such as brushing, filtering, or linked views that the academic design relies on.
Constant density displays using diversity sampling
The original design relies on interactive query‑driven exploration, which the notebook lacks, offering only a static plot.
Constant density displays using diversity sampling
The notebook provides no interactive querying, brushing, or linked views that the academic design relies on.
Mapping nominal values to numbers for effective visualization
No interactive features (brushing, linked views, tooltips) are present, contrary to the paper's exploratory focus.
Mapping nominal values to numbers for effective visualization
Only default Plotly hover/zoom are present; the paper's required exploratory interactions (brushing, linked views, custom tooltips) are missing.
Mapping nominal values to numbers for effective visualization
The notebook provides a static Vega-Lite bar chart with no brushing, filtering, or linked-view interactions described in the academic design.
Mapping nominal values to numbers for effective visualization
No interactive features (brushing, tooltips, linked views) are present in the static seaborn plots
Mapping nominal values to numbers for effective visualization
No interactive features such as brushing, filtering, or linked views are present, unlike the paper's exploratory interface.
Mapping nominal values to numbers for effective visualization
All visualizations are static matplotlib/seaborn figures with no brushing, filtering, or linked interactivity described in the academic design.
Mapping nominal values to numbers for effective visualization
No interactive features (brushing, filtering, linked views) are present, whereas the paper’s approach depends on exploratory interaction.
Mapping nominal values to numbers for effective visualization
No brushing, filtering, tooltips or linked views are present, unlike the paper’s interactive DQC workflow.
Improving Hybrid MDS with Pivot-Based Searching
The notebook provides static matplotlib/seaborn figures with no interactive brushing, linking or tooltips required by the academic design.
Mapping nominal values to numbers for effective visualization
No interactive features (brushing, filtering, tooltips) are present, unlike the exploratory interactions implied by the DQC approach.
Improving Hybrid MDS with Pivot-Based Searching
No interactive features such as brushing, linked views, or tooltips are present, unlike the algorithmic exploration described in the paper.
Improving Hybrid MDS with Pivot-Based Searching
The notebook lacks the interactive nearest‑neighbour, brushing, and zoom features central to the academic design.
Improving Hybrid MDS with Pivot-Based Searching
The paper implies interactive pivot-based searching, but the notebook provides only static seaborn plots with no interactivity.
Improving Hybrid MDS with Pivot-Based Searching
No interactive brushing, pivot selection, or linked views are present, unlike the paper's interactive exploration.
Improving Hybrid MDS with Pivot-Based Searching
The academic design relies on interactive pivot‑based search and brushing, whereas the notebook provides only static plots with no interactivity.
Improving Hybrid MDS with Pivot-Based Searching
The academic design relies on interactive pivot selection, brushing and linked views, which are absent in the static notebook.
Improving Hybrid MDS with Pivot-Based Searching
The academic design implies interactive exploration (e.g., brushing, linked views) of high‑dimensional relationships, which the notebook lacks, offering only static plots.
Edgelens: an interactive method for managing edge congestion in graphs
No interactive lens, edge manipulation, or linked view features are present in the notebook code.
Edgelens: an interactive method for managing edge congestion in graphs
The notebook lacks the interactive edge‑lens manipulations (curving edges, multiple lenses, transparency adjustments) central to the academic design.
Edgelens: an interactive method for managing edge congestion in graphs
The paper relies on dynamic lens interactions, brushing, and linked views; the notebook provides only static visualizations with no interactivity.
Edgelens: an interactive method for managing edge congestion in graphs
All interactive features such as lens manipulation, focus+context navigation, and dynamic edge curvature are absent, providing only static plots.
Edgelens: an interactive method for managing edge congestion in graphs
All interactive features of EdgeLens (lens placement, edge curvature, linked focus+context navigation) are absent in the notebook, which relies on static visualizations without tooltips, zoom, or filtering.
Edgelens: an interactive method for managing edge congestion in graphs
All interactivity (lensing, focus+context, tooltips) is absent; the notebook contains only static visualizations and no interactive controls.
Edgelens: an interactive method for managing edge congestion in graphs
The notebook lacks the interactive edge‑curving, lens overlay, focus+context navigation, and other brushing or tooltip mechanisms described in EdgeLens; it is essentially static.
Edgelens: an interactive method for managing edge congestion in graphs
The notebook lacks the focus+context, brushing, and interactive lens manipulation present in the academic design.
Edgelens: an interactive method for managing edge congestion in graphs
The notebook lacks the interactive lens, focus+context, brushing, or tooltips present in the Edgelens design, providing only static matplotlib figures.
Edgelens: an interactive method for managing edge congestion in graphs
All interactivity described in the paper such as edge curvature via lenses and focus+context navigation is absent; the notebook displays only static plots.
Design choices when architecting visualizations
The academic design implies interactivity (filtering, linked views, tooltips) that the static matplotlib/seaborn implementation lacks.
Design choices when architecting visualizations
The implementation lacks advanced interactivity such as brushing, filtering, linked views, and custom tooltips that the paper’s modular architecture supports.
Design choices when architecting visualizations
The academic design emphasizes interactive features such as brushing, filtering, and linked views, none of which are present in the static notebook implementation, marking a major interaction drift.
Design choices when architecting visualizations
The implementation omits interactivity features such as brushing, filtering, or tooltips that the academic framework emphasizes, indicating major interaction drift.
Design choices when architecting visualizations
All interactivity described in the academic paper (brushing, tooltips, linked views, zoom) is absent; the notebook uses static Matplotlib/Seaborn plots.
Design choices when architecting visualizations
The notebook lacks any interactive elements (brushing, filtering, tooltips, zoom) that the academic prototype supports.
Design choices when architecting visualizations
The repository implementation offers only static plots with no brushing, filtering, linked views, or tooltips, whereas the academic design emphasizes interactive prototyping and data exploration.
Design choices when architecting visualizations
The notebook lacks interactive features such as brushing, filtering, or tooltips that the academic design supports.
Design choices when architecting visualizations
The academic system emphasizes interactive features such as brushing, filtering, linked views and tooltips, while the notebook presents static plots with no interactivity, representing a major interaction drift.