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Heatmap
FROM PAPER TO PRACTICE  ·  GRIAL / IEEE VIS 2026  ·  Generated 2026-03-12  ·  JSON-LD ↗

Originally designed for high-stakes exploratory tasks like time-varying volumetric compression or biological time-course analysis, the heatmap was intended as a dynamic tool for mapping complex, high-dimensional signals into readable scalar fields. In its research context, the heatmap functioned as part of a coordinated system, often using neural-network-driven subdivisions to resolve point occlusion and allow for precise, interactive queries across temporal dimensions. However, in common practice, heatmaps have shifted toward static descriptive reporting. Practitioners frequently deploy them for simple correlation matrices or to summarize categorical metrics, such as real estate prices or media catalogs, where the focus is on a quick "at-a-glance" summary rather than deep exploration.

In this transition, the sophisticated interactivity—such as reversible query displays, linked brushing between charts, and temporal axis coordination—is almost entirely lost. What remains is often a flattened, non-interactive grid that sacrifices analytic depth for aesthetic simplicity. To preserve the heatmap’s original power, practitioners should treat the visualization as a gateway rather than a final destination. Instead of presenting a static grid, link the heatmap to a secondary view, such as a time-series graph or a detailed scatter plot, that allows users to drill into the specific data points represented by a color. Additionally, when visualizing dense or overlapping data, implement interactive filtering or jittering techniques to ensure that high-density "hot spots" do not mask important outliers or underlying distribution patterns.

Drift severity breakdown

Frequency over time (academic)

Academic vs repository distribution

Per-year publication trend

Top libraries in matching notebooks

Drift Evidence — 50 annotations

ENCODING48 major · 2 minor
MAJOR (48)
Coordinated graph and scatter-plot views for the visual exploration of microarray time-series data
The implementation uses a static heatmap for housing data, dropping the coordinated graph and scatter-plot views, time axis, and query encoding described in the paper.
Intelligently resolving point occlusion
The academic paper’s neural-network smart-jitter heatmap/scatterplot for resolving point occlusion is replaced by static bar/line/heatmap charts without jitter or overlap handling.
Coordinated graph and scatter-plot views for the visual exploration of microarray time-series data
The academic heatmap with coordinated time-series graph and scatter-plot is replaced by unrelated bar, scatter and generic heatmap charts lacking the dual-axis time vs. value layout.
Coordinated graph and scatter-plot views for the visual exploration of microarray time-series data
The academic heatmap with time-on-y and coordinated scatter-plots is replaced by static violin/box plots and simple bar charts, losing the time-axis and dual-view encoding.
Coordinated graph and scatter-plot views for the visual exploration of microarray time-series data
Academic design couples a time-series graph with a scatter-plot of a chosen period, but the repo only shows static boxplots/histograms, discarding the coordinated dual-encoding.
Coordinated graph and scatter-plot views for the visual exploration of microarray time-series data
Academic heatmap encodes microarray time-series with coordinated graph/scatter axes; repo only shows static seaborn heatmap of weather variables, losing time-axis, gene rows, and dual-view coordination.
Coordinated graph and scatter-plot views for the visual exploration of microarray time-series data
The repo uses a static seaborn heatmap for missing-value inspection instead of the paper’s coordinated time-series graph and scatter-plot encoding of expression levels over time.
Intelligently resolving point occlusion
The academic neural-network smart-jittering heatmap is reduced to a plain matplotlib scatter plot with no occlusion handling or jittering.
Coordinated graph and scatter-plot views for the visual exploration of microarray time-series data
Academic heat-map is replaced by simple line charts and volume bars with no time-period scatter-plot or coordinated encoding.
Coordinated graph and scatter-plot views for the visual exploration of microarray time-series data
The academic heatmap encodes time-period and condition queries; the repo heatmap is a static correlation matrix with no time or query encoding.
Coordinated graph and scatter-plot views for the visual exploration of microarray time-series data
The notebook drops the coordinated time-series graph and scatter-plot encodings the paper requires, replacing them with an unrelated correlation heatmap and generic scatter of Attack vs Defense.
Coordinated graph and scatter-plot views for the visual exploration of microarray time-series data
Academic heatmap encodes time-series microarray intensities with coordinated axes, while the repo uses a static seaborn heatmap of average game scores, discarding temporal and biological encodings.
Exploring high-D spaces with multiform matrices and small multiples
Academic design's multiform heat-map matrices, bivariate maps and space-filling coordinated views are reduced to simple seaborn/matplotlib heatmaps and histograms with no bivariate or multiform encoding.
Intelligently resolving point occlusion
The repo uses standard violin/box plots and static scatter plots instead of the paper’s neural-network jittered scatter plot designed to resolve occlusion.
Intelligently resolving point occlusion
Academic heatmap with neural-network smart jittering to resolve point occlusion is replaced by static boxplots/histograms, losing the core position-based overlap encoding.
Intelligently resolving point occlusion
The paper’s neural-network smart-jittered scatter plot/heatmap is reduced to a static seaborn correlation heatmap with no occlusion handling.
Intelligently resolving point occlusion
Repository uses plain scatter plots with fixed alpha transparency and no jittering, omitting the paper’s neural-network-based smart-jitter remapping that preserves crowding insight.
Intelligently resolving point occlusion
The academic heat-map encodes neural-network jittered positions to resolve point occlusion, while the notebook only shows standard seaborn correlation heat-maps with no jitter or scatter-plot enhancement.
Intelligently resolving point occlusion
Repository only plots time-series line charts; the core heat-map scatter with neural-network jittering and occlusion-resolution encodings is entirely absent.
Intelligently resolving point occlusion
Academic heatmap uses neural-network smart-jitter to resolve point occlusion, but repo only produces static seaborn heatmaps/scatters with no occlusion handling.
Intelligently resolving point occlusion
Academic design’s neural-network smart-jittered scatterplot is replaced by a static seaborn heatmap, losing the point-based occlusion resolution entirely.
Dynamic visualization of transient data streams
The repo uses static bars/heatmaps instead of the paper’s adaptive, incrementally-updated MDS heatmap with singular-vector projections.
Dynamic visualization of transient data streams
Academic MDS heatmap for streaming data reduced to static violin/box plots and scatterplots with no MDS projection or adaptive encoding.
Dynamic visualization of transient data streams
Academic heatmap relies on dynamic MDS coordinates and data-fusion updates, but the repo only shows static boxplots/histograms with no MDS projection or stream-update encoding.
Dynamic visualization of transient data streams
The repo uses a static seaborn heatmap on weather data, omitting the paper’s incremental MDS projection and adaptive stratification of transient streams.
Dynamic visualization of transient data streams
Academic MDS-based heatmap for transient stream projection is replaced by a static seaborn heatmap of missing-value indicators.
Dynamic visualization of transient data streams
Academic design’s dynamic MDS-based heatmap with stream-driven singular-vector updates is replaced by a static seaborn heatmap of house-price correlations, losing the transient-data encoding entirely.
Dynamic visualization of transient data streams
Academic MDS heatmap for streaming data replaced by static line/volume charts with no stratified or incremental projection.
Dynamic visualization of transient data streams
Academic design’s adaptive MDS heatmap with incremental singular-vector projection is replaced by static seaborn correlation heatmaps and scatter plots.
Dynamic visualization of transient data streams
Static seaborn correlation heatmap substitutes the paper’s adaptive, incremental MDS stream projection that updates singular-vector subspaces.
Dynamic visualization of transient data streams
Academic design uses dynamic MDS-based heatmaps for transient streaming data; repo produces a static heatmap of average game scores, discarding adaptive stratification and incremental singular-vector projection.
Exploring high-D spaces with multiform matrices and small multiples
The academic design’s conditional-entropy-ordered multiform bivariate matrices and small-multiple heatmaps are reduced to a single Netflix-brand-palette seaborn heatmap with no bivariate maps, space-filling displays, or variable ordering.
Exploring high-D spaces with multiform matrices and small multiples
Academic heat-map matrices with conditional-entropy ordering, bivariate maps and space-filling cells are reduced to single seaborn violin/box plots and a joint scatter.
A model of multi-scale perceptual organization in information graphics
The academic model prescribes a multi-resolution lattice-based grayscale heatmap whose visual structure mirrors data structure, whereas the notebook only produces a default seaborn heatmap with Netflix brand colours and no hierarchical lattice.
Exploring high-D spaces with multiform matrices and small multiples
Academic heatmap uses multiform bivariate matrices with conditional-entropy ordering, bivariate maps and space-filling cells, while the repo only outputs a basic Seaborn correlation heatmap with no ordering or multiple mark types.
Exploring high-D spaces with multiform matrices and small multiples
Academic heatmap uses multiform bivariate matrices with scatterplots, maps, space-filling displays and conditional-entropy ordering; repo only outputs a simple missing-values heatmap and a bar chart.
Exploring high-D spaces with multiform matrices and small multiples
Academic design’s multiform bivariate matrices/small-multiples (scatterplots, maps, space-filling) are reduced to a single static seaborn heatmap, losing all multiple coordinated views and alternate mark types.
Exploring high-D spaces with multiform matrices and small multiples
The repo limits itself to single-form heatmaps/scatters instead of the paper’s multiform bivariate matrices/small-multiples that mix scatterplots, bivariate maps and space-filling glyphs.
Exploring high-D spaces with multiform matrices and small multiples
The notebook produces only a single static correlation heatmap and a basic scatterplot, omitting the multiform bivariate matrix, small multiples, space-filling displays, and variable-ordering logic described in the paper.
Exploring high-D spaces with multiform matrices and small multiples
The repo replaces the paper’s multiform bivariate matrices/scatterplots with a simple seaborn heatmap, losing multiple coordinated encodings.
A model of multi-scale perceptual organization in information graphics
The academic grayscale multi-resolution lattice model is replaced by default-color seaborn violin/box plots with no perceptual-structure matching.
A model of multi-scale perceptual organization in information graphics
The academic lattice-based grayscale heatmap model is reduced to default seaborn/matplotlib heatmaps with categorical colour palettes and no multi-scale perceptual hierarchy.
A model of multi-scale perceptual organization in information graphics
The academic heatmap encodes a lattice-based visual hierarchy via multi-scale grayscale analysis, while the repo only prepares tabular data, never producing the actual heatmap or its perceptual-structure encoding.
A model of multi-scale perceptual organization in information graphics
Academic grayscale lattice heatmap for perceptual structure is replaced by a viridis-coloured missing-value heatmap without multi-scale organization.
A model of multi-scale perceptual organization in information graphics
The academic grayscale lattice-based perceptual hierarchy is replaced by default-color seaborn heatmaps with no multi-scale structure.
A model of multi-scale perceptual organization in information graphics
The academic lattice-based grayscale heatmap is replaced by stock-market line charts with no multi-resolution lattice structure.
A model of multi-scale perceptual organization in information graphics
The academic lattice-based multi-resolution grayscale model is reduced to a simple seaborn correlation heatmap with default colour and no perceptual-structure matching.
A model of multi-scale perceptual organization in information graphics
The academic grayscale lattice-based heatmap model is reduced to a default-color seaborn heatmap with no multi-scale perceptual structure.
MINOR (2)
Exploring high-D spaces with multiform matrices and small multiples
The repo uses vanilla heatmaps and line/small-multiples but drops the paper’s multiform bivariate matrix, conditional-entropy ordering, and space-filling encodings.
A model of multi-scale perceptual organization in information graphics
The academic lattice-based grayscale model is reduced to standard seaborn heatmaps with default colour scales and no multi-resolution structure.
INTERACTION42 major · 8 none
MAJOR (42)
Coordinated graph and scatter-plot views for the visual exploration of microarray time-series data
The notebook provides no linked brushing, reversible query display, or interactive filtering that the academic design relies on.
Intelligently resolving point occlusion
The paper’s core interactive neural-network point re-arrangement is absent; the notebook only shows fixed seaborn/matplotlib plots with no user-driven occlusion resolution.
Coordinated graph and scatter-plot views for the visual exploration of microarray time-series data
All coordinated brushing, reversible query display, and visual query formulation described in the paper are absent; the notebook only shows static seaborn/plotly outputs.
Coordinated graph and scatter-plot views for the visual exploration of microarray time-series data
All coordinated, reversible visual-query interactions described in the paper are absent; only static seaborn plots without linking or filtering are produced.
Coordinated graph and scatter-plot views for the visual exploration of microarray time-series data
The paper’s reversible visual query formulation and linked brushing between coordinated views are completely absent; the notebook is purely static.
Coordinated graph and scatter-plot views for the visual exploration of microarray time-series data
Paper’s reversible visual query formulation, linked brushing, and condition filtering are completely absent; notebook is non-interactive pandas/seaborn output.
Coordinated graph and scatter-plot views for the visual exploration of microarray time-series data
All coordinated, reversible, query-driven interactions (brushing, linking, visual query formulation) are absent; only a fixed heatmap and bar chart are produced.
Intelligently resolving point occlusion
The paper’s core interactive neural-network-driven point re-arrangement is entirely absent; only a static scatter is produced.
Coordinated graph and scatter-plot views for the visual exploration of microarray time-series data
Coordinated multiple views, reversible visual queries, and condition-based filtering described in the paper are completely absent.
Coordinated graph and scatter-plot views for the visual exploration of microarray time-series data
The paper’s core reversible visual query formulation and linked coordinated views are entirely absent; only static plots are generated.
Coordinated graph and scatter-plot views for the visual exploration of microarray time-series data
All coordinated, reversible, query-driven interactions described in the paper are absent; the notebook only produces static matplotlib/seaborn plots.
Coordinated graph and scatter-plot views for the visual exploration of microarray time-series data
Paper’s core is reversible visual query formulation across linked graph/scatter views; the notebook offers no interactivity, only static bar and heatmap plots.
Exploring high-D spaces with multiform matrices and small multiples
All described interactive features—conditional-entropy ordering, dynamic conditioning, brushing, linking, and coordinated multiple views—are absent; only static plots are generated.
Intelligently resolving point occlusion
No smart jittering, remapping, or any occlusion-resolution interactivity is implemented; only static seaborn plots are generated.
Intelligently resolving point occlusion
The paper’s interactive neural jittering and remapping of crowded points is absent; the notebook only produces static matplotlib figures.
Intelligently resolving point occlusion
The academic design’s core interactive neural-network jittering and point re-organization is absent; the notebook is non-interactive.
Intelligently resolving point occlusion
No interactive point re-organization or live occlusion resolution is implemented; the notebook only produces static matplotlib/seaborn charts.
Intelligently resolving point occlusion
The paper’s core contribution is an interactive scatter-plot algorithm for on-the-fly occlusion resolution; the static notebook lacks any interactivity, brushing, or smart re-positioning.
Intelligently resolving point occlusion
No interactive smart-jittering or occlusion-resolution controls exist—only static matplotlib/seaborn plots are produced.
Intelligently resolving point occlusion
Paper’s core is an interactive jitter-remapping technique; the notebook is entirely static with no user-driven point re-organization.
Intelligently resolving point occlusion
The paper’s core interactive neural-network jittering and point re-organization are completely absent; the notebook produces only a fixed heatmap.
Dynamic visualization of transient data streams
No streaming updates, brushing, or dynamic subspace controls—only a fixed seaborn heatmap—so all real-time interactivity is lost.
Dynamic visualization of transient data streams
Paper’s real-time updates, brushing, and linked MDS views are absent; only static seaborn plots are generated.
Dynamic visualization of transient data streams
Paper’s core is real-time, adaptive updates and user-driven exploration of transient streams, whereas the notebook is a one-off, non-interactive EDA script.
Dynamic visualization of transient data streams
No streaming updates, brushing, or dynamic subspace re-computation are implemented; the notebook is a one-off static script.
Dynamic visualization of transient data streams
The paper’s adaptive, incremental, real-time updates are absent; only static matplotlib/seaborn plots are generated.
Dynamic visualization of transient data streams
Paper’s real-time adaptive stratification and incremental subspace projection are completely absent; the notebook produces only fixed plots with no interactivity or streaming updates.
Dynamic visualization of transient data streams
Paper’s real-time stream updates and adaptive re-computation are absent; notebook only shows fixed daily stock plots.
Dynamic visualization of transient data streams
Paper’s real-time, adaptive stream updates and dynamic subspace re-projections are absent; notebook is entirely static.
Dynamic visualization of transient data streams
No incremental updates, brushing, or real-time adaptation—just a one-shot static plot—so all dynamic interactivity is absent.
Dynamic visualization of transient data streams
Paper relies on real-time updates, adaptive ingestion, and legacy reuse; repo offers no interactivity or streaming capability, only a fixed seaborn heatmap.
Exploring high-D spaces with multiform matrices and small multiples
All dynamic conditioning, linked brushing and coordinated multiple views described in the paper are absent; only static plots are produced.
A model of multi-scale perceptual organization in information graphics
The paper’s tool is interactive, letting designers refine displays by matching image structure to data structure; the Kaggle notebook is a static, run-once script with no user-controlled exploration or refinement.
Exploring high-D spaces with multiform matrices and small multiples
Paper relies on dynamic conditioning, linked brushing and coordinated multiple views; the notebook is completely static with no interactive controls.
Exploring high-D spaces with multiform matrices and small multiples
Academic design relies on dynamic conditioning, coordinated multiple views and brushing; repo has no interactivity, only static matplotlib/seaborn plots.
Exploring high-D spaces with multiform matrices and small multiples
The paper’s core dynamic conditioning, brushing, linked views and entropy-driven reordering are entirely absent; the notebook is non-interactive.
Exploring high-D spaces with multiform matrices and small multiples
No coordinated brushing, dynamic conditioning, or linked views—just static plots, missing all interactivity the paper emphasizes.
Exploring high-D spaces with multiform matrices and small multiples
All dynamic conditioning, coordinated brushing, entropy-driven reordering and linked views described in the paper are absent; only static seaborn plots are produced.
Exploring high-D spaces with multiform matrices and small multiples
All dynamic conditioning, linked brushing and entropy-driven reordering are absent; only a static heatmap remains.
A model of multi-scale perceptual organization in information graphics
The paper’s design-refinement tool and multi-resolution analysis are absent; the notebook only produces static matplotlib/seaborn plots.
A model of multi-scale perceptual organization in information graphics
All multi-scale perceptual controls and design-refinement feedback described in the paper are absent; the notebook is purely static.
A model of multi-scale perceptual organization in information graphics
The paper’s tool for interactive design refinement and perceptual-structure matching is absent; the notebook only produces static matplotlib/seaborn plots.
NONE (8)
Exploring high-D spaces with multiform matrices and small multiples
Exploring high-D spaces with multiform matrices and small multiples
A model of multi-scale perceptual organization in information graphics
Neither the paper nor the notebook describes or implements any interactive features, so nothing is lost.
A model of multi-scale perceptual organization in information graphics
Neither the paper nor the notebook implements or relies on interactive features, so no drift occurs.
A model of multi-scale perceptual organization in information graphics
The paper does not describe interactive features, so the static notebook code matches this lack of interaction.
A model of multi-scale perceptual organization in information graphics
Neither the paper nor the notebook describes or implements any interactive features.
A model of multi-scale perceptual organization in information graphics
Neither the paper nor the notebook describes or implements any interactive features, so nothing is missing.
A model of multi-scale perceptual organization in information graphics
Neither the paper nor the notebook describes or implements any interactivity, so nothing is missing.
TASK50 major
MAJOR (50)
Coordinated graph and scatter-plot views for the visual exploration of microarray time-series data
The academic goal is exploratory biological time‑course analysis, whereas the notebook focuses on data preprocessing and predictive modeling for house prices.
Intelligently resolving point occlusion
The paper targets exploratory alleviation of high-dimensional point occlusion, whereas the notebook performs descriptive reporting of Netflix catalogue metrics.
Coordinated graph and scatter-plot views for the visual exploration of microarray time-series data
The paper’s goal of exploratory, query-driven comparison of gene-expression over time periods is abandoned for a descriptive Netflix catalog summary, shifting both domain and analytic intent.
Coordinated graph and scatter-plot views for the visual exploration of microarray time-series data
The paper’s exploratory microarray time-series query task is supplanted by a static descriptive comparison of benign vs malignant tumour features.
Coordinated graph and scatter-plot views for the visual exploration of microarray time-series data
The paper targets exploratory, condition-based querying of microarray time-courses, whereas the notebook performs basic univariate inspection of pulsar-star features.
Coordinated graph and scatter-plot views for the visual exploration of microarray time-series data
Paper targets exploratory biological time-course querying; notebook performs static descriptive profiling of weather data, shifting domain and analytic goal.
Coordinated graph and scatter-plot views for the visual exploration of microarray time-series data
The academic design targets exploratory, condition-based querying of microarray time-courses, whereas the notebook performs static data-cleaning and summary reporting on unrelated Amazon sales data.
Intelligently resolving point occlusion
The paper’s goal of intelligently resolving point occlusion for high-dimensional insight is replaced by a simple price-vs-rating scatter for basic EDA reporting.
Coordinated graph and scatter-plot views for the visual exploration of microarray time-series data
Microarray time-course biological exploration shifts to passive stock-price reporting, losing the query-driven comparative analysis goal.
Coordinated graph and scatter-plot views for the visual exploration of microarray time-series data
The paper targets exploratory analysis of microarray time-series with dynamic queries, while the notebook performs static EDA on housing-price data.
Coordinated graph and scatter-plot views for the visual exploration of microarray time-series data
The paper’s microarray time-course query task is completely replaced by a Pokémon stats reporting task, shifting from exploratory biological analysis to simple data summary.
Coordinated graph and scatter-plot views for the visual exploration of microarray time-series data
Paper targets exploratory biological time-course analysis with quantifiable change queries; notebook performs static descriptive reporting of game ratings by genre and platform.
Exploring high-D spaces with multiform matrices and small multiples
Paper targets open-ended exploratory analysis of high-dimensional relationships, whereas the notebook performs basic univariate distribution checks and outlier inspection for a single classification dataset.
Intelligently resolving point occlusion
The notebook performs static EDA reporting on tumour features, whereas the paper’s task is to enable interactive exploration by intelligently disambiguating overlapping points.
Intelligently resolving point occlusion
Paper targets exploratory diminishment of perceptual ambiguity in high-dimensional point overlap, while the notebook performs univariate distribution checking for a binary classification dataset.
Intelligently resolving point occlusion
The paper targets resolving point occlusion for exploratory high-dimensional insight, while the notebook only produces static summary heatmaps/histograms for weather data reporting.
Intelligently resolving point occlusion
Academic goal is interactive exploration of high-dimensional point overlap, while the notebook performs static univariate/bivariate reporting on Pokémon stats.
Intelligently resolving point occlusion
The academic goal is exploratory insight into high-dimensional point overlap, whereas the notebook performs static EDA on housing data for predictive modelling, ignoring occlusion mitigation.
Intelligently resolving point occlusion
Academic goal is exploratory reduction of point-occlusion in high-D scatter plots, whereas the notebook performs static reporting of daily stock prices and volume.
Intelligently resolving point occlusion
Paper targets exploratory insight into neighbor relationships via dynamic occlusion removal, whereas the notebook performs static EDA and correlation reporting.
Intelligently resolving point occlusion
Paper targets exploratory reduction of point overlap in high-dimensional scatterplots, whereas the notebook performs simple aggregation and static reporting of average game scores.
Dynamic visualization of transient data streams
The paper targets real-time exploration of transient streams, while the notebook statically profiles a fixed Netflix catalogue, shifting from dynamic monitoring to descriptive reporting.
Dynamic visualization of transient data streams
Paper targets real-time exploratory analysis of transient streams, while notebook performs static diagnostic comparison on a fixed breast-cancer dataset.
Dynamic visualization of transient data streams
The paper targets online monitoring and comparison of evolving data streams, while the notebook performs static, offline distribution checking on a fixed pulsar dataset.
Dynamic visualization of transient data streams
The paper’s goal of real-time exploration and fusion of evolving newswire/remote-sensing streams is replaced by a descriptive summary of a fixed weather CSV.
Dynamic visualization of transient data streams
Paper targets dynamic exploration of streaming newswire/imagery data via MDS, whereas the notebook performs one-off cleaning and basic EDA on a static Amazon sales CSV.
Dynamic visualization of transient data streams
Paper targets exploratory, real-time analysis of evolving newswire/imagery streams, whereas the notebook performs one-off, static EDA on a housing-price dataset.
Dynamic visualization of transient data streams
Paper targets real-time exploration of transient text/image streams, notebook performs static retrospective reporting on stock prices.
Dynamic visualization of transient data streams
Paper targets real-time exploratory monitoring of transient streams, whereas the notebook performs one-off explanatory EDA on a fixed housing-price dataset.
Dynamic visualization of transient data streams
Academic goal of real-time, adaptive exploration of transient streams is replaced by a static summary of Pokémon attribute correlations.
Dynamic visualization of transient data streams
Paper targets real-time exploratory analysis of evolving data streams; repo performs a one-off descriptive report on static game ratings.
Exploring high-D spaces with multiform matrices and small multiples
The VIS paper targets exploratory, high-dimensional variable ranking and relationship discovery, whereas the notebook performs static descriptive reporting on Netflix catalogue metadata.
Exploring high-D spaces with multiform matrices and small multiples
Paper’s exploratory, high-dimensional variable-ranking workflow is replaced by a univariate reporting of feature distributions for a pre-labelled diagnosis dataset.
A model of multi-scale perceptual organization in information graphics
The paper’s goal is to evaluate and refine visual structure for design aesthetics; the notebook simply outputs descriptive charts of Netflix titles, shifting from analytic design aid to explanatory reporting.
Exploring high-D spaces with multiform matrices and small multiples
Paper targets open-ended exploratory analysis of high-D relationships with variable ranking; the notebook performs static univariate EDA on a weather dataset without comparative or ranking goals.
Exploring high-D spaces with multiform matrices and small multiples
Paper targets exploratory high-dimensional analysis with variable ranking and relationship discovery; notebook performs basic data cleaning and static univariate reporting on Amazon sales.
Exploring high-D spaces with multiform matrices and small multiples
The paper targets open-ended exploratory analysis of high-D relationships via coordinated multiform views, whereas the notebook performs static univariate EDA and preprocessing for a house-price prediction task.
Exploring high-D spaces with multiform matrices and small multiples
Academic goal is exploratory, high-dimensional analysis with entropy-guided ordering; repo is a static stock-price report.
Exploring high-D spaces with multiform matrices and small multiples
The academic goal is open-ended exploratory analysis of high-D data, whereas the notebook performs a linear, diagnostic walk-through toward predicting SalePrice.
Exploring high-D spaces with multiform matrices and small multiples
The academic design is an exploratory high-dimensional analysis toolkit, whereas the notebook performs simple static reporting of pairwise correlations and distributions.
Exploring high-D spaces with multiform matrices and small multiples
The academic goal is open-ended exploratory analysis of high-D relationships, whereas the notebook performs a static lookup of average game scores.
A model of multi-scale perceptual organization in information graphics
The paper’s goal of evaluating and refining visual structure is abandoned; the notebook simply produces standard statistical plots for tumor diagnosis reporting.
A model of multi-scale perceptual organization in information graphics
The paper’s goal is to evaluate and refine visual structure aesthetics, whereas the notebook uses heatmaps only for quick EDA before pulsar-star classification, shifting from design assessment to data reporting.
A model of multi-scale perceptual organization in information graphics
The paper’s goal is to assess perceptual organization for design refinement, whereas the notebook merely cleans and explores weather data, shifting from perceptual-structure evaluation to generic data wrangling.
A model of multi-scale perceptual organization in information graphics
Paper’s goal is perceptual-structure evaluation of graphics, while the notebook performs routine data-cleaning and EDA on Amazon sales.
A model of multi-scale perceptual organization in information graphics
The paper targets perceptual validation and design refinement, whereas the notebook performs routine EDA and model preprocessing for house-price prediction.
A model of multi-scale perceptual organization in information graphics
The paper’s goal of evaluating and refining visual structure is abandoned for simple descriptive plotting of stock prices and volumes.
A model of multi-scale perceptual organization in information graphics
The paper targets perceptual-quality evaluation and design refinement, whereas the notebook performs basic EDA for housing-price prediction.
A model of multi-scale perceptual organization in information graphics
The paper’s goal is to evaluate and refine visual design structure, whereas the notebook only produces a static correlation report for the Pokemon dataset.
A model of multi-scale perceptual organization in information graphics
The paper’s goal is to evaluate and refine heatmap design aesthetics via a perceptual model, whereas the notebook simply plots average game scores for static reporting.

Academic Sources

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