Affinitree AN ATLAS OF VARIATION What came next
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FIELD ATLAS 01 / 07AFFINITREE · 2026AN EXPLORATION IN SEVEN COLORS

BEGIN WITH A SINGLE PORTRAIT

A portrait in
seven dimensions.

What if our differences could be mapped rather than ranked? Affinitree began with seven measurements of temperament and character, then explored the space between one profile and another.

An illustrated seven-axis portrait · no individual research records shown

00 / FROM SNAPSHOT TO STRUCTUREONE PORTRAIT → A LIVING IDEA

Where it started

The first map held still.

Affinitree started with seven measurements, then drew the relationships between those measurements and other profiles. Each response formed a still image, although a life keeps moving.

THE EVOLUTION / EXPLORE THE IDEAOne measurement versus an evolving position
FIXED OBSERVATION / CONCEPT ILLUSTRATION

Affinitree is the origin, not the finished vision. The idea develops into Rhizome ↗, where an evolving network can represent changing relationships and appropriately authorized interactions. This site reports only what the original static data can support.

01 / THE COLOR LANGUAGEA PALETTE WITH PURPOSE

Color is not decoration

Every color carries a trait.

Affinitree never used color as a generic category label. Each hue belongs to one of seven measured dimensions. Together, those colors create a portrait that is unique to its particular combination of values.

Select a dimension to inspect its place in the original taxonomy.

SEVEN-DIMENSION MODEL

SELECTED DIMENSION

Novelty Seeking

Temperament dimension

The seven colors match Affinitree's established trait assignments. A profile is a combination of dimensions, never just one color.

02 / TRY THE MATHEMATICSAN INTERACTIVE INSTRUMENT · SYNTHETIC PROFILES

The shape lab

Change one thread.
Change the whole picture.

Two hypothetical profiles, seven adjustable dimensions. Move the colored sliders and watch the radial portrait change. The distance calculation updates immediately, showing which differences contribute most.

PLATE ITWO ILLUSTRATIVE PORTRAITS
Reference · fixed Variation · editable
A PERSONALITY IS A COMBINATION

Draw a different pattern.

The reference portrait stays fixed. Adjust the second portrait to see how one dimension changes the overall distance.

EUCLIDEAN DISTANCE / NORMALIZED EXAMPLE0.00
This is a geometric difference, not a compatibility score or psychological diagnosis.

CONTRIBUTION TO SQUARED DISTANCE

These scores are synthetic teaching examples on a common 0–1 scale. Nothing is submitted, stored, or associated with a visitor. The research correlations later in the atlas use a separate baseline dataset.

03 / WHAT THE DATA SAYDESCRIPTIVE · EXPLORATORY

Observed relationships

Patterns emerge. Certainty doesn't.

Seven composite scores were reconstructed from 29 subscales in 50 baseline records. The resulting correlations show which traits tended to move together in this cohort, without assigning causes or psychological diagnoses.

50Baseline profiles
29Measured subscales
7Composite dimensions
1,225Profile comparisons

EXPLORATORY DISCOVERIES

9/ 21

Trait correlations below the 5% Benjamini–Hochberg false-discovery-rate threshold.

STRONGEST OBSERVED RELATIONSHIP

PERSISTENCE×SELF-TRANSCENDENCE

r = 0.630

Higher Persistence was associated with higher Self-Transcendence within the baseline sample. The result is descriptive, not a population estimate.

INTERACTIVE / SELECT ANY PAIRHow the seven dimensions relate
+Same directionOpposite direction

Row and column borders retain each trait's color. Signs and line styles encode association direction.

Pearson correlations for n = 50 baseline profiles. The 21 unique pairs were adjusted together using Benjamini–Hochberg. No respondent-level values are displayed.

Five strongest associations

Ordered by absolute Pearson correlation

04 / THE PROJECTION7 DIMENSIONS → 2 DIMENSIONS

The cost of a simpler picture

What survives when seven become two?

Multidimensional scaling tries to keep the distances between profiles consistent while placing them on a flat surface. It preserves much of the broad structure, but changes some nearest-neighbor relationships.

0.90Spearman rank agreement between original and projected distances
0.203Normalized Stress-1; smaller is better
54.4%Five-nearest-neighbor relations retained
ANIMATED EXPLANATION / ILLUSTRATIVEFrom seven signals to a flat map
ACTUAL AGGREGATE RESULTSHow much distance was preserved?

Medians of 1,225 distinct profile-pair distances, grouped into equal-count bins. The diagonal represents perfect agreement. Pairwise comparisons are not statistically independent.

READING THE MAP

Useful from afar.
Imperfect up close.

The projected map preserved the rank ordering of pairwise distances well (ρ ≈ 0.90), but only 54.4% of five-nearest-neighbor relationships remained unchanged.

Positions are a guide to similarity under one distance model, not permanent identities. A nearby point is not necessarily a close match in every dimension.

CHECK THE DISTORTION BEFORE TRUSTING THE MAP
05 / THE GROUPING QUESTIONASSIGNMENT ≠ DISCOVERY

A useful negative result

Four groups are not four types.

A clustering algorithm will make groups when asked. A silhouette diagnostic tells us whether those groups are well separated. Here, the evidence for discrete clusters is weak.

FOUR-GROUP SILHOUETTE0.160

Weak separation in the seven normalized dimensions. The four named roles are an interface metaphor, not a discovered psychological taxonomy.

A COMPARISON, NOT A VERDICTHow partition choice changes the score

Ward hierarchical clustering on normalized composite traits. Higher silhouette scores indicate stronger separation; no external labels were available.

06 / THE NEXT QUESTIONFROM OBSERVATION TO CHANGE

The conceptual lineage

The first map was only a beginning.

Affinitree asked how profiles relate at one moment. Rhizome extends the question toward how relationships, choices, and permissioned interactions might change a person's position over time.

01 / AFFINITREEOne survey, one position
02 / TRANSITIONTime, context, changing signals
03 / RHIZOMEA living, consent-aware network
Explore Rhizome

The evolution described here is a design direction, not a longitudinal finding or a claim that Affinitree records ongoing behavior.

07 / RESEARCH METHODREPRODUCE · QUESTION · REASSESS

Behind the visuals

Show the work. Keep its limits.

The statistics are reproduced from the committed baseline workbook by a standalone Python analysis. The presentation does not ingest questionnaire submissions or publish respondent-level records.

01 / PREPARE

Aggregate

Construct seven descriptive composites by summing the 29 available TCI subscales. Scoring conventions require independent instrument-level verification.

02 / COMPARE

Correlate

Calculate 21 Pearson correlations and control the exploratory false discovery rate with Benjamini–Hochberg adjustment.

03 / PROJECT

Embed

Min-max scale seven composites; calculate Euclidean pairwise distances; fit two-dimensional metric MDS with a fixed random seed.

04 / TEST

Evaluate

Assess rank agreement, normalized stress, nearest-neighbor retention, and Ward-clustering silhouettes rather than interpreting shapes at face value.

REPRODUCIBLE RESEARCH

Run the analysis locally

The original workbook stays in data/. The published report uses aggregate outputs only.

python scripts/research_analysis.py

Interpretation boundaries

These results describe 50 baseline records, not a representative population or a validated clinical study. The subscale-to-composite aggregation has not been independently checked against the TCI scoring manual. The statistical tests assume independent profiles. No causal, diagnostic, or population-level claim follows from the correlations. Clustering is descriptive, and the animated network scenes are illustrative rather than observed longitudinal data.