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egutierrez 2ebc9efeb2 chore: auto-commit (8 archivos)
- scratchpad/gen_docs.py
- scratchpad/gen_intel.py
- scratchpad/gen_verify.py
- scratchpad/intel_build.json
- scratchpad/intel_lineage.json
- scratchpad/lineage_graph.json
- scratchpad/trace_intel.py
- scratchpad/trace_lineage.py

Co-Authored-By: Claude Opus 4.7 (1M context) <noreply@anthropic.com>
2026-07-01 19:00:06 +02:00
egutierrez fbdf80bd71 chore: auto-commit (10 archivos)
- scratchpad/ap.parquet
- scratchpad/bq.py
- scratchpad/cards.json
- scratchpad/citas_recon.csv
- scratchpad/dash.txt
- scratchpad/diego.parquet
- scratchpad/diego_literals.sql
- scratchpad/exf/
- scratchpad/va.parquet
- scratchpad/vm.parquet

Co-Authored-By: Claude Opus 4.7 (1M context) <noreply@anthropic.com>
2026-07-01 17:58:03 +02:00
egutierrez 8408863cfa feat(eda): pipeline BQ-EDA sobre tablas BigQuery (grupo eda)
Añade el conector y el pipeline para hacer EDA automático sobre tablas/vistas
de BigQuery, reutilizando profile_table del grupo eda sin duplicar profiling:

- load_bq_table_to_duckdb (datascience): trae una tabla BQ a DuckDB con
  seudonimización SHA-1 de columnas PII y normalización de dtypes. Por defecto
  carga el total de filas (sample_frac=None); el muestreo es opt-in explícito.
- profile_bq_table (pipeline): orquesta load -> profile_table -> render report
  (JSON + Markdown + PDF/PPTX). Full por defecto.

Ambas tageadas eda+bigquery, v1.1.0. El default full responde a la preferencia
del operador: los EDA se corren sobre el total salvo indicación contraria.

Co-Authored-By: Claude Opus 4.8 (1M context) <noreply@anthropic.com>
2026-07-01 12:45:39 +02:00
egutierrez 7273823087 Merge remote-tracking branch 'origin/master'
# Conflicts:
#	.claude/settings.local.json
2026-07-01 11:42:49 +02:00
egutierrez 76592e4dc0 chore: auto-commit (2 archivos)
- .claude/settings.local.json
- scratchpad/mbq.py

Co-Authored-By: Claude Opus 4.7 (1M context) <noreply@anthropic.com>
2026-07-01 11:41:56 +02:00
egutierrez 26569c7015 chore: auto-commit (1 archivos)
- logs/ardour_mcp_server.log

Co-Authored-By: Claude Opus 4.7 (1M context) <noreply@anthropic.com>
2026-07-01 02:16:25 +02:00
egutierrez 44622339fa merge(eda): cap4/cap5 distribuciones — parrafos al glosario, desc LLM+unidad por columna, donut->barras, PPT side_by_side 2026-07-01 02:11:53 +02:00
egutierrez c0d44a6352 fix(eda): cat_distr — intro del cuerpo reducida a términos clicables mínimos
Quita la frase descriptiva del cuerpo del capítulo ('Cada columna categórica
ocupa su propia página — ...: cardinalidad, top de categorías y gráfico de
barras. El dataset tiene N filas...'); ya vivía duplicada en la entrada de
glosario 'pagina_categorica'. El intro deja solo los términos clicables
mínimos ([[term:entropia]] · [[term:pagina_categorica]]) bajo el heading
'Entropía y cardinalidad'. El total de filas del dataset sigue disponible por
columna en la tabla de cardinalidad ('Total filas (dataset)').
2026-07-01 02:10:39 +02:00
egutierrez cab0fbf0a3 feat(eda): CAP4/CAP5 distribuciones — párrafos al glosario, desc LLM + unidad por columna, donut→barras, PPT figura a la derecha
CAP4 num_distr:
- Mueve el párrafo introductorio largo del histograma/boxplot al glosario
  (nuevo término clicable "histograma_boxplot"); el cuerpo del capítulo solo
  nombra el término con [[term:histograma_boxplot]] y la explicación completa
  (código de colores, 1,5·IQR, lectura de asimetría) vive en la entrada del
  glosario. La información se traslada, no se pierde.
- Añade por columna numérica la descripción de negocio del LLM y la unidad,
  leídas de profile['llm']['dictionary'] (empareja por nombre de columna).
  Sin bloque LLM el bloque de descripción se omite limpiamente.

CAP5 cat_distr:
- Mueve el párrafo "Cada columna categórica ocupa su propia página..." al
  glosario (nuevo término clicable "pagina_categorica"); el intro solo nombra
  los términos entropía y pagina_categorica.
- Añade descripción LLM + unidad por columna (misma fuente que CAP4).
- Cambia el donut/pie por gráfico de barras horizontales (nueva función del
  registry categorical_top_bar_figure_py_datascience, contrato de entrada
  idéntico al donut para swap directo) más su fallback inline de barras.
- Marca cada Group de columna con layout="side_by_side": en PPTX la tabla de
  cardinalidad queda a la izquierda y la barra a la derecha; en PDF se apila
  (A5 estrecho). No toca los renderers — el soporte de layout ya existía.

Glosario:
- Catálogo canónico _BASELINE_TERMS con las definiciones de los dos términos
  nuevos; build_glosario completa la definición de un término registrado sin
  ella desde el catálogo (los chapters solo registran clave+label).

Tests actualizados (donut→barras, side_by_side, LLM desc/unidad, glosario) y
nueva función con sus tests. Suite del subsistema + acceptance verde.
2026-07-01 02:01:07 +02:00
egutierrez 7f304adc9c merge(eda): render quality global — DPI 220, tablas anchas como imagen, layout side_by_side, indice clicable 2026-07-01 01:36:10 +02:00
egutierrez a74a5a047f feat(eda): render quality global — DPI 220, tablas anchas como imagen, layout side_by_side, índice clicable
Mejoras transversales del motor AutomaticEDA (PDF + PPTX) sobre el modelo de bloques:

1. DPI alto global: toda figura/imagen embebida se rasteriza a 220 dpi (antes 150,
   y en PDF la página se guardaba a ~100 dpi re-rasterizando los imshow). En PDF se
   aplica savefig.dpi=220 a la página; el texto sigue vectorial y seleccionable.
   Permite ampliar en el móvil sin pixelar. Imagen embebida medida: ~1081px (antes ~492px).

2. Tabla ancha → imagen de alta resolución: cuando un DataTable tiene demasiadas
   columnas para ser legible como texto (criterio _table_fits_as_text), se dibuja entera
   como una imagen nítida (nueva función render_table_as_figure_py_datascience: cabecera
   sombreada + zebra) escalada para caber completa, de modo que el lector hace zoom y la
   lee sin perder datos. Las tablas que sí caben siguen como texto seleccionable / tabla
   nativa. Aplica en PDF y PPTX. El df.head de 19 columnas del dataset sintético ya no se
   corta: sale como imagen.

3. Group.layout: nuevo hint retrocompatible (default "stack"). "side_by_side" coloca la
   tabla a la izquierda (~55%) y la figura a la derecha (~45%) en la misma slide PPTX
   (cae a apilado si no hay par tabla+figura o no caben); en PDF se trata como "stack"
   (el ancho A5 móvil no admite dos columnas). Pensado para que el capítulo cat_distr
   ponga el gráfico al lado de la tabla en PPT.

4. Portada con índice clicable: la lista de capítulos pasa de "Este informe incluye..."
   (markdown) a un Heading "Índice" + un TocEntry por capítulo. El renderer registra el
   inicio de cada capítulo y cablea cada entrada como salto real (PDF: link GOTO PyMuPDF;
   PPTX: salto a slide nativo), reutilizando el mecanismo del glosario clicable.

Modelo: Group gana `layout`; nuevo bloque TocEntry; normalizers y __init__ actualizados.
Contrato: documentado en docs/automatic_eda_contract.md §11.4 (incluye el contrato exacto
del campo layout para el agente de cat_distr).

Tests: nuevo render_quality_test.py (13 golden: DPI alto real, tabla ancha→imagen PDF/PPTX,
narrow→texto, side_by_side PPTX dos columnas / PDF apilado, índice clicable PDF+PPTX,
retrocompatibilidad layout por defecto). render_features_test actualizado al índice nuevo.
Suite: 188 passed (módulo) + 38 passed/1 skipped (acceptance + pipeline).

Co-Authored-By: Claude Opus 4.8 (1M context) <noreply@anthropic.com>
2026-07-01 01:34:21 +02:00
egutierrez 44be1d6b58 merge(eda): cap2 overview enriquece diccionario y describe con descripcion+unidad del LLM 2026-07-01 01:14:37 +02:00
56 changed files with 5426 additions and 148 deletions
+62 -2
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@@ -41,12 +41,13 @@ reconocido se degrada a `Note`, nunca lanza).
| `Heading(text, level=1)` | título de sección, `level` 1 (grande) … 3 (chico) | una o varias líneas en negrita; nivel 1 lleva subrayado de acento | | `Heading(text, level=1)` | título de sección, `level` 1 (grande) … 3 (chico) | una o varias líneas en negrita; nivel 1 lleva subrayado de acento |
| `Markdown(text)` | texto markdown ligero | ver subset abajo; **nunca corta a media línea** | | `Markdown(text)` | texto markdown ligero | ver subset abajo; **nunca corta a media línea** |
| `KVTable(rows, title=None)` | `rows = [(clave, valor), ...]` | tabla de 2 columnas etiqueta/valor; el valor se envuelve | | `KVTable(rows, title=None)` | `rows = [(clave, valor), ...]` | tabla de 2 columnas etiqueta/valor; el valor se envuelve |
| `DataTable(header, rows, title=None, note=None)` | `header=[...]`, `rows=[[...],...]` | tabla con cabecera; **se parte por filas repitiendo cabecera**; las celdas largas se envuelven dentro de su columna | | `DataTable(header, rows, title=None, note=None)` | `header=[...]`, `rows=[[...],...]` | tabla con cabecera; **si cabe** como texto se parte por filas repitiendo cabecera; **si NO cabe** (demasiadas columnas) se rasteriza entera como imagen de alta resolución para hacer zoom. Ver §11.4 |
| `Figure(fig=None, make=None, caption=None, height_in=None)` | una `matplotlib.figure.Figure` ya construida (`fig`) o un callable `make()->Figure` (perezoso) | se rasteriza y escala para caber entera (nunca recortada) | | `Figure(fig=None, make=None, caption=None, height_in=None)` | una `matplotlib.figure.Figure` ya construida (`fig`) o un callable `make()->Figure` (perezoso) | se rasteriza y escala para caber entera (nunca recortada) |
| `Image(path, caption=None, height_in=None)` | ruta a PNG/JPG | se escala para caber entera | | `Image(path, caption=None, height_in=None)` | ruta a PNG/JPG | se escala para caber entera |
| `Caption(text)` / `Note(text)` | texto auxiliar pequeño | pie/nota en gris; `Note` es además el fallback de lo desconocido | | `Caption(text)` / `Note(text)` | texto auxiliar pequeño | pie/nota en gris; `Note` es además el fallback de lo desconocido |
| `Group(blocks, title=None)` | unidad **keep-together**: sus bloques se mantienen juntos | el renderer mide el grupo entero y lo mueve completo a la página/slide siguiente si no cabe; encoge la figura para dejar sitio al título+texto. Ver §11 | | `Group(blocks, title=None, page_break_before=False, layout="stack")` | unidad **keep-together**: sus bloques se mantienen juntos | el renderer mide el grupo entero y lo mueve completo a la página/slide siguiente si no cabe; encoge la figura para dejar sitio al título+texto. `layout="side_by_side"` coloca tabla+figura en dos columnas (solo PPTX). Ver §11 y §11.4 |
| `GlossaryEntry(key, label, definition)` | una entrada del glosario (destino clicable) | la genera el capítulo `glosario`; registra su posición como destino de los términos marcados. Ver §11 | | `GlossaryEntry(key, label, definition)` | una entrada del glosario (destino clicable) | la genera el capítulo `glosario`; registra su posición como destino de los términos marcados. Ver §11 |
| `TocEntry(label, target_id)` | una entrada de **índice clicable** en la portada | la genera el capítulo `portada`; el renderer la cablea como salto al inicio del capítulo cuyo `id` o `title` coincide con `target_id`. Ver §11.4 |
`Figure`/`Image` aceptan `height_in` (hint): el renderer **clampa** la figura a esa altura máxima (lo usa `Group` para encoger la figura). Toda figura escala dejando sitio a su caption en la misma página/slide; en PPTX el caption es **siempre** visible (si no se da `caption`, cae al último heading o a "Figura"). `Figure`/`Image` aceptan `height_in` (hint): el renderer **clampa** la figura a esa altura máxima (lo usa `Group` para encoger la figura). Toda figura escala dejando sitio a su caption en la misma página/slide; en PPTX el caption es **siempre** visible (si no se da `caption`, cae al último heading o a "Figura").
@@ -397,6 +398,65 @@ cabecera con su fondo propio. Es automático en PDF y PPTX; el patrón se mantie
cuando una tabla larga se parte y repite cabecera (el índice de fila es lógico, no por cuando una tabla larga se parte y repite cabecera (el índice de fila es lógico, no por
página). No hay nada que hacer en los capítulos. página). No hay nada que hacer en los capítulos.
### 11.4 Calidad de render global: DPI alto, tabla ancha → imagen, figura al lado, índice clicable
Cuatro capacidades transversales del motor, **todas automáticas salvo `layout`** (que un
capítulo activa explícitamente). Aplican a PDF y PPTX salvo donde se indique.
**(a) DPI alto (automático).** Toda figura/imagen embebida se rasteriza a **220 dpi**
(constante `_RASTER_DPI` en ambos renderers; en PDF se aplica también al `savefig` de la
página, porque matplotlib re-rasteriza cada `imshow` al escribir la página). Objetivo:
ampliar en el móvil y leer detalle (ejes, celdas) sin pixelar. El texto sigue siendo
vectorial y seleccionable. No hay nada que hacer en los capítulos.
**(b) Tabla ancha → imagen de alta resolución (automático).** Cuando un `DataTable` tiene
**demasiadas columnas para ser legible como texto** en el ancho útil (criterio
`_table_fits_as_text`: ancho mínimo legible por columna × nº de columnas > ancho útil; en
la práctica salta sobre tablas tipo `df.head` con muchas columnas), en vez de comprimir las
columnas hasta hacerlas ilegibles, la tabla se dibuja **entera como una imagen de alta
resolución** (función `render_table_as_figure_py_datascience`: cabecera sombreada + zebra)
escalada para caber completa, de modo que el lector hace **zoom** y la lee sin perder datos.
Si la tabla **sí cabe**, se mantiene como texto seleccionable (PDF) / tabla nativa (PPTX).
Las `KVTable` (2 columnas) caben siempre y se quedan como texto. No hay nada que hacer en
los capítulos.
**(c) Figura al lado de la tabla — `Group(layout="side_by_side")`.** Hint de layout que un
capítulo activa para que su **tabla quede a la izquierda y su figura a la derecha** en la
misma diapositiva, en lugar de apiladas:
```python
model.Group(
layout="side_by_side",
blocks=[
model.Heading(text=str(name), level=2), # va a ancho completo arriba
model.DataTable(header=..., rows=...), # columna IZQUIERDA (~55%)
model.Figure(make=_grafico_perezoso(...)), # columna DERECHA (~45%)
model.Markdown(text="explicación…"), # va a ancho completo abajo
])
```
Contrato exacto del campo:
| Campo | Valor | Efecto |
|---|---|---|
| `layout` | `"stack"` (por defecto) | comportamiento histórico: apilado vertical (keep-together). |
| `layout` | `"side_by_side"` | **PPTX**: la tabla (rasterizada a imagen) ocupa la columna izquierda (~55% del ancho útil) y la figura la derecha (~45%); cualquier otro bloque (heading, markdown) va a ancho completo arriba/abajo. Si no hay un par tabla+figura, o no caben lado a lado en una slide, **cae automáticamente a apilado**. **PDF**: se trata **igual que `stack`** (el ancho A5 móvil no admite dos columnas legibles). Valores desconocidos degradan a `"stack"`. |
Es **retrocompatible**: un `Group` sin `layout` (o `layout="stack"`) se comporta exactamente
como antes. El capítulo `cat_distr` es el consumidor previsto (gráfico a la derecha de la
tabla de categorías en PPT); este motor solo provee el soporte.
**(d) Índice clicable en la portada — `TocEntry`.** La portada emite un `Heading("Índice")`
seguido de un `TocEntry(label, target_id)` por capítulo. El renderer registra la
página/slide de inicio de **cada** capítulo (indexado por `id` **y** por `title`) y cablea
cada `TocEntry` como un salto real a ese inicio: en **PDF** vía
`add_pdf_internal_links_py_datascience` (link GOTO de PyMuPDF), en **PPTX** vía
`pptx_link_run_to_slide_py_datascience` (salto a slide nativo). Como la portada solo conoce
los **títulos** de los capítulos, el `target_id` se hace coincidir contra el `title` (o el
`id`) de destino. Si un destino no resuelve, la entrada se muestra igualmente como texto
(en color de enlace), nunca se corta. Es el mismo mecanismo que los términos clicables del
glosario (§11.1), reutilizado en sentido portada → capítulo.
--- ---
## 10. Integración futura con `profile_table` (siguiente fase) ## 10. Integración futura con `profile_table` (siguiente fase)
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@@ -79,8 +79,10 @@ from .render_paper_pdf import render_paper_pdf
from .draw_join_graph_figure import draw_join_graph_figure from .draw_join_graph_figure import draw_join_graph_figure
from .generate_synthetic_eda_table import generate_synthetic_eda_table from .generate_synthetic_eda_table import generate_synthetic_eda_table
from .generate_synthetic_eda_folder import generate_synthetic_eda_folder from .generate_synthetic_eda_folder import generate_synthetic_eda_folder
from .load_bq_table_to_duckdb import load_bq_table_to_duckdb
__all__ = [ __all__ = [
"load_bq_table_to_duckdb",
"generate_synthetic_eda_table", "generate_synthetic_eda_table",
"generate_synthetic_eda_folder", "generate_synthetic_eda_folder",
"render_paper_pdf", "render_paper_pdf",
@@ -29,6 +29,7 @@ from .model import ( # noqa: F401
KVTable, KVTable,
Markdown, Markdown,
Note, Note,
TocEntry,
as_blocks, as_blocks,
as_chapters, as_chapters,
merge_manifest, merge_manifest,
@@ -52,6 +53,7 @@ __all__ = [
"Group", "Group",
"GlossaryEntry", "GlossaryEntry",
"GlossaryCollector", "GlossaryCollector",
"TocEntry",
"Chapter", "Chapter",
"as_blocks", "as_blocks",
"as_chapters", "as_chapters",
@@ -5,28 +5,32 @@ page (PDF) / slide (PPTX)**: every column is wrapped in a keep-together
``model.Group`` with ``page_break_before=True`` (except the first, which may share ``model.Group`` with ``page_break_before=True`` (except the first, which may share
the intro's page), so its chart sits next to its tables and no column is split. the intro's page), so its chart sits next to its tables and no column is split.
A short intro names the clickable **[[term:entropia]]entropía[[/term]]** term — Per column the Group is laid out ``side_by_side`` (PPTX: cardinality table LEFT,
the full definition lives in the GLOSARIO chapter, so it is NOT repeated inline chart RIGHT; PDF: stacked) and contains, in order:
here (one click jumps to the glossary entry). The intro also carries the dataset
row total used as a comparison baseline.
Per column the Group contains, in order: 1. The column name plus, when the LLM layer ran, its business **description** and
**unit** (read from ``profile['llm']['dictionary']``, matched by column name).
1. A cardinality key/value table: distinct values, ``% distinct`` (distinct / 2. A cardinality key/value table: distinct values, ``% distinct`` (distinct /
total rows), total dataset rows, singleton values (frequency 1), entropy with total rows), total dataset rows, singleton values (frequency 1), entropy with
its theoretical maximum and the normalized ratio, mode, imbalance and its theoretical maximum and the normalized ratio, mode, imbalance and
string-length stats. string-length stats.
2. A short note flagging problematic cardinality (id-like ≈100% distinct, or a 3. A short note flagging problematic cardinality (id-like ≈100% distinct, or a
single dominating category). single dominating category).
3. A ``top-k`` table (value / count / %). 4. A ``top-k`` table (value / count / %).
4. A **donut pie chart** of the most common categories (top-k + an "Otros" 5. A **horizontal bar chart** of the most common categories (top-k + an "Otros"
bucket), drawn lazily so the renderers scale it to fit entirely. bucket), drawn lazily so the renderers scale it to fit entirely.
A short intro names the clickable **[[term:entropia]]entropía[[/term]]** and
**[[term:pagina_categorica]]page-layout[[/term]]** terms — their full
definitions live in the GLOSARIO chapter, so they are NOT repeated inline here
(one click jumps to the glossary entry). The intro also carries the dataset row
total used as a comparison baseline.
Data comes from the ``eda`` group: each ``columns[i]['categorical']`` is the Data comes from the ``eda`` group: each ``columns[i]['categorical']`` is the
output of ``summarize_categorical`` (``top[{value,count,pct}]``, ``mode``, output of ``summarize_categorical`` (``top[{value,count,pct}]``, ``mode``,
``n_distinct``, ``entropy``, ``imbalance``, ``len_min/mean/max``). The derived ``n_distinct``, ``entropy``, ``imbalance``, ``len_min/mean/max``). The derived
cardinality metrics and the pie figure are delegated to two registry functions cardinality metrics and the bar figure are delegated to two registry functions
(``categorical_cardinality_block`` and ``categorical_top_pie_figure``); both are (``categorical_cardinality_block`` and ``categorical_top_bar_figure``); both are
imported lazily and degrade to a minimal inline fallback so this chapter never imported lazily and degrade to a minimal inline fallback so this chapter never
raises even if they are unavailable. raises even if they are unavailable.
@@ -39,10 +43,21 @@ import math
from .. import model from .. import model
CHAPTER_VERSION = "1.2.0" CHAPTER_VERSION = "1.3.0"
CHAPTER_ID = "cat_distr" CHAPTER_ID = "cat_distr"
CHAPTER_TITLE = "Distribuciones categóricas" CHAPTER_TITLE = "Distribuciones categóricas"
# Key under which eda_llm_insights stores its interpretive block in the profile.
LLM_KEY = "llm"
# Second glossary term this chapter names: "how each categorical page is laid
# out". The long paragraph that used to describe it inline in the intro now lives
# in the GLOSARIO chapter (canonical definition in ``glosario._BASELINE_TERMS``);
# the intro only names the clickable term, relocating the explanation, not losing
# it. The chapter only needs to register key+label here.
_TERM_PAGINA_KEY = "pagina_categorica"
_TERM_PAGINA_LABEL = "Cómo se organiza cada página categórica"
# Glossary term this chapter explains. Registered in the shared collector and # Glossary term this chapter explains. Registered in the shared collector and
# marked clickable on its first appearance (end-to-end glossary example — # marked clickable on its first appearance (end-to-end glossary example —
# mejora 6). Other chapters hook their own terms the same way (see the contract). # mejora 6). Other chapters hook their own terms the same way (see the contract).
@@ -59,14 +74,14 @@ _TERM_ENTROPIA_DEF = (
# Cap the number of categorical columns rendered to keep the document bounded; # Cap the number of categorical columns rendered to keep the document bounded;
# the rest are summarized in a closing note (no silent truncation). # the rest are summarized in a closing note (no silent truncation).
MAX_COLS = 40 MAX_COLS = 40
# Rows shown in each top-k table and explicit slices in the pie. Kept moderate so # Rows shown in each top-k table and explicit bars in the chart. Kept moderate so
# the whole column — cardinality table + top-k table + donut — fits on ONE # the whole column — cardinality table + top-k table + bar chart — fits on ONE
# page/slide with the chart next to its tables; the table note still reports # page/slide with the chart next to its tables; the table note still reports
# "top N of M" so nothing is silently hidden. For id-like columns (≈100% # "top N of M" so nothing is silently hidden. For id-like columns (≈100%
# distinct) the top-k table is dropped entirely (it would be a list of unique # distinct) the top-k table is dropped entirely (it would be a list of unique
# values — pure noise), which also frees the room the donut needs (see build). # values — pure noise), which also frees the room the chart needs (see build).
TOP_TABLE_ROWS = 8 TOP_TABLE_ROWS = 8
PIE_TOP_K = 6 CHART_TOP_K = 6
# Truncate very long category labels in tables (the renderer also wraps). Kept # Truncate very long category labels in tables (the renderer also wraps). Kept
# tight so a column with long id-like values (names, tickets) still fits its page. # tight so a column with long id-like values (names, tickets) still fits its page.
LABEL_MAX = 28 LABEL_MAX = 28
@@ -208,26 +223,74 @@ def _fallback_cardinality(cat: dict, n_rows) -> dict:
} }
def _pie_make(top, n_distinct, title, n_rows): def _llm_index(profile: dict, ctx: dict) -> dict:
"""Return a zero-arg callable that builds the donut figure lazily.""" """Map column name -> its LLM dictionary entry (description/unit/...).
Reads the ``llm.dictionary`` list that ``eda_llm_insights`` stored in the
profile (``profile['llm']``; falls back to ``ctx['llm']``). Returns an empty
dict when ``run_llm`` did not run, so the caller degrades cleanly. Fully
defensive: never raises on malformed input.
"""
llm = profile.get(LLM_KEY)
if not isinstance(llm, dict):
llm = ctx.get(LLM_KEY)
if not isinstance(llm, dict):
return {}
entries = llm.get("dictionary")
if not isinstance(entries, (list, tuple)):
return {}
index: dict = {}
for e in entries:
if not isinstance(e, dict):
continue
col = e.get("column")
if col is None:
continue
index[model._safe_str(col)] = e
return index
def _llm_desc_unit_block(name: str, llm_index: dict):
"""Markdown block with the LLM business description + unit of a column, or
None when no LLM entry matches the column (clean fallback without LLM)."""
entry = llm_index.get(model._safe_str(name))
if not isinstance(entry, dict):
return None
raw_desc = entry.get("description") or entry.get("business_meaning")
desc = " ".join(model._safe_str(raw_desc).split()) if raw_desc else ""
raw_unit = entry.get("unit")
unit = " ".join(model._safe_str(raw_unit).split()) if raw_unit else ""
parts = []
if desc:
parts.append(f"**Descripción:** {desc}")
if unit:
parts.append(f"**Unidad:** {unit}")
if not parts:
return None
return model.Markdown(text=" · ".join(parts))
def _bar_make(top, n_distinct, title, n_rows):
"""Return a zero-arg callable that builds the bar figure lazily."""
def make(): def make():
try: try:
from datascience.categorical_top_pie_figure import ( from datascience.categorical_top_bar_figure import (
categorical_top_pie_figure, categorical_top_bar_figure,
) )
return categorical_top_pie_figure( return categorical_top_bar_figure(
top=top, n_distinct=n_distinct or 0, title=title, top=top, n_distinct=n_distinct or 0, title=title,
top_k=PIE_TOP_K, n_rows=n_rows) top_k=CHART_TOP_K, n_rows=n_rows)
except Exception: # noqa: BLE001 — minimal local fallback figure. except Exception: # noqa: BLE001 — minimal local fallback figure.
return _fallback_pie(top, title) return _fallback_bar(top, title)
return make return make
def _fallback_pie(top, title): def _fallback_bar(top, title):
"""Minimal donut figure used only if the registry function is unavailable.""" """Minimal horizontal-bar figure used only if the registry function is
unavailable. Largest category on top, the rest folded into "Otros"."""
import matplotlib import matplotlib
matplotlib.use("Agg") matplotlib.use("Agg")
@@ -238,8 +301,8 @@ def _fallback_pie(top, title):
items = [t for t in (top or []) items = [t for t in (top or [])
if isinstance(t, dict) and isinstance(t.get("count"), (int, float))] if isinstance(t, dict) and isinstance(t.get("count"), (int, float))]
items = sorted(items, key=lambda t: t.get("count") or 0, reverse=True) items = sorted(items, key=lambda t: t.get("count") or 0, reverse=True)
head = items[:PIE_TOP_K] head = items[:CHART_TOP_K]
rest = items[PIE_TOP_K:] rest = items[CHART_TOP_K:]
labels = [_truncate(t.get("value"), 20) for t in head] labels = [_truncate(t.get("value"), 20) for t in head]
sizes = [float(t.get("count") or 0) for t in head] sizes = [float(t.get("count") or 0) for t in head]
if rest: if rest:
@@ -249,10 +312,13 @@ def _fallback_pie(top, title):
ax.text(0.5, 0.5, "sin datos categóricos", ha="center", va="center") ax.text(0.5, 0.5, "sin datos categóricos", ha="center", va="center")
ax.axis("off") ax.axis("off")
return fig return fig
ax.pie(sizes, labels=None, wedgeprops={"width": 0.42}, # barh draws bottom-up, so reverse to put the largest category on top.
autopct=lambda p: f"{p:.0f}%" if p >= 4 else "") y_pos = range(len(labels))
ax.legend(labels, loc="center left", bbox_to_anchor=(1.0, 0.5), ax.barh(list(y_pos), list(reversed(sizes)), color="#4C72B0",
fontsize=7, frameon=False) edgecolor="white")
ax.set_yticks(list(y_pos))
ax.set_yticklabels(list(reversed(labels)), fontsize=7)
ax.set_xlabel("conteo", fontsize=8)
ax.set_title(_truncate(title, 40)) ax.set_title(_truncate(title, 40))
fig.tight_layout() fig.tight_layout()
return fig return fig
@@ -373,22 +439,17 @@ def _topk_table(cat: dict):
note=note) note=note)
def _intro_blocks(n_rows, mark_term: bool = False): def _intro_blocks(mark_term: bool = False):
total = _fmt_int(n_rows) # The full explanation of entropy AND of how each categorical page is laid out
# Mark the first appearance of the term as a clickable glossary jump when the # lives in the GLOSARIO chapter; the chapter body keeps only the minimal
# term was registered (mark_term). The full definition of entropy lives in the # clickable terms — no descriptive prose — to avoid duplicating the glossary.
# GLOSARIO chapter, so the intro only names the clickable term here instead of # The dataset row total is not repeated here: each column's cardinality table
# repeating the long explanation (avoids the redundancy with the glossary). # already carries "Total filas (dataset)".
entropia = ("[[term:entropia]]entropía[[/term]]" if mark_term entropia = ("[[term:entropia]]entropía[[/term]]" if mark_term
else "entropía") else "entropía")
text = ( pagina = ("[[term:pagina_categorica]]cómo se organiza cada página[[/term]]"
f"Cada columna categórica ocupa su propia página: sus métricas de " if mark_term else "cómo se organiza cada página")
f"cardinalidad —incluida la {entropia}—, una nota que señala cardinalidad " text = f"Términos: {entropia} · {pagina}."
"problemática, la tabla de las categorías más frecuentes y un gráfico de "
"tarta (donut) de las más comunes, todo junto."
)
if n_rows is not None:
text += f" El dataset tiene {total} filas en total como referencia."
return [ return [
model.Heading(text="Entropía y cardinalidad", level=2), model.Heading(text="Entropía y cardinalidad", level=2),
model.Markdown(text=text), model.Markdown(text=text),
@@ -406,15 +467,22 @@ def build_cat_distr(profile: dict, ctx: dict):
return None return None
n_rows = profile.get("n_rows") n_rows = profile.get("n_rows")
# Register "entropía" in the shared glossary collector (if present) and mark # Register "entropía" and the "how each categorical page is laid out" term in
# its first appearance clickable. End-to-end glossary example (mejora 6). # the shared glossary collector (if present) and mark their first appearance
# clickable. End-to-end glossary example (mejora 6).
glossary = ctx.get("glossary") glossary = ctx.get("glossary")
mark_term = False mark_term = False
if isinstance(glossary, model.GlossaryCollector): if isinstance(glossary, model.GlossaryCollector):
glossary.add(_TERM_ENTROPIA_KEY, _TERM_ENTROPIA_LABEL, glossary.add(_TERM_ENTROPIA_KEY, _TERM_ENTROPIA_LABEL,
_TERM_ENTROPIA_DEF) _TERM_ENTROPIA_DEF)
glossary.add(_TERM_PAGINA_KEY, _TERM_PAGINA_LABEL)
mark_term = True mark_term = True
blocks = list(_intro_blocks(n_rows, mark_term=mark_term)) blocks = list(_intro_blocks(mark_term=mark_term))
# Business description + unit per column come from the LLM dictionary
# (profile['llm']['dictionary'], matched by column name); absent without
# run_llm, in which case the per-column description block is simply omitted.
llm_index = _llm_index(profile, ctx)
rendered = cat_cols[:MAX_COLS] rendered = cat_cols[:MAX_COLS]
for idx, col in enumerate(rendered): for idx, col in enumerate(rendered):
@@ -422,31 +490,36 @@ def build_cat_distr(profile: dict, ctx: dict):
cat = col.get("categorical") or {} cat = col.get("categorical") or {}
card = _normalize_card(_cardinality(cat, n_rows)) card = _normalize_card(_cardinality(cat, n_rows))
# One Group per categorical column: heading + cardinality table + flag # One Group per categorical column: heading + (optional) LLM description +
# note + top-k table + donut figure are kept together and the renderer # cardinality table + flag note + top-k table + bar figure are kept
# starts each on a fresh page/slide (page_break_before) so every column # together and the renderer starts each on a fresh page/slide
# gets its own page with its chart next to its tables. The first column # (page_break_before) so every column gets its own page with its chart next
# may share the intro's page (no forced break) to avoid a near-empty page. # to its tables. The first column may share the intro's page (no forced
col_blocks = [ # break) to avoid a near-empty page.
model.Heading(text=str(name), level=2), col_blocks = [model.Heading(text=str(name), level=2)]
_cardinality_block(card), desc_block = _llm_desc_unit_block(name, llm_index)
] if desc_block is not None:
col_blocks.append(desc_block)
col_blocks.append(_cardinality_block(card))
note = _flag_note(card) note = _flag_note(card)
if note is not None: if note is not None:
col_blocks.append(note) col_blocks.append(note)
# For id-like columns (≈100% distinct) the top-k is a list of unique # For id-like columns (≈100% distinct) the top-k is a list of unique
# values — pure noise; skip it (the flag note already explains why) and # values — pure noise; skip it (the flag note already explains why) and
# let the donut take that room so the whole column fits one page/slide. # let the bar chart take that room so the whole column fits one page/slide.
if not card.get("id_like"): if not card.get("id_like"):
topk = _topk_table(cat) topk = _topk_table(cat)
if topk is not None: if topk is not None:
col_blocks.append(topk) col_blocks.append(topk)
col_blocks.append(model.Figure( col_blocks.append(model.Figure(
make=_pie_make(cat.get("top") or [], card.get("n_distinct"), make=_bar_make(cat.get("top") or [], card.get("n_distinct"),
str(name), n_rows), str(name), n_rows),
caption=(f"Categorías más comunes de «{_truncate(name, 32)}» " caption=(f"Categorías más comunes de «{_truncate(name, 32)}» "
"(donut: top-k + «Otros»)"))) "(barras: top-k + «Otros»)")))
blocks.append(model.Group(blocks=col_blocks, # layout="side_by_side": in PPTX the cardinality table goes to the LEFT and
# the bar chart to the RIGHT of the same slide; the PDF renderer stacks it
# (the A5 mobile page is too narrow for two readable columns).
blocks.append(model.Group(blocks=col_blocks, layout="side_by_side",
page_break_before=(idx > 0))) page_break_before=(idx > 0)))
if len(cat_cols) > len(rendered): if len(cat_cols) > len(rendered):
@@ -2,12 +2,14 @@
Self-contained: builds synthetic TableProfiles (no DuckDB) so the suite is fast Self-contained: builds synthetic TableProfiles (no DuckDB) so the suite is fast
and deterministic. Verifies that ``build_cat_distr`` emits the blocks the user and deterministic. Verifies that ``build_cat_distr`` emits the blocks the user
asked for (distinct/total/%-distinct/unique metrics, top-k table and a donut asked for (distinct/total/%-distinct/unique metrics, top-k table and a bar
figure), that EACH categorical column is wrapped in its own keep-together figure), that EACH categorical column is wrapped in its own keep-together
``Group`` that starts on a fresh page/slide (one column per page, chart next to ``Group`` laid out ``side_by_side`` (PPTX: table left / bars right) that starts on
its tables), that the long entropy explanation is NOT repeated inline (it lives a fresh page/slide (one column per page, chart next to its tables), that the LLM
in the glossary — only the clickable term is kept), that the chapter renders business description + unit are shown per column when the profile carries an LLM
inside the full document to both PDF and PPTX showing that content, that a block, that the long entropy / page-layout explanations are NOT repeated inline
(they live in the glossary — only the clickable terms are kept), that the chapter
renders inside the full document to both PDF and PPTX showing that content, that a
profile with no categorical columns yields ``None`` without raising, and that profile with no categorical columns yields ``None`` without raising, and that
long labels / many columns are never cut in either output. long labels / many columns are never cut in either output.
""" """
@@ -116,6 +118,10 @@ def test_golden_build_cat_distr_emite_bloques_pedidos():
assert "log2" not in md.text # redundant explanation removed. assert "log2" not in md.text # redundant explanation removed.
assert "máxima diversidad" not in md.text assert "máxima diversidad" not in md.text
# The donut/pie is gone: the intro no longer mentions tarta/donut (the chart
# is now a bar chart; the long page-layout explanation moved to the glossary).
assert "donut" not in md.text and "tarta" not in md.text
# Per-column blocks are wrapped in keep-together Groups: flatten to inspect. # Per-column blocks are wrapped in keep-together Groups: flatten to inspect.
flat = _flatten(ch.blocks) flat = _flatten(ch.blocks)
kv = next(b for b in flat if isinstance(b, KVTable)) kv = next(b for b in flat if isinstance(b, KVTable))
@@ -128,11 +134,13 @@ def test_golden_build_cat_distr_emite_bloques_pedidos():
assert any("Entropía" in lbl for lbl in labels) assert any("Entropía" in lbl for lbl in labels)
assert "únicos" in values and "%" in values assert "únicos" in values and "%" in values
assert "bits" in values and "norm" in values # entropy + max + normalized. assert "bits" in values and "norm" in values # entropy + max + normalized.
# Top-k table + pie figure. # Top-k table + bar figure.
dt = next(b for b in flat if isinstance(b, DataTable)) dt = next(b for b in flat if isinstance(b, DataTable))
assert dt.header == ["Valor", "Conteo", "%"] assert dt.header == ["Valor", "Conteo", "%"]
assert any("neumaticos" in str(cell) for row in dt.rows for cell in row) assert any("neumaticos" in str(cell) for row in dt.rows for cell in row)
assert any(isinstance(b, Figure) for b in flat) assert any(isinstance(b, Figure) for b in flat)
# Each per-column Group is laid out side_by_side (table left / bars right).
assert all(g.layout == "side_by_side" for g in _column_groups(ch))
# id-like column flagged with a Note that also explains the top-k is dropped. # id-like column flagged with a Note that also explains the top-k is dropped.
idnote = next((b for b in flat idnote = next((b for b in flat
if isinstance(b, Note) and "identificador" in b.text), None) if isinstance(b, Note) and "identificador" in b.text), None)
@@ -140,9 +148,9 @@ def test_golden_build_cat_distr_emite_bloques_pedidos():
assert "No se lista el top" in idnote.text assert "No se lista el top" in idnote.text
def test_golden_idlike_omite_topk_y_conserva_donut(): def test_golden_idlike_omite_topk_y_conserva_grafico():
# The id-like column (uuid, 100% distinct) must NOT carry a top-k DataTable # The id-like column (uuid, 100% distinct) must NOT carry a top-k DataTable
# (it would be a list of unique values), but must still keep its donut Figure # (it would be a list of unique values), but must still keep its bar Figure
# and its cardinality table so it stays a full per-column page. # and its cardinality table so it stays a full per-column page.
ch = build_cat_distr(_profile(), {}) ch = build_cat_distr(_profile(), {})
groups = _column_groups(ch) groups = _column_groups(ch)
@@ -151,7 +159,7 @@ def test_golden_idlike_omite_topk_y_conserva_donut():
kinds = [b.kind for b in uuid_group.blocks] kinds = [b.kind for b in uuid_group.blocks]
assert "data_table" not in kinds # top-k of unique values dropped. assert "data_table" not in kinds # top-k of unique values dropped.
assert "kv_table" in kinds # cardinality kept. assert "kv_table" in kinds # cardinality kept.
assert "figure" in kinds # donut kept (chart per column). assert "figure" in kinds # bar chart kept (chart per column).
# A non-id-like column keeps its top-k table. # A non-id-like column keeps its top-k table.
cat_group = next(g for g in groups cat_group = next(g for g in groups
if any(getattr(b, "text", "") == "categoria" if any(getattr(b, "text", "") == "categoria"
@@ -205,7 +213,7 @@ def test_golden_render_pdf_una_pagina_por_columna():
assert "Entrop" in txt assert "Entrop" in txt
assert "distintos" in txt assert "distintos" in txt
assert "categoria" in txt and "neumaticos" in txt assert "categoria" in txt and "neumaticos" in txt
assert "donut" in txt # figure caption rendered as text. assert "barras" in txt # bar-chart caption rendered as text (PDF).
assert "identificador" in txt # id-like note rendered. assert "identificador" in txt # id-like note rendered.
@@ -258,9 +266,11 @@ def _profile_high_card() -> dict:
def test_golden_pptx_una_slide_por_columna_con_su_grafico(): def test_golden_pptx_una_slide_por_columna_con_su_grafico():
"""Each categorical column occupies EXACTLY ONE cat_distr slide that carries """Cada columna categórica ocupa EXACTAMENTE UN slide cat_distr que lleva su
BOTH its cardinality table and its donut figure (picture) — i.e. the chart is gráfico (picture) en la misma slide — el chart nunca se separa de su columna,
never separated from its table, even for a high-cardinality column.""" ni siquiera para una columna de alta cardinalidad. Con layout side_by_side la
tabla se rasteriza a imagen, así que la comprobación se hace por presencia de
picture (no por el texto de la tabla)."""
from pptx.enum.shapes import MSO_SHAPE_TYPE from pptx.enum.shapes import MSO_SHAPE_TYPE
prof = _profile_high_card() prof = _profile_high_card()
@@ -272,7 +282,7 @@ def test_golden_pptx_una_slide_por_columna_con_su_grafico():
prs = Presentation(out) prs = Presentation(out)
# Per column: the cat_distr slides whose text mentions it, and whether the # Per column: the cat_distr slides whose text mentions it, and whether the
# owning slide also has the donut caption + an actual picture shape. # owning slide also carries an actual picture shape (its chart).
slides_with_col = {n: [] for n in cat_names} slides_with_col = {n: [] for n in cat_names}
owner_has_chart = {n: False for n in cat_names} owner_has_chart = {n: False for n in cat_names}
for i, sl in enumerate(prs.slides): for i, sl in enumerate(prs.slides):
@@ -288,15 +298,106 @@ def test_golden_pptx_una_slide_por_columna_con_su_grafico():
for n in cat_names: for n in cat_names:
if n in txt: if n in txt:
slides_with_col[n].append(i) slides_with_col[n].append(i)
has_table = "Cardinalidad" in txt or "distintos" in txt if has_pic:
if has_pic and "donut" in txt and has_table:
owner_has_chart[n] = True owner_has_chart[n] = True
for n in cat_names: for n in cat_names:
# Exactly one slide carries the column (not split across slides). # Exactly one slide carries the column (not split across slides).
assert len(slides_with_col[n]) == 1, (n, slides_with_col[n]) assert len(slides_with_col[n]) == 1, (n, slides_with_col[n])
# That single slide also holds its table AND its donut picture. # That single slide also holds its chart picture.
assert owner_has_chart[n], (n, "tabla y donut no están en el mismo slide") assert owner_has_chart[n], (n, "el gráfico no está en el slide de la columna")
def test_golden_pptx_columna_side_by_side_tabla_izq_barra_der():
"""Con layout side_by_side, una columna categórica coloca su tabla de
cardinalidad (imagen) en la mitad izquierda y su gráfico de barras (imagen) en
la mitad derecha de la MISMA slide. Verifica que al menos una columna queda en
dos columnas (tabla-izq / barras-der), evidencia del side_by_side en PPTX."""
from pptx.enum.shapes import MSO_SHAPE_TYPE
from pptx.util import Inches
with tempfile.TemporaryDirectory() as d:
out = os.path.join(d, "eda.pptx")
render_automatic_eda_pptx(_profile(), out, {"title": "EDA"})
prs = Presentation(out)
centre = int(Inches(13.333 / 2.0)) # half of the 16:9 slide width.
two_col_slides = 0
for sl in prs.slides:
texts, lefts = [], []
for sh in sl.shapes:
if sh.has_text_frame:
texts.append(sh.text_frame.text)
if (sh.shape_type == MSO_SHAPE_TYPE.PICTURE
and sh.left is not None):
lefts.append(sh.left)
txt = re.sub(r"\s+", " ", " ".join(texts))
if "Distribuciones categ" not in txt:
continue
# One picture starts in the left half, another in the right half.
if len(lefts) >= 2 and min(lefts) < centre and max(lefts) > centre:
two_col_slides += 1
assert two_col_slides >= 1, (
"ninguna columna quedó con tabla-izq / barras-der (side_by_side)")
def _profile_with_llm() -> dict:
"""The base profile plus an ``llm`` block (as eda_llm_insights would store it
with run_llm=True): a data dictionary with description/unit per column."""
prof = _profile()
prof["llm"] = {
"dictionary": [
{"column": "categoria",
"description": "Familia de producto del recambio",
"business_meaning": "Agrupa el catálogo por tipo de pieza",
"unit": "categoría"},
{"column": "uuid",
"description": "Identificador único de registro",
"unit": ""},
],
}
return prof
def test_llm_descripcion_y_unidad_por_columna():
# With an LLM dictionary, each categorical column whose name matches shows its
# business description and unit in a per-column markdown block.
ch = build_cat_distr(_profile_with_llm(), {})
groups = _column_groups(ch)
cat_group = next(g for g in groups
if any(getattr(b, "text", "") == "categoria"
for b in g.blocks))
md = " ".join(b.text for b in cat_group.blocks
if getattr(b, "kind", "") == "markdown")
assert "Descripción" in md and "Familia de producto" in md
assert "Unidad" in md and "categoría" in md
def test_edge_sin_llm_no_anade_descripcion():
# Without an LLM block the per-column description markdown is simply omitted;
# the column still renders its cardinality table and bar figure.
ch = build_cat_distr(_profile(), {})
for g in _column_groups(ch):
mds = [b.text for b in g.blocks if getattr(b, "kind", "") == "markdown"]
assert not any("Descripción" in t for t in mds)
def test_pagina_categorica_clicable_y_definicion_en_glosario():
# The "how each categorical page is laid out" term is registered + marked
# clickable in the intro, and its full definition lands in the glossary
# chapter (canonical baseline catalog), not inline.
from datascience.automatic_eda.chapters.glosario import build_glosario
gc = GlossaryCollector()
ch = build_cat_distr(_profile(), {"glossary": gc})
md = next(b for b in ch.blocks if isinstance(b, Markdown))
assert "[[term:pagina_categorica]]" in md.text
assert gc.has("pagina_categorica")
glos = build_glosario(_profile(), {"glossary": gc})
entry = next(b for b in glos.blocks
if getattr(b, "kind", "") == "glossary_entry"
and b.key == "pagina_categorica")
assert "barras" in entry.definition
assert "identificador" in entry.definition
def test_edge_sin_categoricas_devuelve_none(): def test_edge_sin_categoricas_devuelve_none():
@@ -17,10 +17,63 @@ from __future__ import annotations
from .. import model from .. import model
CHAPTER_VERSION = "1.0.0" CHAPTER_VERSION = "1.1.0"
CHAPTER_ID = "glosario" CHAPTER_ID = "glosario"
CHAPTER_TITLE = "Glosario" CHAPTER_TITLE = "Glosario"
# Canonical definitions for cross-cutting terms — the "how to read it" entries
# that do not belong to a single chapter. A chapter only needs to *register* the
# term (``ctx['glossary'].add(key, label)``) and mark its in-text appearance with
# ``[[term:key]]…[[/term]]``; this chapter supplies the full definition here when
# the collector carries the term without one. Keeping the prose in a single place
# avoids repeating a long paragraph inline in every chapter that names the term
# (the explanation moved out of the NUM DISTR and CAT DISTR intros lives here).
_BASELINE_TERMS = {
"histograma_boxplot": {
"label": "Cómo leer el histograma y el boxplot",
"definition": (
"Para cada columna numérica se muestra su histograma con tres líneas "
"de referencia: la media (línea roja discontinua), la mediana (línea "
"verde continua) y la banda ±1σ (zona sombreada que cubre una "
"desviación estándar a cada lado de la media). Debajo, alineado al "
"mismo eje horizontal, un boxplot de Tukey: la caja abarca del primer "
"al tercer cuartil (P25P75), la línea interior es la mediana y los "
"bigotes llegan hasta 1,5·IQR; los puntos rojos señalan que hay "
"valores más allá de las vallas (posibles atípicos). Comparar la media "
"con la mediana revela la asimetría: si la media supera a la mediana la "
"cola larga cae hacia los valores altos (asimetría a la derecha), y al "
"revés hacia los bajos."),
},
"pagina_categorica": {
"label": "Cómo se organiza cada página categórica",
"definition": (
"Cada columna categórica ocupa su propia página: muestra sus métricas "
"de cardinalidad —incluida la entropía—, una nota que señala "
"cardinalidad problemática (columnas que se comportan como "
"identificador, con casi todos los valores distintos, o dominadas por "
"una sola categoría), la tabla de las categorías más frecuentes (top-k, "
"con su conteo y porcentaje) y un gráfico de barras de las categorías "
"más comunes (top-k más una barra «Otros» que agrupa la cola). El total "
"de filas del dataset se usa como referencia para interpretar los "
"conteos."),
},
}
def _resolve_term(term: dict) -> tuple:
"""Return (label, definition) for a collected term, completing a missing
definition (and, if absent, the label) from the canonical baseline catalog."""
key = model._safe_str(term.get("key"))
label = model._safe_str(term.get("label"))
definition = model._safe_str(term.get("definition"))
base = _BASELINE_TERMS.get(key)
if base:
if not definition.strip():
definition = model._safe_str(base.get("definition"))
if not label.strip() or label == key:
label = model._safe_str(base.get("label")) or label
return label, definition
def build_glosario(profile: dict, ctx: dict): def build_glosario(profile: dict, ctx: dict):
"""Build the glossary Chapter from the shared collector, or None if empty.""" """Build the glossary Chapter from the shared collector, or None if empty."""
@@ -36,12 +89,14 @@ def build_glosario(profile: dict, ctx: dict):
"Cada término va resaltado en el texto y, al pulsarlo, salta a su " "Cada término va resaltado en el texto y, al pulsarlo, salta a su "
"definición en esta sección.")), "definición en esta sección.")),
] ]
# One clickable destination per term, alphabetically by visible label. # One clickable destination per term, alphabetically by visible label. A term
# registered without a definition is completed from the canonical baseline.
for term in glossary.terms(by="label"): for term in glossary.terms(by="label"):
label, definition = _resolve_term(term)
blocks.append(model.GlossaryEntry( blocks.append(model.GlossaryEntry(
key=model._safe_str(term.get("key")), key=model._safe_str(term.get("key")),
label=model._safe_str(term.get("label")), label=label,
definition=model._safe_str(term.get("definition")))) definition=definition))
return model.Chapter(id=CHAPTER_ID, title=CHAPTER_TITLE, return model.Chapter(id=CHAPTER_ID, title=CHAPTER_TITLE,
version=CHAPTER_VERSION, blocks=blocks) version=CHAPTER_VERSION, blocks=blocks)
@@ -35,10 +35,21 @@ try:
except Exception: # noqa: BLE001 — keep the chapter importable no matter what. except Exception: # noqa: BLE001 — keep the chapter importable no matter what.
build_boxplot_stats = None # type: ignore[assignment] build_boxplot_stats = None # type: ignore[assignment]
CHAPTER_VERSION = "1.2.0" CHAPTER_VERSION = "1.3.0"
CHAPTER_ID = "num_distr" CHAPTER_ID = "num_distr"
CHAPTER_TITLE = "Distribuciones numéricas" CHAPTER_TITLE = "Distribuciones numéricas"
# Glossary term this chapter explains. The long "how to read the histogram and
# the boxplot" paragraph used to live inline in the intro; it now lives in the
# GLOSARIO chapter (canonical definition in ``glosario._BASELINE_TERMS``) and the
# intro only names the clickable term — one click jumps to the full explanation,
# so the information is relocated, not lost (mejora glosario).
_TERM_HISTOBOX_KEY = "histograma_boxplot"
_TERM_HISTOBOX_LABEL = "Cómo leer el histograma y el boxplot"
# Key under which eda_llm_insights stores its interpretive block in the profile.
LLM_KEY = "llm"
# Plain-Spanish gloss for every label ``detect_distribution_type`` can emit, so a # Plain-Spanish gloss for every label ``detect_distribution_type`` can emit, so a
# non-expert reader understands the shape and the suggested next step (MUST-4.3). # non-expert reader understands the shape and the suggested next step (MUST-4.3).
_DIST_GLOSS = { _DIST_GLOSS = {
@@ -99,6 +110,53 @@ def _numeric_columns(profile: dict) -> list:
return out return out
def _llm_index(profile: dict, ctx: dict) -> dict:
"""Map column name -> its LLM dictionary entry (description/unit/...).
Reads the ``llm.dictionary`` list that ``eda_llm_insights`` stored in the
profile (``profile['llm']``; falls back to ``ctx['llm']``). Returns an empty
dict when ``run_llm`` did not run, so the caller degrades cleanly. Fully
defensive: never raises on malformed input.
"""
llm = profile.get(LLM_KEY)
if not isinstance(llm, dict):
llm = ctx.get(LLM_KEY)
if not isinstance(llm, dict):
return {}
entries = llm.get("dictionary")
if not isinstance(entries, (list, tuple)):
return {}
index: dict = {}
for e in entries:
if not isinstance(e, dict):
continue
col = e.get("column")
if col is None:
continue
index[model._safe_str(col)] = e
return index
def _llm_desc_unit_block(name: str, llm_index: dict):
"""Markdown block with the LLM business description + unit of a column, or
None when no LLM entry matches the column (clean fallback without LLM)."""
entry = llm_index.get(model._safe_str(name))
if not isinstance(entry, dict):
return None
raw_desc = entry.get("description") or entry.get("business_meaning")
desc = " ".join(model._safe_str(raw_desc).split()) if raw_desc else ""
raw_unit = entry.get("unit")
unit = " ".join(model._safe_str(raw_unit).split()) if raw_unit else ""
parts = []
if desc:
parts.append(f"**Descripción:** {desc}")
if unit:
parts.append(f"**Unidad:** {unit}")
if not parts:
return None
return model.Markdown(text=" · ".join(parts))
def _make_hist_box(name: str, numeric: dict, box: dict): def _make_hist_box(name: str, numeric: dict, box: dict):
"""Build the histogram (with mean/median/±σ lines) + boxplot figure. """Build the histogram (with mean/median/±σ lines) + boxplot figure.
@@ -271,15 +329,26 @@ def build_num_distr(profile: dict, ctx: dict):
if not numerics: if not numerics:
return None # chapter does not apply to a dataset with no numerics. return None # chapter does not apply to a dataset with no numerics.
# Register the "how to read the histogram and boxplot" term in the shared
# glossary collector (if present) and mark its first appearance clickable. The
# full explanation (colour code, 1,5·IQR rule, asymmetry reading) lives in the
# GLOSARIO chapter instead of inline here: the intro only names the term.
glossary = ctx.get("glossary")
mark_term = False
if isinstance(glossary, model.GlossaryCollector):
glossary.add(_TERM_HISTOBOX_KEY, _TERM_HISTOBOX_LABEL)
mark_term = True
como_leer = ("[[term:histograma_boxplot]]cómo leer estos gráficos[[/term]]"
if mark_term else "cómo leer estos gráficos")
intro = ( intro = (
"Para cada columna numérica se muestra su **histograma** con tres líneas " "Cada columna numérica muestra su **histograma** (con la **media**, la "
"de referencia: la **media** (línea roja discontinua), la **mediana** " "**mediana** y la banda **±1σ**) y, debajo y al mismo eje, su **boxplot "
"(línea verde continua) y la banda **±1σ** (zona sombreada). Debajo, " f"de Tukey** — {como_leer}.")
"alineado al mismo eje, un **boxplot de Tukey**: la caja abarca del "
"primer al tercer cuartil (P25P75), la línea interior es la mediana y " # Business description + unit per column come from the LLM dictionary
"los bigotes llegan hasta 1,5·IQR; los puntos rojos señalan que hay " # (profile['llm']['dictionary'], matched by column name); absent without
"valores más allá de las vallas. Comparar media y mediana revela la " # run_llm, in which case the per-column description block is simply omitted.
"asimetría de la distribución.") llm_index = _llm_index(profile, ctx)
blocks = [ blocks = [
model.Heading(text=CHAPTER_TITLE, level=1), model.Heading(text=CHAPTER_TITLE, level=1),
@@ -293,17 +362,20 @@ def build_num_distr(profile: dict, ctx: dict):
box = build_boxplot_stats(numeric) or {} box = build_boxplot_stats(numeric) or {}
except Exception: # noqa: BLE001 — degrade, never raise. except Exception: # noqa: BLE001 — degrade, never raise.
box = {} box = {}
# Keep the column heading, its figure and its stats note together on the # Keep the column heading, its (optional) LLM description, its figure and
# same page/slide (mejora 3 — keep-together): the renderers measure the # its stats note together on the same page/slide (mejora 3 —
# whole Group and move it whole when it would not fit. # keep-together): the renderers measure the whole Group and move it whole
blocks.append(model.Group(blocks=[ # when it would not fit.
model.Heading(text=str(name), level=2), col_blocks = [model.Heading(text=str(name), level=2)]
model.Figure( desc_block = _llm_desc_unit_block(name, llm_index)
make=_figure_maker(name, numeric, box), if desc_block is not None:
caption=f"Distribución de «{name}» — histograma " col_blocks.append(desc_block)
f"(media/mediana/±σ) y boxplot."), col_blocks.append(model.Figure(
model.Markdown(text=_stats_note(name, numeric, box)), make=_figure_maker(name, numeric, box),
])) caption=f"Distribución de «{name}» — histograma "
f"(media/mediana/±σ) y boxplot."))
col_blocks.append(model.Markdown(text=_stats_note(name, numeric, box)))
blocks.append(model.Group(blocks=col_blocks))
return model.Chapter(id=CHAPTER_ID, title=CHAPTER_TITLE, return model.Chapter(id=CHAPTER_ID, title=CHAPTER_TITLE,
version=CHAPTER_VERSION, blocks=blocks) version=CHAPTER_VERSION, blocks=blocks)
@@ -101,7 +101,7 @@ def test_golden_chapter_estructura_y_bloques():
def test_golden_media_mediana_sigma_y_boxplot_presentes(): def test_golden_media_mediana_sigma_y_boxplot_presentes():
# The intro documents the three reference lines and the Tukey boxplot; the # The short intro names the three reference lines and the Tukey boxplot; the
# per-column note carries the actual mean/median/σ numbers and the shape. # per-column note carries the actual mean/median/σ numbers and the shape.
ch = build_num_distr(_profile(n_numeric=1, extra_categorical=False), {}) ch = build_num_distr(_profile(n_numeric=1, extra_categorical=False), {})
md_texts = " ".join(b.text for b in _flatten(ch.blocks) md_texts = " ".join(b.text for b in _flatten(ch.blocks)
@@ -110,10 +110,58 @@ def test_golden_media_mediana_sigma_y_boxplot_presentes():
assert "±1σ" in md_texts or "σ" in md_texts assert "±1σ" in md_texts or "σ" in md_texts
assert "boxplot" in md_texts.lower() assert "boxplot" in md_texts.lower()
assert "Tukey" in md_texts assert "Tukey" in md_texts
# The long "how to read it" explanation moved to the glossary: the colour-code
# / 1,5·IQR walkthrough is no longer inline in the chapter body.
assert "1,5·IQR" not in md_texts
assert "línea roja" not in md_texts
# distribution_type gloss surfaced for the column (right-skewed preset). # distribution_type gloss surfaced for the column (right-skewed preset).
assert _DIST_GLOSS["right-skewed"].split(";")[0][:20] in md_texts assert _DIST_GLOSS["right-skewed"].split(";")[0][:20] in md_texts
def test_glosario_histograma_boxplot_clicable_y_definicion():
# With a glossary collector the intro marks the clickable term and the FULL
# explanation (the long paragraph removed from the body) lands in the glossary.
from datascience.automatic_eda.chapters.glosario import build_glosario
gc = model.GlossaryCollector()
prof = _profile(n_numeric=1, extra_categorical=False)
ch = build_num_distr(prof, {"glossary": gc})
intro = next(b for b in ch.blocks if b.kind == "markdown")
assert "[[term:histograma_boxplot]]" in intro.text
assert gc.has("histograma_boxplot")
glos = build_glosario(prof, {"glossary": gc})
entry = next(b for b in glos.blocks
if getattr(b, "kind", "") == "glossary_entry"
and b.key == "histograma_boxplot")
assert "boxplot" in entry.definition.lower()
assert "1,5·IQR" in entry.definition
def test_llm_descripcion_y_unidad_por_columna():
# With an LLM dictionary, each numeric column whose name matches shows its
# business description and unit in a per-column markdown block.
prof = _profile(n_numeric=2)
prof["llm"] = {"dictionary": [
{"column": "precio", "description": "Precio de venta del producto",
"unit": "EUR"},
{"column": "alcohol", "business_meaning": "Grado alcohólico",
"unit": "% vol"},
]}
ch = build_num_distr(prof, {})
md_all = " ".join(b.text for b in _flatten(ch.blocks)
if b.kind == "markdown")
assert "Precio de venta" in md_all and "EUR" in md_all
assert "Grado alcohólico" in md_all and "% vol" in md_all
def test_edge_sin_llm_no_anade_descripcion():
# Without an LLM block the per-column description markdown is simply omitted.
ch = build_num_distr(_profile(n_numeric=2), {})
md_all = " ".join(b.text for b in _flatten(ch.blocks)
if b.kind == "markdown")
assert "Descripción" not in md_all
def test_boxplot_stats_se_consumen_del_registry(): def test_boxplot_stats_se_consumen_del_registry():
# The chapter must feed build_boxplot_stats (group eda) and the resulting # The chapter must feed build_boxplot_stats (group eda) and the resulting
# box must carry the Tukey fences for the figure. # box must carry the Tukey fences for the figure.
@@ -26,7 +26,7 @@ from datetime import datetime, timezone
from .. import model from .. import model
CHAPTER_VERSION = "1.3.0" CHAPTER_VERSION = "1.4.0"
CHAPTER_ID = "portada" CHAPTER_ID = "portada"
CHAPTER_TITLE = "Portada" CHAPTER_TITLE = "Portada"
@@ -120,9 +120,17 @@ def _summary_blocks(summary) -> list:
# Values pinned to the right margin (numbers flush right, label left). # Values pinned to the right margin (numbers flush right, label left).
blocks.append(model.KVTable(rows=rows, value_align="right")) blocks.append(model.KVTable(rows=rows, value_align="right"))
if titles: if titles:
bullets = "\n".join(f"- {model._safe_str(t)}" for t in titles) # Clickable index ("Índice"): one TocEntry per chapter title. Each entry
blocks.append(model.Markdown( # becomes a real jump to that chapter's first page/slide once the document
text="Este informe incluye los siguientes capítulos:\n" + bullets)) # is laid out (the renderers register every chapter start and wire the
# links; ``target_id`` is matched against the chapter title). The cover only
# knows chapter titles, so the title doubles as the link target.
blocks.append(model.Heading(text="Índice", level=2))
for t in titles:
label = model._safe_str(t)
if not label:
continue
blocks.append(model.TocEntry(label=label, target_id=label))
return blocks return blocks
@@ -160,11 +160,21 @@ class Group:
a chapter can give each unit its own page — e.g. one categorical column per a chapter can give each unit its own page — e.g. one categorical column per
page (see CAT DISTR). It is purely additive: the default False keeps the plain page (see CAT DISTR). It is purely additive: the default False keeps the plain
keep-together behaviour for every existing chapter. keep-together behaviour for every existing chapter.
``layout`` is a hint for how the group's children are arranged:
``"stack"`` (default) keeps the historical top-to-bottom flow; ``"side_by_side"``
asks the PPTX renderer to place the group's table to the LEFT and its figure to
the RIGHT of the same slide (table ~55% width, figure ~45%), measuring so both
fit and falling back to stacking when they do not. The PDF renderer treats
``"side_by_side"`` exactly like ``"stack"`` (the A5 mobile page is too narrow for
two readable columns). Unknown values degrade to ``"stack"``. Purely additive:
the default keeps every existing chapter unchanged.
""" """
blocks: list = field(default_factory=list) blocks: list = field(default_factory=list)
title: Optional[str] = None title: Optional[str] = None
page_break_before: bool = False page_break_before: bool = False
layout: str = "stack"
kind: str = field(default="group", init=False) kind: str = field(default="group", init=False)
@@ -183,6 +193,22 @@ class GlossaryEntry:
kind: str = field(default="glossary_entry", init=False) kind: str = field(default="glossary_entry", init=False)
@dataclass
class TocEntry:
"""One clickable index (table-of-contents) entry shown on the cover.
Rendered as a single line — the chapter ``label`` in the accent link colour —
that, once the document is laid out, becomes a real click jumping to the first
page/slide of the target chapter (PDF link annotation via PyMuPDF; PPTX native
slide jump). ``target_id`` is matched against each chapter's ``id`` *and* its
``title`` (the cover only knows chapter titles), so either resolves. If the
target cannot be resolved the entry still renders as plain text (never cut)."""
label: str = ""
target_id: str = ""
kind: str = field(default="toc_entry", init=False)
@dataclass @dataclass
class Chapter: class Chapter:
"""An ordered set of blocks with an id, a title and a generation version.""" """An ordered set of blocks with an id, a title and a generation version."""
@@ -207,13 +233,14 @@ _BLOCK_BY_KIND = {
"note": Note, "note": Note,
"group": Group, "group": Group,
"glossary_entry": GlossaryEntry, "glossary_entry": GlossaryEntry,
"toc_entry": TocEntry,
} }
def as_block(obj: Any): def as_block(obj: Any):
"""Coerce a value into a block dataclass. Unknown values become a Note.""" """Coerce a value into a block dataclass. Unknown values become a Note."""
if isinstance(obj, (Heading, Markdown, KVTable, DataTable, Figure, Image, if isinstance(obj, (Heading, Markdown, KVTable, DataTable, Figure, Image,
Caption, Note, Group, GlossaryEntry)): Caption, Note, Group, GlossaryEntry, TocEntry)):
if isinstance(obj, Group): if isinstance(obj, Group):
obj.blocks = as_blocks(obj.blocks) obj.blocks = as_blocks(obj.blocks)
return obj return obj
@@ -259,11 +286,15 @@ def as_block(obj: Any):
return Group(blocks=as_blocks(obj.get("blocks")), return Group(blocks=as_blocks(obj.get("blocks")),
title=obj.get("title"), title=obj.get("title"),
page_break_before=bool( page_break_before=bool(
obj.get("page_break_before", False))) obj.get("page_break_before", False)),
layout=_safe_str(obj.get("layout")) or "stack")
if cls is GlossaryEntry: if cls is GlossaryEntry:
return GlossaryEntry(key=_safe_str(obj.get("key")), return GlossaryEntry(key=_safe_str(obj.get("key")),
label=_safe_str(obj.get("label")), label=_safe_str(obj.get("label")),
definition=_safe_str(obj.get("definition"))) definition=_safe_str(obj.get("definition")))
if cls is TocEntry:
return TocEntry(label=_safe_str(obj.get("label")),
target_id=_safe_str(obj.get("target_id")))
except Exception: # noqa: BLE001 — never raise on a malformed block. except Exception: # noqa: BLE001 — never raise on a malformed block.
return Note(text=_safe_str(obj)) return Note(text=_safe_str(obj))
return Note(text=_safe_str(obj)) return Note(text=_safe_str(obj))
@@ -298,11 +298,16 @@ def test_cover_first_glossary_last_with_summary():
headings = [b.text for b in cover.blocks if b.kind == "heading"] headings = [b.text for b in cover.blocks if b.kind == "heading"]
assert any("Resumen" in h for h in headings), \ assert any("Resumen" in h for h in headings), \
"la portada no incluye el resumen agregado" "la portada no incluye el resumen agregado"
# The summary reflects the body chapters (e.g. the numeric/categorical ones). # The index ("Índice") is now a clickable list of TocEntry blocks (one per
cover_text = " ".join( # body chapter), not a markdown bullet list. Verify both the heading and that
b.text for b in cover.blocks if getattr(b, "kind", "") == "markdown") # the entries name the body chapters.
assert "Distribuciones" in cover_text, \ assert any("Índice" in h for h in headings), \
"el resumen de portada no menciona los capítulos del cuerpo" "la portada no incluye la sección Índice"
toc_labels = " ".join(
getattr(b, "label", "") for b in cover.blocks
if getattr(b, "kind", "") == "toc_entry")
assert "Distribuciones" in toc_labels, \
"el índice de portada no menciona los capítulos del cuerpo"
# --------------------------------------------------------------------------- # # --------------------------------------------------------------------------- #
@@ -46,11 +46,23 @@ _MUTED = "#8a8a8a"
_RULE = "#cccccc" _RULE = "#cccccc"
_HEAD_BG = "#eef3f6" _HEAD_BG = "#eef3f6"
# Rasterization DPI for every embedded raster (figure/table image) AND for the
# page save itself. Raised from the old 150/default-100 to 220 so a reader can
# pinch-zoom on a phone and still see crisp detail (axis labels, table cells)
# without pixelation. Text stays vectorial (pdf.fonttype=42) so it remains
# selectable regardless of DPI — only the embedded images gain resolution. 220 is
# a deliberate balance: noticeably sharper than 150 while keeping the file size
# reasonable. ``savefig.dpi`` matters because matplotlib re-rasterizes each
# ``imshow`` when PdfPages writes the page; without it the final image would land
# at ~100 dpi no matter how sharp the intermediate PNG was.
_RASTER_DPI = 220
_RC = { _RC = {
"font.size": 10, "font.size": 10,
"font.family": "sans-serif", "font.family": "sans-serif",
"figure.facecolor": "white", "figure.facecolor": "white",
"savefig.facecolor": "white", "savefig.facecolor": "white",
"savefig.dpi": _RASTER_DPI,
"pdf.fonttype": 42, # embed TrueType — text stays selectable on mobile. "pdf.fonttype": 42, # embed TrueType — text stays selectable on mobile.
} }
@@ -80,6 +92,10 @@ class _PdfState:
# points (1/72") with a top-left origin — same convention as PyMuPDF. # points (1/72") with a top-left origin — same convention as PyMuPDF.
self.term_sources = [] # [{key, page, rect:[x0,y0,x1,y1]}] self.term_sources = [] # [{key, page, rect:[x0,y0,x1,y1]}]
self.term_dests = {} # key -> {page, point:[x,y]} self.term_dests = {} # key -> {page, point:[x,y]}
# Clickable index (cover → chapter). Sources are the cover's TocEntry
# rects; chapter_starts maps a chapter id AND its title to its first page.
self.toc_sources = [] # [{target_id, page, rect:[x0,y0,x1,y1]}]
self.chapter_starts = {} # id|title -> {page, point:[x,y]}
# --------------------------------------------------------------------------- # # --------------------------------------------------------------------------- #
@@ -385,6 +401,57 @@ def _col_widths(header: list, rows: list, fs: float) -> list:
return widths return widths
# Minimal legible characters reserved per column when deciding whether a table
# can be shown as selectable text. Below this width per column the cells become
# unreadable, so the table is rasterized to a zoomable high-res image instead.
_MIN_LEGIBLE_CHARS = 8
def _table_fits_as_text(header: list, rows: list) -> bool:
"""True when the table fits the usable width as readable text.
A table whose columns cannot each get a minimal legible width within the A5
usable width (typically many columns, e.g. a 19-column ``df.head``) is flagged
so it is rendered as a single high-resolution image — the reader zooms in on
the phone and reads every cell, nothing cut — instead of being squeezed until
unreadable. Narrow tables (few columns) keep the selectable-text rendering."""
header = header or []
rows = rows or []
ncol = len(header) if header else (len(rows[0]) if rows else 1)
ncol = max(1, ncol)
cw = tl.avg_char_width_in(_FS_CELL)
min_needed = ncol * (_MIN_LEGIBLE_CHARS * cw + _CELL_PAD * 2)
return min_needed <= _USABLE_W
def _table_figure_block(block):
"""Wrap a too-wide table as a lazily-rasterized Figure (cached on the block).
The table is drawn once via ``render_table_as_figure`` (header shading + zebra)
and embedded as one high-res image scaled to fit entirely. The same Figure is
reused for measuring and placing so keep-together stays consistent. The table
title/note are drawn inside the image (self-describing when zoomed/shared), so
the block-level caption is left empty to avoid a duplicate title."""
cached = getattr(block, "_aeda_tablefig", None)
if cached is not None:
return cached
header = list(getattr(block, "header", []) or [])
rows = list(getattr(block, "rows", []) or [])
title = getattr(block, "title", None)
note = getattr(block, "note", None)
def _make():
from datascience.render_table_as_figure import render_table_as_figure
return render_table_as_figure(header, rows, title=title, note=note)
fig = model.Figure(make=_make, caption=None)
try:
block._aeda_tablefig = fig
except Exception: # noqa: BLE001 — block may reject attributes; degrade.
pass
return fig
def _wrap_row(cells: list, widths: list, fs: float) -> list: def _wrap_row(cells: list, widths: list, fs: float) -> list:
"""Wrap each cell to its column width → list of line-lists per cell.""" """Wrap each cell to its column width → list of line-lists per cell."""
out = [] out = []
@@ -424,11 +491,16 @@ def _draw_table_row(st: _PdfState, cells_lines: list, widths: list, fs: float,
def _place_data_table(st: _PdfState, block) -> None: def _place_data_table(st: _PdfState, block) -> None:
header = list(getattr(block, "header", []) or [])
rows = list(getattr(block, "rows", []) or [])
# Too many columns to be legible as text → render the whole table as one
# high-res image, scaled to fit entirely (the reader zooms to read it).
if not _table_fits_as_text(header, rows):
_place_figure(st, _table_figure_block(block))
return
title = getattr(block, "title", None) title = getattr(block, "title", None)
if title: if title:
_place_heading(st, model.Heading(title, level=2)) _place_heading(st, model.Heading(title, level=2))
header = list(getattr(block, "header", []) or [])
rows = list(getattr(block, "rows", []) or [])
fs = _FS_CELL fs = _FS_CELL
widths = _col_widths(header, rows, fs) widths = _col_widths(header, rows, fs)
header_lines = _wrap_row(header, widths, fs) if header else None header_lines = _wrap_row(header, widths, fs) if header else None
@@ -486,8 +558,11 @@ def _resolve_figure(block):
def _png_from_figure(fig) -> bytes: def _png_from_figure(fig) -> bytes:
# ``bbox_inches='tight'`` is kept so the real aspect ratio is what we measure
# and place. The page save (savefig.dpi in _RC) re-rasterizes this at the same
# high DPI, so the embedded image stays crisp for phone zoom.
buf = io.BytesIO() buf = io.BytesIO()
fig.savefig(buf, format="png", dpi=150, bbox_inches="tight") fig.savefig(buf, format="png", dpi=_RASTER_DPI, bbox_inches="tight")
buf.seek(0) buf.seek(0)
return buf.read() return buf.read()
@@ -729,12 +804,16 @@ def _measure_data_table(block) -> float:
Counts the optional title heading, the wrapped header row, every wrapped data Counts the optional title heading, the wrapped header row, every wrapped data
row (per-column wrap via the same ``_col_widths``/``_wrap_row`` the placer row (per-column wrap via the same ``_col_widths``/``_wrap_row`` the placer
uses) and the optional note. Keep this in sync with ``_place_data_table``.""" uses) and the optional note. Keep this in sync with ``_place_data_table``."""
header = list(getattr(block, "header", []) or [])
rows = list(getattr(block, "rows", []) or [])
# Mirror the placer: a too-wide table is drawn as a single image, so its
# keep-together height is the image's, not the (squeezed) text layout's.
if not _table_fits_as_text(header, rows):
return _measure_figure_like(_table_figure_block(block))
h = 0.0 h = 0.0
title = getattr(block, "title", None) title = getattr(block, "title", None)
if title: if title:
h += _measure_heading_text(title, 2) h += _measure_heading_text(title, 2)
header = list(getattr(block, "header", []) or [])
rows = list(getattr(block, "rows", []) or [])
fs = _FS_CELL fs = _FS_CELL
widths = _col_widths(header, rows, fs) widths = _col_widths(header, rows, fs)
lh = tl.line_height_in(fs) lh = tl.line_height_in(fs)
@@ -766,6 +845,10 @@ def _measure_block(st: _PdfState, block) -> float:
lines = tl.wrap(getattr(block, "text", ""), lines = tl.wrap(getattr(block, "text", ""),
tl.chars_per_line(_USABLE_W, _FS_NOTE)) tl.chars_per_line(_USABLE_W, _FS_NOTE))
return tl.line_height_in(_FS_NOTE) * len(lines) + _GAP return tl.line_height_in(_FS_NOTE) * len(lines) + _GAP
if kind == "toc_entry":
lines = tl.wrap(tl.strip_inline_md(getattr(block, "label", "")),
tl.chars_per_line(_USABLE_W - 0.22, _FS_BODY)) or [""]
return tl.line_height_in(_FS_BODY) * len(lines) + _GAP * 0.4
if kind == "kv_table": if kind == "kv_table":
return _measure_kv_table(block) return _measure_kv_table(block)
if kind == "data_table": if kind == "data_table":
@@ -850,6 +933,38 @@ def _place_glossary_entry(st: _PdfState, block) -> None:
st.y += _GAP * 0.5 st.y += _GAP * 0.5
def _place_toc_entry(st: _PdfState, block) -> None:
"""Render one clickable index line and record it as a link source.
Drawn as a bulleted line in the accent link colour; its rectangle is recorded
in ``st.toc_sources`` so the post-processor turns it into a real jump to the
target chapter's first page. If the target is never resolved the line still
shows as plain (accent) text — never cut, never broken."""
label = tl.strip_inline_md(getattr(block, "label", "")) or ""
target_id = getattr(block, "target_id", "") or ""
fs = _FS_BODY
lh = tl.line_height_in(fs)
bullet = ""
indent = 0.22
max_chars = tl.chars_per_line(_USABLE_W - indent, fs)
lines = tl.wrap(label, max_chars) or [""]
for idx, ln in enumerate(lines):
_ensure_space(st, lh)
x = _ML
st.fig.text(_xf(x), _yf(st.y), bullet if idx == 0 else " ",
fontsize=fs, color=_LINK, ha="left", va="top")
x += indent
w = _text_width_in(st, ln, fs, False)
st.fig.text(_xf(x), _yf(st.y), ln, fontsize=fs, color=_LINK,
ha="left", va="top")
if target_id and idx == 0:
st.toc_sources.append({
"target_id": target_id, "page": st.page - 1,
"rect": _pt_rect(_ML, st.y, x + w, st.y + lh)})
st.y += lh
st.y += _GAP * 0.4
_PLACERS = { _PLACERS = {
"heading": _place_heading, "heading": _place_heading,
"markdown": _place_markdown, "markdown": _place_markdown,
@@ -861,6 +976,7 @@ _PLACERS = {
"note": _place_note, "note": _place_note,
"group": _place_group, "group": _place_group,
"glossary_entry": _place_glossary_entry, "glossary_entry": _place_glossary_entry,
"toc_entry": _place_toc_entry,
} }
@@ -892,6 +1008,15 @@ def render_pdf(chapters: list, out_path: str, meta: dict = None) -> dict:
st.chapter = ch st.chapter = ch
st.chapter_pages = 0 st.chapter_pages = 0
_new_page(st) # each chapter starts on a fresh page. _new_page(st) # each chapter starts on a fresh page.
# Record this chapter's first page as a link target for the
# cover index (keyed by id AND title, since the cover only
# knows titles). Point is the top of the content area.
_start = {"page": st.page - 1,
"point": [_ML * 72.0, _CONTENT_TOP * 72.0]}
if ch.id:
st.chapter_starts[ch.id] = _start
if getattr(ch, "title", ""):
st.chapter_starts.setdefault(ch.title, _start)
for block in ch.blocks: for block in ch.blocks:
placer = _PLACERS.get(getattr(block, "kind", ""), placer = _PLACERS.get(getattr(block, "kind", ""),
_place_note) _place_note)
@@ -924,7 +1049,7 @@ def render_pdf(chapters: list, out_path: str, meta: dict = None) -> dict:
note = f"{n_pages} páginas" note = f"{n_pages} páginas"
if n_links: if n_links:
note += f" · {n_links} enlaces de glosario" note += f" · {n_links} enlaces internos"
if notes: if notes:
note += " · " + "; ".join(notes) note += " · " + "; ".join(notes)
return {"path": out_path, "n_pages": n_pages, "chapters": chapters_meta, return {"path": out_path, "n_pages": n_pages, "chapters": chapters_meta,
@@ -932,9 +1057,11 @@ def render_pdf(chapters: list, out_path: str, meta: dict = None) -> dict:
def _wire_glossary_links(st: _PdfState, out_path: str, notes: list) -> int: def _wire_glossary_links(st: _PdfState, out_path: str, notes: list) -> int:
"""Build {source rect → glossary dest} links and apply them via PyMuPDF. """Apply internal PDF links via PyMuPDF: glossary terms + the cover index.
Returns the number of links applied (0 if there is nothing to wire or the Builds two sets of GOTO links — every in-text glossary term → its entry, and
every cover ``TocEntry`` → its chapter's first page — and applies them in one
pass. Returns the number of links applied (0 if there is nothing to wire or the
post-processor is unavailable). Never raises.""" post-processor is unavailable). Never raises."""
try: try:
links = [] links = []
@@ -945,6 +1072,14 @@ def _wire_glossary_links(st: _PdfState, out_path: str, notes: list) -> int:
links.append({ links.append({
"src_page": src["page"], "src_rect": src["rect"], "src_page": src["page"], "src_rect": src["rect"],
"dst_page": dest["page"], "dst_point": dest["point"]}) "dst_page": dest["page"], "dst_point": dest["point"]})
# Cover index → chapter first page (clickable, navigable table of contents).
for src in st.toc_sources:
dest = st.chapter_starts.get(src.get("target_id"))
if not dest:
continue
links.append({
"src_page": src["page"], "src_rect": src["rect"],
"dst_page": dest["page"], "dst_point": dest["point"]})
if not links: if not links:
return 0 return 0
from datascience.add_pdf_internal_links import add_pdf_internal_links from datascience.add_pdf_internal_links import add_pdf_internal_links
@@ -952,7 +1087,7 @@ def _wire_glossary_links(st: _PdfState, out_path: str, notes: list) -> int:
if isinstance(res, dict) and res.get("status") == "ok": if isinstance(res, dict) and res.get("status") == "ok":
return int(res.get("n_links") or 0) return int(res.get("n_links") or 0)
if isinstance(res, dict) and res.get("error"): if isinstance(res, dict) and res.get("error"):
notes.append(f"glosario sin enlaces: {res.get('error')}") notes.append(f"enlaces internos no aplicados: {res.get('error')}")
except Exception as e: # noqa: BLE001 — links are best-effort. except Exception as e: # noqa: BLE001 — links are best-effort.
notes.append(f"glosario sin enlaces: {e}") notes.append(f"enlaces internos no aplicados: {e}")
return 0 return 0
@@ -51,6 +51,12 @@ _FS_H1, _FS_H2, _FS_H3 = 20, 16, 13
_FS_BODY, _FS_CELL, _FS_NOTE = 14, 11, 11 _FS_BODY, _FS_CELL, _FS_NOTE = 14, 11, 11
_GAP = 0.12 _GAP = 0.12
# Rasterization DPI for every embedded figure/table image. Raised from 150 to 220
# so a viewer can zoom into a slide (or a shared picture) and read crisp detail —
# axis labels, table cells — without pixelation. Kept moderate so the deck size
# stays reasonable. Same value as the PDF renderer.
_RASTER_DPI = 220
class _PptxState: class _PptxState:
def __init__(self, prs, title: str): def __init__(self, prs, title: str):
@@ -65,6 +71,10 @@ class _PptxState:
# Glossary wiring (mejora 6): runs to link and per-term target slide. # Glossary wiring (mejora 6): runs to link and per-term target slide.
self.term_runs = [] # [(key, run)] self.term_runs = [] # [(key, run)]
self.term_anchor_slide = {} # key -> Slide (glossary entry) self.term_anchor_slide = {} # key -> Slide (glossary entry)
# Clickable index (cover → chapter). toc_runs are the cover's index runs;
# chapter_starts maps a chapter id AND its title to its first slide.
self.toc_runs = [] # [(target_id, run, src_slide)]
self.chapter_starts = {} # id|title -> Slide (chapter first slide)
def _rgb(c): def _rgb(c):
@@ -309,6 +319,58 @@ def _col_widths(header, rows):
return [_USABLE_W * w / total for w in clamped] return [_USABLE_W * w / total for w in clamped]
# Minimal legible characters reserved per column when deciding whether a table
# can be shown as a native (selectable) PowerPoint table. Below this width per
# column the cells become unreadable, so the table is rasterized to a zoomable
# high-res image instead. The 16:9 slide is wide, so more columns fit than on A5.
_MIN_LEGIBLE_CHARS = 8
_CELL_PAD = 0.05
def _table_fits_as_text(header: list, rows: list) -> bool:
"""True when the table fits the usable slide width as a readable table.
A table whose columns cannot each get a minimal legible width within the slide
usable width (typically many columns, e.g. a 19-column ``df.head``) is flagged
so it is rendered as one high-resolution image — the viewer zooms in and reads
every cell — instead of being squeezed unreadable. Narrow tables keep the
native selectable table."""
header = header or []
rows = rows or []
ncol = len(header) if header else (len(rows[0]) if rows else 1)
ncol = max(1, ncol)
cw = tl.avg_char_width_in(_FS_CELL)
min_needed = ncol * (_MIN_LEGIBLE_CHARS * cw + _CELL_PAD * 2)
return min_needed <= _USABLE_W
def _table_figure_block(block):
"""Wrap a too-wide table as a lazily-rasterized Figure (cached on the block).
Drawn once via ``render_table_as_figure`` (header shading + zebra) and embedded
as one high-res image scaled to fit entirely. The title/note are drawn inside
the image (self-describing when zoomed/shared), so no separate caption is
emitted. Reused for measuring and placing so keep-together stays consistent."""
cached = getattr(block, "_aeda_tablefig", None)
if cached is not None:
return cached
header = list(getattr(block, "header", []) or [])
rows = list(getattr(block, "rows", []) or [])
title = getattr(block, "title", None)
note = getattr(block, "note", None)
def _make():
from datascience.render_table_as_figure import render_table_as_figure
return render_table_as_figure(header, rows, title=title, note=note)
fig = model.Figure(make=_make, caption=None)
try:
block._aeda_tablefig = fig
except Exception: # noqa: BLE001 — block may reject attributes; degrade.
pass
return fig
def _row_height_in(cells, widths, fs) -> float: def _row_height_in(cells, widths, fs) -> float:
lh = tl.line_height_in(fs) lh = tl.line_height_in(fs)
maxlines = 1 maxlines = 1
@@ -372,11 +434,27 @@ def _style_cell(cell, fs, color, bold, fill) -> None:
def _place_data_table(st: _PptxState, block, shaded_header=True, def _place_data_table(st: _PptxState, block, shaded_header=True,
key_value=False) -> None: key_value=False) -> None:
header = list(getattr(block, "header", []) or [])
rows = list(getattr(block, "rows", []) or [])
# Too many columns to be legible as a native table → render the whole table as
# one high-res picture, scaled to fit entirely (the viewer zooms to read it).
# KVTables (rendered here as a 2-column Campo/Valor table) are excluded: they
# always fit in width and stay as a selectable table.
if not key_value and not _table_fits_as_text(header, rows):
figblock = _table_figure_block(block)
data, _asp = _figure_bytes_cached(figblock)
if data is None:
_add_text(st, ["(tabla no disponible)"], _FS_NOTE, _MUTED,
italic=True)
st.y += _GAP
return
_place_picture_bytes(st, data, None,
max_h_in=getattr(figblock, "height_in", None),
force_caption=False)
return
title = getattr(block, "title", None) title = getattr(block, "title", None)
if title: if title:
_place_heading(st, model.Heading(title, level=2)) _place_heading(st, model.Heading(title, level=2))
header = list(getattr(block, "header", []) or [])
rows = list(getattr(block, "rows", []) or [])
fs = _FS_CELL fs = _FS_CELL
widths = _col_widths(header, rows) widths = _col_widths(header, rows)
header_h = _row_height_in(header, widths, fs) if header else 0.0 header_h = _row_height_in(header, widths, fs) if header else 0.0
@@ -436,7 +514,7 @@ def _resolve_png(block):
try: try:
import matplotlib.pyplot as plt import matplotlib.pyplot as plt
buf = io.BytesIO() buf = io.BytesIO()
f.savefig(buf, format="png", dpi=150, bbox_inches="tight") f.savefig(buf, format="png", dpi=_RASTER_DPI, bbox_inches="tight")
buf.seek(0) buf.seek(0)
return buf.read() return buf.read()
except Exception: # noqa: BLE001 except Exception: # noqa: BLE001
@@ -483,12 +561,15 @@ def _figure_bytes_cached(block):
def _place_picture_bytes(st: _PptxState, data: bytes, caption, def _place_picture_bytes(st: _PptxState, data: bytes, caption,
max_h_in=None) -> None: max_h_in=None, force_caption=True) -> None:
# Mejora 4 — every figure on a slide carries a visible caption/title. If the # Mejora 4 — every figure on a slide carries a visible caption/title. If the
# block has no caption, fall back to the current section heading, then to a # block has no caption, fall back to the current section heading, then to a
# generic label, so no image is ever shown untitled. # generic label, so no image is ever shown untitled. ``force_caption=False``
caption = (model._safe_str(caption).strip() # suppresses that fallback (used for table images, whose title is inside the
or model._safe_str(st.last_heading).strip() or "Figura") # picture) so no redundant caption is drawn.
caption = model._safe_str(caption).strip()
if not caption and force_caption:
caption = model._safe_str(st.last_heading).strip() or "Figura"
w_px, h_px = _img_size_px(data) w_px, h_px = _img_size_px(data)
aspect = (h_px / w_px) if w_px else 0.66 aspect = (h_px / w_px) if w_px else 0.66
# Reserve the caption's REAL (possibly multi-line) height FIRST, then scale # Reserve the caption's REAL (possibly multi-line) height FIRST, then scale
@@ -496,9 +577,11 @@ def _place_picture_bytes(st: _PptxState, data: bytes, caption,
# so its caption always fits on the SAME slide and no image is untitled. # so its caption always fits on the SAME slide and no image is untitled.
# cap_real = what _add_text consumes; cap_reserve adds the post-image gap and # cap_real = what _add_text consumes; cap_reserve adds the post-image gap and
# a small cushion so the caption never spills to the next slide. # a small cushion so the caption never spills to the next slide.
cap_lines = tl.wrap(caption, tl.chars_per_line(_USABLE_W, _FS_NOTE)) cap_lines = tl.wrap(caption, tl.chars_per_line(_USABLE_W, _FS_NOTE)) \
cap_real = tl.line_height_in(_FS_NOTE) * len(cap_lines) + 0.05 if caption else []
cap_reserve = cap_real + 0.05 + 0.10 cap_real = (tl.line_height_in(_FS_NOTE) * len(cap_lines) + 0.05) \
if cap_lines else 0.0
cap_reserve = (cap_real + 0.05 + 0.10) if cap_lines else 0.05
max_h = _CONTENT_BOTTOM - _CONTENT_TOP max_h = _CONTENT_BOTTOM - _CONTENT_TOP
# height_in hint (model.Figure/Image): cap the target height so a figure in a # height_in hint (model.Figure/Image): cap the target height so a figure in a
# keep-together Group shrinks to leave room for its heading and text. # keep-together Group shrinks to leave room for its heading and text.
@@ -517,7 +600,8 @@ def _place_picture_bytes(st: _PptxState, data: bytes, caption,
st.slide.shapes.add_picture(io.BytesIO(data), Inches(left), Inches(st.y), st.slide.shapes.add_picture(io.BytesIO(data), Inches(left), Inches(st.y),
width=Inches(target_w), height=Inches(target_h)) width=Inches(target_w), height=Inches(target_h))
st.y += target_h + 0.05 st.y += target_h + 0.05
_add_text(st, cap_lines, _FS_NOTE, _MUTED, italic=True) if cap_lines:
_add_text(st, cap_lines, _FS_NOTE, _MUTED, italic=True)
st.y += _GAP st.y += _GAP
@@ -663,12 +747,16 @@ def _measure_kv_table(block) -> float:
def _measure_data_table(block) -> float: def _measure_data_table(block) -> float:
"""Faithful DataTable height — matches ``_place_data_table`` (title heading + """Faithful DataTable height — matches ``_place_data_table`` (title heading +
wrapped header + every wrapped row + optional note). Keep in sync.""" wrapped header + every wrapped row + optional note). Keep in sync."""
header = list(getattr(block, "header", []) or [])
rows = list(getattr(block, "rows", []) or [])
# Mirror the placer: a too-wide table is drawn as one image, so its
# keep-together height is the image's, not the (squeezed) table layout's.
if not _table_fits_as_text(header, rows):
return _measure_figure_like(_table_figure_block(block))
h = 0.0 h = 0.0
title = getattr(block, "title", None) title = getattr(block, "title", None)
if title: if title:
h += _measure_heading_text(title, 2) h += _measure_heading_text(title, 2)
header = list(getattr(block, "header", []) or [])
rows = list(getattr(block, "rows", []) or [])
fs = _FS_CELL fs = _FS_CELL
widths = _col_widths(header, rows) widths = _col_widths(header, rows)
if header: if header:
@@ -698,6 +786,10 @@ def _measure_block(st: _PptxState, block) -> float:
lines = tl.wrap(getattr(block, "text", ""), lines = tl.wrap(getattr(block, "text", ""),
tl.chars_per_line(_USABLE_W, _FS_NOTE)) tl.chars_per_line(_USABLE_W, _FS_NOTE))
return tl.line_height_in(_FS_NOTE) * len(lines) + 0.05 + _GAP return tl.line_height_in(_FS_NOTE) * len(lines) + 0.05 + _GAP
if kind == "toc_entry":
lines = tl.wrap(tl.strip_inline_md(getattr(block, "label", "")),
tl.chars_per_line(_USABLE_W - 0.3, _FS_BODY)) or [""]
return tl.line_height_in(_FS_BODY) * len(lines) + 0.05
if kind == "kv_table": if kind == "kv_table":
return _measure_kv_table(block) return _measure_kv_table(block)
if kind == "data_table": if kind == "data_table":
@@ -810,6 +902,73 @@ def _fit_group_blocks(st: _PptxState, blocks: list, avail_full: float) -> list:
return out return out
def _fit_img(width_col: float, aspect: float, max_h: float):
"""Scale an image to ``width_col`` then clamp to ``max_h`` keeping aspect."""
w = width_col
h = w * aspect
if h > max_h:
h = max_h
w = (h / aspect) if aspect else width_col
return w, h
def _place_group_side_by_side(st: _PptxState, block, avail_full: float) -> bool:
"""Place a Group's table (left ~55%) next to its figure (right ~45%).
Both the table and the figure are rasterized to high-res images and placed in
two columns of the SAME slide; any other blocks (e.g. a heading) render full
width above the pair, the rest below. Returns True on success; returns False
(so the caller falls back to stacking) when the group has no table+figure pair
or the pair cannot fit side by side on one slide. Never raises by itself."""
blocks = getattr(block, "blocks", []) or []
tbl = next((b for b in blocks
if getattr(b, "kind", "") in ("data_table", "kv_table")), None)
fig = next((b for b in blocks
if getattr(b, "kind", "") in ("figure", "image")), None)
if tbl is None or fig is None:
return False
gap_col = 0.3
left_w = _USABLE_W * 0.55 - gap_col / 2.0
right_w = _USABLE_W * 0.45 - gap_col / 2.0
if left_w <= 1.0 or right_w <= 1.0:
return False
tdata, tasp = _figure_bytes_cached(_table_figure_block(tbl))
fdata, fasp = _figure_bytes_cached(fig)
if not tdata or not fdata:
return False
ti, fi = blocks.index(tbl), blocks.index(fig)
lo = min(ti, fi)
lead = list(blocks[:lo])
rest = [b for b in blocks[lo + 1:] if b is not tbl and b is not fig]
lead_h = sum(_measure_block(st, b) for b in lead)
rest_h = sum(_measure_block(st, b) for b in rest)
col_max_h = avail_full - lead_h - rest_h - _GAP * 2
if col_max_h < 1.2:
return False # not enough vertical room to put the pair side by side.
tw, th = _fit_img(left_w, tasp, col_max_h)
fw, fh = _fit_img(right_w, fasp, col_max_h)
band = max(th, fh)
needed = lead_h + band + rest_h + _GAP * 2
if needed > avail_full:
return False # taller than a whole slide even side by side → stack.
if needed > _remaining(st):
_new_slide(st, cont=True)
for b in lead:
_PLACERS.get(getattr(b, "kind", ""), _place_note)(st, b)
top = st.y
f_left = _ML + left_w + gap_col
st.slide.shapes.add_picture(
io.BytesIO(tdata), Inches(_ML + (left_w - tw) / 2.0),
Inches(top + (band - th) / 2.0), width=Inches(tw), height=Inches(th))
st.slide.shapes.add_picture(
io.BytesIO(fdata), Inches(f_left + (right_w - fw) / 2.0),
Inches(top + (band - fh) / 2.0), width=Inches(fw), height=Inches(fh))
st.y = top + band + _GAP
for b in rest:
_PLACERS.get(getattr(b, "kind", ""), _place_note)(st, b)
return True
def _place_group(st: _PptxState, block) -> None: def _place_group(st: _PptxState, block) -> None:
"""Render a keep-together Group: move it whole to the next slide if needed.""" """Render a keep-together Group: move it whole to the next slide if needed."""
blocks = getattr(block, "blocks", []) or [] blocks = getattr(block, "blocks", []) or []
@@ -820,6 +979,14 @@ def _place_group(st: _PptxState, block) -> None:
if getattr(block, "page_break_before", False) and st.y > _CONTENT_TOP + 1e-6: if getattr(block, "page_break_before", False) and st.y > _CONTENT_TOP + 1e-6:
_new_slide(st, cont=True) _new_slide(st, cont=True)
avail_full = _CONTENT_BOTTOM - _CONTENT_TOP avail_full = _CONTENT_BOTTOM - _CONTENT_TOP
# layout="side_by_side": try table-left / figure-right on one slide; on any
# reason it can't, fall through to the normal stacked keep-together below.
if str(getattr(block, "layout", "stack")).lower() == "side_by_side":
try:
if _place_group_side_by_side(st, block, avail_full):
return
except Exception: # noqa: BLE001 — degrade to stacking, never abort.
pass
# Trim oversized tables first (keeps the chart on the same slide), then shrink # Trim oversized tables first (keeps the chart on the same slide), then shrink
# the figure to share the remaining room. # the figure to share the remaining room.
blocks = _fit_group_blocks(st, blocks, avail_full) blocks = _fit_group_blocks(st, blocks, avail_full)
@@ -853,6 +1020,44 @@ def _place_glossary_entry(st: _PptxState, block) -> None:
st.y += _GAP st.y += _GAP
def _place_toc_entry(st: _PptxState, block) -> None:
"""Render one clickable index line and record its run as a link source.
Drawn as a bulleted line in the accent link colour; the run is recorded in
``st.toc_runs`` so it later becomes a native slide-jump to the target chapter's
first slide. If the target is never resolved the line still shows as plain
(accent) text — never cut."""
label = tl.strip_inline_md(getattr(block, "label", "")) or ""
target_id = getattr(block, "target_id", "") or ""
fs = _FS_BODY
lines = tl.wrap(label, tl.chars_per_line(_USABLE_W - 0.3, fs)) or [""]
lh = tl.line_height_in(fs)
height = lh * len(lines) + 0.05
_ensure(st, height)
box = st.slide.shapes.add_textbox(
Inches(_ML), Inches(st.y), Inches(_USABLE_W), Inches(height))
tf = box.text_frame
tf.word_wrap = True
first = True
link_run = None
for idx, ln in enumerate(lines):
p = tf.paragraphs[0] if first else tf.add_paragraph()
first = False
r0 = p.add_run()
r0.text = "" if idx == 0 else " "
r0.font.size = Pt(fs)
r0.font.color.rgb = _rgb(_LINK)
run = p.add_run()
run.text = ln
run.font.size = Pt(fs)
run.font.color.rgb = _rgb(_LINK)
if idx == 0:
link_run = run
if target_id and link_run is not None:
st.toc_runs.append((target_id, link_run, st.slide))
st.y += height
_PLACERS = { _PLACERS = {
"heading": _place_heading, "heading": _place_heading,
"markdown": _place_markdown, "markdown": _place_markdown,
@@ -864,6 +1069,7 @@ _PLACERS = {
"note": _place_note, "note": _place_note,
"group": _place_group, "group": _place_group,
"glossary_entry": _place_glossary_entry, "glossary_entry": _place_glossary_entry,
"toc_entry": _place_toc_entry,
} }
@@ -899,6 +1105,12 @@ def render_pptx(chapters: list, out_path: str, meta: dict = None) -> dict:
st.chapter = ch st.chapter = ch
st.chapter_slides = 0 st.chapter_slides = 0
_new_slide(st, cont=False) _new_slide(st, cont=False)
# Record this chapter's first slide as a link target for the cover
# index (keyed by id AND title, since the cover only knows titles).
if ch.id:
st.chapter_starts[ch.id] = st.slide
if getattr(ch, "title", ""):
st.chapter_starts.setdefault(ch.title, st.slide)
for block in ch.blocks: for block in ch.blocks:
placer = _PLACERS.get(getattr(block, "kind", ""), _place_note) placer = _PLACERS.get(getattr(block, "kind", ""), _place_note)
try: try:
@@ -926,7 +1138,7 @@ def render_pptx(chapters: list, out_path: str, meta: dict = None) -> dict:
note = f"{n_slides} slides" note = f"{n_slides} slides"
if n_links: if n_links:
note += f" · {n_links} enlaces de glosario" note += f" · {n_links} enlaces internos"
if notes: if notes:
note += " · " + "; ".join(notes) note += " · " + "; ".join(notes)
return {"path": out_path, "n_slides": n_slides, "chapters": chapters_meta, return {"path": out_path, "n_slides": n_slides, "chapters": chapters_meta,
@@ -934,19 +1146,21 @@ def render_pptx(chapters: list, out_path: str, meta: dict = None) -> dict:
def _wire_glossary_links(st: _PptxState, notes: list) -> int: def _wire_glossary_links(st: _PptxState, notes: list) -> int:
"""Turn each recorded term run into a native jump to its glossary slide. """Apply native slide-jumps: glossary terms + the cover index.
Returns the number of links applied. A term whose only appearance is inside Each in-text glossary term run jumps to its glossary entry slide, and each
its own glossary entry (source slide == target slide) is skipped. Never cover ``TocEntry`` run jumps to its chapter's first slide. Returns the total
number of links applied. A run whose target is its own slide is skipped. Never
raises.""" raises."""
if not st.term_runs or not st.term_anchor_slide: if not (st.term_runs and st.term_anchor_slide) and not (
st.toc_runs and st.chapter_starts):
return 0 return 0
linked = 0
try: try:
from datascience.pptx_link_run_to_slide import pptx_link_run_to_slide from datascience.pptx_link_run_to_slide import pptx_link_run_to_slide
except Exception as e: # noqa: BLE001 except Exception as e: # noqa: BLE001
notes.append(f"glosario sin enlaces: {e}") notes.append(f"enlaces internos no aplicados: {e}")
return 0 return 0
linked = 0
for key, run, src_slide in st.term_runs: for key, run, src_slide in st.term_runs:
tgt = st.term_anchor_slide.get(key) tgt = st.term_anchor_slide.get(key)
if tgt is None or tgt is src_slide: if tgt is None or tgt is src_slide:
@@ -956,4 +1170,14 @@ def _wire_glossary_links(st: _PptxState, notes: list) -> int:
linked += 1 linked += 1
except Exception: # noqa: BLE001 — links are best-effort. except Exception: # noqa: BLE001 — links are best-effort.
pass pass
# Cover index → chapter first slide (clickable, navigable table of contents).
for target_id, run, src_slide in st.toc_runs:
tgt = st.chapter_starts.get(target_id)
if tgt is None or tgt is src_slide:
continue
try:
if pptx_link_run_to_slide(run, src_slide, tgt):
linked += 1
except Exception: # noqa: BLE001 — links are best-effort.
pass
return linked return linked
@@ -0,0 +1,283 @@
"""Golden tests for the global render-quality features (issue: eda-render-quality).
Covers, with executable evidence:
* High DPI: every embedded figure is rasterized at 220 dpi, so a phone reader
can zoom in and still see crisp detail.
* Wide table → image: a table too wide to be legible as text (e.g. a 19-column
df.head) is rendered as one high-res image that scales to fit entirely, while
a narrow table keeps its selectable-text/native-table rendering.
* ``Group(layout="side_by_side")``: in PPTX the table and figure are placed in
two columns of the same slide; in PDF the same group stacks vertically.
* Backward compatibility: a Group without ``layout`` defaults to ``"stack"`` and
a fitting table renders exactly as before.
Renderers are invoked for real; PDFs are inspected with PyMuPDF and PPTX decks
with python-pptx.
"""
from __future__ import annotations
import os
import tempfile
import matplotlib
matplotlib.use("Agg")
import matplotlib.pyplot as plt # noqa: E402
import pytest # noqa: E402
from datascience.automatic_eda import model # noqa: E402
from datascience.automatic_eda.render_pdf_impl import ( # noqa: E402
render_pdf, _RASTER_DPI as _PDF_DPI, _table_fits_as_text as _pdf_fits)
from datascience.automatic_eda.render_pptx_impl import ( # noqa: E402
render_pptx, _RASTER_DPI as _PPTX_DPI, _table_fits_as_text as _pptx_fits)
# --------------------------------------------------------------------------- #
# Helpers.
# --------------------------------------------------------------------------- #
def _simple_fig():
"""A small, real matplotlib figure for the figure blocks."""
fig, ax = plt.subplots(figsize=(4, 3))
ax.plot([0, 1, 2, 3], [1, 3, 2, 4])
ax.set_title("demo")
return fig
def _wide_table(n_cols=19, n_rows=5):
header = [f"columna_{i}" for i in range(n_cols)]
rows = [[f"v{r}_{c}" for c in range(n_cols)] for r in range(n_rows)]
return model.DataTable(header=header, rows=rows, title="Primeras filas")
def _narrow_table():
return model.DataTable(header=["a", "b", "c"],
rows=[["1", "2", "3"], ["4", "5", "6"]],
title="Tabla estrecha")
def _chapter(blocks, cid="cap", title="Capítulo"):
return [model.Chapter(id=cid, title=title, version="1.0.0", blocks=blocks)]
# --------------------------------------------------------------------------- #
# 1) High DPI — the unit constant and a real embedded image.
# --------------------------------------------------------------------------- #
def test_raster_dpi_is_high_both_renderers():
assert _PDF_DPI >= 200, "el DPI del PDF debe ser alto (>=200)"
assert _PPTX_DPI >= 200, "el DPI del PPTX debe ser alto (>=200)"
def test_pdf_embedded_figure_is_high_resolution(tmp_path):
fitz = pytest.importorskip("fitz")
out = str(tmp_path / "fig.pdf")
res = render_pdf(_chapter([model.Figure(make=_simple_fig, caption="demo")]),
out, {"title": "T"})
assert res["path"] == out
doc = fitz.open(out)
try:
widths = []
for page in doc:
for img in page.get_images(full=True):
xref = img[0]
info = doc.extract_image(xref)
widths.append(info.get("width", 0))
assert widths, "no se incrustó ninguna imagen en el PDF"
# A ~4" figure rasterized at 220 dpi is ~ >850 px wide. At the old 150 dpi
# it would be ~600 px. The high-res threshold proves the DPI bump.
assert max(widths) >= 800, \
f"la figura embebida no es de alta resolución: {max(widths)} px"
finally:
doc.close()
# --------------------------------------------------------------------------- #
# 2) Wide table → image (PDF and PPTX); narrow table stays text.
# --------------------------------------------------------------------------- #
def test_fit_criterion_flags_wide_and_keeps_narrow():
wide = _wide_table()
narrow = _narrow_table()
assert not _pdf_fits(wide.header, wide.rows), \
"una tabla de 19 columnas debería NO caber como texto en A5"
assert not _pptx_fits(wide.header, wide.rows), \
"una tabla de 19 columnas debería NO caber como tabla nativa en 16:9"
assert _pdf_fits(narrow.header, narrow.rows), \
"una tabla de 3 columnas debería caber como texto en A5"
assert _pptx_fits(narrow.header, narrow.rows), \
"una tabla de 3 columnas debería caber como tabla nativa en 16:9"
def test_wide_table_rendered_as_image_pdf(tmp_path):
fitz = pytest.importorskip("fitz")
out = str(tmp_path / "wide.pdf")
res = render_pdf(_chapter([_wide_table()]), out, {"title": "T"})
assert res["path"] == out
doc = fitz.open(out)
try:
n_images = sum(len(page.get_images(full=True)) for page in doc)
text = "".join(page.get_text() for page in doc)
finally:
doc.close()
assert n_images >= 1, "la tabla ancha no se rasterizó como imagen en el PDF"
# The cells are now inside the image, not selectable text. A unique cell value
# must therefore NOT appear as extractable text (it lives in the picture).
assert "v4_18" not in text, \
"la tabla ancha sigue como texto seleccionable (no se hizo imagen)"
def test_narrow_table_stays_selectable_text_pdf(tmp_path):
fitz = pytest.importorskip("fitz")
out = str(tmp_path / "narrow.pdf")
render_pdf(_chapter([_narrow_table()]), out, {"title": "T"})
doc = fitz.open(out)
try:
text = "".join(page.get_text() for page in doc)
finally:
doc.close()
# Narrow table is selectable text: its header/cells are extractable.
for v in ("a", "b", "c", "1", "6"):
assert v in text, f"la celda '{v}' debería ser texto seleccionable"
def test_wide_table_rendered_as_picture_pptx(tmp_path):
pptx = pytest.importorskip("pptx")
from pptx.enum.shapes import MSO_SHAPE_TYPE
out = str(tmp_path / "wide.pptx")
res = render_pptx(_chapter([_wide_table()]), out, {"title": "T"})
assert res["path"] == out
prs = pptx.Presentation(out)
pics = sum(1 for s in prs.slides for sh in s.shapes
if sh.shape_type == MSO_SHAPE_TYPE.PICTURE)
assert pics >= 1, "la tabla ancha no se colocó como imagen en el PPTX"
# --------------------------------------------------------------------------- #
# 3) Group(layout="side_by_side"): two columns in PPTX, stacked in PDF.
# --------------------------------------------------------------------------- #
def _side_by_side_group():
return model.Group(
blocks=[model.Heading(text="Columna X", level=2),
_narrow_table(),
model.Figure(make=_simple_fig, caption="grafico")],
layout="side_by_side")
def test_side_by_side_places_two_columns_pptx(tmp_path):
pptx = pytest.importorskip("pptx")
from pptx.enum.shapes import MSO_SHAPE_TYPE
from pptx.util import Inches
out = str(tmp_path / "sbs.pptx")
render_pptx(_chapter([_side_by_side_group()]), out, {"title": "T"})
prs = pptx.Presentation(out)
# Find the slide that holds the pair (table image + figure image).
centre_emu = int(Inches(13.333 / 2.0))
placed = False
for s in prs.slides:
lefts = [sh.left for sh in s.shapes
if sh.shape_type == MSO_SHAPE_TYPE.PICTURE
and sh.left is not None]
if len(lefts) >= 2:
# one picture starts in the left half, another in the right half.
if min(lefts) < centre_emu and max(lefts) > centre_emu:
placed = True
break
assert placed, \
"side_by_side no colocó tabla y figura en dos columnas de la misma slide"
def test_side_by_side_stacks_in_pdf(tmp_path):
fitz = pytest.importorskip("fitz")
out = str(tmp_path / "sbs.pdf")
res = render_pdf(_chapter([_side_by_side_group()]), out, {"title": "T"})
assert res["path"] == out and res["n_pages"] >= 1
doc = fitz.open(out)
try:
n_images = sum(len(page.get_images(full=True)) for page in doc)
text = "".join(page.get_text() for page in doc)
finally:
doc.close()
# PDF stacks: the narrow table stays selectable text (1 of its cells is
# extractable) and the figure is the single embedded image — not a 2-column
# pair of pictures like PPTX.
assert n_images == 1, "el PDF no debería usar el layout de dos imágenes"
assert "Columna X" in text and "1" in text, \
"la tabla del grupo debería seguir como texto apilado en el PDF"
# --------------------------------------------------------------------------- #
# 4) Backward compatibility — default layout stacks, fitting table unchanged.
# --------------------------------------------------------------------------- #
def test_group_default_layout_is_stack():
g = model.Group(blocks=[_narrow_table()])
assert g.layout == "stack", "el layout por defecto debe ser 'stack'"
# --------------------------------------------------------------------------- #
# 5) Clickable cover index ("Índice") → chapter first page/slide.
# --------------------------------------------------------------------------- #
def _doc_with_index():
portada = model.Chapter(id="portada", title="Portada", version="1.0.0",
blocks=[model.Heading(text="Índice", level=2),
model.TocEntry(label="Distribuciones",
target_id="Distribuciones")])
cap = model.Chapter(id="num", title="Distribuciones", version="1.0.0",
blocks=[model.Markdown(text="contenido del capítulo")])
return [portada, cap]
def test_cover_index_is_clickable_pdf(tmp_path):
fitz = pytest.importorskip("fitz")
out = str(tmp_path / "idx.pdf")
res = render_pdf(_doc_with_index(), out, {"title": "T"})
assert res["path"] == out
doc = fitz.open(out)
try:
# The cover (page 0) must carry a GOTO link jumping to a later page.
goto = [lk for lk in doc[0].get_links()
if lk.get("kind") == fitz.LINK_GOTO and lk.get("page", 0) > 0]
finally:
doc.close()
assert goto, "el índice de la portada no produjo enlaces clicables en el PDF"
def test_cover_index_shows_heading_pdf(tmp_path):
fitz = pytest.importorskip("fitz")
out = str(tmp_path / "idxh.pdf")
render_pdf(_doc_with_index(), out, {"title": "T"})
doc = fitz.open(out)
try:
text = "".join(page.get_text() for page in doc)
finally:
doc.close()
assert "Índice" in text, "la portada no muestra el encabezado 'Índice'"
assert "Este informe incluye" not in text, \
"la portada aún muestra el texto antiguo 'Este informe incluye'"
def test_cover_index_is_clickable_pptx(tmp_path):
pptx = pytest.importorskip("pptx")
out = str(tmp_path / "idx.pptx")
render_pptx(_doc_with_index(), out, {"title": "T"})
prs = pptx.Presentation(out)
cover_xml = prs.slides[0]._element.xml
assert "hlinksldjump" in cover_xml, \
"el índice de la portada no produjo un salto de slide nativo en el PPTX"
def test_default_group_renders_like_before_pptx(tmp_path):
pptx = pytest.importorskip("pptx")
from pptx.enum.shapes import MSO_SHAPE_TYPE
out = str(tmp_path / "stack.pptx")
grp = model.Group(blocks=[model.Heading(text="Y", level=2),
_narrow_table(),
model.Figure(make=_simple_fig, caption="g")])
render_pptx(_chapter([grp]), out, {"title": "T"})
prs = pptx.Presentation(out)
# Stacked group: the narrow table is a NATIVE table (selectable), and there is
# exactly one picture (the figure) — not the two-image side-by-side layout.
n_tables = sum(1 for s in prs.slides for sh in s.shapes if sh.has_table)
n_pics = sum(1 for s in prs.slides for sh in s.shapes
if sh.shape_type == MSO_SHAPE_TYPE.PICTURE)
assert n_tables >= 1, "el grupo apilado debería usar una tabla nativa"
assert n_pics == 1, "el grupo apilado no debería duplicar imágenes"
@@ -0,0 +1,111 @@
---
id: categorical_top_bar_figure_py_datascience
name: categorical_top_bar_figure
kind: function
lang: py
domain: datascience
version: "1.0.0"
purity: impure
signature: "def categorical_top_bar_figure(top: list, n_distinct: int = 0, title: str = \"\", top_k: int = 6, n_rows=None) -> \"matplotlib.figure.Figure\""
description: "Construye una figura matplotlib de barras horizontales de las top_k categorías más frecuentes de una columna categórica, con la mayor arriba y agregando el resto en una barra gris \"Otros (N categorías)\". Contrato de entrada idéntico a categorical_top_pie_figure (swap directo donut↔barras): consume el bloque `top` de summarize_categorical y devuelve un matplotlib.figure.Figure listo para rasterizar por el renderer del informe EDA. Backend Agg sin pyplot global; defensivo total ante top vacío/None, nunca lanza."
tags: [eda, categorical, bar, barh, matplotlib, figure, visualization, datascience, impure]
uses_functions: []
uses_types: []
returns: []
returns_optional: false
error_type: "error_go_core"
imports: [matplotlib]
example: |
from categorical_top_bar_figure import categorical_top_bar_figure
top = [
{"value": "rojo", "count": 40, "pct": 0.4},
{"value": "azul", "count": 30, "pct": 0.3},
{"value": "verde", "count": 20, "pct": 0.2},
]
fig = categorical_top_bar_figure(top, n_distinct=12, title="color", top_k=6, n_rows=100)
tested: true
tests:
- "test_returns_figure"
- "test_ten_items_topk_six_yields_seven_bars"
- "test_empty_top_does_not_raise_and_returns_figure"
- "test_long_value_truncated"
- "test_none_value_and_none_count_are_handled"
- "test_n_rows_adds_exact_others_bar"
test_file_path: "python/functions/datascience/categorical_top_bar_figure_test.py"
file_path: "python/functions/datascience/categorical_top_bar_figure.py"
params:
- name: top
desc: "Lista de dicts {value, count, pct} ordenada de mayor a menor por count (salida del bloque `top` de summarize_categorical). Puede venir vacía o con dicts incompletos: items no-dict, sin count, con count None o count <= 0 se descartan. value None se admite (etiqueta vacía)."
- name: n_distinct
desc: "Nº total de categorías distintas de la columna. Etiqueta la barra agregada como \"Otros (n_distinct - top_k)\" (mínimo 0). Si no supera el nº de barras mostradas, se usa el overflow real de `top` como nº de categorías agregadas. Default 0."
- name: title
desc: "Título de la figura (nombre de la columna). Se trunca a ~48 chars con elipsis si es muy largo. Default \"\" (sin título)."
- name: top_k
desc: "Nº máximo de barras explícitas. Default 6. La barra \"Otros\" no cuenta contra este límite. Con top_k <= 0 se muestra al menos la categoría mayor."
- name: n_rows
desc: "Opcional. Total de filas del dataset. Si se da y la suma de counts mostrados < n_rows, la barra \"Otros\" usa (n_rows - suma_mostrada) como count para que sea exacta respecto al total real. Si se omite, \"Otros\" usa la suma de counts fuera del top_k mostrado (solo cuando top trae más de top_k items). Default None."
output: "Un matplotlib.figure.Figure (figsize 6.4 x altura escalada con el nº de barras, dpi 150) con un Axes de barras horizontales: la categoría más frecuente arriba, la barra gris \"Otros (N categorías)\" abajo, cada barra anotada con su conteo y porcentaje al final y etiquetas de categoría (yticklabels) truncadas a ~22 chars. Si no hay counts válidos devuelve igualmente una Figure con un texto centrado \"sin datos categóricos\" (nunca lanza); cualquier error inesperado cae a una Figure con el texto del error. El caller rasteriza/cierra la figura; la función no la muestra ni la guarda."
---
## Ejemplo
```python
from categorical_top_bar_figure import categorical_top_bar_figure
# `top` es la salida del bloque "top" de summarize_categorical (ya ordenado desc).
top = [
{"value": "rojo", "count": 40, "pct": 0.40},
{"value": "azul", "count": 30, "pct": 0.30},
{"value": "verde", "count": 20, "pct": 0.20},
{"value": "amarillo", "count": 5, "pct": 0.05},
]
fig = categorical_top_bar_figure(
top,
n_distinct=12, # 12 categorías distintas en total
title="color_producto",
top_k=6, # hasta 6 barras explícitas
n_rows=100, # "Otros" = 100 - 95 = 5, sobre 8 categorías agregadas
)
# El renderer del informe lo rasteriza; aquí solo persistimos para inspección.
fig.savefig("/tmp/barras_color.png")
```
## Cuando usarla
Úsala dentro de un informe EDA cuando quieras comparar **magnitudes** de las
categorías dominantes de una columna categórica: qué categoría manda y por
cuánto frente a las siguientes. Pásale directamente el bloque `top` de
`summarize_categorical` (ya ordenado de mayor a menor) más `n_distinct` para que
la barra "Otros" indique cuántas categorías quedan agrupadas. Es el clon "de
barras" del donut `categorical_top_pie_figure` con **contrato de entrada
idéntico**: puedes intercambiar una por otra sin tocar el caller. Elige barras
cuando importe comparar tamaños exactos; el donut cuando importe la proporción
del total.
## Gotchas
- **Impura por matplotlib.** Toca la maquinaria de render. Usa el backend `Agg`
y la API orientada a objetos `Figure`/`add_subplot` — NUNCA `pyplot.*` aquí,
para no tocar el estado global ni filtrar figuras entre llamadas. `pyplot` NO
es thread-safe; esta función evita ese riesgo construyendo el `Figure`
directamente, así que es segura de llamar en bucle desde el renderer.
- **El caller cierra la figura.** La función devuelve el `Figure` pero no lo
muestra ni lo guarda. Quien la consume debe rasterizarla y luego liberarla
(`fig.clf()` / `matplotlib.pyplot.close(fig)` si se usó pyplot en el caller)
para no acumular memoria en lotes grandes de columnas.
- **`barh` dibuja de abajo arriba.** La categoría más frecuente va arriba porque
el orden de display se invierte antes de plotear; la barra "Otros" queda
siempre al fondo. No reordenes `top` esperando otro layout: la función asume
que ya viene ordenado desc por count.
- **Magnitud exacta de "Otros" solo con `n_rows`.** Sin `n_rows`, la barra
"Otros" se calcula con el overflow presente en `top`; si `top` ya viene
recortado a `top_k` por el productor, no habrá "Otros" aunque existan más
categorías. Pasa `n_rows` (total de filas del dataset) para una barra correcta
respecto al total real.
- **Defensiva, nunca lanza.** `top=[]`, `value=None`, `count=None` o counts no
numéricos se manejan sin error: en el peor caso devuelve una `Figure` con
"sin datos categóricos", y cualquier excepción inesperada cae a una `Figure`
con el texto del error. No envuelvas la llamada en try/except por miedo a un
raise — no lo hay.
@@ -0,0 +1,233 @@
"""Impure EDA helper: horizontal bar figure of the most common categories (`eda` group).
Builds a horizontal bar chart of the ``top_k`` most frequent categories of a
categorical column, folding everything else into a single gray
"Otros (N categorías)" bar. The most frequent category sits at the top, each bar
labelled with its count (and percentage) at the end. Returns a ready-to-rasterize
``matplotlib.figure.Figure``; it never shows nor saves it.
This is the "magnitude" twin of ``categorical_top_pie_figure``: identical input
contract (same ``top``/``n_distinct``/``title``/``top_k``/``n_rows`` signature) so
it can be swapped in directly, but it communicates comparable magnitudes via bars
instead of proportions via wedges.
Impure because it touches matplotlib's rendering machinery. It uses the headless
Agg backend and the object-oriented ``Figure`` API (no ``pyplot``) so it leaks no
global state and is safe to call repeatedly from a report renderer.
"""
import matplotlib
matplotlib.use("Agg")
from matplotlib.figure import Figure # noqa: E402
# Gray reserved for the aggregated "Otros" bar.
_OTHER_COLOR = "#9e9e9e"
# Muted gray for secondary text (title fallback, no-data message).
_MUTED_TEXT = "#5f6b7a"
# Soft red for the error fallback message.
_ERROR_TEXT = "#b00020"
# Pleasant, colour-blind-friendly qualitative palette for the explicit bars.
_PALETTE = [
"#4C72B0",
"#DD8452",
"#55A868",
"#C44E52",
"#8172B3",
"#937860",
"#DA8BC3",
"#8C8C8C",
"#CCB974",
"#64B5CD",
]
def _truncate(text, width: int = 22) -> str:
"""Truncate ``text`` to ``width`` chars, appending an ellipsis if cut."""
s = "" if text is None else str(text)
if len(s) <= width:
return s
if width <= 1:
return s[:width]
return s[: width - 1] + ""
def _message_figure(message: str, color: str = _MUTED_TEXT, title: str = "") -> "Figure":
"""Return a fallback ``Figure`` carrying a single centered message."""
fig = Figure(figsize=(6.4, 4.0), dpi=150)
ax = fig.add_subplot(111)
ax.axis("off")
ax.text(
0.5,
0.5,
message,
ha="center",
va="center",
fontsize=12,
color=color,
wrap=True,
transform=ax.transAxes,
)
if title:
ax.set_title(_truncate(title, 48), fontsize=12, loc="center", pad=8)
fig.tight_layout()
return fig
def categorical_top_bar_figure(
top: list,
n_distinct: int = 0,
title: str = "",
top_k: int = 6,
n_rows=None,
) -> "matplotlib.figure.Figure":
"""Build a horizontal bar figure of the most common categories of a column.
Renders the ``top_k`` most frequent categories as explicit horizontal bars,
largest at the top, and aggregates every remaining category into a single
gray "Otros (N categorías)" bar at the bottom. Each bar is annotated with its
count and percentage of the total at the end of the bar; the category names
are truncated Y tick labels.
The function shares the exact input contract of
``categorical_top_pie_figure`` (the donut twin) so it is a drop-in swap. It is
fully defensive: empty input, missing/``None`` values or counts never raise.
When there is nothing valid to draw it still returns a ``Figure`` carrying a
centered "sin datos categóricos" message, and any unexpected error is caught
and turned into a fallback ``Figure`` carrying the error text.
Args:
top: List of ``{value, count, pct}`` dicts, already sorted by ``count``
descending (the ``top`` block of ``summarize_categorical``). May be
empty or carry incomplete/``None`` entries; non-dict items, items
without a positive numeric ``count`` and ``None`` counts are skipped.
n_distinct: Total number of distinct categories in the column. Used to
label the aggregated bar as "Otros (n_distinct - top_k)" (floored at
0). Ignored when it does not exceed the number of shown bars.
title: Figure title (the column name). Truncated when too long.
top_k: Maximum number of explicit bars. Default 6. The "Otros" bar does
not count against this limit.
n_rows: Optional total row count of the dataset. When given and the sum of
shown counts is below ``n_rows``, the "Otros" bar uses
``n_rows - sum_shown`` as its count so it is exact with respect to the
real total. When omitted, "Otros" uses the sum of the counts that fall
outside the shown ``top_k`` (only when ``top`` carries more than
``top_k`` items).
Returns:
A ``matplotlib.figure.Figure`` with a single horizontal-bar Axes. The
caller is responsible for rasterizing/closing it.
"""
try:
safe_title = _truncate(title, 48)
# --- Defensive parse: keep only well-formed {value, count} with count > 0.
cleaned = []
if isinstance(top, list):
for item in top:
if not isinstance(item, dict):
continue
count = item.get("count")
if count is None:
continue
try:
count = float(count)
except (TypeError, ValueError):
continue
if count <= 0:
continue
cleaned.append((item.get("value"), count))
if not cleaned:
return _message_figure("sin datos categóricos", title=title)
# --- Split into shown bars and the aggregated remainder.
shown = cleaned[: max(int(top_k), 0)]
if not shown: # top_k <= 0 — show at least the largest category.
shown = cleaned[:1]
sum_shown = sum(c for _, c in shown)
overflow_count = sum(c for _, c in cleaned[len(shown):])
# How many categories are folded into "Otros".
try:
nd = int(n_distinct)
except (TypeError, ValueError):
nd = 0
others_categories = max(nd - len(shown), 0)
# If n_distinct is unknown/too small, fall back to the overflow we
# actually have in `top` beyond the shown bars.
overflow_items = len(cleaned) - len(shown)
if others_categories == 0 and overflow_items > 0:
others_categories = overflow_items
# Count attributed to the "Otros" bar.
others_count = 0.0
if n_rows is not None:
try:
total_rows = float(n_rows)
except (TypeError, ValueError):
total_rows = None
if total_rows is not None and total_rows > sum_shown:
others_count = total_rows - sum_shown
if others_count <= 0:
others_count = overflow_count
# --- Build the display order (top to bottom): largest .. smallest, Otros.
display_labels = [_truncate(v, 22) for v, _ in shown]
display_values = [c for _, c in shown]
display_colors = [_PALETTE[i % len(_PALETTE)] for i in range(len(shown))]
has_others = others_count > 0 and others_categories > 0
if has_others:
display_labels.append(f"Otros ({others_categories} categorías)")
display_values.append(others_count)
display_colors.append(_OTHER_COLOR)
total = sum(display_values) or 1.0
# barh draws bottom-up, so reverse the display order before plotting to
# land the largest category on top and "Otros" at the bottom.
labels = list(reversed(display_labels))
values = list(reversed(display_values))
colors = list(reversed(display_colors))
y_pos = range(len(values))
# Height scales with the number of bars so dense reports stay readable.
n_bars = len(values)
height = max(2.4, min(0.4 * n_bars + 1.2, 14.0))
fig = Figure(figsize=(6.4, height), dpi=150)
ax = fig.add_subplot(111)
ax.barh(list(y_pos), values, color=colors, edgecolor="white")
ax.set_yticks(list(y_pos))
ax.set_yticklabels(labels, fontsize=8)
ax.set_xlabel("conteo", fontsize=9)
max_val = max(values) if values else 1.0
ax.set_xlim(0, max_val * 1.18 if max_val > 0 else 1.0)
# Annotate each bar with its count and percentage at the end of the bar.
for y, val in zip(y_pos, values):
pct = val / total * 100.0
ax.text(
val + max_val * 0.012,
y,
f"{int(round(val))} ({pct:.0f}%)",
va="center",
ha="left",
fontsize=7,
color="#202020",
)
if safe_title:
ax.set_title(safe_title, fontsize=13, loc="left", pad=10)
fig.tight_layout()
return fig
except Exception as exc: # noqa: BLE001 — never raise from a figure builder.
return _message_figure(
f"error al dibujar barras: {exc}", color=_ERROR_TEXT
)
@@ -0,0 +1,103 @@
"""Tests para categorical_top_bar_figure (barras de categorías top, grupo eda).
Usa el backend Agg sin pyplot; no muestra ni guarda figuras. Cada test cierra
explícitamente la Figure construida (matplotlib.pyplot.close) para no acumular
estado entre tests.
"""
import matplotlib
matplotlib.use("Agg")
import matplotlib.pyplot as plt # noqa: E402
from matplotlib.figure import Figure # noqa: E402
from categorical_top_bar_figure import categorical_top_bar_figure
def _make_top(n):
"""n items {value, count, pct} ordenados desc por count."""
return [
{"value": f"cat_{i}", "count": n - i, "pct": (n - i) / sum(range(1, n + 1))}
for i in range(n)
]
def _bar_count(ax):
"""Devuelve el nº de barras (longitud del primer BarContainer del Axes)."""
if ax.containers:
return len(ax.containers[0])
return 0
def test_returns_figure():
fig = categorical_top_bar_figure(_make_top(3), n_distinct=3, title="col")
assert isinstance(fig, Figure)
plt.close(fig)
def test_ten_items_topk_six_yields_seven_bars():
top = _make_top(10)
fig = categorical_top_bar_figure(top, n_distinct=10, title="muchas", top_k=6)
ax = fig.axes[0]
# 6 categorías explícitas + 1 barra "Otros".
assert _bar_count(ax) == 7
plt.close(fig)
def test_empty_top_does_not_raise_and_returns_figure():
fig = categorical_top_bar_figure([], n_distinct=0, title="vacía")
assert isinstance(fig, Figure)
# Sin datos: no debe haber barras.
assert _bar_count(fig.axes[0]) == 0
plt.close(fig)
def test_long_value_truncated():
long_value = "una_categoria_con_un_nombre_larguisimo_que_excede_el_limite"
top = [
{"value": long_value, "count": 10, "pct": 0.5},
{"value": "corta", "count": 10, "pct": 0.5},
]
fig = categorical_top_bar_figure(top, n_distinct=2, title="col", top_k=6)
ax = fig.axes[0]
tick_texts = [t.get_text() for t in ax.get_yticklabels()]
# El valor largo aparece truncado con elipsis y NO en su forma completa.
assert any("" in t for t in tick_texts)
assert long_value not in " ".join(tick_texts)
plt.close(fig)
def test_none_value_and_none_count_are_handled():
top = [
{"value": None, "count": 5, "pct": 0.5},
{"value": "b", "count": None, "pct": 0.0}, # count None -> se descarta
{"value": "c", "count": 5, "pct": 0.5},
]
fig = categorical_top_bar_figure(top, n_distinct=2, title="con nones", top_k=6)
assert isinstance(fig, Figure)
# Solo 2 items válidos, sin overflow -> 2 barras, sin "Otros".
assert _bar_count(fig.axes[0]) == 2
plt.close(fig)
def test_n_rows_adds_exact_others_bar():
# 3 categorías mostradas suman 30, dataset real 100 -> "Otros" = 70.
top = [
{"value": "a", "count": 15, "pct": 0.15},
{"value": "b", "count": 10, "pct": 0.10},
{"value": "c", "count": 5, "pct": 0.05},
]
fig = categorical_top_bar_figure(
top, n_distinct=20, title="col", top_k=3, n_rows=100
)
ax = fig.axes[0]
# 3 explícitas + Otros.
assert _bar_count(ax) == 4
tick_texts = [t.get_text() for t in ax.get_yticklabels()]
# La barra Otros refleja n_distinct - top_k = 17 categorías.
assert any("Otros (17 categorías)" in t for t in tick_texts)
# Su anotación lleva el count 70.
annotation_texts = [t.get_text() for t in ax.texts]
assert any("70" in t for t in annotation_texts)
plt.close(fig)
@@ -0,0 +1,86 @@
---
name: load_bq_table_to_duckdb
kind: function
lang: py
domain: datascience
version: "1.1.0"
purity: impure
signature: "def load_bq_table_to_duckdb(table_fqn: str, duckdb_path: str, dest_table: str = '', sample_frac: float = None, max_rows: int = 0, project_id: str = '', pseudonymize_cols: list = None) -> dict"
description: "Adaptador BigQuery -> DuckDB local para el grupo eda. Trae una tabla o vista de Google BigQuery a un archivo DuckDB local (por defecto COMPLETA, todas las filas; muestreo opt-in con sample_frac), de modo que las funciones del grupo de capacidad eda (que solo hablan DuckDB/PostgreSQL) puedan perfilarla. Fetch via BigQuery Storage Read API (Arrow) con fallback REST. Seudonimiza columnas PII con hash SHA-1 truncado antes de materializar (LOPDGDD/RGPD)."
tags: [eda, bigquery, duckdb, datascience]
params:
- name: table_fqn
desc: "FQN completo de la tabla/vista BigQuery: `project.dataset.table`."
- name: duckdb_path
desc: "Ruta del archivo DuckDB local donde materializar la tabla (se crea/sobrescribe la tabla dest)."
- name: dest_table
desc: "Nombre de la tabla DuckDB destino. Vacío = último segmento del FQN, saneado."
- name: sample_frac
desc: "None (DEFAULT) = FULL, trae todas las filas. Un float en (0,1) activa el muestreo opt-in con `WHERE rand() < frac` (~frac del total). Vistas no admiten TABLESAMPLE, por eso rand()."
- name: max_rows
desc: "Tope duro opcional de filas (LIMIT). 0 (DEFAULT) = sin tope. Se combina con sample_frac si ambos se pasan."
- name: project_id
desc: "Proyecto GCP de facturación. Vacío = primer segmento del FQN o el del ADC."
- name: pseudonymize_cols
desc: "Lista de columnas PII a seudonimizar con hash SHA-1 truncado antes de materializar (LOPDGDD/RGPD). Preserva nulos y cardinalidad."
output: "dict dict-no-throw. En éxito {status:'ok', duckdb_path, table, n_rows_source, n_rows_fetched, sampled, sample_frac, columns, pseudonymized}. En error {status:'error', error}."
uses_functions: []
uses_types: []
returns: []
returns_optional: false
error_type: "error_go_core"
imports: []
tested: false
tests: []
test_file_path: ""
file_path: "python/functions/datascience/load_bq_table_to_duckdb.py"
---
## Ejemplo
```python
from datascience import load_bq_table_to_duckdb
# FULL por defecto: trae TODAS las filas de la vista (3,8M) a DuckDB.
r = load_bq_table_to_duckdb(
"autingo-159109.customer_marts.customer_profile",
"/tmp/eda_bq.duckdb",
pseudonymize_cols=["document_number", "full_name", "email", "phone"],
)
print(r["table"], r["n_rows_fetched"], "de", r["n_rows_source"], "sampled=", r["sampled"])
# Muestreo opt-in: ~5 % de las filas.
r = load_bq_table_to_duckdb(
"autingo-159109.customer_marts.customer_profile",
"/tmp/eda_bq_sample.duckdb",
sample_frac=0.05,
pseudonymize_cols=["document_number", "full_name", "email", "phone"],
)
```
## Cuando usarla
- Antes de perfilar una tabla/vista de BigQuery con el grupo `eda` (que solo habla DuckDB/PostgreSQL): trae el origen COMPLETO a DuckDB local (o una muestra con `sample_frac`) con seudonimización PII.
- Cuando necesites un puente único BigQuery -> DuckDB local -> grupo `eda` sin escribir el bridge inline cada vez.
- Cuando quieras que un EDA sobre datos de negocio conserve valor analítico (cardinalidad, nulos, distribución) sin incrustar datos personales reales.
## Gotchas
- **Impura**: hace I/O de red (BigQuery) + escritura a disco (DuckDB). Requiere ADC configurado (`gcloud auth application-default login`).
- **403 USER_PROJECT_DENIED**: se evita aplicando `creds.with_quota_project(None)` cuando el ADC arrastra un quota project ajeno (memoria `bq_direct_quota_project`).
- **TABLESAMPLE no funciona en vistas**: el muestreo (opt-in, `sample_frac`) usa `WHERE rand() < frac` (aplicable a tablas y vistas). `max_rows` es un `LIMIT` como tope duro opcional.
- **FULL por defecto**: `sample_frac=None` trae TODAS las filas. Trae el resultado a RAM como DataFrame de pandas antes de materializar en DuckDB, así que una tabla de muchos millones × muchas columnas puede consumir varios GB. Para tablas enormes que no quepan, pasa `sample_frac` (muestra) o `max_rows` (tope). El fetch usa el BigQuery Storage Read API (Arrow) cuando `google-cloud-bigquery-storage` + `pyarrow` están disponibles — mucho más rápido que REST para millones de filas; si no, cae al conversor REST automáticamente.
- **La seudonimización es un hash unidireccional** (SHA-1 truncado a 12 hex): no es reversible, correcto para EDA. Preserva nulos, cardinalidad y patrón de faltantes, pero NO permite recuperar el valor original.
- **dict-no-throw**: nunca lanza excepción; ante cualquier fallo (FQN inválido, auth, query) devuelve `{status:'error', error:str}`.
## Notas
Adaptador del grupo de capacidad `eda`: el resto de funciones del grupo perfilan
DuckDB/PostgreSQL, pero no hablan BigQuery de forma nativa. Esta función cubre ese
hueco materializando una sola tabla DuckDB desde el DataFrame resultante de la
query BigQuery. El nombre de tabla destino se sanea (`^[A-Za-z_][A-Za-z0-9_]*$`)
antes de citarlo en el `CREATE OR REPLACE TABLE`.
## Capability growth log
- v1.1.0 (2026-07-01) — FULL pasa a ser el DEFAULT: se sustituye `max_rows=300000, sample=True` por `sample_frac=None` (None = todas las filas) + `max_rows=0` (tope duro opcional). El muestreo es opt-in explícito. Fetch acelerado via BigQuery Storage Read API (Arrow) con fallback REST. Preferencia estándar del usuario: los EDA se corren sobre el total salvo que se pida lo contrario.
@@ -0,0 +1,157 @@
"""load_bq_table_to_duckdb — adaptador BigQuery -> DuckDB local para el grupo `eda`.
Trae una tabla o vista de Google BigQuery a un archivo DuckDB local (por defecto
COMPLETA — todas las filas — o una muestra si se pasa `sample_frac`), de modo que
las funciones del grupo de capacidad `eda` (que perfilan DuckDB/PostgreSQL)
puedan analizarla sin un adaptador BigQuery nativo. Materializa una sola tabla
DuckDB desde un DataFrame de pandas.
Modo por defecto = FULL: `sample_frac=None` trae la vista/tabla entera (preferencia
estándar del usuario: los EDA se corren sobre el total salvo que se pida lo
contrario). El muestreo es opt-in explícito: `sample_frac=0.05` trae ~5 %; `max_rows`
es un tope duro opcional (0 = sin tope). El fetch usa el BigQuery Storage Read API
(Arrow) cuando está disponible, con fallback al conversor REST.
Seudonimización LOPDGDD/RGPD: las columnas listadas en `pseudonymize_cols` se
transforman con un hash SHA-1 truncado ANTES de escribir a disco, preservando
nulos, cardinalidad y patrón de faltantes pero sin volcar el valor real (DNI,
nombre, email, teléfono, etc.). El EDA conserva su valor analítico sin incrustar
datos personales reales.
Autenticación: ADC (gcloud auth). Aplica creds.with_quota_project(None) para
evitar el 403 USER_PROJECT_DENIED cuando el ADC lleva quota project ajeno.
Estilo dict-no-throw del grupo `eda`: nunca lanza; devuelve {status:'error', ...}.
"""
import hashlib
import re
_FQN_RE = re.compile(r"^[A-Za-z0-9_.\-]+$")
def _pseudonymize_series(values):
"""Hash SHA-1 truncado (12 hex) de cada valor no nulo; conserva None/NaN."""
import pandas as pd
out = []
for v in values:
if v is None or (isinstance(v, float) and pd.isna(v)) or (
not isinstance(v, (list, dict)) and pd.isna(v) if _safe_isna(v) else False
):
out.append(None)
else:
h = hashlib.sha1(str(v).encode("utf-8")).hexdigest()[:12]
out.append(h)
return out
def _safe_isna(v):
import pandas as pd
try:
return bool(pd.isna(v))
except (TypeError, ValueError):
return False
def load_bq_table_to_duckdb(
table_fqn: str,
duckdb_path: str,
dest_table: str = "",
sample_frac: float = None,
max_rows: int = 0,
project_id: str = "",
pseudonymize_cols: list = None,
) -> dict:
try:
import duckdb
import google.auth
from google.cloud import bigquery
if not table_fqn or not _FQN_RE.match(table_fqn):
return {"status": "error", "error": f"table_fqn inválido: {table_fqn!r}"}
# dest_table: derivar del último segmento del FQN si no se pasa.
dest = dest_table or table_fqn.split(".")[-1]
if not re.match(r"^[A-Za-z_][A-Za-z0-9_]*$", dest):
dest = re.sub(r"[^A-Za-z0-9_]", "_", dest) or "bq_table"
# Auth ADC con fix de quota project (403 USER_PROJECT_DENIED).
creds, adc_project = google.auth.default(
scopes=["https://www.googleapis.com/auth/bigquery"]
)
if hasattr(creds, "with_quota_project"):
creds = creds.with_quota_project(None)
proj = project_id or table_fqn.split(".")[0] or adc_project
client = bigquery.Client(project=proj, credentials=creds)
# Conteo de filas de origen.
cnt = client.query(
f"SELECT COUNT(*) AS n FROM `{table_fqn}`"
).result()
n_source = 0
for row in cnt:
n_source = int(row["n"])
# Modo por defecto = FULL (sample_frac=None -> todas las filas). El
# muestreo es opt-in: sample_frac in (0,1) muestrea esa fracción con
# `WHERE rand() < frac` (aplicable a tablas y vistas; TABLESAMPLE no va
# en vistas). max_rows>0 es un tope duro opcional (LIMIT); 0 = sin tope.
sampled = False
where = ""
if sample_frac is not None and 0 < float(sample_frac) < 1:
where = f" WHERE rand() < {float(sample_frac)}"
sampled = True
limit = f" LIMIT {int(max_rows)}" if max_rows and int(max_rows) > 0 else ""
sql = f"SELECT * FROM `{table_fqn}`{where}{limit}"
# Fetch: BigQuery Storage Read API (Arrow, rápido para millones de filas)
# con fallback al conversor REST si la lib no está o falla.
try:
df = client.query(sql).result().to_dataframe(create_bqstorage_client=True)
except Exception: # noqa: BLE001
df = client.query(sql).result().to_dataframe(create_bqstorage_client=False)
n_fetched = len(df)
# Normalizar dtypes de db-dtypes: el conversor REST de BigQuery mapea las
# columnas DATE/TIME a las extension dtypes `dbdate`/`dbtime` de db-dtypes,
# que DuckDB NO reconoce al registrar el DataFrame ("Data type 'dbdate' not
# recognized"). Se convierten a tipos estándar que DuckDB sí ingiere: DATE
# -> datetime64[ns], TIME -> string. El resto de dtypes (datetime64 de
# TIMESTAMP, Int64/boolean nullable, object) los acepta DuckDB tal cual.
import pandas as pd
for col in df.columns:
dt = str(df[col].dtype)
if dt == "dbdate":
df[col] = pd.to_datetime(df[col], errors="coerce")
elif dt == "dbtime":
df[col] = df[col].astype("string").astype(object)
# Seudonimización de columnas PII antes de escribir a disco.
pseudo_applied = []
for col in (pseudonymize_cols or []):
if col in df.columns:
df[col] = _pseudonymize_series(df[col].tolist())
pseudo_applied.append(col)
# Materializar a DuckDB (una tabla desde el DataFrame).
con = duckdb.connect(duckdb_path)
try:
con.register("_src_df", df)
con.execute(f'CREATE OR REPLACE TABLE "{dest}" AS SELECT * FROM _src_df')
con.unregister("_src_df")
finally:
con.close()
return {
"status": "ok",
"duckdb_path": duckdb_path,
"table": dest,
"n_rows_source": n_source,
"n_rows_fetched": n_fetched,
"sampled": sampled,
"sample_frac": float(sample_frac) if sampled else None,
"columns": list(df.columns),
"pseudonymized": pseudo_applied,
}
except Exception as e: # noqa: BLE001
return {"status": "error", "error": str(e)}
@@ -0,0 +1,121 @@
---
id: render_table_as_figure_py_datascience
name: render_table_as_figure
kind: function
lang: py
domain: datascience
version: "1.0.0"
purity: impure
signature: "def render_table_as_figure(header, rows, title=None, note=None, fontsize=9.0, max_cell_chars=40) -> \"matplotlib.figure.Figure\""
description: "Dibuja un bloque tabular (cabecera + filas) como una matplotlib.figure.Figure nítida, lista para rasterizar a DPI alto. Pensada para tablas que NO caben como texto en una página/slide del informe EDA: se rasteriza a alta resolución (el caller usa dpi=220, bbox_inches='tight') y el usuario hace zoom en el móvil para leerla entera sin perder datos. Cabecera sombreada (#eef3f6) y en negrita, filas pares (1-based) con zebra suave (#f6f8fa), tinta oscura (#1b1b1b) sobre blanco, rejilla gris muy fina (#cccccc). Trunca cada celda a max_cell_chars con elipsis y str()-ea cada valor (None -> \"\"). figsize proporcional al contenido (ancho por nº y longitud de columnas, alto por nº de filas) para que sea legible con zoom. Backend Agg sin pyplot global. Defensiva: header/rows vacíos o None, filas irregulares o cualquier error interno devuelven una Figure placeholder con texto centrado \"(tabla no disponible)\". NUNCA lanza."
tags: [eda, table, figure, matplotlib, visualization, rasterize, zoom, render, datascience, impure]
uses_functions: []
uses_types: []
returns: []
returns_optional: false
error_type: "error_go_core"
imports: [matplotlib]
example: |
from datascience.render_table_as_figure import render_table_as_figure
header = ["columna", "n_nulos", "%_nulos", "distintos", "tipo", "ejemplo"]
rows = [
["ingresos", 12, "1.2%", 980, "float64", "2345.67"],
["edad", 0, "0.0%", 88, "int64", "37"],
["ciudad", 5, "0.5%", 412, "object", "Madrid"],
]
fig = render_table_as_figure(header, rows, title="Resumen de columnas",
note="rasteriza a dpi=220 y haz zoom")
fig.savefig("/tmp/tabla.png", dpi=220, bbox_inches="tight")
tested: true
tests:
- "test_returns_figure_with_table"
- "test_rows_none_does_not_raise"
- "test_header_none_does_not_raise"
- "test_empty_lists_return_placeholder_figure"
- "test_both_none_return_placeholder_figure"
- "test_long_cell_is_truncated"
- "test_none_cells_become_empty_strings"
- "test_can_rasterize_to_png_high_dpi"
- "test_placeholder_can_rasterize"
- "test_ragged_rows_are_padded"
test_file_path: "python/functions/datascience/render_table_as_figure_test.py"
file_path: "python/functions/datascience/render_table_as_figure.py"
params:
- name: header
desc: "Lista de nombres de columna (puede ser [] o None). Cada nombre se str()-ea, se trunca a max_cell_chars y se pinta en la fila cabecera sombreada en negrita. Si está vacío/None no se dibuja fila de cabecera (solo cuerpo)."
- name: rows
desc: "Lista de filas; cada fila es una lista de celdas con valores cualesquiera (se str()-ean; None -> \"\"). Admite None (se trata como []), filas escalares (se envuelven en una celda) y filas de distinta longitud (la rejilla se rectangulariza al ancho máximo, rellenando con celdas vacías). Saltos de línea/tabs en una celda se colapsan a espacios para que no desborde a otras filas."
- name: title
desc: "Título opcional dibujado encima de la tabla, en negrita tinta #1b1b1b, alineado a la izquierda. None o \"\" => sin título. Default None."
- name: note
desc: "Nota opcional al pie de la figura, en gris #8a8a8a e itálica. None o \"\" => sin nota. Default None."
- name: fontsize
desc: "Tamaño de fuente base (pt) de las celdas del cuerpo. La cabecera usa fontsize+3 y la nota max(7, fontsize-1). Un valor no numérico o <= 0 cae a 9.0. Default 9.0."
- name: max_cell_chars
desc: "Trunca el texto de cada celda a este nº de chars (con … final cuando se recorta) para que el ancho no explote. Un valor no entero cae a 40; <= 0 deja las celdas vacías. Default 40."
output: "Un matplotlib.figure.Figure (figsize proporcional al contenido: ancho ≈ 0.9-1.6\" por columna según su texto, total acotado a 3-26\"; alto ≈ 0.32\" por fila + cabecera + espacio para título/nota, acotado) con un Axes sin ejes que contiene un ax.table(...) NO cerrado. Cabecera fondo #eef3f6 texto #1b1b1b bold; filas pares (1-based) zebra #f6f8fa, impares blanco; tinta #1b1b1b; bordes/rejilla #cccccc lw 0.4; texto alineado a la izquierda. Título encima (bold) y nota debajo (gris itálica) si se pasan. Si header/rows son vacíos o None, o ante cualquier error interno, devuelve una Figure placeholder pequeña con el texto centrado \"(tabla no disponible)\". NUNCA lanza. El caller la rasteriza (dpi=220, bbox_inches='tight') y la cierra; la función no la muestra ni la guarda."
---
## Ejemplo
```python
import sys, os
sys.path.insert(0, os.path.join("python", "functions"))
from datascience.render_table_as_figure import render_table_as_figure
# Tabla que no cabe como texto en la slide -> se rasteriza y se lee con zoom.
header = ["columna", "n_nulos", "%_nulos", "distintos", "tipo", "ejemplo"]
rows = [
["ingresos", 12, "1.2%", 980, "float64", "2345.67"],
["edad", 0, "0.0%", 88, "int64", "37"],
["ciudad", 5, "0.5%", 412, "object", "Madrid"],
["categoria_producto", 0, "0.0%", 1840, "object",
"un_valor_categorico_muy_largo_que_se_trunca"],
]
fig = render_table_as_figure(
header,
rows,
title="Resumen de columnas",
note="rasteriza a dpi=220 y haz zoom en el móvil",
fontsize=9.0,
max_cell_chars=40,
)
# El renderer del informe lo rasteriza a alta resolución; aquí lo persistimos.
fig.savefig("/tmp/tabla.png", dpi=220, bbox_inches="tight")
```
## Cuando usarla
Úsala en un informe EDA cuando una tabla **no cabe como texto** en una página o
slide y prefieres una imagen nítida que el lector pueda ampliar en el móvil para
leerla entera (perfiles de columnas, matrices de conteo, tablas de frecuencias
con muchas filas o columnas anchas). Pásale la cabecera y las filas tal cual (los
valores se `str()`-ean por ti) más un `title`/`note` opcionales; el llamante la
rasteriza a `dpi=220` con `bbox_inches='tight'`. Es la pareja "tabla-como-imagen"
de los gráficos `build_boxplots_figure` / `categorical_top_pie_figure`: misma
paleta y mismo contrato (Agg, sin `pyplot`, el caller cierra la figura).
## Gotchas
- **Impura por matplotlib.** Toca la maquinaria de render. Usa el backend `Agg`
y la API orientada a objetos `Figure`/`add_subplot` — NUNCA `pyplot.*` aquí,
para no tocar el estado global ni filtrar figuras entre llamadas. `pyplot` NO
es thread-safe; esta función construye el `Figure` directamente, así que es
segura de llamar en bucle desde el renderer.
- **El caller cierra la figura.** Devuelve el `Figure` pero no lo muestra ni lo
guarda. Quien la consume debe rasterizarla y luego liberarla
(`matplotlib.pyplot.close(fig)`) para no acumular memoria en lotes grandes.
- **Pensada para rasterizar a DPI alto.** El `figsize` es proporcional al
contenido pero la legibilidad real viene del DPI: rasteriza con `dpi=220` y
`bbox_inches='tight'`. Una tabla con muchísimas filas crece en alto (capado a
~60") — para miles de filas, parte la tabla o resume antes de pasarla.
- **Truncación de celda visible.** Cada celda se recorta a `max_cell_chars`
(default 40) con `…` final y los saltos de línea/tabs se colapsan a espacios,
para que ninguna celda desborde a otras filas. Sube `max_cell_chars` si
necesitas ver el valor completo (a costa de ancho).
- **Defensiva, nunca lanza.** `header`/`rows` vacíos o `None`, filas escalares,
filas de distinta longitud o cualquier error interno se manejan sin propagar:
en el peor caso devuelve una `Figure` placeholder con "(tabla no disponible)".
No envuelvas la llamada en try/except por miedo a un raise — no lo hay.
@@ -0,0 +1,241 @@
"""Impure EDA helper: a crisp table rendered as a matplotlib Figure (`eda` group).
Draws a tabular block (header + rows) as a sharp ``matplotlib.figure.Figure``
ready to be rasterized at high DPI, so a table that does NOT fit as text on a
page/slide can still be read in full by zooming into the rasterized image on a
phone. The header is shaded and bold, even rows carry a soft zebra stripe, the
ink is dark on white and the grid is very thin.
Impure because it touches matplotlib's rendering machinery. It uses the headless
Agg backend and the object-oriented ``Figure`` API (no ``pyplot``) so it leaks no
global state and is safe to call repeatedly from a report renderer. It is fully
defensive and NEVER raises: empty/invalid input or any internal error returns a
small placeholder figure carrying a centered "(tabla no disponible)".
"""
import matplotlib
matplotlib.use("Agg")
from matplotlib.figure import Figure # noqa: E402
# Palette shared with the EDA report renderer so the document stays coherent.
_HEADER_BG = "#eef3f6" # header cell background.
_HEADER_TEXT = "#1b1b1b" # header cell text (bold).
_ZEBRA_BG = "#f6f8fa" # even (1-based) row background stripe.
_BODY_BG = "#ffffff" # odd row background.
_INK = "#1b1b1b" # body text + title ink.
_GRID = "#cccccc" # cell borders / grid (thin).
_NOTE_TEXT = "#8a8a8a" # muted gray for the note (italic).
def _placeholder_figure(message: str = "(tabla no disponible)") -> "Figure":
"""Return a small fallback ``Figure`` carrying a single centered message."""
fig = Figure(figsize=(6.0, 1.6), dpi=150)
ax = fig.add_subplot(111)
ax.axis("off")
ax.text(
0.5,
0.5,
message,
ha="center",
va="center",
fontsize=11,
color=_NOTE_TEXT,
style="italic",
wrap=True,
transform=ax.transAxes,
)
fig.tight_layout()
return fig
def _cell_text(value, max_cell_chars: int) -> str:
"""``str()`` a cell value defensively, None -> "", truncate with an ellipsis."""
s = "" if value is None else str(value)
# Collapse newlines/tabs so a single cell never spills across table rows.
s = s.replace("\n", " ").replace("\r", " ").replace("\t", " ")
try:
limit = int(max_cell_chars)
except (TypeError, ValueError):
limit = 40
if limit <= 0:
return ""
if len(s) <= limit:
return s
if limit == 1:
return ""
return s[: limit - 1] + ""
def render_table_as_figure(
header,
rows,
title=None,
note=None,
fontsize=9.0,
max_cell_chars=40,
):
"""Dibuja una tabla nítida como matplotlib.figure.Figure, lista para rasterizar a DPI alto.
Pensada para tablas que NO caben como texto en una página/slide: se rasteriza
a alta resolución y el usuario hace zoom en el móvil para leerla entera sin
perder datos. Cabecera sombreada + negrita, filas pares con zebra suave,
tinta oscura sobre blanco, rejilla muy fina.
Args:
header: lista de nombres de columna (puede ser []).
rows: lista de filas; cada fila es una lista de celdas (valores cualquiera, se str()-ean).
title: título opcional dibujado encima de la tabla (o None).
note: nota opcional en gris/itálica bajo la tabla (o None).
fontsize: tamaño de fuente base (pt) de las celdas.
max_cell_chars: trunca el texto de celda a este nº de chars (con … final) para que no explote el ancho.
Returns:
matplotlib.figure.Figure — NO cerrada (el llamante la rasteriza y la cierra).
Nunca lanza: ante cualquier error devuelve una Figure con el texto "(tabla no disponible)".
"""
try:
# --- Defensive normalization of header/rows into a rectangular grid.
header_list = list(header) if isinstance(header, (list, tuple)) else []
raw_rows = list(rows) if isinstance(rows, (list, tuple)) else []
clean_rows = []
for row in raw_rows:
if isinstance(row, (list, tuple)):
clean_rows.append(list(row))
elif row is None:
clean_rows.append([])
else:
# A scalar row becomes a single-cell row instead of being dropped.
clean_rows.append([row])
# Nothing to draw at all -> placeholder.
if not header_list and not clean_rows:
return _placeholder_figure()
# Number of columns = widest of header / any row.
n_cols = len(header_list)
for row in clean_rows:
if len(row) > n_cols:
n_cols = len(row)
if n_cols <= 0:
return _placeholder_figure()
# Base font size, tolerate a bad value.
try:
base_fs = float(fontsize)
except (TypeError, ValueError):
base_fs = 9.0
if base_fs <= 0:
base_fs = 9.0
# --- Build the truncated, padded text matrix.
header_cells = [
_cell_text(header_list[c] if c < len(header_list) else "", max_cell_chars)
for c in range(n_cols)
]
body_cells = []
for row in clean_rows:
body_cells.append(
[
_cell_text(row[c] if c < len(row) else "", max_cell_chars)
for c in range(n_cols)
]
)
has_header = any(t for t in header_cells)
n_body = len(body_cells)
# Total drawn table rows (header counts as one when present).
n_table_rows = n_body + (1 if has_header else 0)
if n_table_rows <= 0:
return _placeholder_figure()
# --- figsize proportional to content so it reads under zoom.
# Width: per-column width scales with the longest text in that column,
# clamped to a sensible per-column range, total capped.
per_col_widths = []
for c in range(n_cols):
col_texts = [header_cells[c]] if has_header else []
col_texts += [body_cells[r][c] for r in range(n_body)]
longest = max((len(t) for t in col_texts), default=0)
# ~0.085" per char at the base font, clamped to [0.9, 1.6] inches.
w = 0.9 + 0.085 * max(longest - 6, 0)
w = max(0.9, min(1.6, w))
per_col_widths.append(w)
fig_w = sum(per_col_widths)
fig_w = max(3.0, min(26.0, fig_w))
# Height: ~0.32" per row + room for title / note.
fig_h = 0.32 * n_table_rows + 0.30
if title is not None and str(title) != "":
fig_h += 0.45
if note is not None and str(note) != "":
fig_h += 0.30
fig_h = max(1.0, min(60.0, fig_h))
fig = Figure(figsize=(fig_w, fig_h), dpi=150)
ax = fig.add_subplot(111)
ax.axis("off")
# Reserve vertical bands for the optional title (top) and note (bottom)
# so the table itself never overlaps them.
title_band = 0.10 if (title is not None and str(title) != "") else 0.0
note_band = 0.07 if (note is not None and str(note) != "") else 0.0
table_bbox = [0.0, note_band, 1.0, max(0.05, 1.0 - title_band - note_band)]
cell_text = ([header_cells] if has_header else []) + body_cells
col_widths = [w / fig_w for w in per_col_widths]
table = ax.table(
cellText=cell_text,
colWidths=col_widths,
cellLoc="left",
loc="center",
bbox=table_bbox,
)
table.auto_set_font_size(False)
table.set_fontsize(base_fs)
# --- Style every cell: zebra body, shaded bold header, thin gray grid.
for (r, _c), cell in table.get_celld().items():
cell.set_edgecolor(_GRID)
cell.set_linewidth(0.4)
# Small horizontal padding so text does not touch the border.
cell.PAD = 0.04
if has_header and r == 0:
cell.set_facecolor(_HEADER_BG)
cell.set_text_props(color=_HEADER_TEXT, fontweight="bold", ha="left")
else:
body_index = r - 1 if has_header else r # 0-based body row.
# 1-based even rows get the zebra stripe.
is_even = ((body_index + 1) % 2) == 0
cell.set_facecolor(_ZEBRA_BG if is_even else _BODY_BG)
cell.set_text_props(color=_INK, ha="left")
if title is not None and str(title) != "":
ax.set_title(
str(title),
fontsize=base_fs + 3.0,
fontweight="bold",
color=_INK,
loc="left",
pad=8,
)
if note is not None and str(note) != "":
fig.text(
0.01,
0.01,
str(note),
ha="left",
va="bottom",
fontsize=max(7.0, base_fs - 1.0),
color=_NOTE_TEXT,
style="italic",
)
return fig
except Exception: # noqa: BLE001 — never raise from a figure builder.
return _placeholder_figure()
@@ -0,0 +1,119 @@
"""Tests para render_table_as_figure (tabla nítida como Figure, grupo eda).
Usa el backend Agg sin display; no muestra ni guarda figuras a disco salvo a un
BytesIO en memoria. Cada test cierra explícitamente la Figure construida
(matplotlib.pyplot.close) para no acumular estado entre tests.
"""
from io import BytesIO
import matplotlib
matplotlib.use("Agg")
import matplotlib.pyplot as plt # noqa: E402
from matplotlib.figure import Figure # noqa: E402
from render_table_as_figure import render_table_as_figure
def _grid(n_cols, n_rows):
"""Cabecera de n_cols columnas + n_rows filas de celdas."""
header = [f"col_{c}" for c in range(n_cols)]
rows = [[f"r{r}c{c}" for c in range(n_cols)] for r in range(n_rows)]
return header, rows
def test_returns_figure_with_table():
header, rows = _grid(6, 5)
fig = render_table_as_figure(header, rows, title="Tabla", note="nota al pie")
assert isinstance(fig, Figure)
# Hay al menos un Axes y ese Axes contiene una tabla con celdas.
assert len(fig.axes) >= 1
ax = fig.axes[0]
assert len(ax.tables) >= 1
# 6 columnas x (1 cabecera + 5 filas) = 36 celdas.
assert len(ax.tables[0].get_celld()) == 6 * (5 + 1)
plt.close(fig)
def test_rows_none_does_not_raise():
fig = render_table_as_figure(["a", "b"], None)
assert isinstance(fig, Figure)
assert len(fig.axes) >= 1
plt.close(fig)
def test_header_none_does_not_raise():
fig = render_table_as_figure(None, [["x", "y"], ["z", "w"]])
assert isinstance(fig, Figure)
assert len(fig.axes) >= 1
plt.close(fig)
def test_empty_lists_return_placeholder_figure():
fig = render_table_as_figure([], [])
assert isinstance(fig, Figure)
# Placeholder: un Axes con texto, sin tabla.
assert len(fig.axes) >= 1
assert len(fig.axes[0].tables) == 0
plt.close(fig)
def test_both_none_return_placeholder_figure():
fig = render_table_as_figure(None, None)
assert isinstance(fig, Figure)
assert len(fig.axes[0].tables) == 0
plt.close(fig)
def test_long_cell_is_truncated():
long_value = "x" * 200
header, _ = _grid(2, 0)
fig = render_table_as_figure(header, [[long_value, "ok"]], max_cell_chars=20)
assert isinstance(fig, Figure)
ax = fig.axes[0]
texts = [c.get_text().get_text() for c in ax.tables[0].get_celld().values()]
# La celda larga aparece truncada con elipsis y nunca en su forma completa.
assert any(t.endswith("") and len(t) <= 20 for t in texts)
assert long_value not in texts
plt.close(fig)
def test_none_cells_become_empty_strings():
fig = render_table_as_figure(["a", "b"], [[None, "v"], ["w", None]])
assert isinstance(fig, Figure)
ax = fig.axes[0]
texts = [c.get_text().get_text() for c in ax.tables[0].get_celld().values()]
# Hay celdas vacías (los None) y celdas con valor.
assert "" in texts
assert "v" in texts
plt.close(fig)
def test_can_rasterize_to_png_high_dpi():
header, rows = _grid(6, 8)
fig = render_table_as_figure(header, rows, title="Render", note="zoom me")
buf = BytesIO()
# No debe lanzar al rasterizar a DPI alto con bbox tight.
fig.savefig(buf, format="png", dpi=220, bbox_inches="tight")
assert buf.getbuffer().nbytes > 0
plt.close(fig)
def test_placeholder_can_rasterize():
fig = render_table_as_figure([], [])
buf = BytesIO()
fig.savefig(buf, format="png", dpi=220, bbox_inches="tight")
assert buf.getbuffer().nbytes > 0
plt.close(fig)
def test_ragged_rows_are_padded():
# Filas de distinta longitud: la rejilla se rectangulariza al ancho máximo.
fig = render_table_as_figure(["a", "b", "c"], [["1"], ["1", "2", "3", "4"]])
assert isinstance(fig, Figure)
ax = fig.axes[0]
# 4 columnas (la fila más ancha) x (1 cabecera + 2 filas) = 12 celdas.
assert len(ax.tables[0].get_celld()) == 4 * (2 + 1)
plt.close(fig)
@@ -0,0 +1,106 @@
---
name: profile_bq_table
kind: pipeline
lang: py
domain: pipelines
purity: impure
version: "1.1.0"
signature: "def profile_bq_table(table_fqn: str, sample_frac: float = None, max_rows: int = 0, pseudonymize_cols: list = None, run_models: bool = True, run_series: bool = False, run_llm: bool = False, project_id: str = \"\", report_dir: str = \"reports\", duckdb_path: str = \"\", keep_duckdb: bool = False) -> dict"
description: "EDA one-shot de una tabla o vista de BigQuery: materializa el origen COMPLETO por defecto (todas las filas; muestreo opt-in con sample_frac; seudonimizacion PII opcional, LOPDGDD/RGPD) a un DuckDB local con load_bq_table_to_duckdb y lo perfila end-to-end con profile_table del grupo de capacidad eda, emitiendo el informe AutomaticEDA (PDF A5 movil + PPTX 16:9), Markdown y JSON sidecar. Es el adaptador BigQuery que faltaba en el grupo eda, resuelto por composicion (BigQuery -> DuckDB local -> profile_table) sin duplicar la logica de perfilado ni de render. Es el hazme un EDA de esta tabla BigQuery en una sola llamada, sobre el total de filas por defecto."
tags: [eda, bigquery, launcher]
uses_functions:
- load_bq_table_to_duckdb_py_datascience
- profile_table_py_pipelines
uses_types: []
returns: []
returns_optional: false
error_type: error_go_core
imports: []
tested: false
tests: []
test_file_path: ""
file_path: "python/functions/pipelines/profile_bq_table.py"
params:
- name: table_fqn
desc: "FQN de la tabla/vista BigQuery: `project.dataset.table`."
- name: sample_frac
desc: "None (DEFAULT) = FULL, perfila TODAS las filas del origen. Un float en (0,1) activa el muestreo opt-in (`WHERE rand() < frac`, ~frac del total)."
- name: max_rows
desc: "Tope duro opcional de filas (LIMIT). 0 (DEFAULT) = sin tope. Se combina con sample_frac si ambos se pasan."
- name: pseudonymize_cols
desc: "Columnas PII a seudonimizar (hash) antes de materializar (LOPDGDD/RGPD). Preserva nulos y cardinalidad."
- name: run_models
desc: "PCA/KMeans/IsolationForest/normalidad sobre numericas. Default True (informe AutomaticEDA completo)."
- name: run_series
desc: "Analisis de serie temporal por columna numerica. Default False."
- name: run_llm
desc: "1 llamada LLM sobre el perfil agregado (nunca filas crudas). Default False."
- name: project_id
desc: "Proyecto GCP de facturacion. Vacio = primer segmento del FQN."
- name: report_dir
desc: "Directorio de salida de los reports. Default 'reports' (artefacto local gitignored)."
- name: duckdb_path
desc: "Ruta DuckDB a usar. Vacio = temporal autogestionado."
- name: keep_duckdb
desc: "Si True conserva el DuckDB materializado (para el notebook Jupyter). Default False."
output: "dict dict-no-throw. En exito {status:'ok', table_fqn, load:{n_rows_source,n_rows_fetched,sampled,sample_frac,pseudonymized,table}, duckdb_path, report_md_path, report_json_path, aeda_pdf_path, aeda_pptx_path, aeda_manifest_path, profile}. En error {status:'error', error, stage}."
---
## Ejemplo
```python
from pipelines.profile_bq_table import profile_bq_table
# FULL por defecto: EDA sobre TODAS las filas de la vista (3,8M).
r = profile_bq_table(
"autingo-159109.customer_marts.customer_profile",
pseudonymize_cols=["document_number", "full_name", "email", "phone", "postal_code", "salesforce_customer_id"],
run_models=True,
)
print(r["load"]["n_rows_fetched"], "filas perfiladas, sampled=", r["load"]["sampled"])
print(r["aeda_pdf_path"]); print(r["aeda_pptx_path"]); print(r["report_md_path"])
# Muestreo opt-in: EDA sobre ~5 % de las filas (tabla enorme / iteracion rapida).
r = profile_bq_table(
"autingo-159109.customer_marts.customer_profile",
sample_frac=0.05,
pseudonymize_cols=["document_number", "full_name", "email", "phone", "postal_code", "salesforce_customer_id"],
)
```
## Cuando usarla
Cuando pidan un EDA de una tabla o vista de BigQuery ("hazme un EDA de esta
tabla BigQuery"). Es el adaptador BigQuery del grupo de capacidad `eda` por
composicion: trae el origen COMPLETO (todas las filas, por defecto) a un DuckDB
local y delega todo el perfilado y render en `profile_table`, sin adaptador
BigQuery nativo ni logica de EDA duplicada. Usala como primer paso al recibir un
dataset BigQuery desconocido, antes de modelar o limpiar, o para auditar la
calidad de una vista ya productiva. Para iteracion rapida o tablas que no quepan
en RAM, pasa `sample_frac` (muestreo opt-in).
## Gotchas
- Impura: requiere ADC de BigQuery configurado (Application Default Credentials)
para que `load_bq_table_to_duckdb` autentique contra el proyecto.
- FULL por defecto: `sample_frac=None` perfila TODAS las filas del origen. Una
vista de millones de filas se trae entera a RAM (varios GB posibles) antes de
materializar en DuckDB; el fetch usa el BigQuery Storage Read API (Arrow) cuando
esta disponible, mucho mas rapido que REST. Para acotar coste/memoria, pasa
`sample_frac` in (0,1) (muestreo opt-in) o `max_rows` (tope duro). Si por limite
de recursos no cabe el total, dilo explicito con el maximo que si se cargo.
- Seudonimiza PII con `pseudonymize_cols` para cumplir LOPDGDD/RGPD ANTES de
escribir a disco: nombres, DNI/NIE, email, telefono, direccion, IDs de cliente,
etc. Se hashean preservando nulos y cardinalidad. Sin seudonimizar, la muestra
materializada (DuckDB + reports) contiene datos personales reales [POL-MMNSEG-001-1.0].
- El DuckDB temporal se borra al terminar salvo `keep_duckdb=True` (pasalo para
seguir explorando la muestra desde un notebook Jupyter). Si pasas `duckdb_path`
explicito, la ruta se respeta y solo se conserva con `keep_duckdb=True`.
- Escribe reports a `report_dir` (default 'reports', artefacto local gitignored):
Markdown + JSON sidecar + PDF A5 movil + PPTX 16:9 del informe AutomaticEDA.
- `run_llm=True` gasta tokens (haiku) pero solo envia el perfil agregado, nunca
filas crudas ni datos personales.
## Capability growth log
- v1.1.0 (2026-07-01) — FULL pasa a ser el DEFAULT del pipeline: se sustituye `max_rows=300000, sample=True` por `sample_frac=None` (None = perfila todas las filas) + `max_rows=0` (tope duro opcional). El muestreo es opt-in explicito (`sample_frac`). Alinea con la preferencia estandar del usuario: los EDA se corren sobre el total salvo que se pida lo contrario. Hereda el fetch acelerado (Arrow/bqstorage) de `load_bq_table_to_duckdb` v1.1.0.
@@ -0,0 +1,138 @@
"""profile_bq_table — EDA one-shot de una tabla/vista BigQuery con el grupo `eda`.
Pipeline impuro: materializa una tabla o vista de BigQuery (por defecto COMPLETA —
todas las filas — o una muestra si se pasa `sample_frac`, con seudonimizacion PII
opcional, LOPDGDD/RGPD) a un DuckDB local con `load_bq_table_to_duckdb`, y la
perfila end-to-end con `profile_table` del grupo de capacidad `eda`, emitiendo el
informe AutomaticEDA (PDF A5 movil + PPTX 16:9), Markdown y JSON sidecar. Es el
adaptador BigQuery que faltaba en el grupo `eda`, resuelto por composicion
(BigQuery -> DuckDB local -> profile_table) sin duplicar la logica de perfilado ni
de render.
Modo por defecto = FULL: `sample_frac=None` perfila TODAS las filas del origen
(preferencia estandar del usuario: los EDA se corren sobre el total salvo que se
pida lo contrario). El muestreo es opt-in explicito: `sample_frac=0.05` perfila
~5 % de las filas; `max_rows` es un tope duro opcional (0 = sin tope).
Funciones del registry compuestas (NO se reimplementa su logica):
- load_bq_table_to_duckdb : trae la tabla/vista BigQuery a un DuckDB local
(completa por defecto, o muestra si sample_frac).
- profile_table : orquestador one-shot del grupo `eda` que perfila la
DuckDB materializada y emite el informe AutomaticEDA.
Estilo dict-no-throw del grupo `eda`: nunca lanza; devuelve {status:'error', ...}.
"""
import os
import tempfile
from datascience import load_bq_table_to_duckdb
from pipelines.profile_table import profile_table
def profile_bq_table(
table_fqn: str,
sample_frac: float = None,
max_rows: int = 0,
pseudonymize_cols: list = None,
run_models: bool = True,
run_series: bool = False,
run_llm: bool = False,
project_id: str = "",
report_dir: str = "reports",
duckdb_path: str = "",
keep_duckdb: bool = False,
) -> dict:
"""EDA one-shot de una tabla/vista BigQuery.
Por defecto perfila TODAS las filas del origen (`sample_frac=None`, modo FULL).
Materializa el origen (con seudonimizacion PII opcional) a un DuckDB local y lo
perfila con `profile_table` del grupo `eda`, emitiendo el informe AutomaticEDA
(PDF A5 movil + PPTX 16:9) + Markdown + JSON sidecar.
Args:
table_fqn: FQN de la tabla/vista BigQuery ("project.dataset.table").
sample_frac: None (default) = FULL, perfila todas las filas. Un float en
(0,1) activa el muestreo opt-in (`WHERE rand() < frac`, ~frac del total).
max_rows: Tope duro opcional de filas (LIMIT). 0 (default) = sin tope.
pseudonymize_cols: Columnas PII a seudonimizar (hash) antes de materializar.
run_models: Modelos baratos (PCA/KMeans/IsolationForest/normalidad).
run_series: Analisis de serie temporal por columna numerica.
run_llm: 1 llamada LLM sobre el perfil agregado (nunca filas crudas).
project_id: Proyecto GCP de facturacion. Vacio = primer segmento del FQN.
report_dir: Directorio de salida de los reports.
duckdb_path: Ruta DuckDB a usar. Vacio = temporal autogestionado.
keep_duckdb: Si True conserva el DuckDB materializado.
Returns:
dict dict-no-throw con el resultado del pipeline (ver output del .md).
"""
tmp_created = False
try:
# DuckDB temporal si no se pasa ruta.
if not duckdb_path:
fd, duckdb_path = tempfile.mkstemp(prefix="eda_bq_", suffix=".duckdb")
os.close(fd)
os.remove(duckdb_path) # que lo cree DuckDB limpio
tmp_created = True
load = load_bq_table_to_duckdb(
table_fqn,
duckdb_path,
sample_frac=sample_frac,
max_rows=max_rows,
project_id=project_id,
pseudonymize_cols=pseudonymize_cols,
)
if load.get("status") != "ok":
return {
"status": "error",
"error": load.get("error", "load fallo"),
"stage": "load",
}
prof = profile_table(
duckdb_path,
load["table"],
backend="duckdb",
run_models=run_models,
run_series=run_series,
run_llm=run_llm,
emit_automatic=True, # PDF A5 movil + PPTX 16:9
emit_pdf=False,
write_report=True, # Markdown + JSON sidecar
report_dir=report_dir,
)
if prof.get("status") != "ok":
return {
"status": "error",
"error": prof.get("error", "profile fallo"),
"stage": "profile",
"load": load,
}
return {
"status": "ok",
"table_fqn": table_fqn,
"load": {
k: load[k]
for k in ("n_rows_source", "n_rows_fetched", "sampled", "sample_frac", "pseudonymized", "table")
if k in load
},
"duckdb_path": duckdb_path if keep_duckdb else None,
"report_md_path": prof.get("report_md_path"),
"report_json_path": prof.get("report_json_path"),
"aeda_pdf_path": prof.get("aeda_pdf_path"),
"aeda_pptx_path": prof.get("aeda_pptx_path"),
"aeda_manifest_path": prof.get("aeda_manifest_path"),
"profile": prof.get("profile"),
}
except Exception as e: # noqa: BLE001
return {"status": "error", "error": str(e)}
finally:
# Limpia el DuckDB temporal salvo que se pida conservarlo.
if tmp_created and not keep_duckdb and duckdb_path and os.path.exists(duckdb_path):
try:
os.remove(duckdb_path)
except OSError:
pass
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import google.auth
from google.cloud import bigquery
_creds, _ = google.auth.default(scopes=['https://www.googleapis.com/auth/bigquery'])
_creds = _creds.with_quota_project(None)
client = bigquery.Client(project='autingo-159109', location='europe-west1', credentials=_creds)
def q(sql):
return client.query(sql).result().to_dataframe()
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{"c1": 12363, "c2": 12364, "c3": 12365}
+61
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@@ -0,0 +1,61 @@
ensena,year,mes,diego,bq_neto,match
Aurgi,2023,feb,80.52,,
Aurgi,2023,mar,89.94,,
Aurgi,2023,abr,76.87,,
Aurgi,2023,may,87.95,,
Aurgi,2023,jun,97.84,,
Aurgi,2023,jul,138.24,,
Aurgi,2023,ago,89.7,,
Aurgi,2023,sep,61.53,,
Aurgi,2023,oct,56.48,,
Aurgi,2023,nov,73.2,,
Aurgi,2023,dic,78.81,,
Aurgi,2024,ene,75.34,75.35,100.0
Aurgi,2024,feb,60.21,60.21,100.0
Aurgi,2024,mar,70.62,71.26,99.1
Aurgi,2024,abr,70.46,70.46,100.0
Aurgi,2024,may,84.76,84.76,100.0
Aurgi,2024,jun,108.7,108.7,100.0
Aurgi,2024,jul,141.2,141.2,100.0
Aurgi,2024,ago,100.18,100.18,100.0
Aurgi,2024,sep,67.91,67.91,100.0
Aurgi,2024,oct,81.31,81.31,100.0
Aurgi,2024,nov,71.57,71.57,100.0
Aurgi,2024,dic,74.33,74.33,100.0
Aurgi,2025,ene,86.28,86.28,100.0
Aurgi,2025,feb,53.05,53.05,100.0
Aurgi,2025,mar,86.75,86.75,100.0
Aurgi,2025,abr,83.89,83.89,100.0
Aurgi,2025,may,84.24,84.24,100.0
Aurgi,2025,jun,134.46,134.46,100.0
Aurgi,2025,jul,101.17,174.32,58.0
MT,2023,feb,30.19,,
MT,2023,mar,41.89,,
MT,2023,abr,36.16,,
MT,2023,may,42.01,,
MT,2023,jun,44.24,,
MT,2023,jul,63.61,,
MT,2023,ago,40.7,,
MT,2023,sep,28.6,,
MT,2023,oct,28.79,,
MT,2023,nov,30.3,,
MT,2023,dic,35.21,,
MT,2024,ene,38.13,38.13,100.0
MT,2024,feb,32.44,32.44,100.0
MT,2024,mar,35.17,35.18,100.0
MT,2024,abr,35.38,35.38,100.0
MT,2024,may,37.58,37.58,100.0
MT,2024,jun,44.54,44.54,100.0
MT,2024,jul,58.92,58.92,100.0
MT,2024,ago,40.97,40.98,100.0
MT,2024,sep,35.03,35.03,100.0
MT,2024,oct,38.86,38.86,100.0
MT,2024,nov,36.48,36.48,100.0
MT,2024,dic,40.52,40.52,100.0
MT,2025,ene,39.16,39.16,100.0
MT,2025,feb,28.16,28.16,100.0
MT,2025,mar,42.26,42.26,100.0
MT,2025,abr,44.04,44.04,100.0
MT,2025,may,52.71,52.71,100.0
MT,2025,jun,63.54,63.54,100.0
MT,2025,jul,49.47,84.94,58.2
1 ensena year mes diego bq_neto match
2 Aurgi 2023 feb 80.52
3 Aurgi 2023 mar 89.94
4 Aurgi 2023 abr 76.87
5 Aurgi 2023 may 87.95
6 Aurgi 2023 jun 97.84
7 Aurgi 2023 jul 138.24
8 Aurgi 2023 ago 89.7
9 Aurgi 2023 sep 61.53
10 Aurgi 2023 oct 56.48
11 Aurgi 2023 nov 73.2
12 Aurgi 2023 dic 78.81
13 Aurgi 2024 ene 75.34 75.35 100.0
14 Aurgi 2024 feb 60.21 60.21 100.0
15 Aurgi 2024 mar 70.62 71.26 99.1
16 Aurgi 2024 abr 70.46 70.46 100.0
17 Aurgi 2024 may 84.76 84.76 100.0
18 Aurgi 2024 jun 108.7 108.7 100.0
19 Aurgi 2024 jul 141.2 141.2 100.0
20 Aurgi 2024 ago 100.18 100.18 100.0
21 Aurgi 2024 sep 67.91 67.91 100.0
22 Aurgi 2024 oct 81.31 81.31 100.0
23 Aurgi 2024 nov 71.57 71.57 100.0
24 Aurgi 2024 dic 74.33 74.33 100.0
25 Aurgi 2025 ene 86.28 86.28 100.0
26 Aurgi 2025 feb 53.05 53.05 100.0
27 Aurgi 2025 mar 86.75 86.75 100.0
28 Aurgi 2025 abr 83.89 83.89 100.0
29 Aurgi 2025 may 84.24 84.24 100.0
30 Aurgi 2025 jun 134.46 134.46 100.0
31 Aurgi 2025 jul 101.17 174.32 58.0
32 MT 2023 feb 30.19
33 MT 2023 mar 41.89
34 MT 2023 abr 36.16
35 MT 2023 may 42.01
36 MT 2023 jun 44.24
37 MT 2023 jul 63.61
38 MT 2023 ago 40.7
39 MT 2023 sep 28.6
40 MT 2023 oct 28.79
41 MT 2023 nov 30.3
42 MT 2023 dic 35.21
43 MT 2024 ene 38.13 38.13 100.0
44 MT 2024 feb 32.44 32.44 100.0
45 MT 2024 mar 35.17 35.18 100.0
46 MT 2024 abr 35.38 35.38 100.0
47 MT 2024 may 37.58 37.58 100.0
48 MT 2024 jun 44.54 44.54 100.0
49 MT 2024 jul 58.92 58.92 100.0
50 MT 2024 ago 40.97 40.98 100.0
51 MT 2024 sep 35.03 35.03 100.0
52 MT 2024 oct 38.86 38.86 100.0
53 MT 2024 nov 36.48 36.48 100.0
54 MT 2024 dic 40.52 40.52 100.0
55 MT 2025 ene 39.16 39.16 100.0
56 MT 2025 feb 28.16 28.16 100.0
57 MT 2025 mar 42.26 42.26 100.0
58 MT 2025 abr 44.04 44.04 100.0
59 MT 2025 may 52.71 52.71 100.0
60 MT 2025 jun 63.54 63.54 100.0
61 MT 2025 jul 49.47 84.94 58.2
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https://reports.autingo.es/dashboard/1142
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STRUCT(DATE(2023,2,1) AS mes, 80.515 AS diego_neto_k, 1 AS company_id),
STRUCT(DATE(2023,3,1) AS mes, 89.936 AS diego_neto_k, 1 AS company_id),
STRUCT(DATE(2023,4,1) AS mes, 76.866 AS diego_neto_k, 1 AS company_id),
STRUCT(DATE(2023,5,1) AS mes, 87.952 AS diego_neto_k, 1 AS company_id),
STRUCT(DATE(2023,6,1) AS mes, 97.84 AS diego_neto_k, 1 AS company_id),
STRUCT(DATE(2023,7,1) AS mes, 138.24 AS diego_neto_k, 1 AS company_id),
STRUCT(DATE(2023,8,1) AS mes, 89.7 AS diego_neto_k, 1 AS company_id),
STRUCT(DATE(2023,9,1) AS mes, 61.53 AS diego_neto_k, 1 AS company_id),
STRUCT(DATE(2023,10,1) AS mes, 56.48 AS diego_neto_k, 1 AS company_id),
STRUCT(DATE(2023,11,1) AS mes, 73.2 AS diego_neto_k, 1 AS company_id),
STRUCT(DATE(2023,12,1) AS mes, 78.81 AS diego_neto_k, 1 AS company_id),
STRUCT(DATE(2024,1,1) AS mes, 75.345 AS diego_neto_k, 1 AS company_id),
STRUCT(DATE(2024,2,1) AS mes, 60.211 AS diego_neto_k, 1 AS company_id),
STRUCT(DATE(2024,3,1) AS mes, 70.62 AS diego_neto_k, 1 AS company_id),
STRUCT(DATE(2024,4,1) AS mes, 70.456 AS diego_neto_k, 1 AS company_id),
STRUCT(DATE(2024,5,1) AS mes, 84.759 AS diego_neto_k, 1 AS company_id),
STRUCT(DATE(2024,6,1) AS mes, 108.702 AS diego_neto_k, 1 AS company_id),
STRUCT(DATE(2024,7,1) AS mes, 141.204 AS diego_neto_k, 1 AS company_id),
STRUCT(DATE(2024,8,1) AS mes, 100.181 AS diego_neto_k, 1 AS company_id),
STRUCT(DATE(2024,9,1) AS mes, 67.91 AS diego_neto_k, 1 AS company_id),
STRUCT(DATE(2024,10,1) AS mes, 81.307 AS diego_neto_k, 1 AS company_id),
STRUCT(DATE(2024,11,1) AS mes, 71.569 AS diego_neto_k, 1 AS company_id),
STRUCT(DATE(2024,12,1) AS mes, 74.329 AS diego_neto_k, 1 AS company_id),
STRUCT(DATE(2025,1,1) AS mes, 86.277 AS diego_neto_k, 1 AS company_id),
STRUCT(DATE(2025,2,1) AS mes, 53.054 AS diego_neto_k, 1 AS company_id),
STRUCT(DATE(2025,3,1) AS mes, 86.749 AS diego_neto_k, 1 AS company_id),
STRUCT(DATE(2025,4,1) AS mes, 83.888 AS diego_neto_k, 1 AS company_id),
STRUCT(DATE(2025,5,1) AS mes, 84.24 AS diego_neto_k, 1 AS company_id),
STRUCT(DATE(2025,6,1) AS mes, 134.464 AS diego_neto_k, 1 AS company_id),
STRUCT(DATE(2025,7,1) AS mes, 101.168 AS diego_neto_k, 1 AS company_id),
STRUCT(DATE(2023,2,1) AS mes, 30.189 AS diego_neto_k, 2 AS company_id),
STRUCT(DATE(2023,3,1) AS mes, 41.89 AS diego_neto_k, 2 AS company_id),
STRUCT(DATE(2023,4,1) AS mes, 36.16 AS diego_neto_k, 2 AS company_id),
STRUCT(DATE(2023,5,1) AS mes, 42.011 AS diego_neto_k, 2 AS company_id),
STRUCT(DATE(2023,6,1) AS mes, 44.24 AS diego_neto_k, 2 AS company_id),
STRUCT(DATE(2023,7,1) AS mes, 63.61 AS diego_neto_k, 2 AS company_id),
STRUCT(DATE(2023,8,1) AS mes, 40.7 AS diego_neto_k, 2 AS company_id),
STRUCT(DATE(2023,9,1) AS mes, 28.6 AS diego_neto_k, 2 AS company_id),
STRUCT(DATE(2023,10,1) AS mes, 28.79 AS diego_neto_k, 2 AS company_id),
STRUCT(DATE(2023,11,1) AS mes, 30.3 AS diego_neto_k, 2 AS company_id),
STRUCT(DATE(2023,12,1) AS mes, 35.207 AS diego_neto_k, 2 AS company_id),
STRUCT(DATE(2024,1,1) AS mes, 38.132 AS diego_neto_k, 2 AS company_id),
STRUCT(DATE(2024,2,1) AS mes, 32.438 AS diego_neto_k, 2 AS company_id),
STRUCT(DATE(2024,3,1) AS mes, 35.174 AS diego_neto_k, 2 AS company_id),
STRUCT(DATE(2024,4,1) AS mes, 35.382 AS diego_neto_k, 2 AS company_id),
STRUCT(DATE(2024,5,1) AS mes, 37.584 AS diego_neto_k, 2 AS company_id),
STRUCT(DATE(2024,6,1) AS mes, 44.54 AS diego_neto_k, 2 AS company_id),
STRUCT(DATE(2024,7,1) AS mes, 58.921 AS diego_neto_k, 2 AS company_id),
STRUCT(DATE(2024,8,1) AS mes, 40.974 AS diego_neto_k, 2 AS company_id),
STRUCT(DATE(2024,9,1) AS mes, 35.029 AS diego_neto_k, 2 AS company_id),
STRUCT(DATE(2024,10,1) AS mes, 38.861 AS diego_neto_k, 2 AS company_id),
STRUCT(DATE(2024,11,1) AS mes, 36.48 AS diego_neto_k, 2 AS company_id),
STRUCT(DATE(2024,12,1) AS mes, 40.522 AS diego_neto_k, 2 AS company_id),
STRUCT(DATE(2025,1,1) AS mes, 39.161 AS diego_neto_k, 2 AS company_id),
STRUCT(DATE(2025,2,1) AS mes, 28.16 AS diego_neto_k, 2 AS company_id),
STRUCT(DATE(2025,3,1) AS mes, 42.263 AS diego_neto_k, 2 AS company_id),
STRUCT(DATE(2025,4,1) AS mes, 44.04 AS diego_neto_k, 2 AS company_id),
STRUCT(DATE(2025,5,1) AS mes, 52.71 AS diego_neto_k, 2 AS company_id),
STRUCT(DATE(2025,6,1) AS mes, 63.544 AS diego_neto_k, 2 AS company_id),
STRUCT(DATE(2025,7,1) AS mes, 49.469 AS diego_neto_k, 2 AS company_id)
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import sys, json
from google.cloud import bigquery
import google.auth
creds=google.auth.default(scopes=['https://www.googleapis.com/auth/bigquery'])[0].with_quota_project(None)
c=bigquery.Client(project='autingo-159109', location='europe-west1', credentials=creds)
sql=sys.stdin.read()
for r in c.query(sql).result():
print(json.dumps(dict(r), default=str))
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import json, os, urllib.request, sys
MB = os.environ["MB"]; KEY = os.environ["KEY"]
def api(method, path, body=None, timeout=180):
data = json.dumps(body).encode() if body is not None else None
req = urllib.request.Request(MB + path, data=data, method=method,
headers={"X-API-KEY": KEY, "Content-Type": "application/json"})
try:
return json.load(urllib.request.urlopen(req, timeout=timeout))
except urllib.error.HTTPError as e:
print(f"HTTP {e.code} on {method} {path}:", e.read().decode()[:1200]); raise
# Bridge documento -> service_request (canal + charged), tal cual 1094 card 11751.
BASE = r"""
WITH vf AS (
SELECT document_id, LOGICAL_OR(is_pw) is_pw FROM (
SELECT CAST(document_id AS STRING) document_id, ANY_VALUE(is_precaweb) is_pw
FROM `autingo-159109.anjana_bi_datamart.VENTAS_aurgi` GROUP BY 1
UNION ALL
SELECT CAST(document_id AS STRING), ANY_VALUE(is_precaweb)
FROM `autingo-159109.anjana_bi_datamart.VENTAS_Motortown` GROUP BY 1
) GROUP BY 1
),
lineas AS (
SELECT
CAST(s.numeroDocumento AS STRING) AS numdoc,
CAST(s.idCentro AS STRING) AS idcentro,
DATE(s.Fecha) AS fecha,
s.Base_imponible_linea AS bil
FROM {{#4494}} s
WHERE DATE(s.Fecha) >= DATE_SUB(CURRENT_DATE(), INTERVAL 365 DAY)
[[AND DATE(s.Fecha) >= {{fecha_desde}}]]
[[AND DATE(s.Fecha) <= {{fecha_hasta}}]]
),
web AS (
SELECT l.numdoc, l.fecha, l.bil, oc.name AS centro, oc.Companies__name AS ambito
FROM lineas l
LEFT JOIN vf ON l.numdoc = vf.document_id
LEFT JOIN `autingo-159109.rag_datasets.Objeto_Centros` oc
ON l.idcentro = CAST(oc.nav_id AS STRING)
WHERE (COALESCE(vf.is_pw, FALSE) OR oc.name IN ('Aurgi Web','MT Web'))
AND (oc.Companies__name IS NULL OR oc.Companies__name NOT IN ('Aurgi Glass','MotorTown Glass'))
[[AND oc.name IN ({{centro}})]]
[[AND oc.Companies__name IN ({{ensena}})]]
),
sr_link AS (
SELECT CAST(inv.nav_id AS STRING) numdoc, CAST(j.service_request_id AS STRING) sr_id
FROM `autingo-159109.psql_dcpublic.tpv_orders_invoice` inv
JOIN `autingo-159109.psql_dcpublic.tpv_precawebs_servicerequestjob` j ON j.order_id = inv.order_id
WHERE inv.nav_id IS NOT NULL
UNION DISTINCT
SELECT CAST(invoice_number AS STRING), CAST(service_request_id AS STRING)
FROM `autingo-159109.psql_dcpublic.logistic_orders`
WHERE invoice_number IS NOT NULL AND invoice_number != ''
),
sr_link1 AS (SELECT numdoc, MIN(sr_id) sr_id FROM sr_link GROUP BY 1),
sr AS (
SELECT CAST(id AS STRING) sr_id, channel_id, charged
FROM `autingo-159109.psql_dcpublic.service_requests`
),
doc AS (
SELECT
w.numdoc,
ANY_VALUE(w.fecha) AS fecha,
SUM(w.bil) AS venta,
ANY_VALUE(sl.sr_id) AS sr_id,
ANY_VALUE(sr.channel_id) AS channel_id,
ANY_VALUE(sr.charged) AS charged
FROM web w
LEFT JOIN sr_link1 sl USING (numdoc)
LEFT JOIN sr ON sr.sr_id = sl.sr_id
GROUP BY w.numdoc
),
fin AS (
SELECT
numdoc, fecha, venta,
CASE WHEN sr_id IS NULL THEN 'Sin solicitud'
WHEN channel_id = 1 THEN 'aurgi.com'
WHEN channel_id = 2 THEN 'motortown.es'
WHEN channel_id = 3 THEN 'Autingo'
WHEN channel_id IN (11,13,14,15,6,8) THEN 'Marketplaces'
WHEN channel_id = 10 THEN 'Talleres Digitales'
ELSE 'Otros' END AS canal,
CASE WHEN sr_id IS NULL THEN 'Sin solicitud'
WHEN charged THEN 'Pago web'
ELSE 'Pago tienda' END AS forma_pago
FROM doc
)
"""
CARDS = {
"total": {
"name": "Venta web total (facturacion NAV / modelo 4494)",
"sql": BASE + "SELECT ROUND(SUM(venta),0) AS venta_web_eur, COUNT(DISTINCT numdoc) AS documentos FROM fin",
"display": "scalar",
},
"canal": {
"name": "Venta web por canal",
"sql": BASE + "SELECT canal, ROUND(SUM(venta),0) AS venta_eur, COUNT(DISTINCT numdoc) AS documentos FROM fin GROUP BY canal ORDER BY venta_eur DESC",
"display": "bar",
},
"pago": {
"name": "Venta web por forma de pago",
"sql": BASE + "SELECT forma_pago, ROUND(SUM(venta),0) AS venta_eur, COUNT(DISTINCT numdoc) AS documentos FROM fin GROUP BY forma_pago ORDER BY venta_eur DESC",
"display": "row",
},
"matriz": {
"name": "Venta web: matriz canal x forma de pago",
"sql": BASE + "SELECT canal, forma_pago, ROUND(SUM(venta),0) AS venta_eur, COUNT(DISTINCT numdoc) AS documentos FROM fin GROUP BY canal, forma_pago ORDER BY venta_eur DESC",
"display": "table",
},
"evolutivo": {
"name": "Venta web mensual por canal",
"sql": BASE + "SELECT DATE_TRUNC(fecha, MONTH) AS mes, canal, ROUND(SUM(venta),0) AS venta_eur FROM fin GROUP BY mes, canal ORDER BY mes, venta_eur DESC",
"display": "bar",
},
}
TAGS = {
"#4494": {"type":"card","name":"#4494","id":"card__4494","display-name":"#4494","card-id":4494},
"fecha_desde": {"type":"date","name":"fecha_desde","id":"tag-fecha-desde","display-name":"Fecha desde"},
"fecha_hasta": {"type":"date","name":"fecha_hasta","id":"tag-fecha-hasta","display-name":"Fecha hasta"},
"centro": {"type":"text","name":"centro","id":"tag-centro","display-name":"Centro"},
"ensena": {"type":"text","name":"ensena","id":"tag-ensena","display-name":"Ensena"},
}
def dq(sql):
return {"type":"native","database":6,"native":{"query":sql,"template-tags":TAGS}}
def test_query(sql, params=None):
body = dq(sql)
body["parameters"] = params or []
r = api("POST", "/api/dataset", body)
if r.get("error"):
print("QUERY ERROR:", r.get("error")); return None
cols = [c["name"] for c in r["data"]["cols"]]
rows = r["data"]["rows"]
return cols, rows
if __name__ == "__main__":
which = sys.argv[1] if len(sys.argv) > 1 else "all"
# param YTD 2026 para verificar reconciliacion
p_ytd = [{"type":"date/single","value":"2026-01-01","target":["variable",["template-tag","fecha_desde"]]}]
for k, c in CARDS.items():
if which != "all" and which != k: continue
print(f"\n===== TEST {k}: {c['name']} =====")
res = test_query(c["sql"], p_ytd)
if res:
cols, rows = res
print("cols:", cols)
for row in rows[:15]: print(" ", row)
File diff suppressed because one or more lines are too long
File diff suppressed because one or more lines are too long
File diff suppressed because one or more lines are too long
File diff suppressed because one or more lines are too long
File diff suppressed because one or more lines are too long
File diff suppressed because one or more lines are too long
File diff suppressed because one or more lines are too long
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{"total": 12367, "canal": 12368, "pago": 12369, "matriz": 12370, "evolutivo": 12371}
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import json, sys
sys.path.insert(0, "scratchpad/exf")
from build import api, BASE, CARDS, TAGS, dq
COLLECTION = 583 # "Claude" (junto a 1094)
CUR = {"number_style":"currency","currency":"EUR","currency_style":"symbol","decimals":0}
def viz(kind):
if kind == "total":
return {"column_settings":{'["name","venta_web_eur"]':CUR},
"scalar.field":"venta_web_eur"}
if kind == "canal":
return {"graph.dimensions":["canal"],"graph.metrics":["venta_eur"],
"graph.x_axis.title_text":"Canal","graph.y_axis.title_text":"Venta web (EUR)",
"column_settings":{'["name","venta_eur"]':CUR},"graph.show_values":True}
if kind == "pago":
return {"graph.dimensions":["forma_pago"],"graph.metrics":["venta_eur"],
"column_settings":{'["name","venta_eur"]':CUR},"graph.show_values":True}
if kind == "matriz":
return {"column_settings":{'["name","venta_eur"]':CUR},
"table.columns":[
{"name":"canal","enabled":True},{"name":"forma_pago","enabled":True},
{"name":"venta_eur","enabled":True},{"name":"documentos","enabled":True}]}
if kind == "evolutivo":
return {"graph.dimensions":["mes","canal"],"graph.metrics":["venta_eur"],
"stackable.stack_type":"stacked","column_settings":{'["name","venta_eur"]':CUR},
"graph.x_axis.title_text":"Mes","graph.y_axis.title_text":"Venta web (EUR)"}
return {}
created = {}
for k, c in CARDS.items():
body = {"name": c["name"], "display": c["display"],
"dataset_query": dq(c["sql"]),
"visualization_settings": viz(k),
"collection_id": COLLECTION}
r = api("POST", "/api/card", body)
created[k] = r["id"]
print(f"card {k}: id {r['id']} {c['name']}")
json.dump(created, open("scratchpad/exf/cards.json","w"))
print("CARDS:", created)
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{"dashboard_id": 1143}
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import json, sys
sys.path.insert(0, "scratchpad/exf")
from build import api
C = json.load(open("scratchpad/exf/cards.json"))
COLLECTION = 583
# 1) crear dashboard vacio
dash = api("POST", "/api/dashboard", {
"name": "Venta Web por Canal y Forma de Pago (facturacion NAV / modelo 4494)",
"collection_id": COLLECTION,
"description": "Solo venta web (origen precaweb) tomada del modelo 4494 (SUM Base_imponible_linea, facturacion NAV neta), desglosada por canal (channel_id) y forma de pago (pago web vs pago tienda), segun las convenciones del dashboard 1094. Glass excluido. Default: YTD 2026.",
})
DID = dash["id"]
print("dashboard id:", DID)
# 2) parametros del dashboard
PARAMS = [
{"id":"p_desde","name":"Fecha desde","slug":"fecha_desde","type":"date/single","default":"2026-01-01"},
{"id":"p_hasta","name":"Fecha hasta","slug":"fecha_hasta","type":"date/single"},
{"id":"p_centro","name":"Centro","slug":"centro","type":"string/=","sectionId":"string"},
{"id":"p_ensena","name":"Ensena","slug":"ensena","type":"string/=","sectionId":"string"},
]
def mappings(cid):
return [
{"parameter_id":"p_desde","card_id":cid,"target":["variable",["template-tag","fecha_desde"]]},
{"parameter_id":"p_hasta","card_id":cid,"target":["variable",["template-tag","fecha_hasta"]]},
{"parameter_id":"p_centro","card_id":cid,"target":["variable",["template-tag","centro"]]},
{"parameter_id":"p_ensena","card_id":cid,"target":["variable",["template-tag","ensena"]]},
]
# 3) layout (grid 24 col)
LAYOUT = {
"total": (0, 0, 6, 4),
"pago": (0, 6, 18, 4),
"canal": (4, 0, 12, 7),
"matriz": (4, 12, 12, 7),
"evolutivo": (11, 0, 24, 7),
}
dashcards = []
neg = -1
for k,(row,col,sx,sy) in LAYOUT.items():
cid = C[k]
dashcards.append({
"id": neg, "card_id": cid, "row": row, "col": col, "size_x": sx, "size_y": sy,
"series": [], "parameter_mappings": mappings(cid), "visualization_settings": {}
})
neg -= 1
r = api("PUT", f"/api/dashboard/{DID}", {"dashcards": dashcards, "parameters": PARAMS})
print("dashcards saved:", len(r.get("dashcards",[])))
print("URL: https://reports.autingo.es/dashboard/%d" % DID)
json.dump({"dashboard_id":DID}, open("scratchpad/exf/dash.json","w"))
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"""Genera la carpeta de documentacion de linaje en el Escritorio de Windows.
A partir del grafo trazado (scratchpad/lineage_graph.json) escribe:
00_INDICE.txt resumen + mapa de capas + tabla de todos los objetos
01_marts/<vista>.txt una por vista de customer_marts: que es + arbol de linaje + SQL
02_intermedio_clientes_intel/*.txt tablas base del pipeline de inteligencia de clientes
03_producto/*.txt cadena de catalogo de producto (vistas con SQL + bases)
04_fuentes/*.txt tablas fuente (replica Postgres, Navision, imagenes, tasas)
Todos los .txt se escriben con CRLF para abrirse limpios en Bloc de notas de Windows.
"""
import json
import os
import textwrap
DEST = "/mnt/c/Users/egutierrez/Desktop/linaje_customer_marts"
DATA = json.load(open("scratchpad/lineage_graph.json"))
G = DATA["graph"]
PROJECT = DATA["project"]
# ---------------------------------------------------------------------------
# Descripciones ("que es") por objeto. La SQL/DDL incluida en cada archivo es la
# fuente de verdad; estas lineas son un resumen para orientar al lector.
# ---------------------------------------------------------------------------
DESC = {
# ---- customer_marts (marts finales, grano = persona_id / cliente) ----
"customer_marts.customer_profile":
"Ficha maestra 360 del cliente: identidad + features agregadas + score CLV + segmento. Vista de perfil que consolida todo lo demas.",
"customer_marts.customer_monetary":
"Metricas monetarias del cliente (gasto total, ticket medio, recencia/frecuencia/valor). Componente M del RFM.",
"customer_marts.customer_channel":
"Canal del cliente: canal preferido transaccional, mix aurgi/motortown/web/servicio, canal de entrada (canal8) y fuentes de origen.",
"customer_marts.customer_contactability":
"Contactabilidad del cliente: disponibilidad de email/telefono y consentimientos, a partir de la dimension persona + features + segmento.",
"customer_marts.customer_category_spend":
"Gasto del cliente desglosado por categoria de producto, a partir de la tabla de hechos de transaccion.",
"customer_marts.customer_brand_affinity":
"Afinidad de marca del cliente: que marcas compra y con que peso, cruzando transacciones con el catalogo de producto (Objeto_productos).",
"customer_marts.customer_product":
"Productos comprados por el cliente (detalle de que ha adquirido) desde la tabla de hechos de transaccion.",
"customer_marts.customer_store_spend":
"Gasto del cliente por centro/tienda desde la tabla de hechos de transaccion.",
"customer_marts.customer_temporal":
"Patrones temporales de compra del cliente (estacionalidad, recencia, frecuencia) desde transacciones + features.",
"customer_marts.customer_vehicles":
"Vehiculos asociados al cliente: dimension vehiculo + features de vehiculo + mapping N:N persona-vehiculo.",
"customer_marts.customer_payment_method":
"Metodo de pago del cliente reconstruido desde los pedidos TPV (orders/invoice/payment/payment_types).",
"customer_marts.customer_promo_usage":
"Uso de promociones/descuentos por el cliente (pedidos con descuento) desde transacciones + pedidos TPV + segmento.",
"customer_marts.customer_promo_tolerance":
"Tolerancia del cliente a promociones: respuesta a campanas + sensibilidad a descuentos en pedidos.",
"customer_marts.customer_predictive":
"Senales predictivas del cliente: score CLV, proxima mejor accion (recomendaciones) y segmento.",
# ---- clientes_intel (capa intermedia; tablas base del pipeline de inteligencia de clientes) ----
"clientes_intel.dim_persona":
"Dimension PERSONA: identidad de cliente consolidada (una fila por persona_id). Nucleo de la doble identidad persona+vehiculo.",
"clientes_intel.dim_vehiculo":
"Dimension VEHICULO: una fila por vehiculo (matricula/bastidor) con sus atributos.",
"clientes_intel.fact_transaccion":
"Tabla de HECHOS de transaccion: linea/venta por cliente. Base de casi todos los marts monetarios y de producto.",
"clientes_intel.fact_campana_respuesta":
"Tabla de HECHOS de respuesta a campanas de marketing (envio/apertura/conversion) por cliente.",
"clientes_intel.feat_cliente_persona":
"Features agregadas a nivel PERSONA (RFM, mix de canal, indicadores derivados). Alimenta perfil, monetary, channel, temporal, contactability.",
"clientes_intel.feat_cliente_vehiculo":
"Features agregadas a nivel VEHICULO. Alimenta customer_vehicles.",
"clientes_intel.seg_cliente_360":
"Segmentacion 360 del cliente (segmentos de negocio / clusters). Alimenta perfil, channel, contactability, predictive, promo_usage.",
"clientes_intel.score_clv":
"Score de valor de vida del cliente (CLV). Alimenta perfil y predictive.",
"clientes_intel.reco_acciones":
"Recomendaciones / proxima mejor accion (NBA) por cliente. Alimenta customer_predictive.",
"clientes_intel.map_persona_canal8":
"Mapeo persona -> canal8 (canal de entrada). Puente para customer_channel.",
"clientes_intel.map_persona_fuente":
"Mapeo persona -> fuente(s) de origen (de que sistema/canal proviene el cliente). Puente para customer_channel.",
"clientes_intel.map_persona_vehiculo":
"Mapeo N:N persona <-> vehiculo. Puente para customer_vehicles.",
# ---- cadena de catalogo de producto ----
"anjana_bi_datamart.Objeto_productos":
"Vista maestra de PRODUCTO: catalogo Navision + categorias CGQ + imagenes + tasa/margen por material. Se usa para afinidad de marca.",
"anjana_bi_datamart.Cruce_16_07_cgq":
"Tabla de cruce de categorias CGQ (categoria/subcategoria/tipo) usada por Objeto_productos.",
"claude_bi.productos_tasa_mat":
"Tabla de tasa/margen por material de producto. La consume Objeto_productos.",
"external_datasets.product_object_images":
"Imagenes de producto (imagen principal/secundaria). Dataset externo. La consume Objeto_productos.",
"stg_anjana_bi.producto":
"Staging de producto: cruza item de Navision con equivalencias de matriculas (SAF). Capa de preparacion sobre las tablas de SQL Server.",
# ---- fuentes base ----
"psql_dcpublic.products":
"Catalogo de productos. Replica en BigQuery de la BBDD Postgres ANJANA (DCPublic).",
"psql_dcpublic.product_categories":
"Categorias de producto. Replica Postgres ANJANA (DCPublic).",
"psql_dcpublic.product_groups":
"Grupos de producto. Replica Postgres ANJANA (DCPublic).",
"psql_dcpublic.tpv_orders_order":
"Pedidos TPV (cabecera de pedido). Replica Postgres ANJANA (DCPublic).",
"psql_dcpublic.tpv_orders_orderitem":
"Lineas de pedido TPV. Replica Postgres ANJANA (DCPublic).",
"psql_dcpublic.tpv_orders_invoice":
"Facturas TPV. Replica Postgres ANJANA (DCPublic).",
"psql_dcpublic.tpv_orders_payment":
"Pagos de pedidos TPV. Replica Postgres ANJANA (DCPublic).",
"psql_dcpublic.tpv_payment_types":
"Tipos de pago TPV (catalogo). Replica Postgres ANJANA (DCPublic).",
"mssql2022_dbo.item":
"Catalogo de articulos de Navision (SQL Server 2022, esquema dbo).",
"mssql2022_dbo.equivalencias_matriculas_saf":
"Equivalencias de matriculas (SAF) en Navision (SQL Server 2022, esquema dbo).",
}
TYPE_ES = {
"VIEW": "VISTA (tiene SQL propio)",
"MATERIALIZED VIEW": "VISTA MATERIALIZADA (tiene SQL propio)",
"BASE TABLE": "TABLA BASE (datos materializados; sin SQL de definicion, solo esquema)",
"EXTERNAL": "TABLA EXTERNA",
"UNKNOWN": "DESCONOCIDO",
}
# Carpeta destino por objeto.
def folder_of(key: str) -> str:
ds = key.split(".", 1)[0]
if ds == "customer_marts":
return "01_marts"
if ds == "clientes_intel":
return "02_intermedio_clientes_intel"
if ds in ("anjana_bi_datamart", "claude_bi", "external_datasets", "stg_anjana_bi"):
return "03_producto"
return "04_fuentes"
def fname_of(key: str) -> str:
return key.replace(".", "__") + ".txt"
def relpath_of(key: str) -> str:
return f"{folder_of(key)}/{fname_of(key)}"
def desc_of(key: str) -> str:
return DESC.get(key, "(sin descripcion)")
# ---------------------------------------------------------------------------
# Arbol de linaje recursivo (para los marts).
# ---------------------------------------------------------------------------
def render_tree(key: str, prefix: str | None = None, is_last: bool = True, seen=None) -> list[str]:
if seen is None:
seen = set()
tag = {"VIEW": "[vista]", "MATERIALIZED VIEW": "[vista mat]",
"BASE TABLE": "[TABLA BASE/FUENTE]", "EXTERNAL": "[externa]",
"UNKNOWN": "[?]"}.get(G.get(key, {"type": "UNKNOWN"})["type"], "")
if prefix is None: # raiz
lines = [f"{key} {tag}"]
child_prefix = ""
else:
connector = "└── " if is_last else "├── "
lines = [f"{prefix}{connector}{key} {tag}"]
child_prefix = prefix + (" " if is_last else "")
if key in seen:
lines[-1] += " (ya expandido arriba)"
return lines
seen.add(key)
refs = G.get(key, {"refs": []}).get("refs", [])
for i, r in enumerate(refs):
lines += render_tree(r, child_prefix, i == len(refs) - 1, seen)
return lines
# ---------------------------------------------------------------------------
# Escritura.
# ---------------------------------------------------------------------------
def w(path: str, text: str):
full = os.path.join(DEST, path)
os.makedirs(os.path.dirname(full), exist_ok=True)
with open(full, "w", newline="\r\n", encoding="utf-8") as f:
f.write(text)
SEP = "=" * 78 + "\n"
def object_file(key: str, include_tree: bool) -> str:
node = G[key]
out = []
out.append(SEP)
out.append(f"OBJETO : {PROJECT}.{key}\n")
out.append(f"TIPO : {TYPE_ES.get(node['type'], node['type'])}\n")
out.append(f"DATASET: {key.split('.',1)[0]}\n")
out.append(SEP)
out.append("\nQUE ES\n------\n")
out.append(textwrap.fill(desc_of(key), width=78) + "\n")
if node.get("refs"):
out.append("\nDEPENDE DIRECTAMENTE DE\n-----------------------\n")
for r in node["refs"]:
out.append(f" - {PROJECT}.{r} -> ver {relpath_of(r)}\n")
if include_tree:
out.append("\nLINAJE COMPLETO (hasta la fuente)\n---------------------------------\n")
out.append("\n".join(render_tree(key)) + "\n")
out.append("\nSQL / DDL\n---------\n")
if node["type"] in ("VIEW", "MATERIALIZED VIEW"):
out.append("(Definicion de la vista. Este es el SQL que puedes copiar.)\n\n")
else:
out.append("(Tabla base: no tiene SQL de transformacion. Se incluye el CREATE TABLE\n"
" con el esquema de columnas para referencia.)\n\n")
out.append(node["ddl"].strip() + "\n")
return "".join(out)
# Marts: incluir arbol de linaje.
marts = sorted(k for k in G if k.startswith("customer_marts."))
for k in marts:
w(f"01_marts/{fname_of(k)}", object_file(k, include_tree=True))
# Resto de objetos: sin arbol (o arbol solo si es vista con dependencias).
for k in sorted(G):
if k.startswith("customer_marts."):
continue
include_tree = G[k]["type"] in ("VIEW", "MATERIALIZED VIEW") and bool(G[k].get("refs"))
w(relpath_of(k), object_file(k, include_tree=include_tree))
# ---------------------------------------------------------------------------
# INDICE.
# ---------------------------------------------------------------------------
idx = []
idx.append(SEP)
idx.append("INDICE - LINAJE DEL DATASET customer_marts\n")
idx.append(f"Proyecto BigQuery: {PROJECT}\n")
idx.append(SEP)
idx.append("""
QUE ES ESTA CARPETA
-------------------
Documenta, para cada tabla/vista del dataset `customer_marts`, de donde salen sus
datos: la cadena completa desde el mart final hasta las tablas fuente, con el SQL
de cada vista listo para copiar y compartir.
Cada objeto tiene su propio .txt con:
- QUE ES (resumen de una linea; la SQL es la fuente de verdad)
- DE QUE DEPENDE (dependencias directas, con la ruta a su archivo)
- LINAJE COMPLETO (arbol hasta la fuente) -- solo en los marts y vistas
- SQL / DDL (el codigo: definicion de la vista, o el esquema si es tabla base)
MAPA DE CAPAS
-------------
customer_marts (VISTAS finales, grano = cliente/persona_id)
|
v
clientes_intel (TABLAS BASE: capa intermedia construida por el pipeline de
| inteligencia de clientes -- dim_*, feat_*, seg_*, score_*,
| reco_*, fact_*, map_*)
v
Fuentes:
- psql_dcpublic.* Replica en BigQuery de la BBDD Postgres ANJANA (TPV + catalogo)
- anjana_bi_datamart / claude_bi / external_datasets / stg_anjana_bi
Cadena de catalogo de PRODUCTO (Objeto_productos y sus fuentes)
- mssql2022_dbo.* Navision (SQL Server 2022, esquema dbo)
NOTA: las tablas de `clientes_intel` son TABLAS BASE: no son vistas, sino tablas que
un pipeline reconstruye cada dia con sentencias CREATE TABLE AS SELECT (CTAS). Su
esquema esta en 02_intermedio_clientes_intel/. El SQL REAL que las construye (y que
baja hasta TPV / customers / users / Navision / Salesforce) esta en la carpeta
05_construccion_clientes_intel/ -- ver tambien 00b_FUENTES_DE_CLIENTE.txt.
""")
idx.append(SEP)
idx.append("CARPETAS\n")
idx.append(SEP)
idx.append("""
01_marts/ Las 14 vistas de customer_marts (con arbol de linaje)
02_intermedio_clientes_intel/ Las 12 tablas base intermedias (esquema)
03_producto/ Cadena de catalogo de producto (vistas + bases)
04_fuentes/ Tablas fuente (replica Postgres, Navision, imagenes, tasas)
05_construccion_clientes_intel/ El SQL (CTAS) que construye cada tabla de clientes_intel
00b_FUENTES_DE_CLIENTE.txt Que consulta lee cada fuente de cliente (TPV/customers/
users/Navision/Salesforce)
""")
def index_block(title, keys):
lines = [SEP, title + "\n", SEP, "\n"]
for k in keys:
t = {"VIEW": "vista", "MATERIALIZED VIEW": "vista_mat", "BASE TABLE": "tabla",
"EXTERNAL": "externa", "UNKNOWN": "?"}.get(G[k]["type"], "")
lines.append(f"[{t:9s}] {k}\n")
lines.append(f" {desc_of(k)}\n")
lines.append(f" archivo: {relpath_of(k)}\n\n")
return "".join(lines)
idx.append(index_block("1) MARTS FINALES (customer_marts)", marts))
idx.append(index_block("2) CAPA INTERMEDIA (clientes_intel)",
sorted(k for k in G if k.startswith("clientes_intel."))))
idx.append(index_block("3) CADENA DE PRODUCTO",
sorted(k for k in G if folder_of(k) == "03_producto")))
idx.append(index_block("4) FUENTES BASE",
sorted(k for k in G if folder_of(k) == "04_fuentes")))
w("00_INDICE.txt", "".join(idx))
# Conteo final
n_files = sum(len(files) for _, _, files in os.walk(DEST))
print(f"Escrito en: {DEST}")
print(f"Archivos .txt generados: {n_files}")
print("Estructura:")
for root, dirs, files in sorted(os.walk(DEST)):
rel = os.path.relpath(root, DEST)
if rel == ".":
for f in sorted(files):
print(f" {f}")
else:
print(f" {rel}/ ({len(files)} archivos)")
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"""Genera 05_construccion_clientes_intel/ (SQL CTAS de cada tabla de clientes_intel)
y 00b_FUENTES_DE_CLIENTE.txt (mapa fuente-de-cliente -> consulta que la lee).
Fuente de datos: scratchpad/intel_build.json (SQL de construccion capturado de
INFORMATION_SCHEMA.JOBS) y scratchpad/intel_lineage.json (tablas implicadas).
"""
import json
import os
import textwrap
DEST = "/mnt/c/Users/egutierrez/Desktop/linaje_customer_marts"
PROJECT = "autingo-159109"
builds = json.load(open("scratchpad/intel_build.json"))
lin = json.load(open("scratchpad/intel_lineage.json"))
# Tablas para las que escribimos el SQL de construccion: las del linaje de customer_marts
# + las que leen fuentes de cliente/Salesforce.
EXTRA = ["seg_vega_persona", "fact_campana_respuesta__sfnew"]
want = sorted(set(lin["intel_involved"]) | set(EXTRA))
want = [t for t in want if t in builds] # solo las que tienen SQL capturado
DESC = {
"_persona_records":
"IDENTIDAD DEL CLIENTE (nucleo). UNION de 7 fuentes -> normaliza DNI/NIE/CIF, email y "
"telefono -> resuelve persona_id (FARM_FINGERPRINT de persona_key) con nivel de confianza. "
"AQUI es donde se juntan TPV customers, customers web, OTR, Navision, citaprevia, users y "
"Salesforce contacts_latest.",
"dim_persona":
"Dimension PERSONA final: una fila por persona_id, elegida desde _persona_records "
"(prioriza el mejor registro por fuente/confianza) + banderas de contacto.",
"dim_vehiculo":
"Dimension VEHICULO: una fila por vehiculo (matricula/bastidor) desde TPV vehicles, OTR, "
"citaprevia matriculas y calibrado de ano de matricula.",
"map_persona_fuente":
"Mapeo persona -> fuente(s) de origen (tpv/web/otr/navision/citaprevia/users/salesforce). "
"Registra de que sistemas proviene cada persona.",
"map_persona_vehiculo":
"Mapeo N:N persona <-> vehiculo (quien conduce/posee que coche) desde OTR, TPV vehicleowner "
"y citaprevia matriculas.",
"map_persona_canal8":
"Mapeo persona -> canal8 (canal de entrada del cliente).",
"fact_transaccion":
"Tabla de HECHOS de transaccion (linea/venta por persona). Base de los marts monetarios.",
"fact_visita":
"Tabla de HECHOS de visita (visitas del cliente al taller/tienda).",
"fact_campana_respuesta":
"HECHOS de respuesta a campanas: cruza envios/aperturas/clics/sms de Salesforce con personas.",
"fact_campana_respuesta__sfnew":
"Variante de fact_campana_respuesta con el esquema nuevo de Salesforce (email_sent/opened/clicked/sms).",
"feat_cliente_persona":
"Features agregadas por PERSONA (RFM, mix de canal, ticket medio, margen, recencia...).",
"feat_cliente_vehiculo":
"Features agregadas por VEHICULO.",
"seg_cliente_360":
"Segmentacion 360 del cliente (segmentos/clusters de negocio).",
"seg_vega_persona":
"Segmentacion VEGA por persona (contactabilidad/valor); lee fuentes de cliente para calcular "
"disponibilidad de contacto.",
"seg_cluster_persona":
"Clustering de personas (asignacion de cluster) que alimenta la segmentacion.",
"reco_acciones":
"Recomendaciones / proxima mejor accion (NBA) por cliente.",
"data_points_contacto":
"Puntos de dato de contacto (email/telefono) consolidados y calidad por persona.",
"_margen_rate_producto":
"Tasa de margen por producto (auxiliar para features monetarias).",
"_plate_year_calib":
"Calibrado del ano a partir de la matricula (auxiliar para dim_vehiculo).",
"dim_cp_provincia":
"Diccionario codigo postal -> provincia/CCAA.",
"tipologia_cliente":
"Tipologia de cliente (clasificacion de negocio).",
}
# Descripcion corta de cada fuente de cliente.
SRC_DESC = {
"psql_dcpublic.tpv_customers": "Clientes del TPV (mostrador). Replica Postgres ANJANA (DCPublic).",
"psql_dcpublic.customers": "Clientes web (e-commerce). Replica Postgres ANJANA (DCPublic).",
"psql_dcpublic.otr_customers": "Clientes de OTR (ordenes de reparacion/taller). Replica Postgres ANJANA.",
"psql_dcpublic.users": "Usuarios (cuentas). Replica Postgres ANJANA (DCPublic).",
"mssql2022_dbo.anjana_customer": "Cliente de NAVISION (SQL Server 2022, esquema dbo). Campos no_/e_mail/movil/name/post_code.",
"salesforce_ew1.contacts_latest": "Contactos de SALESFORCE (ultima version). Dataset en europe-west1.",
"salesforce_ew1.email_sent": "Envios de email de Salesforce (Marketing Cloud).",
"salesforce_ew1.email_opened": "Aperturas de email de Salesforce.",
"salesforce_ew1.email_clicked": "Clics de email de Salesforce.",
"salesforce_ew1.sms": "SMS de Salesforce.",
"citaprevia_aurphcp.clientes": "Clientes de CITA PREVIA (aurphcp).",
"citaprevia_aurphcp.clientes_matriculas": "Matriculas por cliente en cita previa.",
"psql_dcpublic.tpv_vehicles_vehicle": "Vehiculos del TPV. Replica Postgres ANJANA.",
"psql_dcpublic.tpv_vehicles_vehicleowner": "Propietarios de vehiculo del TPV (N:N). Replica Postgres ANJANA.",
}
CUST_SOURCES = list(SRC_DESC.keys())
SEP = "=" * 78 + "\n"
def w(path, text):
full = os.path.join(DEST, path)
os.makedirs(os.path.dirname(full), exist_ok=True)
with open(full, "w", newline="\r\n", encoding="utf-8") as f:
f.write(text)
def build_file(tbl):
b = builds[tbl]
out = [SEP, f"OBJETO : {PROJECT}.clientes_intel.{tbl}\n",
f"TIPO : TABLA BASE construida por {b['stmt']} (se reconstruye periodicamente)\n",
f"ULTIMA EJECUCION CAPTURADA: {b['last_run']}\n", SEP,
"\nQUE ES\n------\n",
textwrap.fill(DESC.get(tbl, "(sin descripcion)"), width=78) + "\n"]
if b["refs"]:
out.append("\nLEE DE (tablas fuente / intermedias)\n------------------------------------\n")
for r in b["refs"]:
note = " << FUENTE DE CLIENTE" if r in SRC_DESC else ""
out.append(f" - {PROJECT}.{r}{note}\n")
out.append("\nSQL DE CONSTRUCCION (copiable)\n------------------------------\n\n")
out.append(b["query"].strip() + "\n")
return "".join(out)
for t in want:
w(f"05_construccion_clientes_intel/{t}.txt", build_file(t))
# 00b_FUENTES_DE_CLIENTE.txt
f = [SEP, "FUENTES DE CLIENTE -> QUE CONSULTA DE clientes_intel LAS USA\n", SEP,
"\nResponde a: de donde salen los clientes (TPV, web, OTR, Navision, Salesforce, cita\n"
"previa) y en que consulta se juntan. El punto de union de identidades es\n"
"_persona_records (ver 05_construccion_clientes_intel/_persona_records.txt).\n\n"]
f.append(SEP + "RESUMEN: LO QUE PEDISTE\n" + SEP + "\n")
mapping = [
("TPV customers", "psql_dcpublic.tpv_customers"),
("customers (web)", "psql_dcpublic.customers"),
("customers (OTR / taller)", "psql_dcpublic.otr_customers"),
("users", "psql_dcpublic.users"),
("customer de NAVISION", "mssql2022_dbo.anjana_customer"),
("SALESFORCE (contactos)", "salesforce_ew1.contacts_latest"),
]
for label, src in mapping:
f.append(f" {label:26s} -> {PROJECT}.{src}\n")
f.append("\n SI: tenemos Salesforce. El dataset es `salesforce_ew1` (europe-west1):\n"
" contactos en contacts_latest; marketing en email_sent/opened/clicked y sms.\n\n")
for src in CUST_SOURCES:
consumers = sorted(t for t, b in builds.items() if src in b["refs"])
f.append(SEP)
f.append(f"{PROJECT}.{src}\n")
f.append(SEP)
f.append(f" {SRC_DESC[src]}\n")
f.append(" La leen estas tablas de clientes_intel (con su SQL en 05_construccion_...):\n")
if consumers:
for t in consumers:
star = " [SQL disponible]" if t in want else ""
f.append(f" - {t} ({builds[t]['stmt']}){star}\n")
else:
f.append(" (ninguna la referencia directamente)\n")
f.append("\n")
w("00b_FUENTES_DE_CLIENTE.txt", "".join(f))
print("Generado:")
print(f" 05_construccion_clientes_intel/ -> {len(want)} archivos con SQL de construccion")
print(f" 00b_FUENTES_DE_CLIENTE.txt")
print("\nTablas con SQL de construccion escrito:")
for t in want:
print(f" - {t}")
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"""Genera 00c_VERIFICACION.txt (chequeo de completitud del linaje) y
06_otros_outputs_clientes_intel/ (SQL de las tablas de clientes_intel que NO acaban
en customer_marts, para no dejar ninguna atras).
"""
import json
import os
import textwrap
DEST = "/mnt/c/Users/egutierrez/Desktop/linaje_customer_marts"
PROJECT = "autingo-159109"
builds = json.load(open("scratchpad/intel_build.json"))
lin = json.load(open("scratchpad/intel_lineage.json"))
involved = set(lin["intel_involved"])
# Catalogo completo de clientes_intel (40 objetos) reconstruido: involved + leftovers conocidos.
LEFTOVER = [
"_presupuesto_persona", "_veh_cluster_feat", "_veh_tec_feat", "audit_persona_divergencias",
"calidad_email_snapshot", "f0_audit_keys", "fact_impacto_campana", "map_mutualista_particular",
"reco_promo_personalizada", "reco_promo_segmento", "rpt_campana", "rpt_campana_lift",
"rpt_campana_usuario", "rpt_impacto_persona", "seg_audiencia", "seg_vega_persona",
"sf_contact_map", "tipologia_cliente_resumen", "veh_cluster",
]
# Clasificacion por proposito (a donde va cada leftover).
CATEGORY = {
"rpt_campana": "Informe de campanas (BI / dashboards de marketing)",
"rpt_campana_lift": "Informe de campanas: lift (BI / dashboards)",
"rpt_campana_usuario": "Informe de campanas por usuario (BI / dashboards)",
"rpt_impacto_persona": "Informe de impacto por persona (BI / dashboards)",
"fact_impacto_campana": "Hechos de impacto de campana (base de los informes)",
"reco_promo_personalizada": "Recomendacion de promo personalizada (activacion)",
"reco_promo_segmento": "Recomendacion de promo por segmento (activacion)",
"seg_audiencia": "Audiencias para activacion (probable push a Salesforce/Marketing)",
"sf_contact_map": "Mapa de contactos Salesforce (sincronizacion de IDs)",
"audit_persona_divergencias": "Auditoria de calidad: divergencias en resolucion de persona",
"calidad_email_snapshot": "Auditoria de calidad: snapshot de emails",
"f0_audit_keys": "Auditoria de claves (control interno del pipeline)",
"_presupuesto_persona": "Auxiliar: presupuestos por persona (interim)",
"_veh_cluster_feat": "Auxiliar: features para clustering de vehiculo (interim)",
"_veh_tec_feat": "Auxiliar: features tecnicas de vehiculo (interim)",
"veh_cluster": "Clustering de vehiculo (resultado; no lo usan los marts hoy)",
"tipologia_cliente_resumen": "Resumen de tipologia de cliente (BI)",
"map_mutualista_particular": "Vista auxiliar: mapa mutualista/particular",
"seg_vega_persona": "Segmentacion VEGA por persona (contactabilidad; lee fuentes de cliente)",
}
SEP = "=" * 78 + "\n"
def w(path, text):
full = os.path.join(DEST, path)
os.makedirs(os.path.dirname(full), exist_ok=True)
with open(full, "w", newline="\r\n", encoding="utf-8") as f:
f.write(text)
# --- 06: SQL de los leftovers que tengan build capturado ---
written = []
for t in LEFTOVER:
b = builds.get(t)
if not b:
continue
out = [SEP, f"OBJETO : {PROJECT}.clientes_intel.{t}\n",
f"TIPO : {b['stmt']} (NO alimenta customer_marts)\n",
f"ULTIMA EJECUCION CAPTURADA: {b['last_run']}\n", SEP,
"\nQUE ES / A DONDE VA\n-------------------\n",
textwrap.fill(CATEGORY.get(t, "(sin clasificar)"), width=78) + "\n"]
if b["refs"]:
out.append("\nLEE DE\n------\n")
for r in b["refs"]:
out.append(f" - {PROJECT}.{r}\n")
out.append("\nSQL DE CONSTRUCCION (copiable)\n------------------------------\n\n")
out.append(b["query"].strip() + "\n")
w(f"06_otros_outputs_clientes_intel/{t}.txt", "".join(out))
written.append(t)
# --- 00c: verificacion de completitud ---
v = [SEP, "VERIFICACION DE COMPLETITUD DEL LINAJE\n", SEP, "\n"]
v.append("PREGUNTA: todo esto acaba en customer_marts? Comprobado.\n\n")
v.append("""RESPUESTA CORTA
---------------
La cadena customer_marts -> fuentes esta COMPLETA (todas las referencias resueltas,
0 tablas sin identificar). PERO customer_marts NO es el unico destino: es UNO de los
consumidores de la capa clientes_intel.
- clientes_intel tiene 40 objetos.
- 21 de ellos alimentan (directa o indirectamente) las 14 vistas de customer_marts.
- 19 NO van a customer_marts: son OTRAS salidas del mismo pipeline (informes de
campana, recomendaciones de promo, audiencias, auditorias, auxiliares).
El unico dataset MODELADO que lee clientes_intel es customer_marts. El resto de lo que
lee clientes_intel y customer_marts son consultas de BI / ad-hoc (tablas temporales
_hexhash / anon...), es decir Metabase u otros lo consumen directamente. En ese sentido
customer_marts SI es terminal en el modelo (aguas abajo solo hay BI).
""")
v.append(SEP + "1) LAS 21 TABLAS DE clientes_intel QUE SI ALIMENTAN customer_marts\n" + SEP + "\n")
for t in sorted(involved):
b = builds.get(t, {})
v.append(f" - {t} ({b.get('stmt','(sin job)')})\n")
v.append("\n" + SEP + "2) LAS 19 TABLAS DE clientes_intel QUE NO VAN A customer_marts\n" + SEP + "\n")
v.append(" (SQL de cada una en 06_otros_outputs_clientes_intel/)\n\n")
for t in LEFTOVER:
sql_note = "" if t in written else " [sin SQL de job capturado]"
v.append(f" - {t:28s} {CATEGORY.get(t,'')}{sql_note}\n")
v.append("\n" + SEP + "3) FUENTES BASE ALCANZADAS (fin del linaje)\n" + SEP + "\n")
v.append(" Fuera de clientes_intel, el pipeline lee de:\n\n")
for s in sorted(lin["external_sources"]):
v.append(f" - {PROJECT}.{s}\n")
v.append("\n" + SEP + "4) NOTAS DE COBERTURA\n" + SEP + "\n")
v.append(""" - score_clv y seg_cluster_vehiculo: usadas por customer_marts pero sin CTAS reciente
en el historial de jobs (son modelos ML / cargas antiguas). Su esquema esta en
02_intermedio_clientes_intel/; no hay un SQL de un solo job que las reconstruya.
- El SQL de construccion se tomo del ULTIMO job exitoso de cada tabla
(INFORMATION_SCHEMA.JOBS, region europe-west1, ventana 120 dias). Si una tabla se
reconstruye con otra logica fuera de esa ventana, no se captura aqui.
- customer_marts: 14 vistas = el dataset entero (no falta ninguna).
""")
w("00c_VERIFICACION.txt", "".join(v))
print(f"06_otros_outputs_clientes_intel/ -> {len(written)} archivos")
print("00c_VERIFICACION.txt -> escrito")
print("\nLeftovers sin SQL capturado:", [t for t in LEFTOVER if t not in written] or "ninguno")
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{
"intel_involved": [
"_margen_rate_producto",
"_persona_records",
"_plate_year_calib",
"data_points_contacto",
"dim_cp_provincia",
"dim_persona",
"dim_vehiculo",
"fact_campana_respuesta",
"fact_transaccion",
"fact_visita",
"feat_cliente_persona",
"feat_cliente_vehiculo",
"map_persona_canal8",
"map_persona_fuente",
"map_persona_vehiculo",
"reco_acciones",
"score_clv",
"seg_cliente_360",
"seg_cluster_persona",
"seg_cluster_vehiculo",
"tipologia_cliente"
],
"external_sources": [
"anjana_bi_amg.margenes_mat",
"citaprevia_aurphcp.clientes",
"citaprevia_aurphcp.clientes_matriculas",
"claude_bi.churn_scores_current",
"claude_bi.conversion_cqg_base_mat",
"claude_bi.todos_datos_lineas_mat",
"mssql2022_dbo.anjana_customer",
"ontologia.aurgiCitas_mat",
"psql_dcpublic.call_transactions",
"psql_dcpublic.car_makes",
"psql_dcpublic.car_model_families",
"psql_dcpublic.car_models",
"psql_dcpublic.car_versions",
"psql_dcpublic.customers",
"psql_dcpublic.otr_customers",
"psql_dcpublic.otr_vehicles",
"psql_dcpublic.tecrmi_license_plates",
"psql_dcpublic.tpv_customers",
"psql_dcpublic.tpv_vehicles_vehicle",
"psql_dcpublic.tpv_vehicles_vehicleowner",
"psql_dcpublic.users",
"salesforce_ew1.contacts_latest",
"salesforce_ew1.email_clicked",
"salesforce_ew1.email_opened",
"salesforce_ew1.email_sent",
"salesforce_ew1.sms"
]
}
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"""Helper: run SQL against Metabase BigQuery db=6 via REST API.
Usage:
python3 mbq.py "SELECT 1"
python3 mbq.py < query.sql
Reads API key from `pass metabase/aurgi-api-key`.
Prints columns header + rows as TSV.
"""
import os
import sys
import json
import subprocess
sys.path.insert(0, "python/functions")
from metabase import MetabaseClient, metabase_execute_query
MB_URL = "https://reports.autingo.es"
DB_ID = 6
def get_key():
return subprocess.check_output(["pass", "show", "metabase/aurgi-api-key"]).decode().splitlines()[0].strip()
def run(sql, max_results=2000):
import httpx
c = MetabaseClient(MB_URL, get_key())
try:
res = metabase_execute_query(c, DB_ID, sql, max_results=max_results)
except httpx.HTTPStatusError as e:
print("HTTP", e.response.status_code, e.response.text[:3000])
return
data = res.get("data", {})
cols = [col.get("display_name") or col.get("name") for col in data.get("cols", [])]
rows = data.get("rows", [])
# error?
if res.get("error") or (res.get("status") and res.get("status") != "completed"):
print("ERROR:", json.dumps(res.get("error") or res, ensure_ascii=False)[:2000])
return
print("\t".join(str(x) for x in cols))
for r in rows:
print("\t".join("" if v is None else str(v) for v in r))
print(f"-- {len(rows)} rows", file=sys.stderr)
if __name__ == "__main__":
if len(sys.argv) > 1:
sql = sys.argv[1]
else:
sql = sys.stdin.read()
run(sql)
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"""Traza la construccion de clientes_intel: para cada tabla, recupera el SQL del ultimo
job que la escribio (INFORMATION_SCHEMA.JOBS) + sus referenced_tables, y recorre hacia
atras hasta las tablas fuente (TPV, customers, users, Navision, Salesforce).
Vuelca todo a scratchpad/intel_build.json.
"""
import json
import warnings
warnings.filterwarnings("ignore")
import google.auth
from google.cloud import bigquery
PROJECT = "autingo-159109"
REGION = "region-europe-west1"
creds, _ = google.auth.default(scopes=["https://www.googleapis.com/auth/bigquery"])
creds = creds.with_quota_project(None)
c = bigquery.Client(project=PROJECT, credentials=creds)
# Ultimo job por tabla destino en clientes_intel: query + referenced_tables + stmt.
sql = f"""
WITH j AS (
SELECT
dest.table_id AS tbl,
query,
statement_type AS stmt,
creation_time,
ARRAY(
SELECT AS STRUCT rt.project_id, rt.dataset_id, rt.table_id
FROM UNNEST(referenced_tables) rt
) AS refs,
ROW_NUMBER() OVER (PARTITION BY dest.table_id ORDER BY creation_time DESC) AS rn
FROM `{PROJECT}`.`{REGION}`.INFORMATION_SCHEMA.JOBS_BY_PROJECT,
UNNEST([destination_table]) dest
WHERE dest.dataset_id = 'clientes_intel'
AND state = 'DONE' AND error_result IS NULL
AND statement_type IS NOT NULL
AND creation_time > TIMESTAMP_SUB(CURRENT_TIMESTAMP(), INTERVAL 120 DAY)
)
SELECT tbl, query, stmt, creation_time, refs FROM j WHERE rn = 1
ORDER BY tbl
"""
builds = {}
for r in c.query(sql).result():
refs = []
for rt in r.refs:
refs.append(f"{rt['dataset_id']}.{rt['table_id']}")
builds[r.tbl] = {
"query": r.query or "",
"stmt": r.stmt,
"last_run": str(r.creation_time),
"refs": sorted(set(x for x in refs if not x.endswith(f".{r.tbl}"))),
}
json.dump(builds, open("scratchpad/intel_build.json", "w"), indent=2, ensure_ascii=False)
print(f"tablas clientes_intel con SQL de construccion capturado: {len(builds)}\n")
# Recursion desde las 12 tablas usadas por customer_marts.
SEED = [
"dim_persona", "dim_vehiculo", "fact_transaccion", "fact_campana_respuesta",
"feat_cliente_persona", "feat_cliente_vehiculo", "seg_cliente_360", "score_clv",
"reco_acciones", "map_persona_canal8", "map_persona_fuente", "map_persona_vehiculo",
]
intel_involved = set()
external_sources = set()
stack = list(SEED)
while stack:
t = stack.pop()
if t in intel_involved:
continue
intel_involved.add(t)
b = builds.get(t)
if not b:
continue
for ref in b["refs"]:
ds, tbl = ref.split(".", 1)
if ds == "clientes_intel":
if tbl not in intel_involved:
stack.append(tbl)
else:
external_sources.add(ref)
print("== tablas clientes_intel implicadas en el linaje de customer_marts ==")
for t in sorted(intel_involved):
b = builds.get(t, {})
print(f" {t:26s} {b.get('stmt','(sin job)')}")
print("\n== FUENTES EXTERNAS (fuera de clientes_intel) usadas por el pipeline ==")
for s in sorted(external_sources):
print(f" {s}")
# Marcar las fuentes de CLIENTE que pide el usuario.
KEYS = ["customer", "customers", "cliente", "user", "usuario", "tpv", "salesforce",
"sf_", "contact", "mkt_cloud", "persona"]
print("\n== fuentes que parecen de CLIENTE/usuario ==")
for s in sorted(external_sources):
low = s.lower()
if any(k in low for k in KEYS):
print(f" {s}")
json.dump({
"intel_involved": sorted(intel_involved),
"external_sources": sorted(external_sources),
}, open("scratchpad/intel_lineage.json", "w"), indent=2, ensure_ascii=False)
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"""Traza el linaje recursivo de las vistas de customer_marts hasta las tablas fuente.
Para cada objeto: obtiene su tipo (VIEW/BASE TABLE/EXTERNAL/MATERIALIZED VIEW) y su DDL
via INFORMATION_SCHEMA.TABLES, extrae las referencias a otras tablas del DDL y recurre
sobre las que son vistas. Vuelca el grafo completo a un JSON en scratchpad.
"""
import json
import re
import sys
import warnings
warnings.filterwarnings("ignore")
import google.auth
from google.cloud import bigquery
PROJECT = "autingo-159109"
creds, _ = google.auth.default(scopes=["https://www.googleapis.com/auth/bigquery"])
creds = creds.with_quota_project(None)
client = bigquery.Client(project=PROJECT, credentials=creds)
# Cache de metadata por dataset: {dataset: {table_name: {"type":..., "ddl":...}}}
dataset_cache: dict[str, dict] = {}
def load_dataset(dataset: str) -> dict:
"""Carga todas las tablas/vistas de un dataset (una query por dataset)."""
if dataset in dataset_cache:
return dataset_cache[dataset]
result: dict[str, dict] = {}
try:
sql = f"""
SELECT table_name, table_type, ddl
FROM `{PROJECT}`.`{dataset}`.INFORMATION_SCHEMA.TABLES
"""
for r in client.query(sql).result():
result[r.table_name] = {"type": r.table_type, "ddl": r.ddl or ""}
except Exception as e: # noqa: BLE001
print(f" [warn] no se pudo leer dataset {dataset}: {e}", file=sys.stderr)
dataset_cache[dataset] = result
return result
# En el DDL que emite INFORMATION_SCHEMA, las referencias a otras tablas SIEMPRE van
# entre backticks y totalmente cualificadas: `proyecto.dataset.tabla`. Los alias de
# CTE/JOIN (dp, fcp, f...) nunca llevan backticks, asi que restringiendo a lo que hay
# entre backticks eliminamos todo el ruido.
BACKTICK_RE = re.compile(r"`([^`]+)`")
# Variante con cada parte en su propio backtick: `proj`.`dataset`.`tabla`
MULTIPART_RE = re.compile(
r"`([A-Za-z0-9_-]+)`\.`([A-Za-z0-9_-]+)`(?:\.`([A-Za-z0-9_-]+)`)?"
)
def _norm(proj: str, ds: str, tbl: str) -> tuple[str, str] | None:
if ds.upper() == "INFORMATION_SCHEMA" or tbl.upper() == "INFORMATION_SCHEMA":
return None
return (ds, tbl)
def extract_refs(ddl: str) -> set[tuple[str, str]]:
"""Devuelve el conjunto de (dataset, table) referenciados en el cuerpo del DDL.
Se queda con el SELECT (tras el primer 'AS') para no capturar el nombre del propio objeto.
"""
body = ddl
m = re.search(r"\bAS\b", ddl, flags=re.IGNORECASE)
if m:
body = ddl[m.end():]
refs: set[tuple[str, str]] = set()
# Estilo `proyecto.dataset.tabla` (todo en un backtick).
for tok in BACKTICK_RE.findall(body):
parts = [p for p in tok.split(".") if p]
if len(parts) == 3:
r = _norm(parts[0], parts[1], parts[2])
elif len(parts) == 2:
r = _norm(PROJECT, parts[0], parts[1])
else:
r = None
if r:
refs.add(r)
# Estilo `proj`.`dataset`.`tabla` (parte por backtick, 3 partes cualificadas).
# OJO: `alias`.`columna` (2 partes con cada parte en su propio backtick) es una
# referencia a columna, NO a tabla — se descarta exigiendo las 3 partes.
for mt in MULTIPART_RE.finditer(body):
g1, g2, g3 = mt.group(1), mt.group(2), mt.group(3)
if g3:
r = _norm(g1, g2, g3)
if r:
refs.add(r)
return refs
graph: dict[str, dict] = {} # key "dataset.table" -> {type, ddl, refs:[...]}
visited: set[str] = set()
def visit(dataset: str, table: str, depth: int = 0):
key = f"{dataset}.{table}"
if key in visited:
return
visited.add(key)
meta = load_dataset(dataset).get(table)
if meta is None:
graph[key] = {"type": "UNKNOWN", "ddl": "", "refs": [], "depth": depth}
return
ddl = meta["ddl"]
ttype = meta["type"]
refs: list[str] = []
if ttype in ("VIEW", "MATERIALIZED VIEW"):
for ds, tbl in sorted(extract_refs(ddl)):
# Evitar auto-referencia
if ds == dataset and tbl == table:
continue
refs.append(f"{ds}.{tbl}")
graph[key] = {"type": ttype, "ddl": ddl, "refs": refs, "depth": depth}
for ref in refs:
rds, rtbl = ref.split(".", 1)
visit(rds, rtbl, depth + 1)
# Semillas: las 14 vistas de customer_marts.
SEEDS = [
"customer_brand_affinity", "customer_category_spend", "customer_channel",
"customer_contactability", "customer_monetary", "customer_payment_method",
"customer_predictive", "customer_product", "customer_profile",
"customer_promo_tolerance", "customer_promo_usage", "customer_store_spend",
"customer_temporal", "customer_vehicles",
]
for s in SEEDS:
visit("customer_marts", s, 0)
out = {
"project": PROJECT,
"seeds": [f"customer_marts.{s}" for s in SEEDS],
"graph": graph,
}
with open("scratchpad/lineage_graph.json", "w") as f:
json.dump(out, f, indent=2, ensure_ascii=False)
# Resumen
n_view = sum(1 for v in graph.values() if v["type"] in ("VIEW", "MATERIALIZED VIEW"))
n_base = sum(1 for v in graph.values() if v["type"] == "BASE TABLE")
n_ext = sum(1 for v in graph.values() if v["type"] == "EXTERNAL")
n_unk = sum(1 for v in graph.values() if v["type"] == "UNKNOWN")
print(f"objetos totales: {len(graph)} vistas: {n_view} base: {n_base} external: {n_ext} desconocidos: {n_unk}")
print("\n== objetos por dataset ==")
by_ds: dict[str, int] = {}
for k in graph:
ds = k.split(".", 1)[0]
by_ds[ds] = by_ds.get(ds, 0) + 1
for ds, n in sorted(by_ds.items(), key=lambda x: -x[1]):
print(f" {n:3d} {ds}")
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