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sliding-automation/render_engine_v2.py
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#!/usr/bin/env python3
# -*- coding: utf-8 -*-
"""
============================================================
RENDER ENGINE V2 — Design System "PR Editorial"
SlidingAutomation / Pernod Ricard
============================================================
Principes (vs v1) :
1. Grille fixe 3 zones (titre / contenu / footer) définie
dans theme_v2.yaml — plus de coordonnées par layout.
2. Centrage vertical SYSTÉMATIQUE : chaque renderer calcule
la hauteur de son contenu puis appelle self._cy(h).
3. Sandwich dark/light, motif cercle, pas de barre d'accent.
4. Composants unifiés : _card(), _badge(), _text()…
Usage :
python3 render_engine_v2.py input.yaml output.pptx
(input YAML ou JSON, mêmes champs que v1)
============================================================
"""
import json
import os
import re
import sys
import yaml
from pptx import Presentation
from pptx.dml.color import RGBColor
from pptx.enum.shapes import MSO_SHAPE
from pptx.enum.dml import MSO_LINE_DASH_STYLE as MSO_LINE
from pptx.enum.text import MSO_ANCHOR, PP_ALIGN
from pptx.oxml.ns import qn
from pptx.util import Cm, Emu, Pt
try:
import measure
HAS_MEASURE = True
except ImportError:
HAS_MEASURE = False
FIT_TEXT = os.getenv("FIT_TEXT", "1") != "0" # C3
# ----------------------------------------------------------------
# Helpers généraux
# ----------------------------------------------------------------
def hex_to_rgb(h: str) -> RGBColor:
h = (h or "#000000").lstrip("#")
return RGBColor(int(h[0:2], 16), int(h[2:4], 16), int(h[4:6], 16))
def _blend(hex_a: str, hex_b: str, t: float) -> str:
"""Mélange linéaire déterministe de deux couleurs hex (t: 0→a, 1→b)."""
a = (hex_a or "#000000").lstrip("#")
b = (hex_b or "#FFFFFF").lstrip("#")
t = max(0.0, min(1.0, float(t)))
out = "".join(
"%02X" % round(int(a[i:i + 2], 16)
+ (int(b[i:i + 2], 16) - int(a[i:i + 2], 16)) * t)
for i in (0, 2, 4))
return "#" + out
def _image_size(path):
"""Dimensions (w, h) d'une image : Pillow si présent, sinon lecture
directe des en-têtes PNG/JPEG. None si indéterminable."""
try:
from PIL import Image
with Image.open(path) as im:
return im.size
except Exception:
pass
import struct
try:
with open(path, "rb") as f:
head = f.read(26)
if head[:8] == b"\x89PNG\r\n\x1a\n":
w, h = struct.unpack(">II", head[16:24])
return int(w), int(h)
if head[:2] == b"\xff\xd8":
f.seek(2)
while True:
b2 = f.read(2)
if len(b2) < 2 or b2[0] != 0xFF:
return None
marker = b2[1]
if marker in (0xC0, 0xC1, 0xC2, 0xC3, 0xC5, 0xC6,
0xC7, 0xC9, 0xCA, 0xCB, 0xCD, 0xCE,
0xCF):
f.read(3)
h, w = struct.unpack(">HH", f.read(4))
return int(w), int(h)
ln = struct.unpack(">H", f.read(2))[0]
f.seek(ln - 2, 1)
except Exception:
pass
return None
def pick(d, *keys, default=""):
"""Accès tolérant : première clé non vide trouvée.
Si d est une chaîne (l'agent a produit 'Texte' au lieu de {label:'Texte'}),
on la retourne directement — évite les crashs 'str has no attribute get'."""
if isinstance(d, str):
return d
if not isinstance(d, dict):
return default
for k in keys:
v = d.get(k)
if v not in (None, ""):
return v
return default
def as_label(item, *keys, default=""):
"""Normalise un élément de liste en texte : 'Texte' ou {label:'Texte'}."""
if isinstance(item, str):
return item
if isinstance(item, dict):
return pick(item, *(keys or ("label", "texte", "titre", "title")),
default=default)
return default
def estimate_text_height(text: str, size_pt: int, width_cm: float,
font_name: str = "Calibri",
bold: bool = False) -> float:
"""Hauteur d'un texte (cm). Mesure réelle PIL si disponible (C3),
sinon heuristique v2 inchangée."""
if not text:
return 0.0
if HAS_MEASURE:
try:
return measure.text_height_cm(str(text), font_name,
size_pt, width_cm, bold)
except Exception:
pass
char_w_cm = size_pt * 0.0185 # largeur moyenne d'un caractère
chars_per_line = max(1, int(width_cm / char_w_cm))
lines = 0
for para in str(text).split("\n"):
lines += max(1, -(-len(para) // chars_per_line))
return lines * size_pt * 0.0455 # hauteur de ligne ≈ 1.3 em
_MD_RES = [
(re.compile(r"\*\*(.+?)\*\*"), r"\1"),
(re.compile(r"__(.+?)__"), r"\1"),
(re.compile(r"`([^`]+)`"), r"\1"),
(re.compile(r"^#{1,4}\s+"), ""),
(re.compile(r"^[-•]\s+"), ""),
]
def strip_markdown_tree(node):
"""Nettoyage récursif du Markdown résiduel (C3) : gras,
italique, code inline, titres et puces en tête de valeur."""
if isinstance(node, dict):
return {k: strip_markdown_tree(v) for k, v in node.items()}
if isinstance(node, list):
return [strip_markdown_tree(v) for v in node]
if isinstance(node, str):
s = node
for rx, rep in _MD_RES:
s = rx.sub(rep, s)
return s
return node
# ----------------------------------------------------------------
# Moteur
# ----------------------------------------------------------------
class RenderEngineV2:
def __init__(self, theme_path="theme_v2.yaml",
layouts_path="layouts_v2.yaml",
components_path="components_v2.yaml"):
with open(theme_path, encoding="utf-8") as f:
self.theme = yaml.safe_load(f)
with open(layouts_path, encoding="utf-8") as f:
self.layouts = yaml.safe_load(f)["layouts"]
with open(components_path, encoding="utf-8") as f:
self.components = yaml.safe_load(f)["components"]
c = self.theme["colors"]
self.C = {
"navy": c["primary"]["navy"],
"navy2": c["primary"]["navy_light"],
"coral": c["accent"]["coral"],
"glacier": c["secondary"]["glacier"],
"slate": c["secondary"]["slate"],
"white": c["backgrounds"]["white"],
"card": c["backgrounds"]["card"],
"card_alt": c["backgrounds"]["card_alt"],
"body": c["text"]["body"],
"muted": c["text"]["muted"],
}
self.cycle = c["cycle"]
self.F_DISPLAY = self.theme["fonts"]["display"]
self.F_BODY = self.theme["fonts"]["body"]
self.T = self.theme["typography"]
g = self.theme["grid"]
self.MX = g["margin_x"]
self.TITLE_Y, self.TITLE_H = g["title_y"], g["title_h"]
self.CONT_Y, self.CONT_B = g["content_y"], g["content_b"]
self.CONT_H = self.CONT_B - self.CONT_Y
self.FOOTER_Y = g["footer_y"]
self.GAP, self.GAP_S = g["gap"], g["gap_small"]
self.SLIDE_W, self.SLIDE_H = 33.87, 19.05
self._section_counter = 0
# ---------------- primitives ----------------
def _cy(self, content_h: float) -> float:
"""PRINCIPE 2 : top centré verticalement dans la zone contenu."""
return self.CONT_Y + max(0.0, (self.CONT_H - content_h) / 2)
def _text(self, slide, x, y, w, h, txt, *, font=None, size=14,
bold=False, italic=False, color=None, align=PP_ALIGN.LEFT,
anchor=MSO_ANCHOR.TOP, spacing=None, char_spacing=None,
fit=True):
if (fit and FIT_TEXT and HAS_MEASURE and txt
and h and h > 0.3 and w and w > 0.5):
_ratio = (spacing / size) if spacing else None
_s, _t, _tr = measure.fit_text(
str(txt), font or self.F_BODY, size, w, h,
bold=bold, line_ratio=_ratio)
if _s != size or _tr:
print(f" ~ fit slide "
f"{getattr(self, '_slide_num', '?')} : "
f"{size}{_s} pt"
+ (" +troncature" if _tr else ""))
size, txt = _s, _t
tb = slide.shapes.add_textbox(Cm(x), Cm(y), Cm(w), Cm(h))
tf = tb.text_frame
tf.word_wrap = True
tf.vertical_anchor = anchor
tf.margin_left = tf.margin_right = 0
tf.margin_top = tf.margin_bottom = 0
p = tf.paragraphs[0]
p.alignment = align
if spacing:
p.line_spacing = Pt(spacing)
run = p.add_run()
run.text = str(txt)
run.font.name = font or self.F_BODY
run.font.size = Pt(size)
run.font.bold = bold
run.font.italic = italic
run.font.color.rgb = hex_to_rgb(color or self.C["body"])
if char_spacing:
run.font._rPr.set("spc", str(int(char_spacing * 100)))
return tb
def _rich(self, slide, x, y, w, h, parts, *, size=16,
anchor=MSO_ANCHOR.TOP, align=PP_ALIGN.LEFT):
"""Texte multi-runs : parts = [(txt, {bold, color, italic}), ...]"""
tb = slide.shapes.add_textbox(Cm(x), Cm(y), Cm(w), Cm(h))
tf = tb.text_frame
tf.word_wrap = True
tf.vertical_anchor = anchor
tf.margin_left = tf.margin_right = 0
tf.margin_top = tf.margin_bottom = 0
p = tf.paragraphs[0]
p.alignment = align
for txt, opt in parts:
r = p.add_run()
r.text = txt
r.font.name = self.F_BODY
r.font.size = Pt(size)
r.font.bold = opt.get("bold", False)
r.font.italic = opt.get("italic", False)
r.font.color.rgb = hex_to_rgb(opt.get("color", self.C["body"]))
return tb
def _rect(self, slide, x, y, w, h, color, *, rounded=False, radius=0.06):
shape_type = MSO_SHAPE.ROUNDED_RECTANGLE if rounded else MSO_SHAPE.RECTANGLE
sh = slide.shapes.add_shape(shape_type, Cm(x), Cm(y), Cm(w), Cm(h))
if rounded:
try:
sh.adjustments[0] = radius
except Exception:
pass
sh.fill.solid()
sh.fill.fore_color.rgb = hex_to_rgb(color)
sh.line.fill.background()
sh.shadow.inherit = False
return sh
def _oval(self, slide, x, y, d, color, *, dy=None):
sh = slide.shapes.add_shape(MSO_SHAPE.OVAL, Cm(x), Cm(y),
Cm(d), Cm(dy if dy else d))
sh.fill.solid()
sh.fill.fore_color.rgb = hex_to_rgb(color)
sh.line.fill.background()
sh.shadow.inherit = False
return sh
def _shadow(self, shape):
"""Ombre douce via OOXML (non exposée par python-pptx)."""
cfg = self.theme["card_style"]["shadow"]
sp = shape._element.spPr
old = sp.find(qn("a:effectLst"))
if old is not None:
sp.remove(old)
el = sp.makeelement(qn("a:effectLst"), {})
shdw = el.makeelement(qn("a:outerShdw"), {
"blurRad": str(int(cfg["blur_pt"] * 12700)),
"dist": str(int(cfg["dist_pt"] * 12700)),
"dir": str(int(cfg["dir_deg"] * 60000)),
"rotWithShape": "0",
})
clr = shdw.makeelement(qn("a:srgbClr"),
{"val": cfg["color"].lstrip("#")})
alpha = clr.makeelement(qn("a:alpha"),
{"val": str(int(cfg["alpha_pct"] * 1000))})
clr.append(alpha)
shdw.append(clr)
el.append(shdw)
sp.append(el)
def _card(self, slide, x, y, w, h, fill=None):
"""PRINCIPE 5 : carte unifiée — coins arrondis + ombre douce."""
sh = self._rect(slide, x, y, w, h, fill or self.C["card"],
rounded=True)
self._shadow(sh)
return sh
def _badge(self, slide, cx, cy_, d, num, *, fill=None, font_size=None):
"""Rond numéroté centré sur (cx, cy_)."""
self._oval(slide, cx - d / 2, cy_ - d / 2, d, fill or self.C["navy"])
fs = font_size or max(14, int(d * 11))
self._text(slide, cx - d / 2, cy_ - d / 2, d, d, str(num),
font=self.F_DISPLAY, size=fs, bold=True,
color=self.C["white"], align=PP_ALIGN.CENTER,
anchor=MSO_ANCHOR.MIDDLE)
def _title(self, slide, txt):
self._text(slide, self.MX, self.TITLE_Y,
self.SLIDE_W - 2 * self.MX, self.TITLE_H, txt,
font=self.F_DISPLAY, size=self.T["slide_title"],
bold=True, color=self.C["navy"])
def _footer(self, slide, num):
sig = self.theme["signature"]["footer"]
self._text(slide, self.MX, self.FOOTER_Y, 2, 0.7, str(num),
size=sig["size"], color=sig["color"])
self._text(slide, self.SLIDE_W - self.MX - 10, self.FOOTER_Y, 10, 0.7,
sig["right"], size=sig["size"], color=sig["color"],
align=PP_ALIGN.RIGHT)
def _bg(self, slide, color):
slide.background.fill.solid()
slide.background.fill.fore_color.rgb = hex_to_rgb(color)
# ---------------- renderers ----------------
def _render_cover_split(self, slide, d):
self._bg(slide, self.C["navy"])
for c in self.components["decor_circles"]["cover"]:
col = {"theme.primary.navy_light": self.C["navy2"],
"theme.accent.coral": self.C["coral"],
"theme.secondary.glacier": self.C["glacier"]}[c["color"]]
self._oval(slide, c["x"], c["y"], c["d"], col)
self._text(slide, self.MX, 2.5, 15, 1.0, "PERNOD RICARD",
size=13, bold=True, color=self.C["glacier"],
char_spacing=4)
self._text(slide, self.MX, 5.8, 24, 6.1,
pick(d, "titre", "title"),
font=self.F_DISPLAY, size=self.T["cover_title"],
bold=True, color=self.C["white"], spacing=52)
self._text(slide, self.MX, 12.7, 20.8, 1.5,
pick(d, "sous_titre", "subtitle", "tagline", "accroche"),
size=18, italic=True, color=self.C["coral"])
def _render_executive_summary(self, slide, d):
self._title(slide, pick(d, "titre", "title"))
labels = self.layouts["executive_summary"].get(
"labels", ["SITUATION", "COMPLICATION", "RÉSOLUTION"])
keys = ["situation", "complication", "resolution"]
colors = [self.C["navy"], self.C["coral"], self.C["glacier"]]
ch, gap = 3.68, 0.89
rows = [(labels[i], colors[i], pick(d, k)) for i, k in enumerate(keys)
if pick(d, k)]
tot = len(rows) * ch + (len(rows) - 1) * gap
y = self._cy(tot)
bd = self.components["badge"]["sizes"]["m"]
for i, (label, col, txt) in enumerate(rows):
self._card(slide, self.MX, y, self.SLIDE_W - 2 * self.MX, ch)
self._badge(slide, self.MX + 1.14 + bd / 2, y + ch / 2, bd, i + 1,
fill=col, font_size=22)
# Bloc label+texte centré verticalement dans la carte (C3b)
H_LBL, GAP_LT, H_TXT = 0.85, 0.18, 1.8
blk = H_LBL + GAP_LT + H_TXT
y_lbl = y + max(0.0, (ch - blk) / 2)
self._text(slide, self.MX + 3.81, y_lbl, 8.1, H_LBL, label,
size=14, bold=True, color=col, char_spacing=3,
anchor=MSO_ANCHOR.MIDDLE)
self._text(slide, self.MX + 3.81, y_lbl + H_LBL + GAP_LT,
self.SLIDE_W - 2 * self.MX - 5.33, H_TXT, txt,
size=self.T["body"], color=self.C["body"],
anchor=MSO_ANCHOR.MIDDLE)
y += ch + gap
def _render_section_divider(self, slide, d):
self._bg(slide, self.C["navy"])
self._section_counter += 1
num = str(d.get("numero", self._section_counter)).zfill(2)
self._text(slide, 20.6, 3.0, 12.7, 12.7, num,
font=self.F_DISPLAY, size=self.T["ghost_number"],
bold=True, color=self.C["navy2"],
align=PP_ALIGN.CENTER, anchor=MSO_ANCHOR.MIDDLE)
self._oval(slide, self.MX, 6.48, 0.66, self.C["coral"])
self._text(slide, self.MX + 1.4, 4.83, 19.3, 4.1,
pick(d, "titre", "title"),
font=self.F_DISPLAY, size=self.T["section_title"],
bold=True, color=self.C["white"],
anchor=MSO_ANCHOR.MIDDLE)
def _render_big_stat(self, slide, d):
self._title(slide, pick(d, "titre", "title"))
val = pick(d, "valeur", "stat", "chiffre", "value")
desc = pick(d, "description", "texte", "label")
src = pick(d, "source", "reference")
# Hauteur réelle du bloc (C3b) : chiffre + desc (+ source)
H_VAL, GAP_D, H_DESC, GAP_S, H_SRC = 5.1, 0.23, 2.0, 0.14, 0.9
block = H_VAL + GAP_D + H_DESC + (
GAP_S + H_SRC if src else 0.0)
y = self._cy(block)
self._text(slide, 0, y, self.SLIDE_W, H_VAL, val,
font=self.F_DISPLAY, size=self.T["stat_hero"], bold=True,
color=self.C["coral"], align=PP_ALIGN.CENTER,
anchor=MSO_ANCHOR.MIDDLE)
y_desc = y + H_VAL + GAP_D
self._text(slide, 6.86, y_desc, self.SLIDE_W - 13.72, H_DESC, desc,
size=18, color=self.C["body"], align=PP_ALIGN.CENTER)
if src:
y_src = y_desc + H_DESC + GAP_S
self._text(slide, 6.86, y_src, self.SLIDE_W - 13.72, H_SRC, src,
size=11, italic=True, color=self.C["muted"],
align=PP_ALIGN.CENTER)
def _col_items(self, col_data):
"""Extrait une liste de textes depuis une colonne two_cols."""
items = col_data.get("bullets") or col_data.get("items") or []
out = []
for b in items:
out.append(b.get("texte", "") if isinstance(b, dict) else str(b))
return out
def _render_two_cols_text(self, slide, d):
self._title(slide, pick(d, "titre", "title"))
left, right = d.get("left", {}), d.get("right", {})
col_w = (self.SLIDE_W - 2 * self.MX - 1.27) / 2
ch = 10.67
y = self._cy(ch)
hdr_h = self.components["header_band"]["height_cm"]
for i, (col, accent) in enumerate(
[(left, self.C["navy"]), (right, self.C["coral"])]):
x = self.MX + i * (col_w + 1.27)
self._card(slide, x, y, col_w, ch)
self._rect(slide, x, y, col_w, hdr_h, accent)
self._text(slide, x + 1.0, y, col_w - 2.0, hdr_h,
pick(col, "titre", "title", "header"),
size=18, bold=True, color=self.C["white"],
anchor=MSO_ANCHOR.MIDDLE)
items = self._col_items(col)
tb = slide.shapes.add_textbox(Cm(x + 1.14), Cm(y + hdr_h + 0.6),
Cm(col_w - 2.28),
Cm(ch - hdr_h - 1.2))
tf = tb.text_frame
tf.word_wrap = True
tf.vertical_anchor = MSO_ANCHOR.MIDDLE
first = True
for it in items:
p = tf.paragraphs[0] if first else tf.add_paragraph()
first = False
p.space_after = Pt(14)
r = p.add_run()
r.text = "" + it
r.font.name = self.F_BODY
r.font.size = Pt(15)
r.font.color.rgb = hex_to_rgb(self.C["body"])
def _render_kpi_grid(self, slide, d):
self._title(slide, pick(d, "titre", "title"))
items = d.get("items", [])
n = max(1, len(items))
gap = 1.14
col_w = (self.SLIDE_W - 2 * self.MX - (n - 1) * gap) / n
ch = 9.14
y = self._cy(ch)
for i, it in enumerate(items):
x = self.MX + i * (col_w + gap)
self._card(slide, x, y, col_w, ch)
self._text(slide, x + 0.89, y + 0.89, col_w - 1.78, 1.14,
pick(it, "label", "titre"),
size=15, bold=True, color=self.C["slate"],
char_spacing=2)
# Taille adaptative : chiffre court = grand, texte long = réduit
_val = str(pick(it, "valeur", "value", "stat"))
_vlen = len(_val)
if _vlen <= 6:
_vsize = self.T["stat_card"] # 54pt — "20-40%", "+13%"
elif _vlen <= 12:
_vsize = 32 # "Baisse", "Conformité"
else:
_vsize = 22 # "Données fiables"
self._text(slide, x + 0.89, y + 2.41, col_w - 1.78, 3.68,
_val,
font=self.F_DISPLAY, size=_vsize,
bold=True, color=self.C["coral"],
anchor=MSO_ANCHOR.MIDDLE)
self._text(slide, x + 0.89, y + ch - 2.67, col_w - 1.78, 2.03,
pick(it, "description", "source", "detail"),
size=12, color=self.C["muted"])
def _render_key_message(self, slide, d):
self._bg(slide, self.C["navy"])
self._text(slide, self.MX, 1.78, 5.6, 6.1, "\u201C",
font=self.F_DISPLAY, size=200, bold=True,
color=self.C["coral"])
self._text(slide, 6.6, 5.84, 23.9, 4.32,
pick(d, "message", "texte", "citation"),
font=self.F_DISPLAY, size=32, bold=True,
color=self.C["white"], spacing=40)
detail = pick(d, "detail", "sous_message", "sous_texte", "soutien")
if detail:
self._text(slide, 6.6, 10.8, 21.6, 1.5, detail,
size=18, italic=True, color=self.C["glacier"])
def _render_circular_diagram(self, slide, d):
self._title(slide, pick(d, "titre", "title"))
segs = d.get("segments", [])
n = len(segs)
if not n:
return
D = 6.35
cxc = 8.64
cyc = self.CONT_Y + self.CONT_H / 2
# positions : triangle pour 3, sinon cercle de positions
if n == 3:
centers = [(cxc - 1.83, cyc - 1.57), (cxc + 1.83, cyc - 1.57),
(cxc, cyc + 1.57)]
else:
import math
r_orb = D * 0.62
centers = [(cxc + r_orb * math.cos(2 * math.pi * i / n - math.pi / 2),
cyc + r_orb * math.sin(2 * math.pi * i / n - math.pi / 2))
for i in range(n)]
for i, seg in enumerate(segs):
col = seg.get("couleur") or self.cycle[i % len(self.cycle)]
cx0, cy0 = centers[i]
sh = self._oval(slide, cx0 - D / 2, cy0 - D / 2, D, col)
sh.line.color.rgb = hex_to_rgb(self.C["white"])
sh.line.width = Pt(2)
for i, seg in enumerate(segs):
cx0, cy0 = centers[i]
below = cy0 > cyc # quadrant : numéro haut ou bas
ny = cy0 + (D / 2 - 1.83) * (1 if below else -1) - 0.7
self._text(slide, cx0 - 1.78, ny, 3.56, 1.4,
str(i + 1).zfill(2),
font=self.F_DISPLAY, size=22, bold=True,
color=self.C["white"], align=PP_ALIGN.CENTER)
# légende droite — centrée verticalement
lh = 2.67
leg_h = n * lh
ly = self._cy(leg_h)
for i, seg in enumerate(segs):
col = seg.get("couleur") or self.cycle[i % len(self.cycle)]
self._oval(slide, 17.8, ly + 0.2, 1.27, col)
self._text(slide, 19.7, ly, 12.7, 1.07,
f"{str(i + 1).zfill(2)} {seg.get('label', '')}",
size=17, bold=True, color=self.C["navy"])
self._text(slide, 19.7, ly + 1.07, 12.7, 1.0,
seg.get("description", ""),
size=14, color=self.C["body"])
ly += lh
def _render_default_bullets(self, slide, d):
self._title(slide, pick(d, "titre", "title"))
bullets = d.get("bullets", [])
rh = 2.54
tot = len(bullets) * rh
y = self._cy(tot)
mk = self.components["square_mark"]["size_cm"]
for b in bullets:
txt = b.get("texte", "") if isinstance(b, dict) else str(b)
self._rect(slide, self.MX + 0.25, y + (rh - 0.5) / 2 - mk / 2 + 0.25,
mk, mk, self.C["coral"])
# "Mot : explication" → mot en gras navy
m = re.match(r"^([^:]{2,30})\s*:\s*(.+)$", txt)
if m:
parts = [(m.group(1) + "",
{"bold": True, "color": self.C["navy"]}),
(m.group(2), {"color": self.C["body"]})]
else:
parts = [(txt, {"color": self.C["body"]})]
self._rich(slide, self.MX + 1.52, y,
self.SLIDE_W - 2 * self.MX - 1.52, rh - 0.5, parts,
size=self.T["body_large"], anchor=MSO_ANCHOR.MIDDLE)
y += rh
def _render_numbered_steps(self, slide, d):
self._title(slide, pick(d, "titre", "title"))
steps = d.get("steps", [])
rh, gap = 3.68, 0.76
tot = len(steps) * rh + (len(steps) - 1) * gap
y = self._cy(tot)
bd = self.components["badge"]["sizes"]["l"]
for i, st in enumerate(steps):
if isinstance(st, str):
st = {"titre": st}
self._card(slide, self.MX, y, self.SLIDE_W - 2 * self.MX, rh)
self._badge(slide, self.MX + 1.02 + bd / 2, y + rh / 2, bd,
st.get("numero", i + 1), font_size=28)
self._text(slide, self.MX + 4.32, y + 0.64, 14.2, 1.27,
pick(st, "titre", "title"),
size=19, bold=True, color=self.C["navy"])
self._text(slide, self.MX + 4.32, y + 1.98,
self.SLIDE_W - 2 * self.MX - 5.84, 1.27,
pick(st, "description", "detail"),
size=15, color=self.C["body"])
y += rh + gap
def _render_phases_timeline(self, slide, d):
self._title(slide, pick(d, "titre", "title"))
phases = d.get("phases", [])
n = max(1, len(phases))
gap = 1.02
col_w = (self.SLIDE_W - 2 * self.MX - (n - 1) * gap) / n
bh = 3.81
tot = bh + 2.41
y = self._cy(tot)
# ligne pointillée de connexion
ln = slide.shapes.add_connector(1, Cm(self.MX + col_w / 2),
Cm(y + bh / 2),
Cm(self.SLIDE_W - self.MX - col_w / 2),
Cm(y + bh / 2))
ln.line.color.rgb = hex_to_rgb(self.C["muted"])
ln.line.width = Pt(1.25)
ln.line.dash_style = 4 # MSO_LINE.DASH
for i, ph in enumerate(phases):
col = self.cycle[i % len(self.cycle)]
x = self.MX + i * (col_w + gap)
sh = self._rect(slide, x, y, col_w, bh, col, rounded=True,
radius=0.08)
self._shadow(sh)
self._text(slide, x, y, col_w, bh, pick(ph, "label", "titre"),
font=self.F_DISPLAY, size=24, bold=True,
color=self.C["white"], align=PP_ALIGN.CENTER,
anchor=MSO_ANCHOR.MIDDLE)
self._text(slide, x, y + bh + 0.64, col_w, 1.5,
pick(ph, "periode", "description"),
size=15, color=self.C["body"],
align=PP_ALIGN.CENTER)
def _render_recommendation_card(self, slide, d):
sbw = self.layouts["recommendation_card"].get("sidebar_width_cm", 9.9)
self._rect(slide, 0, 0, sbw, self.SLIDE_H, self.C["navy"])
bd = self.components["badge"]["sizes"]["xl"]
titre = pick(d, "titre", "title")
cta = pick(d, "cta")
# contenu sidebar — centré verticalement sur la slide
cta_h = max(2.0, estimate_text_height(cta, 13, sbw - 2.3) + 0.8) if cta else 0
inner = bd + 0.89 + 1.78 + (1.27 + cta_h if cta else 0)
sy = (self.SLIDE_H - inner) / 2
self._badge(slide, sbw / 2, sy + bd / 2, bd,
d.get("numero", 1), fill=self.C["coral"], font_size=40)
self._text(slide, 0.76, sy + bd + 0.89, sbw - 1.52, 1.78, titre,
font=self.F_DISPLAY, size=24, bold=True,
color=self.C["white"], align=PP_ALIGN.CENTER)
if cta:
self._text(slide, 1.14, sy + bd + 0.89 + 1.78 + 1.27,
sbw - 2.28, cta_h, cta,
size=13, italic=True, color=self.C["glacier"],
align=PP_ALIGN.CENTER)
# corps droit
cx = sbw + 1.52
cw = self.SLIDE_W - sbw - 3.04
bullets = d.get("bullets", [])
texts = [b.get("texte", "") if isinstance(b, dict) else str(b)
for b in bullets]
# dédoublonnage
seen, dedup = set(), []
for t in texts:
if t not in seen:
seen.add(t)
dedup.append(t)
hdr_h = 2.16
body_h = len(dedup) * 1.57 + 1.78
tot = hdr_h + body_h
y = (self.SLIDE_H - tot) / 2
headline = pick(d, "headline", "header")
if headline:
self._rect(slide, cx, y, cw, hdr_h, self.C["navy"])
self._text(slide, cx + 1.0, y, cw - 2.0, hdr_h, headline,
size=18, bold=True, color=self.C["white"],
anchor=MSO_ANCHOR.MIDDLE, char_spacing=2)
self._card(slide, cx, y + hdr_h, cw, body_h)
tb = slide.shapes.add_textbox(Cm(cx + 1.27), Cm(y + hdr_h + 0.89),
Cm(cw - 2.54), Cm(body_h - 1.78))
tf = tb.text_frame
tf.word_wrap = True
tf.vertical_anchor = MSO_ANCHOR.MIDDLE
first = True
for t in dedup:
p = tf.paragraphs[0] if first else tf.add_paragraph()
first = False
p.space_after = Pt(12)
r = p.add_run()
r.text = "" + t
r.font.name = self.F_BODY
r.font.size = Pt(16)
r.font.color.rgb = hex_to_rgb(self.C["body"])
self._footer(slide, getattr(self, "_slide_num", ""))
def _render_end_slide(self, slide, d):
self._bg(slide, self.C["navy"])
for c in self.components["decor_circles"]["end"]:
col = {"theme.primary.navy_light": self.C["navy2"],
"theme.accent.coral": self.C["coral"]}[c["color"]]
self._oval(slide, c["x"], c["y"], c["d"], col)
self._text(slide, 4.06, 6.86, 25.7, 4.57,
pick(d, "message", "titre", "texte"),
font=self.F_DISPLAY, size=34, bold=True,
color=self.C["white"], align=PP_ALIGN.CENTER,
spacing=42)
self._text(slide, 4.06, 11.9, 25.7, 1.27, "Merci pour votre attention",
size=16, italic=True, color=self.C["glacier"],
align=PP_ALIGN.CENTER)
# ── NEW LAYOUTS — 8 extensions ────────────────────────────────────────────
def _col_positions(self, n_cols, first_col_w=None):
"""Helper : retourne [(x, width), ...] pour chaque colonne."""
if first_col_w and n_cols > 1:
rest = (self.SLIDE_W - 2*self.MX - first_col_w) / (n_cols - 1)
return [(self.MX, first_col_w)] + [
(self.MX + first_col_w + i*rest, rest) for i in range(n_cols-1)]
col_w = (self.SLIDE_W - 2*self.MX) / max(1, n_cols)
return [(self.MX + i*col_w, col_w) for i in range(n_cols)]
# ── from_to_pairs ─────────────────────────────────────────────────────────
def _render_from_to_pairs(self, slide, d):
self._title(slide, pick(d, "titre", "title"))
pairs = d.get("pairs", [])
if not pairs:
return
lbl_from = pick(d, "label_from", "ÉTAT ACTUEL")
lbl_to = pick(d, "label_to", "ÉTAT CIBLE")
ARROW_W = 2.54
col_w = (self.SLIDE_W - 2*self.MX - ARROW_W) / 2
row_h, gap, hdr_h = 1.52, 0.28, 0.76
tot = hdr_h + gap + len(pairs) * (row_h + gap)
y = self._cy(tot)
ax = self.MX + col_w # arrow zone x
tx = ax + ARROW_W # TO column x
# Headers
self._text(slide, self.MX, y, col_w, hdr_h, lbl_from,
size=13, bold=True, color=self.C["muted"],
char_spacing=3, anchor=MSO_ANCHOR.MIDDLE)
self._text(slide, tx, y, col_w, hdr_h, lbl_to,
size=13, bold=True, color=self.C["navy"],
char_spacing=3, anchor=MSO_ANCHOR.MIDDLE)
y += hdr_h + gap
for pair in pairs:
# FROM card — blue tint
self._card(slide, self.MX, y, col_w, row_h, self.C["card_alt"])
self._text(slide, self.MX + 0.64, y, col_w - 1.27, row_h,
pick(pair, "from", "de", "avant"),
size=15, italic=True, color=self.C["slate"],
anchor=MSO_ANCHOR.MIDDLE)
# Arrow
self._text(slide, ax, y, ARROW_W, row_h, "",
size=30, bold=True, color=self.C["coral"],
align=PP_ALIGN.CENTER, anchor=MSO_ANCHOR.MIDDLE)
# TO card — warm
self._card(slide, tx, y, col_w, row_h)
self._text(slide, tx + 0.64, y, col_w - 1.27, row_h,
pick(pair, "to", "vers", "après"),
size=15, bold=True, color=self.C["navy"],
anchor=MSO_ANCHOR.MIDDLE)
y += row_h + gap
# ── gantt_timeline ────────────────────────────────────────────────────────
def _render_gantt_timeline(self, slide, d):
self._title(slide, pick(d, "titre", "title"))
periods = d.get("periods", [])
workstreams = d.get("workstreams", [])
if not periods or not workstreams:
return
n_p = len(periods)
LBL_W = 4.57
GAP_COL = 0.25
GRID_W = self.SLIDE_W - 2*self.MX - LBL_W - GAP_COL
col_w = GRID_W / n_p
HDR_H = 0.80
WS_H = 0.68
TASK_H = 0.78
n_tasks = sum(len(ws.get("tasks", [])) for ws in workstreams
if isinstance(ws, dict))
total_h = HDR_H + len(workstreams)*WS_H + n_tasks*TASK_H
y0 = self._cy(total_h)
gx = self.MX + LBL_W + GAP_COL # grid x origin
# Header
self._rect(slide, self.MX, y0, self.SLIDE_W - 2*self.MX, HDR_H, self.C["navy"])
for i, p in enumerate(periods):
self._text(slide, gx + i*col_w, y0, col_w, HDR_H, p,
size=10, bold=True, color=self.C["white"],
align=PP_ALIGN.CENTER, anchor=MSO_ANCHOR.MIDDLE)
# Subtle vertical separators over full grid height
for i in range(1, n_p):
xl = gx + i * col_w
ln = slide.shapes.add_connector(1, Cm(xl), Cm(y0 + HDR_H),
Cm(xl), Cm(y0 + total_h))
ln.line.color.rgb = hex_to_rgb("#E0DEDB")
ln.line.width = Pt(0.5)
cur_y = y0 + HDR_H
for ws_idx, ws in enumerate(workstreams):
if not isinstance(ws, dict):
continue
ws_col = self.cycle[ws_idx % len(self.cycle)]
# Workstream row
self._rect(slide, self.MX, cur_y, self.SLIDE_W - 2*self.MX, WS_H, "#EEECEA")
self._rect(slide, self.MX, cur_y, 0.28, WS_H, ws_col)
self._text(slide, self.MX + 0.50, cur_y, LBL_W - 0.50, WS_H,
ws.get("label", ""), size=12, bold=True,
color=self.C["navy"], anchor=MSO_ANCHOR.MIDDLE)
cur_y += WS_H
for task in ws.get("tasks", []):
if not isinstance(task, dict):
continue
start = task.get("start", 0)
end = task.get("end", start + 1)
bg = self.C["white"]
self._rect(slide, self.MX, cur_y, self.SLIDE_W - 2*self.MX, TASK_H, bg)
self._text(slide, self.MX + 0.50, cur_y, LBL_W - 0.50, TASK_H,
" " + task.get("label", ""), size=11,
color=self.C["body"], anchor=MSO_ANCHOR.MIDDLE)
bx = gx + start * col_w + 0.14
bw = (end - start) * col_w - 0.28
self._rect(slide, bx, cur_y + 0.15, bw, TASK_H - 0.30,
ws_col, rounded=True)
cur_y += TASK_H
# bottom separator
ln = slide.shapes.add_connector(1, Cm(self.MX), Cm(cur_y),
Cm(self.SLIDE_W - self.MX), Cm(cur_y))
ln.line.color.rgb = hex_to_rgb("#D8D4CF")
ln.line.width = Pt(0.5)
# ── yearly_timeline ───────────────────────────────────────────────────────
def _render_yearly_timeline(self, slide, d):
self._title(slide, pick(d, "titre", "title"))
milestones = d.get("milestones", [])
if not milestones:
return
n = len(milestones)
D = 1.27 # circle diameter
LBL_H = 1.52
LINE_Y_DELTA = LBL_H + 0.38 # gap above line for top labels
tot_h = LBL_H * 2 + D + 0.76
y_top = self._cy(tot_h)
line_y = y_top + LBL_H + 0.38 # centre of the line / circles
usable_w = self.SLIDE_W - 2*self.MX
step = usable_w / (n - 1) if n > 1 else usable_w
# Horizontal line
ln = slide.shapes.add_connector(1,
Cm(self.MX), Cm(line_y + D/2),
Cm(self.SLIDE_W - self.MX), Cm(line_y + D/2))
ln.line.color.rgb = hex_to_rgb(self.C["navy"])
ln.line.width = Pt(1.75)
for i, ms in enumerate(milestones):
cx = self.MX + i * step
active = ms.get("actif", False)
col = self.C["coral"] if active else self.C["navy"]
lbl_col = self.C["navy"] if active else self.C["body"]
lbl_sz = 13 if active else 12
# Circle
self._oval(slide, cx - D/2, line_y, D, col)
annee = str(pick(ms, "annee", "year", str(i+1)))
self._text(slide, cx - D/2, line_y, D, D, annee,
size=10, bold=True, color=self.C["white"],
align=PP_ALIGN.CENTER, anchor=MSO_ANCHOR.MIDDLE)
# Label
lw = min(step * 0.85, 5.08) if n > 1 else usable_w
label = pick(ms, "label", "evenement", "event")
# Clamp : label ne sort jamais du slide
lx = max(self.MX, min(cx - lw/2, self.SLIDE_W - self.MX - lw))
if i % 2 == 0:
self._text(slide, lx, y_top, lw, LBL_H, label,
size=lbl_sz, bold=active, color=lbl_col,
align=PP_ALIGN.CENTER, anchor=MSO_ANCHOR.BOTTOM)
else:
self._text(slide, lx, line_y + D + 0.25, lw, LBL_H, label,
size=lbl_sz, bold=active, color=lbl_col,
align=PP_ALIGN.CENTER)
# ── comparison_table ──────────────────────────────────────────────────────
def _render_comparison_table(self, slide, d):
self._title(slide, pick(d, "titre", "title"))
headers = d.get("headers", [])
rows = d.get("rows", [])
if not headers or not rows:
return
n_cols = len(headers)
n_rows = len(rows)
HDR_H = 1.02
ROW_H = min(1.27, (self.CONT_H - HDR_H - 0.5) / n_rows)
FIRST_W = 5.08
cols = self._col_positions(n_cols, FIRST_W if n_cols > 1 else None)
total_h = HDR_H + n_rows * ROW_H
y = self._cy(total_h)
# Header
self._rect(slide, self.MX, y, self.SLIDE_W - 2*self.MX, HDR_H, self.C["navy"])
for j, (x, w) in enumerate(cols):
self._text(slide, x + 0.33, y, w - 0.33, HDR_H, headers[j],
size=13, bold=True, color=self.C["white"],
anchor=MSO_ANCHOR.MIDDLE)
# Rows
for i, row in enumerate(rows):
ry = y + HDR_H + i * ROW_H
bg = self.C["card"] if i % 2 == 0 else self.C["white"]
self._rect(slide, self.MX, ry, self.SLIDE_W - 2*self.MX, ROW_H, bg)
cells = list(row) if isinstance(row, (list, tuple)) else ([row.get("label", "")] + row.get("values", [])) if isinstance(row, dict) else [str(row)]
for j, (x, w) in enumerate(cols):
val = cells[j] if j < len(cells) else ""
self._text(slide, x + 0.33, ry, w - 0.33, ROW_H, str(val),
size=13, bold=(j == 0), color=self.C["navy"] if j == 0 else self.C["body"],
anchor=MSO_ANCHOR.MIDDLE)
# separator
ln = slide.shapes.add_connector(1, Cm(self.MX), Cm(ry + ROW_H),
Cm(self.SLIDE_W - self.MX), Cm(ry + ROW_H))
ln.line.color.rgb = hex_to_rgb("#E8E4E0")
ln.line.width = Pt(0.5)
# ── raci_table ────────────────────────────────────────────────────────────
def _render_raci_table(self, slide, d):
self._title(slide, pick(d, "titre", "title"))
roles = d.get("roles", [])
tasks = d.get("tasks", [])
if not roles or not tasks:
return
RACI_COLORS = {"R": self.C["coral"], "A": self.C["navy"],
"C": self.C["slate"], "I": self.C["muted"]}
n_cols = len(roles) + 1
n_rows = len(tasks)
HDR_H = 1.02
ROW_H = min(1.14, (self.CONT_H - HDR_H - 0.5) / n_rows)
TASK_W = 6.35
ROLE_W = (self.SLIDE_W - 2*self.MX - TASK_W) / len(roles)
BADGE = 0.64
total_h = HDR_H + n_rows * ROW_H
y = self._cy(total_h)
# Header
self._rect(slide, self.MX, y, self.SLIDE_W - 2*self.MX, HDR_H, self.C["navy"])
self._text(slide, self.MX + 0.33, y, TASK_W - 0.33, HDR_H, "Activité",
size=12, bold=True, color=self.C["white"], anchor=MSO_ANCHOR.MIDDLE)
for j, role in enumerate(roles):
rx = self.MX + TASK_W + j * ROLE_W
self._text(slide, rx, y, ROLE_W, HDR_H, role,
size=11, bold=True, color=self.C["white"],
align=PP_ALIGN.CENTER, anchor=MSO_ANCHOR.MIDDLE)
# Rows
for i, task in enumerate(tasks):
if not isinstance(task, dict):
continue
ry = y + HDR_H + i * ROW_H
bg = self.C["card"] if i % 2 == 0 else self.C["white"]
self._rect(slide, self.MX, ry, self.SLIDE_W - 2*self.MX, ROW_H, bg)
self._text(slide, self.MX + 0.33, ry, TASK_W - 0.33, ROW_H,
task.get("label", ""), size=12, color=self.C["navy"],
anchor=MSO_ANCHOR.MIDDLE)
raci = task.get("raci", [])
for j, letter in enumerate(raci):
if j >= len(roles):
break
rx = self.MX + TASK_W + j * ROLE_W + (ROLE_W - BADGE) / 2
by = ry + (ROW_H - BADGE) / 2
col = RACI_COLORS.get(letter.upper(), self.C["muted"])
self._rect(slide, rx, by, BADGE, BADGE, col, rounded=True, radius=0.08)
self._text(slide, rx, by, BADGE, BADGE, letter.upper(),
size=13, bold=True, color=self.C["white"],
align=PP_ALIGN.CENTER, anchor=MSO_ANCHOR.MIDDLE)
ln = slide.shapes.add_connector(1, Cm(self.MX), Cm(ry + ROW_H),
Cm(self.SLIDE_W - self.MX), Cm(ry + ROW_H))
ln.line.color.rgb = hex_to_rgb("#E8E4E0")
ln.line.width = Pt(0.5)
# ── process_arrow ─────────────────────────────────────────────────────────
def _render_process_arrow(self, slide, d):
self._title(slide, pick(d, "titre", "title"))
steps = d.get("steps", [])
if not steps:
return
n = len(steps)
ARR_W = 0.89
BOX_H = 2.67
DSC_H = 1.0
usable = self.SLIDE_W - 2*self.MX - ARR_W * (n - 1)
box_w = usable / n
tot_h = BOX_H + DSC_H + 0.38
y0 = self._cy(tot_h)
BADGE_D = 0.76
for i, step in enumerate(steps):
x = self.MX + i * (box_w + ARR_W)
col = self.cycle[i % len(self.cycle)]
# Box (dark bg = navy or cycle)
self._rect(slide, x, y0, box_w, BOX_H, col, rounded=True)
# Badge number top-center
self._oval(slide, x + (box_w - BADGE_D) / 2, y0 - BADGE_D/2,
BADGE_D, self.C["coral"])
self._text(slide, x + (box_w - BADGE_D) / 2, y0 - BADGE_D/2,
BADGE_D, BADGE_D, str(i + 1),
size=14, bold=True, color=self.C["white"],
align=PP_ALIGN.CENTER, anchor=MSO_ANCHOR.MIDDLE)
# Title inside box
self._text(slide, x + 0.33, y0 + 0.38, box_w - 0.66, BOX_H - 0.76,
pick(step, "titre", "title", "label"),
size=15, bold=True, color=self.C["white"],
align=PP_ALIGN.CENTER, anchor=MSO_ANCHOR.MIDDLE)
# Description below
self._text(slide, x, y0 + BOX_H + 0.28, box_w, DSC_H,
pick(step, "description", "detail"),
size=12, color=self.C["body"],
align=PP_ALIGN.CENTER)
# Connecting arrow (except last)
if i < n - 1:
ax = x + box_w
self._text(slide, ax, y0, ARR_W, BOX_H, "",
size=28, bold=True, color=self.C["coral"],
align=PP_ALIGN.CENTER, anchor=MSO_ANCHOR.MIDDLE)
# ── org_chart ─────────────────────────────────────────────────────────────
def _render_org_chart(self, slide, d):
self._title(slide, pick(d, "titre", "title"))
def _node(n):
"""Normalise un nœud : 'Texte'{label:'Texte'}, dict inchangé."""
if isinstance(n, str):
return {"label": n, "children": []}
if isinstance(n, dict):
return {"label": pick(n, "label", "titre", "title", "nom"),
"children": n.get("children", []) or []}
return {"label": str(n), "children": []}
root = d.get("root", {})
if isinstance(root, str):
root = {"label": root, "children": []}
if not root:
return
root = _node(root)
BOX_W, BOX_H = 3.81, 1.0
GAP_V, GAP_H = 1.27, 0.64
children = [_node(c) for c in root.get("children", [])]
n_children = len(children)
# grandchildren count per child (max)
max_gd = max((len(c.get("children", [])) for c in children), default=0)
# Heights
levels = 1 + (1 if children else 0) + (1 if max_gd > 0 else 0)
tot_h = levels * BOX_H + (levels - 1) * GAP_V
cy_top = self._cy(tot_h)
# Root box (centered, navy)
root_x = (self.SLIDE_W - BOX_W) / 2
self._card(slide, root_x, cy_top, BOX_W, BOX_H, self.C["navy"])
self._text(slide, root_x + 0.33, cy_top, BOX_W - 0.66, BOX_H,
root.get("label", ""), size=14, bold=True,
color=self.C["white"], align=PP_ALIGN.CENTER,
anchor=MSO_ANCHOR.MIDDLE)
if not children:
return
# Children row
child_y = cy_top + BOX_H + GAP_V
total_children_w = n_children * BOX_W + (n_children - 1) * GAP_H
child_x_start = (self.SLIDE_W - total_children_w) / 2
# Connector from root bottom to children row
for i, child in enumerate(children):
cx = child_x_start + i * (BOX_W + GAP_H)
col = self.C["card"]
self._card(slide, cx, child_y, BOX_W, BOX_H, col)
self._text(slide, cx + 0.33, child_y, BOX_W - 0.66, BOX_H,
child.get("label", ""), size=13, bold=True,
color=self.C["navy"], align=PP_ALIGN.CENTER,
anchor=MSO_ANCHOR.MIDDLE)
# Line: root bottom → child top
mid_root_x = root_x + BOX_W / 2
mid_child_x = cx + BOX_W / 2
mid_y = cy_top + BOX_H + GAP_V / 2
# Vertical from root
ln = slide.shapes.add_connector(1,
Cm(mid_root_x), Cm(cy_top + BOX_H),
Cm(mid_root_x), Cm(mid_y))
ln.line.color.rgb = hex_to_rgb(self.C["navy"])
ln.line.width = Pt(1.0)
# Horizontal to child
ln2 = slide.shapes.add_connector(1,
Cm(mid_root_x if i == 0 else child_x_start + (n_children-1)*(BOX_W+GAP_H)/2 if i == n_children-1 else mid_child_x),
Cm(mid_y), Cm(mid_child_x), Cm(mid_y))
ln2.line.color.rgb = hex_to_rgb(self.C["navy"])
ln2.line.width = Pt(1.0)
# Vertical to child
ln3 = slide.shapes.add_connector(1,
Cm(mid_child_x), Cm(mid_y),
Cm(mid_child_x), Cm(child_y))
ln3.line.color.rgb = hex_to_rgb(self.C["navy"])
ln3.line.width = Pt(1.0)
# Grandchildren — sizing dynamique pour tenir dans la colonne
grandchildren = [_node(g) for g in child.get("children", [])]
if grandchildren:
gd_y = child_y + BOX_H + GAP_V
n_gd = len(grandchildren)
col_span = BOX_W + GAP_H # largeur allouée par parent
GD_GAP = 0.25
GD_W = min(BOX_W, (col_span - GD_GAP * (n_gd - 1)) / n_gd)
GD_W = max(1.78, GD_W)
gd_total = n_gd * GD_W + (n_gd - 1) * GD_GAP
gd_x_start = cx + BOX_W/2 - gd_total/2
mid_cy_x = cx + BOX_W/2
for k, gc in enumerate(grandchildren):
gx = gd_x_start + k * (GD_W + GD_GAP)
self._card(slide, gx, gd_y, GD_W, BOX_H, "#EAF0F8")
self._text(slide, gx + 0.20, gd_y, GD_W - 0.40, BOX_H,
gc.get("label", ""), size=10,
color=self.C["navy"], align=PP_ALIGN.CENTER,
anchor=MSO_ANCHOR.MIDDLE)
mid_gx = gx + GD_W/2
ln4 = slide.shapes.add_connector(1,
Cm(mid_cy_x), Cm(child_y + BOX_H),
Cm(mid_gx), Cm(gd_y))
ln4.line.color.rgb = hex_to_rgb(self.C["muted"])
ln4.line.width = Pt(0.75)
# ── matrix_2x2 ────────────────────────────────────────────────────────────
def _render_matrix_2x2(self, slide, d):
self._title(slide, pick(d, "titre", "title"))
axis_x = d.get("axis_x", {})
axis_y = d.get("axis_y", {})
quadrants = d.get("quadrants", {})
items = d.get("items", [])
ITEM_D = 0.89
# Matrix zone
AXIS_LBL = 1.27
MAT_W = self.SLIDE_W - 2*self.MX - AXIS_LBL
MAT_H = self.CONT_H - AXIS_LBL - 0.3
tot_h = MAT_H + AXIS_LBL
y0 = self._cy(tot_h)
mx0 = self.MX + AXIS_LBL # matrix x start
# Quadrant backgrounds
hw, hh = MAT_W/2, MAT_H/2
Q_FILLS = ["#EAF0F8", self.C["card"], "#E8F4EC", "#FFF0EC"]
Q_POS = [(mx0, y0), (mx0+hw, y0), (mx0, y0+hh), (mx0+hw, y0+hh)]
for fill, (qx, qy) in zip(Q_FILLS, Q_POS):
self._rect(slide, qx, qy, hw, hh, fill)
# Axis lines
for lx, ly, ex, ey in [
(mx0, y0, mx0 + MAT_W, y0),
(mx0, y0 + MAT_H, mx0 + MAT_W, y0 + MAT_H),
(mx0, y0, mx0, y0 + MAT_H),
(mx0 + MAT_W, y0, mx0 + MAT_W, y0 + MAT_H),
(mx0 + hw, y0, mx0 + hw, y0 + MAT_H), # vertical mid
(mx0, y0 + hh, mx0 + MAT_W, y0 + hh), # horizontal mid
]:
ln = slide.shapes.add_connector(1, Cm(lx), Cm(ly), Cm(ex), Cm(ey))
ln.line.color.rgb = hex_to_rgb("#C8C4BE" if "mid" not in str(lx) else "#C8C4BE")
ln.line.width = Pt(1.0 if (lx == mx0+hw or ly == y0+hh) else 1.5)
# Quadrant labels (corners)
QD = {
"top_left": (mx0 + 0.3, y0 + 0.2),
"top_right": (mx0 + hw + 0.3, y0 + 0.2),
"bottom_left": (mx0 + 0.3, y0 + hh + 0.2),
"bottom_right": (mx0 + hw + 0.3, y0 + hh + 0.2),
}
for key, (qx, qy) in QD.items():
label = quadrants.get(key, "")
if label:
self._text(slide, qx, qy, hw - 0.5, 0.64, label,
size=11, italic=True, color=self.C["muted"])
# Axis labels
ax_lbl = pick(axis_x, "label", "x")
ay_lbl = pick(axis_y, "label", "y")
if ax_lbl:
self._text(slide, mx0, y0 + MAT_H + 0.12, MAT_W, AXIS_LBL, ax_lbl,
size=13, bold=True, color=self.C["navy"],
align=PP_ALIGN.CENTER)
if ay_lbl:
# Axe Y : flèche verticale + label court à gauche de la matrice
ln_ay = slide.shapes.add_connector(1,
Cm(self.MX + AXIS_LBL * 0.5), Cm(y0 + MAT_H),
Cm(self.MX + AXIS_LBL * 0.5), Cm(y0))
ln_ay.line.color.rgb = hex_to_rgb(self.C["navy"])
ln_ay.line.width = Pt(1.5)
self._text(slide, self.MX, y0 - 0.76, AXIS_LBL, 0.64,
f"{ay_lbl}",
size=12, bold=True, color=self.C["navy"])
# Axis extremities
for lbl, pos, anchor in [
(pick(axis_x, "low", "low_x", ""), (mx0, y0 + MAT_H + 0.1), PP_ALIGN.LEFT),
(pick(axis_x, "high", "high_x", ""), (mx0 + MAT_W - 1.5, y0 + MAT_H + 0.1), PP_ALIGN.RIGHT),
(pick(axis_y, "high", "high_y", ""), (self.MX, y0 + 0.1), PP_ALIGN.CENTER),
(pick(axis_y, "low", "low_y", ""), (self.MX, y0 + MAT_H - 0.8), PP_ALIGN.CENTER),
]:
if lbl:
self._text(slide, pos[0], pos[1], 1.5, 0.5, lbl,
size=10, italic=True, color=self.C["muted"], align=anchor)
# Items as numbered circles
for i, item in enumerate(items):
if not isinstance(item, dict):
continue
ix = item.get("x", 50) # 0-100
iy = item.get("y", 50) # 0-100
px = mx0 + (ix / 100) * MAT_W
py = y0 + ((100 - iy) / 100) * MAT_H
self._oval(slide, px - ITEM_D/2, py - ITEM_D/2, ITEM_D, self.C["coral"])
self._text(slide, px - ITEM_D/2, py - ITEM_D/2, ITEM_D, ITEM_D,
str(i + 1), size=12, bold=True, color=self.C["white"],
align=PP_ALIGN.CENTER, anchor=MSO_ANCHOR.MIDDLE)
# Legend below x-axis label
if items:
leg_y = y0 + MAT_H + AXIS_LBL * 0.55
leg_x = mx0
for i, item in enumerate(items):
lx = leg_x + i * 3.56
if lx + 3.3 > self.SLIDE_W - self.MX:
break
self._oval(slide, lx, leg_y - 0.3, 0.5, self.C["coral"])
self._text(slide, lx, leg_y - 0.3, 0.5, 0.5, str(i+1),
size=9, bold=True, color=self.C["white"],
align=PP_ALIGN.CENTER, anchor=MSO_ANCHOR.MIDDLE)
self._text(slide, lx + 0.6, leg_y - 0.35, 2.8, 0.6,
as_label(item), size=10, color=self.C["body"])
# ── FLUX LIBRE — freeform (palier 3, charte imposée) ──────────────────────
#
# Une slide freeform : { layout: freeform, mode: light|dark, blocks: [...] }
# Chaque bloc est positionné sur une grille 12x12 (col 0-12, row 0-12),
# ce qui borne le positionnement et évite les débordements.
# Les couleurs ne peuvent être que des TOKENS de charte (imposé).
# Grille libre : 12 colonnes, 12 lignes, sur la zone utile (hors marges)
FREE_COLS = 12
FREE_ROWS = 12
# Tokens de couleur autorisés (charte imposée — aucune couleur arbitraire)
_TOKEN_RE = re.compile(r"^([a-z_]+)(?:@(\d{1,3}))?$")
def _token_color(self, token: str, default: str = None) -> str:
"""Tokens de la charte + dérivés paramétrés (C6, palier 4) :
'navy@15' = navy éclairci de 15 % vers blanc. L'espace couleur
reste engendré par la charte — jamais de hex."""
mapping = {
"navy": self.C["navy"], "navy_light": self.C["navy2"],
"coral": self.C["coral"], "glacier": self.C["glacier"],
"slate": self.C["slate"], "card": self.C["card"],
"card_alt": self.C["card_alt"],
"white": self.C["white"], "body": self.C["body"],
"muted": self.C["muted"],
}
m = self._TOKEN_RE.match((token or "").strip().lower())
if not m:
return default or self.C["navy"]
base = mapping.get(m.group(1))
if base is None:
return default or self.C["navy"]
if m.group(2) is not None:
pct = min(100, int(m.group(2)))
return _blend(base, "#FFFFFF", pct / 100.0)
return base
def _free_x(self, col: float) -> float:
"""Colonne de grille (0-12) → position x en cm (dans la zone utile)."""
usable = self.SLIDE_W - 2 * self.MX
return self.MX + (col / self.FREE_COLS) * usable
def _free_y(self, row: float) -> float:
"""Ligne de grille (0-12) → position y en cm (zone titre→footer)."""
top = self.TITLE_Y
usable = self.FOOTER_Y - 0.4 - top
return top + (row / self.FREE_ROWS) * usable
def _free_w(self, cols: float) -> float:
usable = self.SLIDE_W - 2 * self.MX
return (cols / self.FREE_COLS) * usable
def _free_h(self, rows: float) -> float:
usable = self.FOOTER_Y - 0.4 - self.TITLE_Y
return (rows / self.FREE_ROWS) * usable
FREE_SHAPES = {
"chevron": MSO_SHAPE.CHEVRON,
"arrow": MSO_SHAPE.RIGHT_ARROW,
"triangle": MSO_SHAPE.ISOSCELES_TRIANGLE,
"pill": MSO_SHAPE.ROUNDED_RECTANGLE,
"donut": MSO_SHAPE.DONUT,
"bracket_left": MSO_SHAPE.LEFT_BRACKET,
"bracket_right": MSO_SHAPE.RIGHT_BRACKET,
"oval": MSO_SHAPE.OVAL,
"diamond": MSO_SHAPE.DIAMOND,
"hexagon": MSO_SHAPE.HEXAGON,
"parallelogram": MSO_SHAPE.PARALLELOGRAM,
"moon": MSO_SHAPE.MOON,
}
_DARK_BASES = {"navy", "navy_light", "slate", "body"}
FREE_MAX_BLOCKS = 15
def _set_fill_alpha(self, sh, alpha_pct):
"""Transparence du remplissage (voile) — silencieux si le
shape n'a pas de solidFill (textbox…)."""
try:
srgb = sh._element.spPr.find(qn("a:solidFill")).find(
qn("a:srgbClr"))
a = srgb.makeelement(
qn("a:alpha"),
{"val": str(int(max(0.0, min(100.0,
float(alpha_pct))) * 1000))})
srgb.append(a)
except Exception:
pass
def _free_geom(self, blk, full_bleed):
"""Grille 12×12 : zone utile par défaut, slide entière en
full_bleed."""
col = float(blk.get("col", 0))
row = float(blk.get("row", 0))
wc = float(blk.get("w", 4))
hr = float(blk.get("h", 1))
if full_bleed:
return ((col / self.FREE_COLS) * self.SLIDE_W,
(row / self.FREE_ROWS) * self.SLIDE_H,
(wc / self.FREE_COLS) * self.SLIDE_W,
(hr / self.FREE_ROWS) * self.SLIDE_H)
return (self._free_x(col), self._free_y(row),
self._free_w(wc), self._free_h(hr))
def _free_decorate(self, sh, blk):
"""Propriétés transverses du palier 4 : alpha, rotation (pas
de 15°), border {color, weight}, radius. Silencieux quand une
propriété ne s'applique pas au type de shape."""
if sh is None:
return
if blk.get("alpha") is not None:
self._set_fill_alpha(sh, blk["alpha"])
rot = blk.get("rotation")
if rot:
try:
sh.rotation = (round(float(rot) / 15.0) * 15) % 360
except Exception:
pass
border = blk.get("border")
if isinstance(border, dict):
try:
sh.line.color.rgb = hex_to_rgb(self._token_color(
border.get("color"), self.C["navy"]))
sh.line.width = Pt(float(border.get("weight", 1.0)))
except Exception:
pass
if blk.get("radius") is not None:
try:
sh.adjustments[0] = max(0.0, min(
0.5, float(blk["radius"])))
except Exception:
pass
def _render_freeform(self, slide, d):
mode = d.get("mode", "light")
bg = d.get("background")
on_dark = (mode == "dark")
if bg:
self._bg(slide, self._token_color(bg, self.C["white"]))
m = self._TOKEN_RE.match(str(bg).strip().lower())
if m and m.group(1) in self._DARK_BASES:
pct = int(m.group(2)) if m.group(2) is not None else 0
on_dark = pct < 45
else:
on_dark = False
elif on_dark:
self._bg(slide, self.C["navy"])
default_text = self.C["white"] if on_dark else self.C["body"]
blocks = d.get("blocks", [])
if len(blocks) > self.FREE_MAX_BLOCKS:
print(f" ~ freeform : {len(blocks)} blocs → "
f"{self.FREE_MAX_BLOCKS} (plafond moteur)")
blocks = blocks[:self.FREE_MAX_BLOCKS]
for blk in blocks:
btype = (blk.get("type") or "text").lower()
fb = bool(blk.get("full_bleed"))
x, y, w, h = self._free_geom(blk, fb)
sh = None
if btype == "rect":
sh = self._rect(slide, x, y, w, h,
self._token_color(blk.get("color"),
self.C["card"]),
rounded=blk.get("rounded", False))
elif btype == "card":
sh = self._card(slide, x, y, w, h,
self._token_color(blk.get("color"),
self.C["card"]))
elif btype == "circle":
d_cm = min(w, h)
sh = self._oval(slide, x, y, d_cm,
self._token_color(blk.get("color"),
self.C["coral"]))
elif btype == "shape":
kind = self.FREE_SHAPES.get(
str(blk.get("shape") or "oval").lower())
if kind is None:
print(f" ~ freeform : shape "
f"'{blk.get('shape')}' inconnue → oval")
kind = MSO_SHAPE.OVAL
sh = slide.shapes.add_shape(
kind, Cm(x), Cm(y), Cm(w), Cm(h))
sh.fill.solid()
sh.fill.fore_color.rgb = hex_to_rgb(
self._token_color(blk.get("color"),
self.C["coral"]))
sh.line.fill.background()
sh.shadow.inherit = False
_st = sh._element.find(qn("p:style"))
if _st is not None: # style implicite = ombre
sh._element.remove(_st)
if blk.get("text"):
tf = sh.text_frame
tf.word_wrap = True
tf.text = str(blk["text"])
p = tf.paragraphs[0]
p.alignment = PP_ALIGN.CENTER
for r in p.runs:
r.font.name = self.F_BODY
r.font.size = Pt(int(blk.get("size", 14)))
r.font.bold = True
r.font.color.rgb = hex_to_rgb(
self._token_color(blk.get("text_color"),
self.C["white"]))
elif btype == "line":
sh = slide.shapes.add_connector(
1, Cm(x), Cm(y), Cm(x + w), Cm(y + h))
sh.line.color.rgb = hex_to_rgb(
self._token_color(blk.get("color"),
self.C["muted"]))
sh.line.width = Pt(float(blk.get("weight", 1.25)))
if blk.get("dash"):
sh.line.dash_style = MSO_LINE.DASH
sh.shadow.inherit = False
_st = sh._element.find(qn("p:style"))
if _st is not None:
sh._element.remove(_st)
sh = None # pas de décoration fill sur ligne
elif btype == "image":
sh = self._image(slide, x, y, w, h,
blk.get("image") or blk.get("src", ""),
fit=str(blk.get("fit") or "cover"))
elif btype == "badge":
d_cm = min(w, h)
sh = self._badge(slide, x + d_cm / 2, y + d_cm / 2,
d_cm, blk.get("text", ""),
fill=self._token_color(
blk.get("color"), self.C["navy"]))
elif btype == "stat":
sh = self._text(slide, x, y, w, h, blk.get("text", ""),
font=self.F_DISPLAY,
size=int(blk.get("size", 72)),
bold=True,
color=self._token_color(
blk.get("color"), self.C["coral"]),
align=self._free_align(
blk.get("align", "left")),
anchor=MSO_ANCHOR.MIDDLE)
elif btype in ("title", "heading"):
sh = self._text(slide, x, y, w, h, blk.get("text", ""),
font=self.F_DISPLAY,
size=int(blk.get("size", 28)),
bold=True,
color=self._token_color(
blk.get("color"),
self.C["white"] if on_dark
else self.C["navy"]),
align=self._free_align(
blk.get("align", "left")),
anchor=MSO_ANCHOR.MIDDLE)
else: # text
font = self.F_DISPLAY if blk.get("serif") else self.F_BODY
sh = self._text(slide, x, y, w, h, blk.get("text", ""),
font=font,
size=int(blk.get("size", 16)),
bold=blk.get("bold", False),
italic=blk.get("italic", False),
color=self._token_color(
blk.get("color"), default_text),
align=self._free_align(
blk.get("align", "left")),
anchor=MSO_ANCHOR.TOP)
self._free_decorate(sh, blk)
def _free_align(self, a: str):
return {"left": PP_ALIGN.LEFT, "center": PP_ALIGN.CENTER,
"right": PP_ALIGN.RIGHT}.get((a or "left").lower(),
PP_ALIGN.LEFT)
# ---------------- assets & images (C4) ----------------
assets_dir = "assets" # surchargé par main() ou l'appelant
def _asset(self, name):
"""Résout un nom de fichier image vers un chemin existant :
chemin direct, puis assets_dir/name. None si introuvable."""
name = str(name or "").strip()
if not name:
return None
if os.path.isfile(name):
return name
cand = os.path.join(str(self.assets_dir or "assets"), name)
if os.path.isfile(cand):
return cand
return None
def _image(self, slide, x, y, w, h, name, fit="cover"):
"""Insère une image dans la zone (x, y, w, h) SANS déformation.
cover : remplit la zone, recadrage centré symétrique (crop_*).
contain : letterbox centré dans la zone.
Image introuvable ou illisible → placeholder déterministe."""
path = self._asset(name)
size = _image_size(path) if path else None
if not path or not size or size[0] <= 0 or size[1] <= 0:
print(f" ~ image absente ou illisible : {name} → placeholder")
self._rect(slide, x, y, w, h, self.C["card_alt"])
self._text(slide, x, y, w, h, f"[image : {name}]",
size=12, color=self.C["muted"],
align=PP_ALIGN.CENTER, anchor=MSO_ANCHOR.MIDDLE,
fit=False)
return None
iw, ih = size
target_ratio = w / h
img_ratio = iw / ih
if fit == "contain":
if img_ratio > target_ratio:
w2, h2 = w, w / img_ratio
x2, y2 = x, y + (h - h2) / 2
else:
h2, w2 = h, h * img_ratio
x2, y2 = x + (w - w2) / 2, y
return slide.shapes.add_picture(path, Cm(x2), Cm(y2),
Cm(w2), Cm(h2))
pic = slide.shapes.add_picture(path, Cm(x), Cm(y), Cm(w), Cm(h))
if img_ratio > target_ratio: # trop large → crop lat.
c = (1 - target_ratio / img_ratio) / 2
pic.crop_left = c
pic.crop_right = c
elif img_ratio < target_ratio: # trop haut → crop vert.
c = (1 - img_ratio / target_ratio) / 2
pic.crop_top = c
pic.crop_bottom = c
return pic
def _rect_alpha(self, slide, x, y, w, h, color, alpha_pct):
"""Rectangle de couleur avec transparence (voile) — OOXML."""
sh = self._rect(slide, x, y, w, h, color)
srgb = sh._element.spPr.find(qn("a:solidFill")).find(
qn("a:srgbClr"))
alpha = srgb.makeelement(
qn("a:alpha"), {"val": str(int(alpha_pct * 1000))})
srgb.append(alpha)
return sh
# ---------------- renderers images (C4) ----------------
def _render_image_split(self, slide, d):
"""Image 40 % d'un côté (side: left|right) + titre et bullets.
L'image s'arrête au-dessus du footer (numéro de page lisible)."""
side = str(d.get("side") or "left").lower()
img_w = self.SLIDE_W * 0.40
img_h = self.FOOTER_Y - 0.2
ix = 0.0 if side != "right" else self.SLIDE_W - img_w
self._image(slide, ix, 0.0, img_w, img_h,
pick(d, "image", "img"), fit="cover")
legende = pick(d, "legende", "caption")
if legende:
bh = 1.15
self._rect(slide, ix, img_h - bh, img_w, bh, self.C["navy"])
self._text(slide, ix + 0.5, img_h - bh, img_w - 1.0, bh,
legende, size=11, color=self.C["white"],
anchor=MSO_ANCHOR.MIDDLE)
cx = self.MX if side == "right" else img_w + 1.5
cw = self.SLIDE_W - img_w - 1.5 - self.MX
self._text(slide, cx, self.TITLE_Y, cw, self.TITLE_H,
pick(d, "titre", "title"),
font=self.F_DISPLAY, size=self.T["slide_title"],
bold=True, color=self.C["navy"])
bullets = [b for b in (d.get("bullets") or [])][:6]
bh_i, gap = 1.9, 0.5
tot = len(bullets) * (bh_i + gap) - gap if bullets else 0
y = self._cy(tot)
for b in bullets:
self._oval(slide, cx, y + 0.28, 0.28, self.C["coral"])
self._text(slide, cx + 0.8, y, cw - 0.8, bh_i,
as_label(b, "texte", "text"),
size=self.T["body"], color=self.C["body"])
y += bh_i + gap
def _render_image_full(self, slide, d):
"""Image plein cadre + voile navy 60 % + titre display blanc.
Ouverture de chapitre visuelle (alternative à section_divider)."""
self._bg(slide, self.C["navy"])
self._image(slide, 0.0, 0.0, self.SLIDE_W, self.SLIDE_H,
pick(d, "image", "img"), fit="cover")
self._rect_alpha(slide, 0.0, 0.0, self.SLIDE_W, self.SLIDE_H,
self.C["navy"], 60)
self._oval(slide, self.MX, 6.48, 0.66, self.C["coral"])
self._text(slide, self.MX, 7.6, 26.0, 4.5,
pick(d, "titre", "title"),
font=self.F_DISPLAY, size=44, bold=True,
color=self.C["white"], spacing=48)
st = pick(d, "sous_titre", "subtitle")
if st:
self._text(slide, self.MX, 12.3, 22.0, 1.5, st,
size=16, italic=True, color=self.C["glacier"])
# ---------------- charts natifs (C5 lot 1) ----------------
def _num(self, v, default=0.0):
"""Nombre robuste : int/float directs, chaînes '12,5' ou '12.5'."""
if isinstance(v, (int, float)):
return float(v)
try:
return float(str(v).replace(",", ".").replace(" ", ""))
except (TypeError, ValueError):
return float(default)
def _chart_series_colors(self):
return [self.C["navy"], self.C["coral"], self.C["glacier"]]
def _chart_base(self, slide, x, y, w, h, chart_type, chart_data):
"""Insertion + style de base commun (police, taille, couleur)."""
gf = slide.shapes.add_chart(chart_type, Cm(x), Cm(y),
Cm(w), Cm(h), chart_data)
ch = gf.chart
ch.font.name = self.F_BODY
ch.font.size = Pt(11)
ch.font.color.rgb = hex_to_rgb(self.C["body"])
return ch
def _chart_caption(self, slide, d):
"""Unité (droite de la zone titre) et source (bas de page)."""
unite = pick(d, "unite", "unit")
if unite:
self._text(slide, self.SLIDE_W - self.MX - 8.0,
self.TITLE_Y + 0.35, 8.0, 0.8, f"en {unite}",
size=12, italic=True, color=self.C["muted"],
align=PP_ALIGN.RIGHT)
source = pick(d, "source")
if source:
self._text(slide, self.MX, self.CONT_B - 0.55,
self.SLIDE_W - 2 * self.MX, 0.55,
f"Source : {source}", size=10,
color=self.C["muted"])
def _chart_zone(self, d):
"""Zone du graphique (réserve la ligne source si présente)."""
h = self.CONT_H - (0.7 if pick(d, "source") else 0.0)
return self.MX, self.CONT_Y, self.SLIDE_W - 2 * self.MX, h
def _render_bar_chart(self, slide, d):
from pptx.chart.data import CategoryChartData
from pptx.enum.chart import (XL_CHART_TYPE, XL_LEGEND_POSITION,
XL_LABEL_POSITION)
self._title(slide, pick(d, "titre", "title"))
self._chart_caption(slide, d)
cats = [as_label(c) for c in (d.get("categories") or [])]
series = [s for s in (d.get("series") or []) if isinstance(s, dict)]
if len(cats) > 8:
print(f" ~ bar_chart : {len(cats)} catégories → 8 (borne)")
cats = cats[:8]
if len(series) > 3:
print(f" ~ bar_chart : {len(series)} séries → 3 (borne)")
series = series[:3]
cd = CategoryChartData()
cd.categories = cats
for s in series:
vals = [self._num(v) for v in (s.get("values") or [])][:len(cats)]
vals += [0.0] * (len(cats) - len(vals))
cd.add_series(pick(s, "label", default="Série"), tuple(vals))
x, y, w, h = self._chart_zone(d)
horiz = bool(d.get("horizontal"))
ctype = (XL_CHART_TYPE.BAR_CLUSTERED if horiz
else XL_CHART_TYPE.COLUMN_CLUSTERED)
ch = self._chart_base(slide, x, y, w, h, ctype, cd)
plot = ch.plots[0]
plot.gap_width = 60
if len(series) > 1:
plot.overlap = -10
for i, ser in enumerate(ch.series):
ser.format.fill.solid()
ser.format.fill.fore_color.rgb = hex_to_rgb(
self._chart_series_colors()[i % 3])
ch.value_axis.visible = False
ch.value_axis.has_major_gridlines = False
cat_ax = ch.category_axis
cat_ax.has_major_gridlines = False
cat_ax.format.line.color.rgb = hex_to_rgb(self.C["slate"])
cat_ax.tick_labels.font.size = Pt(11)
plot.has_data_labels = True
dls = plot.data_labels
dls.font.size = Pt(10)
dls.font.bold = True
dls.font.color.rgb = hex_to_rgb(self.C["body"])
dls.position = (XL_LABEL_POSITION.OUTSIDE_END)
ch.has_legend = len(series) > 1
if ch.has_legend:
ch.legend.position = XL_LEGEND_POSITION.BOTTOM
ch.legend.include_in_layout = False
ch.legend.font.size = Pt(11)
def _render_line_chart(self, slide, d):
from pptx.chart.data import CategoryChartData
from pptx.enum.chart import (XL_CHART_TYPE, XL_LEGEND_POSITION,
XL_LABEL_POSITION, XL_MARKER_STYLE)
self._title(slide, pick(d, "titre", "title"))
self._chart_caption(slide, d)
pts = [as_label(p) for p in (d.get("points_x") or [])]
series = [s for s in (d.get("series") or []) if isinstance(s, dict)]
if len(pts) > 12:
print(f" ~ line_chart : {len(pts)} points → 12 (borne)")
pts = pts[:12]
if len(series) > 3:
print(f" ~ line_chart : {len(series)} séries → 3 (borne)")
series = series[:3]
cd = CategoryChartData()
cd.categories = pts
for s in series:
vals = [self._num(v) for v in (s.get("values") or [])][:len(pts)]
vals += [0.0] * (len(pts) - len(vals))
cd.add_series(pick(s, "label", default="Série"), tuple(vals))
x, y, w, h = self._chart_zone(d)
ch = self._chart_base(slide, x, y, w, h,
XL_CHART_TYPE.LINE_MARKERS, cd)
for i, ser in enumerate(ch.series):
col = hex_to_rgb(self._chart_series_colors()[i % 3])
ser.format.line.color.rgb = col
ser.format.line.width = Pt(2.25)
ser.smooth = False
ser.marker.style = XL_MARKER_STYLE.CIRCLE
ser.marker.size = 6
ser.marker.format.fill.solid()
ser.marker.format.fill.fore_color.rgb = col
ser.marker.format.line.fill.background()
va = ch.value_axis
va.has_major_gridlines = True
va.major_gridlines.format.line.color.rgb = hex_to_rgb(
self.C["card_alt"])
va.tick_labels.font.size = Pt(10)
va.tick_labels.font.color.rgb = hex_to_rgb(self.C["muted"])
va.format.line.fill.background()
cat_ax = ch.category_axis
cat_ax.has_major_gridlines = False
cat_ax.format.line.color.rgb = hex_to_rgb(self.C["slate"])
cat_ax.tick_labels.font.size = Pt(11)
ch.has_legend = len(series) > 1
if ch.has_legend:
ch.legend.position = XL_LEGEND_POSITION.BOTTOM
ch.legend.include_in_layout = False
ch.legend.font.size = Pt(11)
# Règle fixe : dernier point de la série 1 étiqueté corail gras
if series and pts:
try:
last = ch.series[0].points[len(pts) - 1]
dl = last.data_label
dl.position = XL_LABEL_POSITION.ABOVE
v = self._num((series[0].get("values") or [0])[
min(len(pts), len(series[0].get("values") or [])) - 1])
txt = ("%g" % v)
dl.text_frame.text = txt
run = dl.text_frame.paragraphs[0].runs[0]
run.font.size = Pt(12)
run.font.bold = True
run.font.color.rgb = hex_to_rgb(self.C["coral"])
run.font.name = self.F_BODY
except Exception as e:
print(f" ~ line_chart : étiquette dernier point sautée "
f"({e})")
def _render_donut_split(self, slide, d):
from pptx.chart.data import CategoryChartData
from pptx.enum.chart import XL_CHART_TYPE
self._title(slide, pick(d, "titre", "title"))
self._chart_caption(slide, d)
segs = [s for s in (d.get("segments") or []) if isinstance(s, dict)]
if len(segs) > 6:
print(f" ~ donut_split : {len(segs)} segments → 6 (borne)")
segs = segs[:6]
labels = [pick(s, "label", default="") for s in segs]
vals = [self._num(pick(s, "valeur", "value")) for s in segs]
cd = CategoryChartData()
cd.categories = labels
cd.add_series("Répartition", tuple(vals))
x, y, w, h = self._chart_zone(d)
cw = w * 0.55
side = min(cw, h)
cx0 = x + (cw - side) / 2
cy0 = y + (h - side) / 2
ch = self._chart_base(slide, cx0, cy0, side, side,
XL_CHART_TYPE.DOUGHNUT, cd)
ch.has_legend = False
for i, pt in enumerate(ch.series[0].points):
pt.format.fill.solid()
pt.format.fill.fore_color.rgb = hex_to_rgb(
self.cycle[i % len(self.cycle)])
pt.format.line.color.rgb = hex_to_rgb(self.C["white"])
pt.format.line.width = Pt(1.5)
plot_el = ch.plots[0]._element # <c:doughnutChart>
hs = plot_el.find(qn("c:holeSize"))
if hs is None:
hs = plot_el.makeelement(qn("c:holeSize"), {})
plot_el.append(hs)
hs.set("val", "65")
centre = pick(d, "valeur_centrale", "centre")
if centre:
self._text(slide, cx0, cy0 + side / 2 - 1.1, side, 2.2,
centre, font=self.F_DISPLAY, size=24, bold=True,
color=self.C["navy"], align=PP_ALIGN.CENTER,
anchor=MSO_ANCHOR.MIDDLE, fit=False)
# Légende détaillée custom à droite
lx = x + cw + 1.2
lw = w - cw - 1.2
ih, gap = 1.35, 0.45
tot = len(segs) * (ih + gap) - gap if segs else 0
ly = self._cy(tot)
for i, s in enumerate(segs):
self._oval(slide, lx, ly + (ih - 0.5) / 2, 0.5,
self.cycle[i % len(self.cycle)])
self._text(slide, lx + 1.0, ly, lw - 4.2, ih,
pick(s, "label", default=""),
size=14, bold=True, color=self.C["body"],
anchor=MSO_ANCHOR.MIDDLE)
self._text(slide, lx + lw - 3.2, ly, 3.2, ih,
"%g" % self._num(pick(s, "valeur", "value")),
size=14, color=self.C["muted"],
align=PP_ALIGN.RIGHT, anchor=MSO_ANCHOR.MIDDLE)
ly += ih + gap
# ---------------- data & structure (C5 lot 2) ----------------
WF_MAX_STEPS = 8
HM_MAX_COLS = 6
HM_MAX_ROWS = 8
FUNNEL_MAX = 5
def _render_waterfall(self, slide, d):
"""Pont de valeur : cumuls calculés, jamais fournis."""
self._title(slide, pick(d, "titre", "title"))
self._chart_caption(slide, d)
zx, zy, zw, zh = self._chart_zone(d)
dep = d.get("depart") or {}
arr = d.get("arrivee") or {}
marches = (d.get("marches") or [])[:self.WF_MAX_STEPS]
if len(d.get("marches") or []) > self.WF_MAX_STEPS:
print(f" ~ waterfall : marches tronquées à "
f"{self.WF_MAX_STEPS}")
v0 = self._num(pick(dep, "valeur", "value", default=0))
cums = [v0]
for m in marches:
cums.append(cums[-1] + self._num(pick(m, "delta", default=0)))
v_end = cums[-1]
declared = self._num(pick(arr, "valeur", "value",
default=v_end), default=v_end)
if abs(declared - v_end) > 1e-9:
print(f" ~ waterfall : arrivée déclarée {declared:g}"
f"cumul {v_end:g} — le cumul fait foi")
chart_top = zy + 0.7 # réserve étiquettes hautes
chart_b = zy + zh - 1.3 # réserve labels bas
chart_h = chart_b - chart_top
vmin = min(0.0, min(cums))
vmax = max(max(cums), v0, 0.0)
span = (vmax - vmin) or 1.0
hpu = chart_h / span
base_y = chart_top + vmax * hpu # y de la valeur 0
n = len(marches) + 2
slot = zw / n
bar_w = slot * 0.62
def bar(i, v_from, v_to, color):
x = zx + i * slot + (slot - bar_w) / 2
y1 = base_y - max(v_from, v_to) * hpu
h = max(0.06, abs(v_to - v_from) * hpu)
self._rect(slide, x, y1, bar_w, h, color)
return x, y1
def val_label(i, y_ref, text, color):
self._text(slide, zx + i * slot, y_ref - 0.62, slot, 0.55,
text, size=11, bold=True, color=color,
align=PP_ALIGN.CENTER, fit=False)
def cat_label(i, label):
self._text(slide, zx + i * slot + 0.05, chart_b + 0.15,
slot - 0.1, 1.05, label, size=10,
color=self.C["slate"], align=PP_ALIGN.CENTER)
def connector(x1, x2, level):
conn = slide.shapes.add_connector(
1, Cm(x1), Cm(base_y - level * hpu),
Cm(x2), Cm(base_y - level * hpu))
conn.line.color.rgb = hex_to_rgb(self.C["muted"])
conn.line.width = Pt(1.0)
conn.line.dash_style = MSO_LINE.DASH
conn.shadow.inherit = False
ln = slide.shapes.add_connector(
1, Cm(zx), Cm(base_y), Cm(zx + zw), Cm(base_y))
ln.line.color.rgb = hex_to_rgb(self.C["muted"])
ln.line.width = Pt(0.75)
ln.shadow.inherit = False
x, y1 = bar(0, 0.0, v0, self.C["navy"])
val_label(0, y1, f"{v0:g}", self.C["navy"])
cat_label(0, as_label(dep, "label", default="Départ"))
prev_x_end = x + bar_w
for i, m in enumerate(marches, start=1):
c_prev, c_cur = cums[i - 1], cums[i]
delta = c_cur - c_prev
color = self.C["coral"] if delta >= 0 else self.C["slate"]
x, y1 = bar(i, c_prev, c_cur, color)
sign = "+" if delta >= 0 else "\u2212"
val_label(i, y1, f"{sign}{abs(delta):g}", color)
cat_label(i, as_label(m, "label"))
connector(prev_x_end, x, c_prev)
prev_x_end = x + bar_w
i = n - 1
x, y1 = bar(i, 0.0, v_end, self.C["navy"])
val_label(i, y1 if v_end >= 0 else base_y, f"{v_end:g}",
self.C["navy"])
cat_label(i, as_label(arr, "label", default="Arrivée"))
connector(prev_x_end, x, v_end)
def _render_heatmap_table(self, slide, d):
"""Grille d'intensité : score 0-4 → 5 teintes du navy."""
self._title(slide, pick(d, "titre", "title"))
headers = [as_label(h) for h in (d.get("headers") or [])][
:self.HM_MAX_COLS]
rows = (d.get("rows") or [])[:self.HM_MAX_ROWS]
if not headers or not rows:
self._text(slide, self.MX, self.CONT_Y, 10, 1.0,
"[données manquantes]", size=14,
color=self.C["muted"])
return
tints = [_blend("#FFFFFF", self.C["navy"], t)
for t in (0.10, 0.28, 0.50, 0.74, 1.0)]
legende = pick(d, "legende", "legend")
label_w = 6.5
gap = 0.12
w_total = self.SLIDE_W - 2 * self.MX
col_w = (w_total - label_w - gap * len(headers)) / len(headers)
head_h = 0.9
leg_h = 0.8 if legende else 0.0
row_h = min(1.55, (self.CONT_H - head_h - leg_h
- gap * (len(rows) + 1)) / len(rows))
total_h = head_h + gap + len(rows) * (row_h + gap) + leg_h
y = self._cy(total_h)
for j, h in enumerate(headers):
x = self.MX + label_w + gap + j * (col_w + gap)
self._text(slide, x, y, col_w, head_h, h, size=12,
bold=True, color=self.C["slate"],
align=PP_ALIGN.CENTER, anchor=MSO_ANCHOR.MIDDLE)
cy = y + head_h + gap
for r in rows:
self._text(slide, self.MX, cy, label_w, row_h,
as_label(r, "label"), size=13, bold=True,
color=self.C["body"], anchor=MSO_ANCHOR.MIDDLE)
scores = (r.get("scores") if isinstance(r, dict) else []) or []
for j in range(len(headers)):
s = int(self._num(scores[j] if j < len(scores) else 0))
if not 0 <= s <= 4:
print(f" ~ heatmap : score {s} hors 0-4 — clampé")
s = max(0, min(4, s))
x = self.MX + label_w + gap + j * (col_w + gap)
self._rect(slide, x, cy, col_w, row_h, tints[s])
self._text(slide, x, cy, col_w, row_h, str(s), size=12,
bold=True,
color=self.C["white"] if s >= 2
else self.C["navy"],
align=PP_ALIGN.CENTER,
anchor=MSO_ANCHOR.MIDDLE, fit=False)
cy += row_h + gap
if legende:
self._text(slide, self.MX, cy + 0.05, w_total, 0.6, legende,
size=10, italic=True, color=self.C["muted"])
def _render_funnel(self, slide, d):
"""Entonnoir : trapèzes proportionnels, plancher 30 %,
dernier étage corail."""
self._title(slide, pick(d, "titre", "title"))
self._chart_caption(slide, d)
zx, zy, zw, zh = self._chart_zone(d)
etapes = (d.get("etapes") or [])[:self.FUNNEL_MAX]
if len(etapes) < 2:
self._text(slide, zx, zy, 12, 1.0,
"[funnel : 2 étapes minimum]", size=14,
color=self.C["muted"])
return
vals = [max(0.0, self._num(pick(e, "valeur", "value",
default=0)))
for e in etapes]
vmax = max(vals) or 1.0
has_desc = any(pick(e, "description") for e in etapes)
fun_w = zw * (0.58 if has_desc else 0.80)
cx = zx + fun_w / 2
gap = 0.18
n = len(etapes)
stage_h = (zh - 0.4 - gap * (n - 1)) / n
widths = [max(0.30, v / vmax) * fun_w for v in vals]
y = zy + 0.2
for i, e in enumerate(etapes):
wt = widths[i]
wb = widths[i + 1] if i + 1 < n else widths[i] * 0.72
color = self.C["coral"] if i == n - 1 else _blend(self.C["navy"], self.C["glacier"],
0.5 * i / max(1, n - 1))
fb = slide.shapes.build_freeform(
cx - wt / 2, y, scale=360000)
fb.add_line_segments(
[(cx + wt / 2, y),
(cx + wb / 2, y + stage_h),
(cx - wb / 2, y + stage_h)], close=True)
sh = fb.convert_to_shape()
sh.fill.solid()
sh.fill.fore_color.rgb = hex_to_rgb(color)
sh.line.fill.background()
sh.shadow.inherit = False
label = as_label(e, "label")
val = self._num(pick(e, "valeur", "value", default=0))
self._text(slide, cx - wt / 2, y + stage_h / 2 - 0.78,
wt, 0.8, label, size=14, bold=True,
color=self.C["white"], align=PP_ALIGN.CENTER,
anchor=MSO_ANCHOR.BOTTOM)
self._text(slide, cx - wt / 2, y + stage_h / 2 + 0.06,
wt, 0.6, f"{val:g}", size=12,
color=self.C["white"], align=PP_ALIGN.CENTER,
fit=False)
desc = pick(e, "description")
if desc:
dx = zx + fun_w + 1.2
self._text(slide, dx, y, zx + zw - dx, stage_h, desc,
size=13, color=self.C["body"],
anchor=MSO_ANCHOR.MIDDLE)
y += stage_h + gap
# ---------------- structure & concept (C5 lot 3) ----------------
AGENDA_MAX = 8
PYRAMID_WIDTHS = {3: (0.44, 0.72, 1.0),
4: (0.40, 0.60, 0.80, 1.0)}
def _render_agenda(self, slide, d):
"""Sommaire : badges numérotés, section active en corail."""
self._title(slide, pick(d, "titre", "title"))
sections = (d.get("sections") or [])[:self.AGENDA_MAX]
if len(d.get("sections") or []) > self.AGENDA_MAX:
print(f" ~ agenda : sections tronquées à {self.AGENDA_MAX}")
if len(sections) < 2:
self._text(slide, self.MX, self.CONT_Y, 12, 1.0,
"[agenda : 2 sections minimum]", size=14,
color=self.C["muted"])
return
n = len(sections)
gap = 0.5
row_h = min(1.9, (self.CONT_H - gap * (n - 1)) / n)
tot = n * row_h + (n - 1) * gap
y = self._cy(tot)
bd = self.components["badge"]["sizes"]["m"]
x0 = self.MX + 1.5
w = self.SLIDE_W - 2 * self.MX - 3.0
for i, s in enumerate(sections):
if not isinstance(s, dict):
s = {"label": str(s)}
actif = bool(s.get("actif"))
num = s.get("numero", i + 1)
fill = self.C["coral"] if actif else self.C["navy"]
self._badge(slide, x0 + bd / 2, y + row_h / 2, bd, num,
fill=fill, font_size=20)
self._text(slide, x0 + bd + 1.0, y, w - bd - 6.0, row_h,
as_label(s, "label", "titre"),
size=20 if actif else 19, bold=actif,
color=self.C["navy"] if actif
else self.C["body"],
anchor=MSO_ANCHOR.MIDDLE)
duree = pick(s, "duree", "duration")
if duree:
self._text(slide, x0 + w - 4.5, y, 4.5, row_h, duree,
size=13, italic=True, color=self.C["muted"],
align=PP_ALIGN.RIGHT,
anchor=MSO_ANCHOR.MIDDLE, fit=False)
if i < n - 1:
self._rect(slide, x0 + bd + 1.0,
y + row_h + gap / 2 - 0.015,
w - bd - 1.0, 0.03, self.C["card"])
y += row_h + gap
def _render_pyramid(self, slide, d):
"""Pyramide à degrés : largeurs fixes, couleurs fixes."""
self._title(slide, pick(d, "titre", "title"))
niveaux = (d.get("niveaux") or d.get("levels") or [])[:4]
if len(niveaux) < 3:
self._text(slide, self.MX, self.CONT_Y, 12, 1.0,
"[pyramid : 3 ou 4 niveaux]", size=14,
color=self.C["muted"])
return
n = len(niveaux)
widths = self.PYRAMID_WIDTHS[n]
colors = [self.C["navy"], self.C["navy2"],
self.C["slate"], self.C["glacier"]]
if n == 3:
colors = [self.C["navy"], self.C["navy2"],
self.C["glacier"]]
has_desc = any(isinstance(nv, dict) and pick(nv, "description")
for nv in niveaux)
zone_w = self.SLIDE_W - 2 * self.MX
pyr_w = zone_w * (0.58 if has_desc else 0.80)
pyr_x = self.MX if has_desc else self.MX + (zone_w - pyr_w) / 2
cx = pyr_x + pyr_w / 2
gap = 0.15
avail = self.CONT_H - 0.4
stage_h = (avail - gap * (n - 1)) / n
y = self._cy(avail) + 0.2
for i, nv in enumerate(niveaux):
if not isinstance(nv, dict):
nv = {"label": str(nv)}
wt = widths[i] * pyr_w
color = colors[i]
txt_color = self.C["navy"] if color == self.C["glacier"] else self.C["white"]
self._rect(slide, cx - wt / 2, y, wt, stage_h, color)
self._text(slide, cx - wt / 2 + 0.3, y, wt - 0.6, stage_h,
as_label(nv, "label", "titre"),
size=16, bold=True, color=txt_color,
align=PP_ALIGN.CENTER, anchor=MSO_ANCHOR.MIDDLE)
desc = pick(nv, "description", "detail")
if desc:
dx = pyr_x + pyr_w + 1.2
self._text(slide, dx, y,
self.SLIDE_W - self.MX - dx, stage_h, desc,
size=13, color=self.C["body"],
anchor=MSO_ANCHOR.MIDDLE)
y += stage_h + gap
# ---------------- orchestration ----------------
REGISTRY = {
"cover_split": "_render_cover_split",
"executive_summary": "_render_executive_summary",
"section_divider": "_render_section_divider",
"big_stat": "_render_big_stat",
"two_cols_text": "_render_two_cols_text",
"kpi_grid": "_render_kpi_grid",
"key_message": "_render_key_message",
"circular_diagram": "_render_circular_diagram",
"default_bullets": "_render_default_bullets",
"numbered_steps": "_render_numbered_steps",
"phases_timeline": "_render_phases_timeline",
"recommendation_card": "_render_recommendation_card",
"end_slide": "_render_end_slide",
"freeform": "_render_freeform",
"from_to_pairs": "_render_from_to_pairs",
"gantt_timeline": "_render_gantt_timeline",
"yearly_timeline": "_render_yearly_timeline",
"comparison_table": "_render_comparison_table",
"raci_table": "_render_raci_table",
"process_arrow": "_render_process_arrow",
"org_chart": "_render_org_chart",
"matrix_2x2": "_render_matrix_2x2",
"agenda": "_render_agenda",
"pyramid": "_render_pyramid",
"waterfall": "_render_waterfall",
"heatmap_table": "_render_heatmap_table",
"funnel": "_render_funnel",
"bar_chart": "_render_bar_chart",
"line_chart": "_render_line_chart",
"donut_split": "_render_donut_split",
"image_split": "_render_image_split",
"image_full": "_render_image_full",
}
def render(self, data, output_path: str):
if isinstance(data, str):
data = yaml.safe_load(data)
data = strip_markdown_tree(data)
slides = data.get("slides", data) if isinstance(data, dict) else data
prs = Presentation()
prs.slide_width = Cm(self.SLIDE_W)
prs.slide_height = Cm(self.SLIDE_H)
blank = prs.slide_layouts[6]
self._section_counter = 0
excluded = set(self.theme["signature"]["footer_excluded_layouts"])
for i, sd in enumerate(slides):
slide = prs.slides.add_slide(blank)
layout = sd.get("layout", "default_bullets")
self._slide_num = i + 1
method = self.REGISTRY.get(layout)
if not method:
print(f" ⚠ Layout inconnu '{layout}' → default_bullets")
method = "_render_default_bullets"
layout = "default_bullets"
if layout == "freeform":
# Le freeform gère son fond lui-même selon sd["mode"]
if sd.get("mode", "light") == "light":
self._bg(slide, self.C["white"])
getattr(self, method)(slide, sd)
if sd.get("footer", True):
self._footer(slide, i + 1)
else:
mode = self.layouts.get(layout, {}).get("mode", "light")
if mode == "light":
self._bg(slide, self.C["white"])
getattr(self, method)(slide, sd)
if layout not in excluded and layout != "recommendation_card":
self._footer(slide, i + 1)
notes = sd.get("notes") if isinstance(sd, dict) else None
if notes:
slide.notes_slide.notes_text_frame.text = str(notes)
prs.save(output_path)
print(f"✓ PPTX généré : {output_path} ({len(slides)} slides)")
def main():
import argparse
parser = argparse.ArgumentParser(
description="Sliding render_engine V2 — PR Editorial")
parser.add_argument("input_file", help="Fichier YAML/JSON de la présentation")
parser.add_argument("output", help="Chemin du PPTX à générer")
parser.add_argument("--theme", default="theme_v2.yaml")
parser.add_argument("--components", default="components_v2.yaml")
parser.add_argument("--layouts", default="layouts_v2.yaml")
parser.add_argument("--assets", default=None,
help="Dossier des images (défaut : <input>/../assets)")
args = parser.parse_args()
for f in [args.input_file, args.theme, args.components, args.layouts]:
if not os.path.exists(f):
print(f"✗ Fichier introuvable : {f}")
sys.exit(1)
with open(args.input_file, encoding="utf-8") as f:
data = yaml.safe_load(f)
engine = RenderEngineV2(args.theme, args.layouts, args.components)
engine.assets_dir = args.assets or os.path.join(
os.path.dirname(os.path.abspath(args.input_file)),
"..", "assets")
engine.render(data, args.output)
if __name__ == "__main__":
main()