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# -*- coding: utf-8 -*-
# app.py — Bayesian Journey Dashboard (Colab-friendly, robust Excel + plots)
# Fixes:
# - ✅ 정규화 유틸(_as_all, _ensure_key_cols 등) 포함
# - ✅ pick_row_for 포함
# - ✅ Plotly 축 그리드 속성 정리(유효하지 않은 prop 제거)
# - ✅ 포트 충돌 시 자동 대체 포트로 재시도
import os, json, re, traceback
import numpy as np
import pandas as pd
import plotly.graph_objects as go
import plotly.express as px
from dash import Dash, html, dcc, dash_table, Input, Output, State
from dash.dash_table import FormatTemplate
from dash.dash_table.Format import Format, Scheme
import dash # (NEW) 인터랙션 로그용
# (파일 상단 import 근처에 추가)
import io
import hashlib
FLOW_SALT = os.getenv("FLOW_SALT", "phi-v1-2025-01") # 필요시 환경변수로 바꿔치기 가능
FLOW_SALT = os.getenv("FLOW_SALT", "phi-v1-2025-01")
FLOW_GLOBAL = True # True면 전역 고정, False면 해시 기반
GLOBAL_K = 11.3
def _flow_scale(seg, mod, loy):
if FLOW_GLOBAL:
return GLOBAL_K
key = f"{seg}|{mod}|{loy}|{FLOW_SALT}"
h = int(hashlib.sha256(key.encode("utf-8")).hexdigest()[:8], 16)
return 7.5 + (h % 1100) / 100.0
# ======== 인터랙션 공용 설정 ========
GRAPH_CONFIG = {
"displayModeBar": True,
"scrollZoom": True, # 휠로 줌
"doubleClick": "reset", # 더블클릭 리셋
"modeBarButtonsToAdd": ["lasso2d", "select2d"],
"showTips": True,
}
# ===================== 기본 경로 =====================
from pathlib import Path
ROOT = Path(__file__).resolve().parent
DEFAULT_PATH = os.getenv("EXCEL_PATH", str(ROOT / "bayesian_analysis_total_v1.xlsx"))
EXCEL_PATH = DEFAULT_PATH
# (load_excel 호출은 DEFAULT_PATH 그대로여도 동작, 명시하려면 EXCEL_PATH로)
# ===================== 레벨 상수 =====================
LEVEL_OVERALL="전체"; LEVEL_SEGMENT="세그먼트"; LEVEL_MODEL="모델"
LEVEL_LOYALTY="충성도"; LEVEL_SEG_X_LOY="세그×충성도"
LEVEL_SEG_X_MODEL="세그×모델"; LEVEL_MODEL_X_LOY="모델×충성도"
LEVEL_MOD_X_SEG_X_LOY="모델×세그×충성도"
# === 정규화 ===
ALL_ALIASES = {"ALL","all","All","", " ", " ", "전체", "NONE","None","none","nan","NaN", None}
LVL_ALIASES = {
"모델전체×세그×충성도": "모델×세그×충성도",
"세그x모델": "세그×모델",
"모델x충성도": "모델×충성도",
"세그x충성도": "세그×충성도",
}
def _as_all(v) -> str:
s = "ALL" if v is None else str(v).strip()
return "ALL" if s in ALL_ALIASES else s
def _ensure_key_cols(df: pd.DataFrame) -> pd.DataFrame:
df = df.copy()
for c in ["analysis_level","segment","model","loyalty"]:
if c not in df.columns:
df[c] = "ALL"
df[c] = (
df[c].astype(str).str.strip()
.replace({
"": "ALL", "전체":"ALL",
"NONE":"ALL","None":"ALL","none":"ALL",
"nan":"ALL","NaN":"ALL",
"ALL":"ALL","All":"ALL","all":"ALL"
})
.fillna("ALL")
)
if "level" not in df.columns:
df["level"] = df["analysis_level"] if "analysis_level" in df.columns else "전체"
df["level"] = (
df["level"].astype(str).str.strip()
.replace({"ALL":"전체","All":"전체","all":"전체"})
.replace(LVL_ALIASES)
)
if "analysis_level" in df.columns:
df["analysis_level"] = df["analysis_level"].replace(LVL_ALIASES)
return df
# ---- Store JSON 로더 & 스왑 감지 유틸 ----
def _looks_split_df_json(s: str) -> bool:
try:
o = json.loads(s)
# orient="split"는 최소 columns/index/data 3셋이 있음
return isinstance(o, dict) and {"columns","index","data"}.issubset(set(o.keys()))
except Exception:
return False
def _looks_overall_json(s: str) -> bool:
try:
o = json.loads(s)
return isinstance(o, dict) and any(k in o for k in ("pref_mean","rec_mean","intent_mean","buy_mean"))
except Exception:
return False
def _safe_read_df_split(js: str | dict | None) -> pd.DataFrame:
if js is None:
return pd.DataFrame()
if isinstance(js, dict): # 이미 파싱된 경우
# dict가 split 스키마인 경우만 처리
if {"columns","index","data"}.issubset(set(js.keys())):
return pd.read_json(io.StringIO(json.dumps(js)), orient="split")
return pd.DataFrame()
# str
try:
return pd.read_json(io.StringIO(js), orient="split")
except Exception:
return pd.DataFrame()
def _safe_read_overall(js: str | dict | None) -> dict:
if js is None:
return {}
if isinstance(js, dict):
return js
try:
o = json.loads(js)
return o if isinstance(o, dict) else {}
except Exception:
return {}
def _maybe_swap_sankey_overall(js_sankey, js_overall):
"""
sankey 캐시와 overall이 뒤바뀌어 들어온 경우 자동 교정.
(js_sankey가 overall dict이고, js_overall이 split DF JSON인 케이스)
"""
try:
if isinstance(js_sankey, str) and _looks_overall_json(js_sankey) \
and isinstance(js_overall, str) and _looks_split_df_json(js_overall):
return js_overall, js_sankey, True # (교정된 sankey, overall, swapped?)
except Exception:
pass
return js_sankey, js_overall, False
_read_df_store = _safe_read_df_split
_read_overall = _safe_read_overall
def _rebuild_hkey_using_level(df: pd.DataFrame) -> pd.DataFrame:
df = _ensure_key_cols(df).copy()
if "level" in df.columns and df["level"].notna().any():
pass
elif "analysis_level" in df.columns:
df["level"] = df["analysis_level"]
else:
df["level"] = "전체"
for c in ["level","segment","model","loyalty"]:
if c != "level":
df[c] = (
df[c].astype(str).str.strip()
.replace({"": "ALL","전체":"ALL","NONE":"ALL","None":"ALL","none":"ALL","nan":"ALL","NaN":"ALL"})
.fillna("ALL")
)
df["level"] = df["level"].replace(LVL_ALIASES)
df["hierarchy_key"] = df["level"] + "|" + df["segment"] + "|" + df["model"] + "|" + df["loyalty"]
return df
def sample_col_in_df(df) -> str | None:
for c in ["pref_sample_size","sample_size","n","N","base","베이스수","표본수"]:
if c in df.columns: return c
return None
# ==== 비공개 유량 스케일 ====
FLOW_GLOBAL = True
GLOBAL_K = 11.3
# ==== 공용: Shape-safe helpers (가짜 키 자동 차단 + 보정) ====
_ALLOWED_SHAPE_KEYS = {
"editable","fillcolor","fillrule","label","layer","legend","legendgroup","legendgrouptitle",
"legendrank","legendwidth","line","name","opacity","path","showlegend","templateitemname",
"type","visible","x0","x1","xanchor","xref","xsizemode","y0","y1","yanchor","yref","ysizemode",
}
# 여기가 문제의 가짜 키들
_SHIFT_KEYS = ("x0shift", "x1shift", "y0shift", "y1shift")
def _line_from_kwargs(kwargs: dict):
line = {}
if "line_color" in kwargs: line["color"] = kwargs.pop("line_color")
if "line_width" in kwargs: line["width"] = kwargs.pop("line_width")
if "line_dash" in kwargs: line["dash"] = kwargs.pop("line_dash")
return {k: v for k, v in line.items() if v is not None}
def _clean_shape_kwargs(kwargs: dict):
"""
1) *_shift 키 제거
2) line_* → line 병합
3) 허용 키만 남기기
"""
kwargs = dict(kwargs) # shallow copy
# 1) 가짜 shift 키 모두 제거
for k in _SHIFT_KEYS:
kwargs.pop(k, None)
# 2) line_* → line 병합
line = _line_from_kwargs(kwargs)
if line:
base_line = kwargs.get("line") or {}
kwargs["line"] = {**base_line, **line}
# 3) 허용 키만 통과
return {k: v for k, v in kwargs.items() if (k in _ALLOWED_SHAPE_KEYS and v is not None)}
def add_vline_safe(fig, x, **kwargs):
"""세로 기준선(가짜 키 차단, line_* 병합)"""
base = dict(
type="line", xref="x", x0=float(x), x1=float(x),
yref="paper", y0=0, y1=1,
layer=kwargs.pop("layer", "above"),
)
if "opacity" in kwargs and kwargs["opacity"] is not None:
base["opacity"] = kwargs.pop("opacity")
base.update(_clean_shape_kwargs(kwargs))
return fig.add_shape(**base)
def add_hline_safe(fig, y, **kwargs):
"""가로 기준선(가짜 키 차단, line_* 병합)"""
base = dict(
type="line", yref="y", y0=float(y), y1=float(y),
xref="paper", x0=0, x1=1,
layer=kwargs.pop("layer", "above"),
)
if "opacity" in kwargs and kwargs["opacity"] is not None:
base["opacity"] = kwargs.pop("opacity")
base.update(_clean_shape_kwargs(kwargs))
return fig.add_shape(**base)
def _pad_top(fig, px=40):
# 기존 margin 유지 + top만 늘림
m = fig.layout.margin or {}
fig.update_layout(margin=dict(
l=int(getattr(m, "l", 10) or 10),
r=int(getattr(m, "r", 10) or 10),
b=int(getattr(m, "b", 10) or 10),
t=int(getattr(m, "t", 0) or 0) + int(px),
))
return fig
def add_vrect_safe(fig, x0, x1, **kwargs):
"""
add_vrect 대체: x0shift/x1shift를 값에 반영 후 제거하고,
나머지 키는 안전하게 정리해서 rect shape로 추가.
"""
# ── shift 보정 ──
dx0 = float(kwargs.pop("x0shift", 0) or 0)
dx1 = float(kwargs.pop("x1shift", 0) or 0)
x0 = float(x0) + dx0
x1 = float(x1) + dx1
# yref 자동 판정(명시가 있으면 존중)
yref = kwargs.pop("yref", None)
has_y = ("y0" in kwargs) or ("y1" in kwargs)
if yref is None:
yref = "y" if has_y else "paper"
# paper 좌표 기본값
y0_default, y1_default = (0, 1) if yref == "paper" else (None, None)
base = dict(
type="rect", xref="x", x0=x0, x1=x1,
yref=yref, y0=kwargs.pop("y0", y0_default), y1=kwargs.pop("y1", y1_default),
layer=kwargs.pop("layer", "below"),
fillcolor=kwargs.pop("fillcolor", "rgba(0,0,0,0.06)"),
)
if base["yref"] == "y":
# 데이터 축이면 None인 y0/y1 제거
if base.get("y0") is None: base.pop("y0", None)
if base.get("y1") is None: base.pop("y1", None)
if "opacity" in kwargs and kwargs["opacity"] is not None:
base["opacity"] = kwargs.pop("opacity")
base.update(_clean_shape_kwargs(kwargs))
return fig.add_shape(**base)
# (선택) 만약 어딘가에서 layout.shapes에 직접 dict를 넣는다면:
def sanitize_shape_dict(d: dict) -> dict:
"""외부/레거시 shape dict을 안전하게 정제.
- x0shift/x1shift/y0shift/y1shift 값을 좌표에 반영하고 키 제거
- line_* 키 병합
- 허용되지 않는 키 삭제
"""
d = dict(d or {})
# 1) shift -> 좌표 반영
for sh_key, coord_key in (("x0shift","x0"),("x1shift","x1"),("y0shift","y0"),("y1shift","y1")):
if sh_key in d:
try:
if coord_key in d and d[coord_key] is not None:
d[coord_key] = float(d[coord_key]) + float(d.pop(sh_key) or 0.0)
else:
d.pop(sh_key, None)
except Exception:
d.pop(sh_key, None)
# 2) line_* -> line 병합
line = {}
if "line_color" in d: line["color"] = d.pop("line_color")
if "line_width" in d: line["width"] = d.pop("line_width")
if "line_dash" in d: line["dash"] = d.pop("line_dash")
if line:
base_line = d.get("line") or {}
d["line"] = {**base_line, **{k:v for k,v in line.items() if v is not None}}
# 3) 허용 키만 남기기
return {k: v for k, v in d.items() if (k in _ALLOWED_SHAPE_KEYS and v is not None)}
def _scrub_layout_shapes(fig: go.Figure) -> go.Figure:
"""
layout.shapes에 남아있는 비정상 키(x0shift 같은 잔재)를 일괄 제거.
"""
try:
shapes = list(fig.layout.shapes) if fig.layout.shapes is not None else []
cleaned = []
for sh in shapes:
try:
sd = sh.to_plotly_json() if hasattr(sh, "to_plotly_json") else dict(sh)
cleaned.append(sanitize_shape_dict(sd)) # ← 기존 유틸 재사용
except Exception:
# 하나라도 문제면 그냥 건너뜀(도면 깨지지 않게)
continue
fig.update_layout(shapes=cleaned)
except Exception:
pass
return fig
def sanitize_fig_shapes(fig):
"""fig.layout.shapes 전부 sanitize."""
try:
shapes = list(fig.layout.shapes) if fig.layout.shapes else []
except Exception:
shapes = []
if not shapes:
return fig
new_shapes = []
for sh in shapes:
try:
sd = sh.to_plotly_json() if hasattr(sh, "to_plotly_json") else dict(sh)
new_shapes.append(sanitize_shape_dict(sd))
except Exception:
# 망가진 건 버림
pass
fig.update_layout(shapes=new_shapes)
return fig
# ===================== 팔레트 =====================
COL_RED = "#C32C2C" # 빨강
COL_ORANGE = "#D24D3E" # 주황
COL_YELLOW = "#DE937A" # 노랑
COL_BEIGE = "#D49442" # 베이지
COL_GREEN_LITE = "#2B8E81" # 초록(기본)
COL_GREEN_DARK = "#21786E" # 초록 진한톤(필요시)
COL_GRAY = "#D3D3D3"
def _hex_to_rgb_tuple(h): # 유틸
h = h.lstrip("#")
return [int(h[i:i+2], 16) for i in (0,2,4)]
def royg_color_for(values: np.ndarray) -> list:
v = np.asarray(values, dtype=float)
if v.size == 0: return []
if not np.isfinite(v).any():
return [COL_GREEN_DARK] * len(v)
lo = np.nanmin(v); hi = np.nanmax(v)
t = np.zeros_like(v) if (not np.isfinite(lo) or not np.isfinite(hi) or hi-lo < 1e-12) else (v-lo)/(hi-lo)
# 낮은값(좋음) → 높은값(나쁨): 초 → 베 → 노 → 주 → 빨
cols = np.array([
_hex_to_rgb_tuple(COL_GREEN_LITE),
_hex_to_rgb_tuple(COL_BEIGE),
_hex_to_rgb_tuple(COL_YELLOW),
_hex_to_rgb_tuple(COL_ORANGE),
_hex_to_rgb_tuple(COL_RED),
], dtype=float)
stops = np.array([0.0, 0.25, 0.5, 0.75, 1.0])
r = np.interp(t, stops, cols[:,0]); g = np.interp(t, stops, cols[:,1]); b = np.interp(t, stops, cols[:,2])
out = []
for rr, gg, bb in zip(r,g,b):
if not (np.isfinite(rr) and np.isfinite(gg) and np.isfinite(bb)):
out.append('rgb(140,140,140)')
else:
out.append(f'rgb({int(round(rr))},{int(round(gg))},{int(round(bb))})')
return out
# ==== DESIGN CONSTANTS (tiers & neutrals) ====
COL_BLUE_DEEP = "#1E3A8A" # 진파랑(하이엔드)
COL_BLUE_SKY = "#60A5FA" # 하늘(미드)
COL_GRAY_MED = "#9CA3AF" # 회색(로우/중립)
COL_BLACK = "#111111" # 포레스트 플롯용
# 세그/티어 → 색 매핑 (모든 키는 소문자 기준으로 저장)
_SEG_TIER_COLOR = {
# High/Premium 계열
"highend": COL_BLUE_DEEP, "high": COL_BLUE_DEEP, "premium": COL_BLUE_DEEP,
"하이엔드": COL_BLUE_DEEP, "프리미엄": COL_BLUE_DEEP,
# Mid 계열
"midend": COL_BLUE_SKY, "mid": COL_BLUE_SKY, "midrange": COL_BLUE_SKY,
"미드": COL_BLUE_SKY, "중간": COL_BLUE_SKY,
# Low/Entry 계열
"lowend": COL_GRAY_MED, "low": COL_GRAY_MED, "entry": COL_GRAY_MED,
"로우엔드": COL_GRAY_MED, "저가": COL_GRAY_MED,
}
def _norm_key(x) -> str:
return "" if x is None else str(x).strip().lower()
def _tier_color_for_segment(seg: str) -> str:
"""세그 이름을 느슨하게 받아 컬러로 매핑(대소문자/공백/한글 허용)."""
return _SEG_TIER_COLOR.get(_norm_key(seg), COL_GRAY_MED)
def _model_dominant_segment(df_scope: pd.DataFrame) -> dict:
"""
모델별 '표본수 가중' 우세 세그. segment가 ALL/전체인 행은 제외.
반환: {model(str): segment(str)}
"""
if df_scope is None or df_scope.empty or "model" not in df_scope.columns or "segment" not in df_scope.columns:
return {}
s = df_scope.copy()
# ALL/전체 drop
seg_norm = s["segment"].astype(str).str.strip()
m_valid = ~seg_norm.isin(["ALL", "전체"]) & seg_norm.notna()
s = s[m_valid]
if s.empty:
return {}
w = pd.to_numeric(s.get("pref_sample_size", 1), errors="coerce").replace([np.inf, -np.inf], np.nan).fillna(1.0)
s["__w__"] = w
grp = s.groupby(["model", "segment"], as_index=False)["__w__"].sum()
# 각 모델에서 가중치 최대인 세그 1개 선택
dom = grp.sort_values(["model", "__w__"], ascending=[True, False]).drop_duplicates("model")
return {str(r["model"]): str(r["segment"]) for _, r in dom.iterrows()}
# ===================== 앱 =====================
app = Dash(__name__)
app.title = "Bayesian Journey Dashboard"
px.defaults.template = "plotly_white"
def _safe_num(x, default=np.nan):
try: return float(x)
except Exception: return default
def _safe_int0(x):
try:
v = float(x)
return int(v) if np.isfinite(v) else 0
except Exception:
return 0
def _norm_cols(df: pd.DataFrame) -> pd.DataFrame:
if df is None or df.empty: return pd.DataFrame()
df = df.copy()
df.columns = [str(c).strip() for c in df.columns]
for c in df.columns:
if df[c].dtype == "O":
ser = pd.to_numeric(df[c], errors="coerce")
if ser.notna().mean() >= 0.5: df[c] = ser
return df
def _ci_to_sd(lo, hi):
lo = np.asarray(lo, dtype=float); hi = np.asarray(hi, dtype=float)
return (hi - lo)/(2*1.96)
def _grade_from_p(p):
if not np.isfinite(p): return "N/A"
if p >= 0.70: return "A"
if p >= 0.55: return "B"
if p >= 0.45: return "C"
return "D"
def _auto_dtick(span):
# 0~1 퍼센트 축 span 기준
if span <= 0.30: return 0.05 # 5%
if span >= 0.80: return 0.20 # 20%
return 0.10 # 10%
def apply_dense_grid(fig: go.Figure, x_prob: bool = False, y_prob: bool = False) -> go.Figure:
# 1) 기존 높이 보존(없을 때만 360 지정)
cur_h = getattr(fig.layout, "height", None)
fig.update_layout(
height=(cur_h if cur_h is not None else 360),
showlegend=True,
paper_bgcolor="#fff",
plot_bgcolor="#fff",
font=dict(color="#111"),
margin=dict(l=10, r=10, t=30, b=10),
)
# 2) 기본 격자
fig.update_xaxes(showline=False, mirror=False, linewidth=0)
fig.update_yaxes(showline=False, mirror=False, linewidth=0)
# 3) plotly 버전별 minor 옵션 안전 처리
try:
fig.update_xaxes(minor=dict(showgrid=False))
fig.update_yaxes(minor=dict(showgrid=False))
except Exception:
pass
# 4) 확률축(0~1) 포맷
if x_prob:
xr = (getattr(fig.layout.xaxis, "range", None) or [0, 1])
span = (xr[1] - xr[0]) if isinstance(xr, (list, tuple)) and len(xr) == 2 else 1.0
fig.update_xaxes(tick0=0, dtick=_auto_dtick(span), tickformat=".0%")
if y_prob:
yr = (getattr(fig.layout.yaxis, "range", None) or [0, 1])
span = (yr[1] - yr[0]) if isinstance(yr, (list, tuple)) and len(yr) == 2 else 1.0
fig.update_yaxes(tick0=0, dtick=_auto_dtick(span), tickformat=".0%")
# 5) 인터랙션 상태 유지
fig.update_layout(uirevision="keep")
# 6) 레이아웃 shape 잔재(x0shift 등) 전역 스크럽
try:
fig = _scrub_layout_shapes(fig) # sanitize_shape_dict를 내부에서 활용
except Exception:
pass
return fig
# ★ 여기 추가: 모든 shape 정제
try:
sanitize_fig_shapes(fig)
except Exception:
pass
return fig
# ---- Excel 오픈(엔진 폴백 + 디버그 수집) ----
def _open_excel_with_fallback(path: str):
errs = []
for eng in ["openpyxl", None, "xlrd"]:
try:
xls = pd.ExcelFile(path, engine=eng) if eng else pd.ExcelFile(path)
return xls, (eng or "auto")
except Exception as e:
errs.append(f"{(eng or 'auto')}: {type(e).__name__}::{e}")
raise RuntimeError("Excel open failed | " + " | ".join(errs))
def _find_sheet(xls: pd.ExcelFile, candidates):
names = xls.sheet_names
norm = lambda s: re.sub(r"\s+", "", str(s)).lower()
names_norm = {norm(n): n for n in names}
for cand in candidates:
cn = norm(cand)
for k, orig in names_norm.items():
if cn in k:
return orig
return None
def load_excel(path: str):
if not os.path.exists(path):
raise FileNotFoundError(f"엑셀 파일이 없습니다: {path}")
xls, used_engine = _open_excel_with_fallback(path)
sheets = list(xls.sheet_names)
sh_master = _find_sheet(xls, ["VBA마스터테이블", "마스터", "master", "mastertable", "마스터테이블"])
sh_tm = _find_sheet(xls, ["베이지안전이확률매트릭스", "전이확률", "transition", "matrix"])
sh_sankey = _find_sheet(xls, ["베이지안생키다이어그램", "생키", "sankey", "flow"])
dbg = {"engine": used_engine, "sheets": sheets,
"matched": {"master": sh_master, "tm": sh_tm, "sankey": sh_sankey}}
if not sh_master:
raise ValueError(f"필수 시트(마스터) 미발견 | sheets={sheets}")
df_master = _norm_cols(pd.read_excel(xls, sh_master))
df_tm = _norm_cols(pd.read_excel(xls, sh_tm)) if sh_tm else pd.DataFrame()
df_sankey = _norm_cols(pd.read_excel(xls, sh_sankey)) if sh_sankey else pd.DataFrame()
df_master = _rebuild_hkey_using_level(df_master)
if not df_tm.empty: df_tm = _rebuild_hkey_using_level(df_tm)
if not df_sankey.empty: df_sankey = _rebuild_hkey_using_level(df_sankey)
def col(name): return df_master.get(name, pd.Series(np.nan, index=df_master.index))
overall = {
"pref_mean": float(np.nanmean(col("pref_success_rate"))),
"rec_mean": float(np.nanmean(col("rec_success_rate"))),
"intent_mean": float(np.nanmean(col("intent_success_rate"))),
"buy_mean": float(np.nanmean(col("buy_success_rate"))),
"pref_sd": float(np.nanmean(_ci_to_sd(col("pref_ci_lower"), col("pref_ci_upper")))),
"rec_sd": float(np.nanmean(_ci_to_sd(col("rec_ci_lower"), col("rec_ci_upper")))),
"intent_sd": float(np.nanmean(_ci_to_sd(col("intent_ci_lower"), col("intent_ci_upper")))),
"buy_sd": float(np.nanmean(_ci_to_sd(col("buy_ci_lower"), col("buy_ci_upper")))),
}
seg_opts = ["ALL"] + sorted([str(v) for v in df_master["segment"].dropna().unique() if str(v)!="ALL"])
loy_opts = ["ALL"] + sorted([str(v) for v in df_master["loyalty"].dropna().unique() if str(v)!="ALL"])
mod_opts_all = ["ALL"] + sorted([str(v) for v in df_master["model"].dropna().unique() if str(v)!="ALL"])
return df_master, df_tm, df_sankey, overall, seg_opts, mod_opts_all, loy_opts, dbg
# ===================== 선택/집계 로직 =====================
def pick_row_for(df_master: pd.DataFrame, seg, mod, loy):
seg = _as_all(seg); mod = _as_all(mod); loy = _as_all(loy)
df = _ensure_key_cols(df_master)
sort_col = sample_col_in_df(df)
if sort_col is None:
sort_col = "__tmp_n__"; df[sort_col] = 1
def add_pref_score(sub: pd.DataFrame) -> pd.DataFrame:
# 사용자가 ALL로 둔 차원은 ALL을 선호(=덜 구체적인 행을 상단에)
score = 0
if seg == "ALL": score += (sub["segment"]=="ALL").astype(int)
if mod == "ALL": score += (sub["model"]=="ALL").astype(int)
if loy == "ALL": score += (sub["loyalty"]=="ALL").astype(int)
sub = sub.copy(); sub["__score__"] = score
return sub
chosen = (seg!="ALL") + (mod!="ALL") + (loy!="ALL")
wanted_levels = []
if chosen == 0:
wanted_levels = [LEVEL_OVERALL]
elif chosen == 1:
if seg!="ALL": wanted_levels = [LEVEL_SEGMENT, LEVEL_OVERALL]
if mod!="ALL": wanted_levels = [LEVEL_MODEL, LEVEL_OVERALL]
if loy!="ALL": wanted_levels = [LEVEL_LOYALTY, LEVEL_OVERALL]
elif chosen == 2:
if seg!="ALL" and mod!="ALL":
wanted_levels = [LEVEL_SEG_X_MODEL, LEVEL_SEGMENT, LEVEL_MODEL, LEVEL_OVERALL]
elif seg!="ALL" and loy!="ALL":
wanted_levels = [LEVEL_SEG_X_LOY, LEVEL_SEGMENT, LEVEL_LOYALTY, LEVEL_OVERALL]
elif mod!="ALL" and loy!="ALL":
wanted_levels = [LEVEL_MODEL_X_LOY, LEVEL_MODEL, LEVEL_LOYALTY, LEVEL_OVERALL]
else:
wanted_levels = [
LEVEL_MOD_X_SEG_X_LOY, LEVEL_SEG_X_LOY, LEVEL_SEG_X_MODEL, LEVEL_MODEL_X_LOY,
LEVEL_MODEL, LEVEL_SEGMENT, LEVEL_LOYALTY, LEVEL_OVERALL
]
# 1) 레벨 우선 매칭
for lvl in wanted_levels:
sub = df[df["level"] == lvl]
if seg!="ALL": sub = sub[sub["segment"] == seg]
if mod!="ALL": sub = sub[sub["model"] == mod]
if loy!="ALL": sub = sub[sub["loyalty"] == loy]
if not sub.empty:
sub = add_pref_score(sub).sort_values(["__score__", sort_col], ascending=[False, False])
row = sub.iloc[0]
return row.drop(labels=[c for c in ["__score__","__tmp_n__"] if c in row.index])
# 2) 정확 조합 실패 시, 부분조합 매칭
sub = df.copy()
if seg!="ALL": sub = sub[sub["segment"] == seg]
if mod!="ALL": sub = sub[sub["model"] == mod]
if loy!="ALL": sub = sub[sub["loyalty"] == loy]
if not sub.empty:
sub = add_pref_score(sub).sort_values(["__score__", sort_col], ascending=[False, False])
row = sub.iloc[0]
return row.drop(labels=[c for c in ["__score__","__tmp_n__"] if c in row.index])
# 3) 단일 컬럼만 맞는 행이라도
for col, val in [("segment", seg), ("model", mod), ("loyalty", loy)]:
if val != "ALL":
sub = df[df[col]==val]
if not sub.empty:
sub = add_pref_score(sub).sort_values(["__score__", sort_col], ascending=[False, False])
row = sub.iloc[0]
return row.drop(labels=[c for c in ["__score__","__tmp_n__"] if c in row.index])
# 4) 완전 실패 시 표본수 최대
row = df.sort_values(sort_col, ascending=False).iloc[0]
return row.drop(labels=[c for c in ["__score__","__tmp_n__"] if c in row.index])
# ===================== 차트/표 유틸 =====================
def _pick_sample_for_stage(r, stage_prefix: str) -> int:
for c in [f"{stage_prefix}_sample_size", "sample_size", "n", "N", "base", "베이스수", "표본수"]:
if c in r and pd.notna(r.get(c)):
return _safe_int0(r.get(c))
return _safe_int0(r.get("pref_sample_size"))
def metrics_table_row(r):
def sd_from_ci(lo, hi):
if pd.isna(lo) or pd.isna(hi): return np.nan
return (hi - lo)/(2*1.96)
rows = []
mapping = [
("선호", "pref_success_rate", "pref_ci_lower", "pref_ci_upper", "pref_snr", "pref_lift_vs_galaxy"),
("추천", "rec_success_rate", "rec_ci_lower", "rec_ci_upper", "rec_snr", "rec_lift_vs_galaxy"),
("구매의향", "intent_success_rate", "intent_ci_lower", "intent_ci_upper", "intent_snr", "intent_lift_vs_galaxy"),
("구매", "buy_success_rate", "buy_ci_lower", "buy_ci_upper", "buy_snr", "buy_lift_vs_galaxy"),
]
for label, m, lo, hi, snr, lift in mapping:
mval = _safe_num(r.get(m))
loval = _safe_num(r.get(lo))
hival = _safe_num(r.get(hi))
snrval = _safe_num(r.get(snr))
liftval= _safe_num(r.get(lift))
stage_prefix = m.split("_")[0]
rows.append(dict(
단계=label,
베이스수=_pick_sample_for_stage(r, stage_prefix),
성공확률=mval, 하한=loval, 상한=hival,
실패확률=(None if pd.isna(mval) else 1-mval),
판정=("성공" if (np.isfinite(mval) and mval>=0.5) else ("실패" if np.isfinite(mval) else "N/A")),
평가등급=("N/A" if not np.isfinite(mval) else ("A" if mval>=0.70 else "B" if mval>=0.55 else "C" if mval>=0.45 else "D")),
SNR=snrval, Lift=liftval, raw평균=mval,
raw표준편차=sd_from_ci(loval, hival)
))
return pd.DataFrame(rows)
def drops_from_anywhere(row, df_tm, seg, mod, loy):
seg = _as_all(seg); mod = _as_all(mod); loy = _as_all(loy)
d1 = _safe_num(row.get("bayesian_dropout_pref_to_rec"))
d2 = _safe_num(row.get("bayesian_dropout_rec_to_intent"))
d3 = _safe_num(row.get("bayesian_dropout_intent_to_buy"))
full = _safe_num(row.get("bayesian_full_conversion"))
if df_tm is None or df_tm.empty:
return d1, d2, d3, full
need = [np.isfinite(d1), np.isfinite(d2), np.isfinite(d3), np.isfinite(full)]
if all(need): return d1, d2, d3, full
m = pd.Series(True, index=df_tm.index)
if "segment" in df_tm and seg!="ALL": m &= (df_tm["segment"].astype(str)==seg)
if "model" in df_tm and mod!="ALL": m &= (df_tm["model"].astype(str)==mod)
if "loyalty" in df_tm and loy!="ALL": m &= (df_tm["loyalty"].astype(str)==loy)
sub = df_tm[m].copy()
if sub.empty: sub = df_tm.copy()
w = pd.to_numeric(sub.get("pref_sample_size", pd.Series(1, index=sub.index)), errors="coerce").fillna(1)
def wmean(col):
v = pd.to_numeric(sub.get(col, pd.Series(np.nan, index=sub.index)), errors="coerce")
if v.notna().any(): return float(np.nansum(v*w)/np.nansum(w))
return np.nan
d1 = d1 if np.isfinite(d1) else wmean("bayesian_dropout_pref_to_rec")
d2 = d2 if np.isfinite(d2) else wmean("bayesian_dropout_rec_to_intent")
d3 = d3 if np.isfinite(d3) else wmean("bayesian_dropout_intent_to_buy")
full = full if np.isfinite(full) else wmean("bayesian_full_conversion")
return d1, d2, d3, full
def biggest_drop_text_by_sources(row, df_tm, seg, mod, loy):
d1, d2, d3, _ = drops_from_anywhere(row, df_tm, seg, mod, loy)
pairs = [("선호→추천", d1), ("추천→구매의향", d2), ("구매의향→구매", d3)]
pairs = [(n, v) for n, v in pairs if np.isfinite(v)]
if not pairs: return "데이터 없음"
name, val = max(pairs, key=lambda x: x[1])
base_n = _safe_int0(row.get("pref_sample_size"))
return f"{name}에서 {val*100:.1f}%p 손실 (샘플 {base_n:,})"
def compose_composite_row(df_scope: pd.DataFrame) -> pd.Series:
if df_scope is None or df_scope.empty:
return pd.Series(dtype=float)
s = df_scope.copy()
w = pd.to_numeric(s.get("pref_sample_size", pd.Series(1, index=s.index)), errors="coerce").fillna(1.0)
w_sum = float(np.nansum(w)) if np.isfinite(np.nansum(w)) and np.nansum(w) > 0 else 1.0
w_norm = w / w_sum
def wmean(col):
v = pd.to_numeric(s.get(col, pd.Series(np.nan, index=s.index)), errors="coerce")
if v.notna().any(): return float(np.nansum(v * w_norm))
return np.nan
def combine_ci(lo_col, hi_col, mean_col):
m = pd.to_numeric(s.get(mean_col, pd.Series(np.nan, index=s.index)), errors="coerce")
lo = pd.to_numeric(s.get(lo_col, pd.Series(np.nan, index=s.index)), errors="coerce")
hi = pd.to_numeric(s.get(hi_col, pd.Series(np.nan, index=s.index)), errors="coerce")
if not (m.notna().any() and lo.notna().any() and hi.notna().any()):
return np.nan, np.nan
m_bar = float(np.nansum(m * w_norm))
sd = (hi - lo) / (2 * 1.96)
sd = pd.to_numeric(sd, errors="coerce")
var = np.nansum(w_norm * (sd**2 + (m - m_bar)**2))
sd_c = float(np.sqrt(var)) if np.isfinite(var) else np.nan
if not np.isfinite(sd_c): return np.nan, np.nan
return (m_bar - 1.96 * sd_c), (m_bar + 1.96 * sd_c)
pref_m = wmean("pref_success_rate")
rec_m = wmean("rec_success_rate")
intent_m = wmean("intent_success_rate")
buy_m = wmean("buy_success_rate")
pref_lo, pref_hi = combine_ci("pref_ci_lower", "pref_ci_upper", "pref_success_rate")
rec_lo, rec_hi = combine_ci("rec_ci_lower", "rec_ci_upper", "rec_success_rate")
intent_lo, intent_hi = combine_ci("intent_ci_lower", "intent_ci_upper", "intent_success_rate")
buy_lo, buy_hi = combine_ci("buy_ci_lower", "buy_ci_upper", "buy_success_rate")
d1 = wmean("bayesian_dropout_pref_to_rec")
d2 = wmean("bayesian_dropout_rec_to_intent")
d3 = wmean("bayesian_dropout_intent_to_buy")
full = wmean("bayesian_full_conversion")
pref_snr = wmean("pref_snr"); rec_snr = wmean("rec_snr")
intent_snr = wmean("intent_snr"); buy_snr = wmean("buy_snr")
pref_lift = wmean("pref_lift_vs_galaxy"); rec_lift = wmean("rec_lift_vs_galaxy")
intent_lift = wmean("intent_lift_vs_galaxy"); buy_lift = wmean("buy_lift_vs_galaxy")
out = {
"pref_sample_size": float(np.nansum(w)),
"pref_success_rate": pref_m, "pref_ci_lower": pref_lo, "pref_ci_upper": pref_hi,
"rec_success_rate": rec_m, "rec_ci_lower": rec_lo, "rec_ci_upper": rec_hi,
"intent_success_rate": intent_m, "intent_ci_lower": intent_lo, "intent_ci_upper": intent_hi,
"buy_success_rate": buy_m, "buy_ci_lower": buy_lo, "buy_ci_upper": buy_hi,
"bayesian_dropout_pref_to_rec": d1,
"bayesian_dropout_rec_to_intent": d2,
"bayesian_dropout_intent_to_buy": d3,
"bayesian_full_conversion": full,
"pref_snr": pref_snr, "rec_snr": rec_snr, "intent_snr": intent_snr, "buy_snr": buy_snr,
"pref_lift_vs_galaxy": pref_lift, "rec_lift_vs_galaxy": rec_lift,
"intent_lift_vs_galaxy": intent_lift, "buy_lift_vs_galaxy": buy_lift,
}
return pd.Series(out)
# ===================== 차트 =====================
def _empty_fig(msg="Load data first", height=360, hide_axes=False):
fig = go.Figure()
fig.add_annotation(text=msg, x=0.5, y=0.5, xref="paper", yref="paper", showarrow=False)
fig.update_layout(
height=height,
margin=dict(l=10, r=10, t=30, b=10),
paper_bgcolor="#ffffff",
plot_bgcolor="#ffffff",
uirevision="keep",
)
fig = apply_dense_grid(fig) # 기존 스타일 유지
if hide_axes: # Sankey 등 카테시안 축이 불필요한 경우
fig.update_xaxes(visible=False, showgrid=False, zeroline=False)
fig.update_yaxes(visible=False, showgrid=False, zeroline=False)
return fig
def hex_to_rgba(hex_color: str, a: float | None = None) -> str:
s = hex_color.strip().lstrip("#")
if len(s) in (3, 4):
s = "".join(ch * 2 for ch in s)
if len(s) == 6:
r = int(s[0:2], 16); g = int(s[2:4], 16); b = int(s[4:6], 16)
alpha = 1.0 if a is None else float(a)
elif len(s) == 8:
r = int(s[0:2], 16); g = int(s[2:4], 16); b = int(s[4:6], 16)
hex_alpha = int(s[6:8], 16) / 255.0
alpha = hex_alpha if a is None else float(a)
else:
raise ValueError("hex must be #RGB, #RRGGBB, or #RRGGBBAA")
alpha = max(0.0, min(1.0, alpha))
return f"rgba({r},{g},{b},{alpha:.3g})"
def _normalize_stage_label(v: str) -> str | None:
if v is None:
return None
s = str(v).strip().lower()
s = re.sub(r'[\s\-\_]+', ' ', s) # 공백/-,_ 정리
joined = s.replace(' ', '')
# 전체
if any(k in (s, joined) for k in [
"overall","total","all","전체","전체사용자","모든사용자","allusers","all user","all-user"
]):
return "전체"
# 미선호(비선호/탈락/드랍/No preference 등)
if any(k in (s, joined) for k in [
"미선호","비선호","선호아님","선호 아님",
"nopref","no preference","dislike","탈락","drop","dropped"
]):
return "미선호"
# 구매의향(의향/의도/의사/intent 계열)
if ("의향" in s) or ("의도" in s) or ("의사" in s) \
or ("intent" in s) or ("intention" in s) \
or ("purchaseintent" in joined) or ("purchase-intent" in s):
return "구매의향"
# 구매(실제구매/구매완료/구매확정/구입/결제/매출/buy/purchase)
if ("구매" in s) or ("구입" in s) or ("결제" in s) or ("결재" in s) or ("매출" in s) \
or (s == "buy") or ("purchase" in s):
return "구매"
# 선호
if ("선호" in s) or ("호감" in s) or ("preference" in s) or (s == "pref"):
return "선호"
# 추천
if (s == "rec") or ("recommend" in s) or ("추천" in s):
return "추천"
return None
# ==== STAGES & ORDER (기존 것을 교체) ====
STAGES = ["전체", "미선호", "선호", "추천", "구매의향", "구매"]
ORDER = {v:i for i,v in enumerate(STAGES)}
# 색상 하나 추가(은은한 회색 계열 권장)
COL_STAGE_DROP = "#CBD5E1" # 미선호
def _group_forward_flows(df_sankey, seg, mod, loy):
if df_sankey is None or df_sankey.empty:
return pd.DataFrame(columns=["from_stage","to_stage","count","flow_phi"])
seg = _as_all(seg); mod = _as_all(mod); loy = _as_all(loy)
s = df_sankey.copy()
m = pd.Series(True, index=s.index)
if "segment" in s and seg!="ALL": m &= (s["segment"].astype(str)==seg)
if "model" in s and mod!="ALL": m &= (s["model"].astype(str)==mod)
if "loyalty" in s and loy!="ALL": m &= (s["loyalty"].astype(str)==loy)
s = s[m].copy()
if s.empty:
return pd.DataFrame(columns=["from_stage","to_stage","count","flow_phi"])
alias = {
"all":"전체","ALL":"전체","전체":"전체",
"pref":"선호","preference":"선호","선호도":"선호",
"rec":"추천","recommend":"추천","추천도":"추천",
"intent":"구매의향","intention":"구매의향","구매의도":"구매의향",
"purchase":"구매","buy":"구매","실제구매":"구매"
}
s["from_stage"] = s.get("from_stage", s.get("from", s.get("source"))).astype(str).str.strip().replace(alias)
s["to_stage"] = s.get("to_stage", s.get("to", s.get("target"))).astype(str).str.strip().replace(alias)
# 🔑 count 별칭 허용
cnt_cands = ["bayesian_flow_count","count","value","weight","n","freq"]
cnt_col = next((c for c in cnt_cands if c in s.columns), None)
if cnt_col is None:
return pd.DataFrame(columns=["from_stage","to_stage","count","flow_phi"])
s[cnt_col] = pd.to_numeric(s[cnt_col], errors="coerce")
s = s[np.isfinite(s[cnt_col]) & (s[cnt_col]>0)]
s = s[s["from_stage"].isin(STAGES) & s["to_stage"].isin(STAGES)]
s = s[s.apply(lambda r: ORDER[r["from_stage"]] < ORDER[r["to_stage"]], axis=1)]
if s.empty:
return pd.DataFrame(columns=["from_stage","to_stage","count","flow_phi"])
g = (s.groupby(["from_stage","to_stage"], as_index=False)[cnt_col]
.sum().rename(columns={cnt_col:"count"}))
# [유입 없는 단계 보강] 전체→단계 링크 자동 추가
pairs = set(zip(g["from_stage"], g["to_stage"]))
def _has_incoming(stage):
k = ORDER[stage]
return any((prev, stage) in pairs for prev in STAGES[:k])
add_rows = []
for st in STAGES[1:]:
if not _has_incoming(st):
out_sum = float(g.loc[g["from_stage"] == st, "count"].sum())
if out_sum > 0:
add_rows.append({"from_stage": "전체", "to_stage": st, "count": out_sum})
if add_rows:
g = pd.concat([g, pd.DataFrame(add_rows)], ignore_index=True)
# φ 스케일 적용
k = _flow_scale(seg, mod, loy)
g["flow_phi"] = g["count"].astype(float) * k
return g
# ===== Sankey 내부용 테이블 빌더(간접 포함, 구매로 접기 옵션) =====
# 노드(베이지) & 링크(회색) 팔레트
COL_STAGE_OVERALL = "#B68E5C" # 전체
COL_STAGE_PREF = "#C6955E" # 선호
COL_STAGE_REC = "#D5A86D" # 추천
COL_STAGE_INTENT = "#BE8F4E" # 의향
COL_STAGE_BUY = "#A97F45" # 구매
COL_LINK_DIRECT = "#4B5563" # 직접(짙은 회색)
COL_LINK_INDIRECT = "#D1D5DB" # 간접(연한 회색)
def _sankey_build_table(df_sankey, seg="ALL", mod="ALL", loy="ALL",
collapse_to_buy=True, collapse_from=("선호","추천","구매의향")) -> pd.DataFrame:
if df_sankey is None or df_sankey.empty:
return pd.DataFrame(columns=["from_stage","to_stage","count","dist","kind","to_buy","flow_phi"])
s = df_sankey.copy()
# --- [NEW] 호환 가드: 열 별칭을 표준 이름으로 통일 ---
# 1) from/to 별칭 → from_stage/to_stage
from_col = next((c for c in ["from_stage","from","source","src"] if c in s.columns), None)
to_col = next((c for c in ["to_stage","to","target","dst"] if c in s.columns), None)
if from_col and from_col != "from_stage":
s = s.rename(columns={from_col: "from_stage"})
if to_col and to_col != "to_stage":
s = s.rename(columns={to_col: "to_stage"})
# 필수 열 없으면 빈 테이블 반환 (안전 가드)
if "from_stage" not in s.columns or "to_stage" not in s.columns:
return pd.DataFrame(columns=["from_stage","to_stage","count","dist","kind","to_buy","flow_phi"])
# 2) 수치 열 별칭 → bayesian_flow_count
alt_cnt = next((c for c in ["bayesian_flow_count","count","value","flow","weight","n","freq"]
if c in s.columns), None)
if alt_cnt and alt_cnt != "bayesian_flow_count":
s = s.rename(columns={alt_cnt: "bayesian_flow_count"})
# 필터
for col, val in (("segment", seg), ("model", mod), ("loyalty", loy)):
if col in s.columns and str(val) != "ALL":
s = s[s[col].astype(str) == str(val)]
if s.empty:
return pd.DataFrame(columns=["from_stage","to_stage","count","dist","kind","to_buy","flow_phi"])
# 라벨 정규화 → 순방향만
s["from_stage"] = s.get("from_stage", s.get("from", s.get("source"))).map(_normalize_stage_label)
s["to_stage"] = s.get("to_stage", s.get("to", s.get("target"))).map(_normalize_stage_label)
s = s.dropna(subset=["from_stage","to_stage"])
s = s[s["from_stage"].isin(STAGES) & s["to_stage"].isin(STAGES)]
s = s[s.apply(lambda r: ORDER[r["from_stage"]] < ORDER[r["to_stage"]], axis=1)]
# 🔑 count 컬럼 별칭 허용 (원천 시트/캐시 시트 모두 커버)
cnt_cands = ["bayesian_flow_count", "count", "value", "weight", "n", "freq"]
cnt_col = next((c for c in cnt_cands if c in s.columns), None)
if cnt_col is None:
return pd.DataFrame(columns=["from_stage","to_stage","count","dist","kind","to_buy","flow_phi"])
s[cnt_col] = pd.to_numeric(s[cnt_col], errors="coerce")
s = s[np.isfinite(s[cnt_col]) & (s[cnt_col] > 0)]
if s.empty:
return pd.DataFrame(columns=["from_stage","to_stage","count","dist","kind","to_buy","flow_phi"])
# 기본 집계
g = (s.groupby(["from_stage","to_stage"], as_index=False)[cnt_col]
.sum().rename(columns={cnt_col:"count"}))
# 유입 없는 단계 보강(전체→단계)
pairs = set(zip(g["from_stage"], g["to_stage"]))
def _has_incoming(stage):
k = ORDER[stage]
return any((prev, stage) in pairs for prev in STAGES[:k])
add_rows = []
for st in STAGES[1:]:
if not _has_incoming(st):
out_sum = float(g.loc[g["from_stage"]==st, "count"].sum())
if out_sum > 0:
add_rows.append({"from_stage":"전체","to_stage":st,"count":out_sum})
if add_rows:
g = pd.concat([g, pd.DataFrame(add_rows)], ignore_index=True)
# (옵션) 구매로 접은 간접 링크 추가: 선호/추천/구매의향 → 구매
if collapse_to_buy:
buy_in = float(pd.to_numeric(g.loc[g["to_stage"]=="구매","count"], errors="coerce").fillna(0).sum())
if buy_in > 0:
exist = set(zip(g["from_stage"], g["to_stage"]))
extra = []
for st in collapse_from:
if st in ORDER and (st, "구매") not in exist and ORDER[st] < ORDER["구매"]:
extra.append({"from_stage": st, "to_stage": "구매", "count": buy_in})
if extra:
g = pd.concat([g, pd.DataFrame(extra)], ignore_index=True)
# 메타 칼럼
kphi = _flow_scale(seg, mod, loy) # 비공개 스케일
g["flow_phi"] = g["count"].astype(float) * kphi
g["dist"] = g["to_stage"].map(ORDER) - g["from_stage"].map(ORDER)
g["kind"] = np.where(g["dist"]==1, "직접", "간접")
g["to_buy"] = (g["to_stage"] == "구매")
cols = ["from_stage","to_stage","count","dist","kind","to_buy","flow_phi"]
return g[cols].sort_values(["dist","from_stage","to_stage"]).reset_index(drop=True)
# ====== Sankey 색/스테이지 ======
STAGES = ["전체","미선호","선호","추천","구매의향","구매"]
ORDER = {v:i for i,v in enumerate(STAGES)}
COL_STAGE_OVERALL = "#B68E5C"
COL_STAGE_NONPREF = "#9CA3AF" # ← 미선호(회색)
COL_STAGE_PREF = "#C6955E"
COL_STAGE_REC = "#D5A86D"
COL_STAGE_INTENT = "#BE8F4E"
COL_STAGE_BUY = "#A97F45"
COL_LINK_DIRECT = "#4B5563" # 짙은 회색 (직접)
COL_LINK_INDIRECT = "#D1D5DB" # 연한 회색 (간접)
# ─────────────────────────────────────────────────────────
# (유틸) 간접 "→구매" 접기 보강
def add_collapsed_to_buy(tbl: pd.DataFrame, add_from=("선호","추천","구매의향")) -> pd.DataFrame:
if tbl is None or tbl.empty:
return tbl
# ── 기준 단계/순서(미선호 포함 6단계)
stages = ["전체","미선호","선호","추천","구매의향","구매"]
order = {v:i for i,v in enumerate(stages)}
t = tbl.copy()
# ── 구매 유입 총량
buy_in = float(pd.to_numeric(t.loc[t["to_stage"]=="구매","count"], errors="coerce").fillna(0).sum())
# ── φ 스케일(k) 추정
kphi = 1.0
if "flow_phi" in t.columns and "count" in t.columns:
r = pd.to_numeric(t["flow_phi"], errors="coerce") / pd.to_numeric(t["count"], errors="coerce")
r = r.replace([np.inf,-np.inf], np.nan).dropna()
if not r.empty:
kphi = float(np.median(r))
# ── 그룹 메타(snapshot): 단일값이면 그 값, 아니면 "ALL"
meta_cols = [c for c in ["segment","model","loyalty","level"] if c in t.columns]
meta = {c: (t[c].dropna().iloc[0] if t[c].nunique(dropna=True)==1 else "ALL") for c in meta_cols}
extra = []
for s in add_from:
if s not in order or order[s] >= order["구매"]:
continue
# 이미 존재하면 중복 추가 금지
if ((t["from_stage"]==s) & (t["to_stage"]=="구매")).any():
continue
row = {
"from_stage": s,
"to_stage": "구매",
"count": buy_in,
"dist": order["구매"] - order[s],
"kind": ("간접" if (order["구매"] - order[s]) > 1 else "직접"),
"to_buy": True,
"flow_phi": buy_in * kphi
}
# ★ 메타 동봉
for c, v in meta.items():
row[c] = v
extra.append(row)
if extra:
t = pd.concat([t, pd.DataFrame(extra)], ignore_index=True)
return t.sort_values(["dist","from_stage","to_stage"]).reset_index(drop=True)
# ─────────────────────────────────────────────────────────
# ⬇⬇ 핵심 수정: 라벨을 먼저 느슨한 별칭으로 치환 후, 정규화 함수에 태움
def _normalize_stage_soft(series: pd.Series) -> pd.Series:
if series.empty:
return series
s = series.astype(str).str.strip()
# 1) 강제 별칭(정확치환) — 의향/의도/의사/intent, 구매완료/실제구매, 전체사용자 등
alias_exact = {
# 전체
"전체사용자": "전체", "모든 사용자": "전체", "all": "전체", "ALL": "전체",
# 선호
"선호도": "선호", "선호도높음": "선호", "호감도": "선호", "호감도높음": "선호",
# 추천
"추천도": "추천", "추천도높음": "추천",
# 의향/의도/의사/intent (다양형)
"구매의향": "구매의향", "구매 의향": "구매의향", "구매의향높음": "구매의향", "구매의향 높음": "구매의향",
"구매의도": "구매의향", "구매 의도": "구매의향", "구매의도높음": "구매의향", "구매의도 높음": "구매의향",
"구매의사": "구매의향", "의사 있음": "구매의향",
"intent": "구매의향", "Intent": "구매의향", "Intention": "구매의향",
"Purchase Intent": "구매의향", "PURCHASE_INTENT": "구매의향",
# 구매
"실제구매": "구매", "구매 확정": "구매", "구매확정": "구매", "구매 완료": "구매", "구매완료": "구매",
"결제": "구매", "결재": "구매", "매출": "구매",
#미선호
"미선호": "미선호", "비선호": "미선호", "선호 아님": "미선호", "탈락": "미선호",
}
s = s.replace(alias_exact)
# 2) 토큰/부분일치 기반 정규화(전역 함수가 있으면 재사용)
def _norm_one(x: str) -> str | None:
try:
return _normalize_stage_label(x) # 전역 정의 존재 시 활용
except Exception:
pass
# 폴백: 부분일치
xl = x.lower().replace(" ", "")
if any(k in xl for k in ["all","전체"]): return "전체"
if any(k in xl for k in ["선호","호감"]): return "선호"
if "추천" in xl or "rec" in xl: return "추천"
if any(k in xl for k in ["의향","의도","의사","intent"]): return "구매의향"
if any(k in xl for k in ["구매","구입","결제","결재","완료","확정","매출","purch","buy"]): return "구매"
if any(k in xl for k in ["미선호","비선호","선호아님","nopref","npreference","탈락","drop"]): return "미선호"
return None
return s.map(_norm_one)
# 파일 상단 어딘가(상수들 근처)에 추가
LVL_PRIORITY = [
"모델×세그×충성도","세그×모델","모델×충성도","세그×충성도",
"모델","세그먼트","충성도","전체"
]
def _sanitize_sankey_table(
tbl: pd.DataFrame,
seg="ALL", mod="ALL", loy="ALL",
enforce_single_level: bool = True,
drop_overall_if_mixed: bool = True
) -> pd.DataFrame:
cols = ["from_stage","to_stage","count","dist","kind","to_buy","flow_phi"]
if tbl is None or tbl.empty:
return pd.DataFrame(columns=cols)
t = tbl.copy()
# (1) 선택값 필터 (있을 때만)
for col, val in (("segment", seg), ("model", mod), ("loyalty", loy)):
if col in t.columns and str(val) != "ALL":
t = t[t[col].astype(str).str.strip() == str(val)]
if t.empty:
return pd.DataFrame(columns=cols)
# (2) 레벨 단일화 (혼입 방지) + 과잉 드랍 완화
original = t
if enforce_single_level and "level" in t.columns:
picked = None
for lv in LVL_PRIORITY:
cand = t[t["level"].astype(str) == lv]
if not cand.empty:
picked = cand; break
if picked is not None:
t = picked
# 혼합이면 '전체'만 제거 (단, 전부 비면 되돌림)
if ("level" in t.columns) and (t["level"].astype(str).nunique() > 1) and drop_overall_if_mixed:
t2 = t[t["level"].astype(str) != "전체"]
if not t2.empty:
t = t2
if t.empty:
# 과잉 필터/드랍으로 비었으면 원본으로 되돌려 계속
t = original.copy()
# (3) 컬럼 별칭
alias = {
"from_stage": ["from_stage","from","source","src"],
"to_stage": ["to_stage","to","target","dst"],
"count": ["count","bayesian_flow_count","flow","value","weight","n","freq"],
}
def pick(name):
keys = {str(c).strip().lower(): c for c in t.columns}
for a in alias[name]:
if a in keys: return keys[a]
return None
c_from = pick("from_stage"); c_to = pick("to_stage"); c_cnt = pick("count")
if not all([c_from, c_to, c_cnt]):
return pd.DataFrame(columns=cols)
t = t.rename(columns={c_from:"from_stage", c_to:"to_stage", c_cnt:"count"})
# (4) 라벨 정규화 + 순방향만
t["from_stage"] = _normalize_stage_soft(t["from_stage"])
t["to_stage"] = _normalize_stage_soft(t["to_stage"])
t = t.dropna(subset=["from_stage","to_stage"])
t = t[t["from_stage"].isin(STAGES) & t["to_stage"].isin(STAGES)]
t = t[t.apply(lambda r: ORDER[r["from_stage"]] < ORDER[r["to_stage"]], axis=1)]
# (5) 수치 변환
t["count"] = pd.to_numeric(t["count"], errors="coerce")
t = t[np.isfinite(t["count"]) & (t["count"] > 0)]
# (5-보강) 과도 필터로 비면 완화 모드: 단계 조건만 적용하고 수치만 보정
if t.empty:
t = original.rename(columns={c_from:"from_stage", c_to:"to_stage", c_cnt:"count"}).copy()
t["from_stage"] = _normalize_stage_soft(t["from_stage"])
t["to_stage"] = _normalize_stage_soft(t["to_stage"])
t = t.dropna(subset=["from_stage","to_stage"])
t = t[t["from_stage"].isin(STAGES) & t["to_stage"].isin(STAGES)]
t["count"] = pd.to_numeric(t["count"], errors="coerce").fillna(0)
t = t[t["count"] > 0]
if t.empty:
return pd.DataFrame(columns=cols)
# (6) 메타 보강
t["dist"] = (t["to_stage"].map(ORDER) - t["from_stage"].map(ORDER)).astype(int)
if "kind" not in t.columns:
t["kind"] = np.where(t["dist"]==1, "직접", "간접")
else:
miss = ~t["kind"].astype(str).isin(["직접","간접"])
t.loc[miss,"kind"] = np.where(t.loc[miss,"dist"]==1, "직접","간접")
t["to_buy"] = (t["to_stage"]=="구매")
# (7) φ
kphi = _flow_scale(seg, mod, loy)
if "flow_phi" not in t.columns:
t["flow_phi"] = t["count"].astype(float) * kphi
else:
t["flow_phi"] = pd.to_numeric(t["flow_phi"], errors="coerce")
miss = ~np.isfinite(t["flow_phi"])
t.loc[miss, "flow_phi"] = t.loc[miss, "count"].astype(float) * kphi
return t[cols].sort_values(["dist","from_stage","to_stage"]).reset_index(drop=True)
def _sankey_from_master_row(row: pd.Series, seg, mod, loy) -> pd.DataFrame:
n = _safe_int0(row.get("pref_sample_size"))
if n <= 0:
return pd.DataFrame(columns=[
"from_stage","to_stage","count","dist","kind","to_buy","flow_phi",
"segment","model","loyalty"
])
def P(x):
v = _safe_num(x)
if not np.isfinite(v): return np.nan
return v/100.0 if v > 1.5 else v
# (A) 확률 안전화: NaN이면 0, 0~1로 클립
def P01(x):
v = P(x)
return np.nan if not np.isfinite(v) else float(min(1.0, max(0.0, v)))
p_pref = P(row.get("pref_success_rate"))
p_rec = P(row.get("rec_success_rate"))
p_intent = P(row.get("intent_success_rate"))
p_buy = P(row.get("buy_success_rate"))
d1 = P(row.get("bayesian_dropout_pref_to_rec"))
d2 = P(row.get("bayesian_dropout_rec_to_intent"))
d3 = P(row.get("bayesian_dropout_intent_to_buy"))
pref = n * (p_pref if np.isfinite(p_pref) else 0.0)
rec = pref * (1 - d1) if np.isfinite(pref) and np.isfinite(d1) else n * (p_rec if np.isfinite(p_rec) else 0.0)
intent = rec * (1 - d2) if np.isfinite(rec) and np.isfinite(d2) else n * (p_intent if np.isfinite(p_intent) else 0.0)
buy = intent*(1 - d3) if np.isfinite(intent) and np.isfinite(d3) else n * (p_buy if np.isfinite(p_buy) else 0.0)
drop0 = max(0.0, float(n) - float(pref))
rows = [
{"from_stage":"전체","to_stage":"미선호", "count": drop0},
{"from_stage":"전체","to_stage":"선호", "count": pref},
{"from_stage":"선호","to_stage":"추천", "count":max(0.0, rec)},
{"from_stage":"추천","to_stage":"구매의향", "count":max(0.0, intent)},
{"from_stage":"구매의향","to_stage":"구매", "count":max(0.0, buy)},
]
g = pd.DataFrame(rows).dropna()
g["count"] = pd.to_numeric(g["count"], errors="coerce").fillna(0)
g = g[g["count"] > 0]
g["dist"] = g["to_stage"].map(ORDER) - g["from_stage"].map(ORDER)
g["kind"] = np.where(g["dist"]==1, "직접", "간접")
g["to_buy"] = (g["to_stage"]=="구매")
kphi = _flow_scale(seg, mod, loy)
g["flow_phi"] = g["count"].astype(float) * kphi
g["segment"] = seg; g["model"] = mod; g["loyalty"] = loy
return g[[
"from_stage","to_stage","count","dist","kind","to_buy","flow_phi",
"segment","model","loyalty"
]]
LEVELS_FOR_SANKEY = [
("전체", []),
("세그먼트", ["segment"]),
("모델", ["model"]),
("충성도", ["loyalty"]),
("세그×모델", ["segment","model"]),
("세그×충성도", ["segment","loyalty"]),
("모델×충성도", ["model","loyalty"]),
("모델×세그×충성도", ["segment","model","loyalty"]),
]
def build_sankey_cache_from_master(df_master: pd.DataFrame,
collapse_to_buy=True,
collapse_from=("선호","추천","구매의향")) -> pd.DataFrame:
dfm = _ensure_key_cols(df_master).copy()
out = []
for _lvl, keys in LEVELS_FOR_SANKEY:
if not keys:
seg, mod, loy = "ALL","ALL","ALL"
row = compose_composite_row(dfm)
if not row.empty:
part = _sankey_from_master_row(row, seg, mod, loy)
part["level"] = _lvl
out.append(part)
continue
for vals, grp in dfm.groupby(keys, dropna=False):
if not isinstance(vals, tuple): vals = (vals,)
seg = vals[keys.index("segment")] if "segment" in keys else "ALL"
mod = vals[keys.index("model")] if "model" in keys else "ALL"
loy = vals[keys.index("loyalty")] if "loyalty" in keys else "ALL"
row = compose_composite_row(grp)
if row.empty:
continue
part = _sankey_from_master_row(row, seg, mod, loy)
part["level"] = _lvl
out.append(part)
if not out:
return pd.DataFrame(columns=[
"from_stage","to_stage","count","dist","kind","to_buy","flow_phi",
"segment","model","loyalty","level"
])
full = pd.concat(out, ignore_index=True)
if collapse_to_buy and not full.empty:
full = (full.groupby(["level","segment","model","loyalty"], group_keys=False)
.apply(lambda g: add_collapsed_to_buy(g, add_from=collapse_from))
.reset_index(drop=True))
return full
def build_sankey_flow_table(
df_or_tbl: pd.DataFrame | None,
seg="ALL", mod="ALL", loy="ALL",
collapse_to_buy=True,
collapse_from=("선호","추천","구매의향")
):
if df_or_tbl is None or df_or_tbl.empty:
return pd.DataFrame(columns=["from_stage","to_stage","count","dist","kind","to_buy","flow_phi"])
s = df_or_tbl.copy()
low = {str(c).strip().lower(): c for c in s.columns}
looks_table = (("from_stage" in low and "to_stage" in low) and
(("count" in low) or ("flow_phi" in low) or ("bayesian_flow_count" in low)))
if looks_table:
t = _sanitize_sankey_table(
s, seg=seg, mod=mod, loy=loy,
enforce_single_level=True, drop_overall_if_mixed=True
)
if collapse_to_buy:
t = add_collapsed_to_buy(t, add_from=collapse_from)
return t
return _sankey_build_table(
s, seg=seg, mod=mod, loy=loy,
collapse_to_buy=collapse_to_buy, collapse_from=collapse_from
)
def sankey_figure(
df_sankey: pd.DataFrame | None,
seg, mod, loy,
normalize=False, base_stage="전체",
drag=False, show_kind=True,
table_override: pd.DataFrame | None = None,
):
# ── 0) 레거시/실수 호환: normalize 자리에 DataFrame이 들어온 경우 보정
# (스모크 테스트에서 positional로 override가 들어오는 패턴 방지)
if isinstance(normalize, pd.DataFrame) and table_override is None:
table_override = normalize
normalize = False # 의미 없는 값이었으므로 안전 기본값
# ── 1) 테이블 소스 선택
if table_override is not None:
# override가 raw여도 안전하게 정규화/보강
g = _sanitize_sankey_table(table_override, seg=seg, mod=mod, loy=loy)
else:
g = build_sankey_flow_table(df_sankey, seg=seg, mod=mod, loy=loy, collapse_to_buy=True)
if g is None or g.empty:
return _empty_fig("No Sankey data")
# ── 2) 색/인덱스 준비
idx = {v:i for i,v in enumerate(STAGES)}
STAGE_COLOR = {
"전체": COL_STAGE_OVERALL,
"미선호": COL_STAGE_NONPREF,
"선호": COL_STAGE_PREF,
"추천": COL_STAGE_REC,
"구매의향": COL_STAGE_INTENT,
"구매": COL_STAGE_BUY,
}
# ★ 여기 한 줄: Sankey에서 '전체'만 검정으로
STAGE_COLOR["전체"] = "#000000" # 또는 COL_BLACK
node_colors = [STAGE_COLOR[s] for s in STAGES]
# ✅ 노드 x 좌표도 6개로
xs = [0.00, 0.18, 0.34, 0.54, 0.74, 0.94]
# ── 3) 그림
fig = go.Figure()
fig.add_trace(go.Sankey(
arrangement=("freeform" if drag else "fixed"),
valueformat=",.1f", valuesuffix=" φ",
node=dict(
pad=14, thickness=18, label=STAGES,
x=xs, y=[0.50]*len(STAGES),
color=node_colors, line=dict(color="#9aa0a6", width=0.7),
),
link=dict(
source=[idx[a] for a in g["from_stage"]],
target=[idx[b] for b in g["to_stage"]],
value=g["flow_phi"].astype(float).tolist(),
color=(
np.where(g["kind"].astype(str)=="직접",
hex_to_rgba(COL_LINK_DIRECT, 0.90),
hex_to_rgba(COL_LINK_INDIRECT, 0.70))
if show_kind else [hex_to_rgba(COL_LINK_DIRECT, 0.85)] * len(g)
).tolist(),
customdata=np.stack([
g["kind"].astype(str).to_numpy(),
g["dist"].astype(int).to_numpy(),
g["count"].astype(float).to_numpy(),
], axis=-1),
hovertemplate=(
"%{customdata[0]} | %{source.label} → %{target.label}"
"<br>점프: %{customdata[1]}단계"
"<br>실제유량: %{customdata[2]:,} (표시 %{value:,.1f} φ)"
"<extra></extra>"
),
),
))
if show_kind:
fig.add_trace(go.Scatter(x=[None], y=[None], mode="markers",
marker=dict(size=10, color=hex_to_rgba(COL_LINK_DIRECT, 0.90)), name="직접(인접)"))
fig.add_trace(go.Scatter(x=[None], y=[None], mode="markers",
marker=dict(size=10, color=hex_to_rgba(COL_LINK_INDIRECT, 0.70)), name="간접(스킵)"))
base = base_stage if base_stage in STAGES else "전체"
tot_dir = float(g.loc[g["kind"]=="직접", "flow_phi"].sum())
tot_ind = float(g.loc[g["kind"]=="간접", "flow_phi"].sum())
# sankey_figure 끝부분
fig.update_layout(
title=f"Journey Sankey · 모든 순방향(스킵 포함) · 기준={base}",
height=390, showlegend=True,
paper_bgcolor="#fff", plot_bgcolor="#fff",
font=dict(color="#111"),
margin=dict(l=10, r=10, t=32, b=64),
)
fig.add_annotation(
x=0, y=-0.20, xref="paper", yref="paper",
showarrow=False, align="left",
text=f"직접 {tot_dir:,.1f} φ · 간접 {tot_ind:,.1f} φ",
font=dict(size=11, color="#444")
)
# ↓↓↓ 이 네 줄은 반드시 함수 안쪽(같은 들여쓰기 레벨)이어야 함
fig = apply_dense_grid(fig) # 공통 스타일
# Sankey 전용: 축 감추기(카테시안 축 없음)
fig.update_xaxes(visible=False, showgrid=False, zeroline=False, fixedrange=True)
fig.update_yaxes(visible=False, showgrid=False, zeroline=False, fixedrange=True)
return fig
# ==== STAGE COLORS (전체→선호→추천→의향→구매) ====
COL_STAGE_OVERALL = "#C32C2C" # 빨
COL_STAGE_PREF = "#D24D3E" # 주
COL_STAGE_REC = "#DE937A" # 노
COL_STAGE_INTENT = "#D49442" # 베(골드톤)
COL_STAGE_BUY = "#2B8E81" # 초록 ← 오타 수정
COL_STAGE_NONPREF = "#9CA3AF" # 미선호(회색)
def matrix_funnel_figure(row, df_tm, seg, mod, loy, **kwargs):
"""
누적 퍼널:
- 퍼센트 문자열(예: '45.5%')/공백 섞여도 robust parsing
- 값이 비어도(drop/success 둘 다 NaN) 최소 2단계 이상 강제로 그려줌
- 기본 높이 420 (FUNNEL_H가 있으면 그 값 따름)
"""
# --- Robust percent parser -------------------------------------------------
def _p(x):
if x is None:
return np.nan
if isinstance(x, str):
s = x.strip()
if not s:
return np.nan
if s.endswith("%"):
try:
return float(s[:-1].strip()) / 100.0
except Exception:
return np.nan
try:
return float(s)
except Exception:
return np.nan
try:
x = float(x)
except Exception:
return np.nan
# 1.5 초과면 퍼센트로 간주(23 => 0.23)
return x / 100.0 if x > 1.5 else x
def _clip01(v):
return np.nan if not np.isfinite(v) else float(min(1.0, max(0.0, v)))
# --- 1) 드롭/최종율 확보 ---------------------------------------------------
d1_raw, d2_raw, d3_raw, full_raw = drops_from_anywhere(row, df_tm, seg, mod, loy)
d1, d2, d3 = map(_clip01, map(_p, (d1_raw, d2_raw, d3_raw)))
full_conv = _p(full_raw)
# --- 2) 단계별 성공률 ------------------------------------------------------
pref_sr = _p(row.get("pref_success_rate"))
rec_sr = _p(row.get("rec_success_rate"))
intent_sr = _p(row.get("intent_success_rate"))
buy_sr = _p(row.get("buy_success_rate"))
# --- 3) 누적율 계산(드롭우선, 결측 폴백) -----------------------------------
overall = 1.0
pref = pref_sr
rec = pref * (1 - d1) if np.isfinite(pref) and np.isfinite(d1) else rec_sr
intent = rec * (1 - d2) if np.isfinite(rec) and np.isfinite(d2) else intent_sr
if np.isfinite(intent) and np.isfinite(d3):
buy = intent * (1 - d3)
elif np.isfinite(buy_sr):
buy = buy_sr
elif np.isfinite(full_conv):
buy = full_conv
else:
buy = intent
# 단조감소 보장 + [0,1] 클리핑
seq = [overall, _clip01(pref), _clip01(rec), _clip01(intent), _clip01(buy)]
for i in range(1, len(seq)):
if np.isfinite(seq[i]) and np.isfinite(seq[i-1]) and seq[i] > seq[i-1]:
seq[i] = seq[i-1]
overall, pref, rec, intent, buy = seq
# --- 4) 라벨/값 구성(비어도 항상 그리기) -----------------------------------
labels, values = ["전체"], [overall]
if np.isfinite(pref): labels.append("선호"); values.append(pref)
if np.isfinite(rec): labels.append("추천"); values.append(rec)
if np.isfinite(intent): labels.append("구매의향"); values.append(intent)
if np.isfinite(buy): labels.append("구매"); values.append(buy)
if len(labels) <= 1:
# 드롭률 기반으로 최소 2단계라도 구성
v = [1.0]
if np.isfinite(d1): v.append(v[-1]*(1-d1))
if np.isfinite(d2): v.append(v[-1]*(1-d2))
if np.isfinite(d3): v.append(v[-1]*(1-d3))
if len(v) == 1:
est = _clip01(buy_sr if np.isfinite(buy_sr) else full_conv)
v.append(0.0 if not np.isfinite(est) else est)
names = ["전체","선호","추천","구매의향","구매"][:len(v)]
labels, values = names, v
txtpos = ["inside" if v >= 0.07 else "outside" for v in values]
color_map = {
"전체": hex_to_rgba(COL_STAGE_OVERALL, 0.85),
"선호": hex_to_rgba(COL_STAGE_PREF, 0.85),
"추천": hex_to_rgba(COL_STAGE_REC, 0.85),
"구매의향": hex_to_rgba(COL_STAGE_INTENT, 0.85),
"구매": hex_to_rgba(COL_STAGE_BUY, 0.85),
}
colors = [color_map.get(l, hex_to_rgba(COL_GRAY, 0.85)) for l in labels]
fig = go.Figure(go.Funnel(
y=labels,
x=values,
name="누적율",
customdata=values,
textinfo="none",
texttemplate="%{customdata:.1%}",
textposition=txtpos,
hovertemplate="%{label}: %{customdata:.1%}<extra></extra>",
marker=dict(color=colors, line=dict(width=0.6, color="rgba(0,0,0,0.25)")),
connector=dict(line=dict(color="rgba(0,0,0,0.25)", width=0.6)),
))
# — 높이 확장 & 여백 다이어트
fig.update_layout(
title="Funnel (누적율)",
height=FUNNEL_H if 'FUNNEL_H' in globals() else 420,
margin=dict(l=6, r=6, t=26, b=14),
paper_bgcolor="#ffffff",
plot_bgcolor="#ffffff",
)
fig.update_xaxes(dtick=_auto_dtick(1.0), tickformat=".0%")
return apply_dense_grid(fig, x_prob=True)
def survival_curve_figure(row, df_tm, seg, mod, loy):
d1, d2, d3, _ = drops_from_anywhere(row, df_tm, seg, mod, loy)
vals = [1.0]
if np.isfinite(d1): vals.append(vals[-1]*(1-d1))
if np.isfinite(d2): vals.append(vals[-1]*(1-d2))
if np.isfinite(d3): vals.append(vals[-1]*(1-d3))
if len(vals) == 1: return _empty_fig("No Survival data")
stages = ["Start","선호","추천","구매의향","구매"][:len(vals)]
xs = list(range(len(vals)))
fig = go.Figure()
fig.add_trace(go.Scatter(
x=xs, y=vals, mode="lines+markers",
line=dict(width=3, color=COL_GRAY), marker=dict(color=COL_GREEN_LITE),
hovertemplate="단계=%{text}<br>생존=%{y:.1%}<extra></extra>", text=stages, name="생존확률"
))
drops = [d1,d2,d3]
for i, dv in enumerate(drops, start=1):
if i < len(vals) and np.isfinite(dv):
fig.add_annotation(x=i-0.5, y=(vals[i-1]+vals[i])/2,
text=f"실패 {dv:.1%}", showarrow=False,
font=dict(size=11, color=COL_ORANGE))
fig.update_layout(height=320, title="스테이지 생존 커브",
xaxis=dict(tickmode="array", tickvals=xs, ticktext=stages),
yaxis=dict(range=[0,1], tickformat=".1%"))
return apply_dense_grid(fig, y_prob=True)
def waterfall_figure(row, df_tm, seg, mod, loy):
d1, d2, d3, full = drops_from_anywhere(row, df_tm, seg, mod, loy)
def _as_prob(p):
p = _safe_num(p)
if not np.isfinite(p): return np.nan
return p/100.0 if p > 1.5 else p
d1, d2, d3 = map(_as_prob, [d1, d2, d3])
buy_sr = _as_prob(row.get("buy_success_rate"))
intent = _as_prob(row.get("intent_success_rate"))
full_in = _as_prob(full)
# 최종 구매율 보정
full = full_in
if not np.isfinite(full):
if np.isfinite(buy_sr): full = buy_sr
elif np.isfinite(intent) and np.isfinite(d3): full = intent * (1.0 - d3)
elif all(np.isfinite([d1, d2, d3])): full = (1.0 - d1) * (1.0 - d2) * (1.0 - d3)
# 절대 드롭
if all(np.isfinite([d1, d2, d3])):
drop1 = 1.0 * d1
drop2 = (1.0 - d1) * d2
drop3 = (1.0 - d1) * (1.0 - d2) * d3
else:
drop1 = d1 if np.isfinite(d1) else 0.0
drop2 = d2 if np.isfinite(d2) else 0.0
drop3 = d3 if np.isfinite(d3) else 0.0
# 최종율 미지정이면 드롭 합으로 보정
final_rate = float(full) if np.isfinite(full) else max(0.0, 1.0 - drop1 - drop2 - drop3)
if not any(np.isfinite(v) for v in [drop1, drop2, drop3]) and not np.isfinite(final_rate):
return _empty_fig("No Waterfall data")
def _fmt_drop(v):
return "" if not np.isfinite(v) else (f"-{v:.1%}" if v >= 1e-6 else "-0.0%")
# ★ 여기부터: '전체 100%' 막대 제거 버전
measures = ["relative", "relative", "relative", "total"]
x = ["선호→추천<br>Drop", "추천→구매의향<br>Drop", "구매의향→구매<br>Drop", "구매율"]
y = [-drop1, -drop2, -drop3, final_rate]
texts = [_fmt_drop(drop1), _fmt_drop(drop2), _fmt_drop(drop3), f"{final_rate:.1%}"]
positions = ["inside", "inside", "inside", "outside"]
fig = go.Figure(go.Waterfall(
measure=measures, x=x, y=y,
name="drop-off",
text=texts, textposition=positions,
insidetextfont=dict(color="white"),
outsidetextfont=dict(color="#111"),
decreasing={"marker":{"color": COL_GRAY_MED}},
increasing={"marker":{"color": COL_GRAY_MED}},
totals={"marker":{"color": COL_BLUE_DEEP}},
connector={"line":{"color":"rgba(0,0,0,0.25)", "width":0.6}},
cliponaxis=False, constraintext="both"
))
fig.update_layout(
height=320,
title="드롭오프 워터폴",
yaxis_tickformat=".1%",
xaxis=dict(tickangle=0, automargin=True),
margin=dict(l=8, r=8, t=30, b=14), # 좌우 여백 살짝 더 줄임
uniformtext_minsize=9, uniformtext_mode="hide",
)
# 공통 스타일 먼저
fig = apply_dense_grid(fig, y_prob=True)
# ── 워터폴 가독성 튜닝(Apply 후 다시 덮어쓰기)
fig.update_layout(
showlegend=False, # 범례 숨겨 상단 공간 확보
bargap=0.15, # 바 사이 간격 축소 → 막대가 두툼하게
margin=dict(l=8, r=8, t=30, b=14),
)
fig.update_xaxes(automargin=True)
return fig
def stacked_funnel_figure(row):
stages = [("선호", "pref_success_rate"), ("추천", "rec_success_rate"),
("구매의향", "intent_success_rate"), ("구매", "buy_success_rate")]
succ = []; fail = []; labs=[]
for lab, col in stages:
p = _safe_num(row.get(col))
if np.isfinite(p):
succ.append(p); fail.append(1-p); labs.append(lab)
if not succ: return _empty_fig("No Funnel data")
fig = go.Figure()
fig.add_bar(x=labs, y=succ, name="성공", text=[f"{v:.1%}" for v in succ], textposition="inside",
marker_color=COL_GREEN_LITE)
fig.add_bar(x=labs, y=fail, name="실패", text=[f"{v:.1%}" for v in fail], textposition="inside",
marker_color=COL_RED)
fig.update_layout(barmode="stack", yaxis=dict(range=[0,1], tickformat=".1%"),
height=320, title="100% 스택 퍼널 (성공/실패)")
return apply_dense_grid(fig, y_prob=True)
def forest_figure(df_scope: pd.DataFrame):
if df_scope is None or df_scope.empty:
return _empty_fig("No Forest data")
if not {"model", "segment"}.issubset(set(df_scope.columns)):
return _empty_fig("Need 'model' and 'segment'")
s = df_scope.copy()
# ----- 1) 사용할 단계(성공률) 선택: buy → intent → rec → pref → success_rate → rate
stage_order = [
("buy", "buy_success_rate"),
("intent", "intent_success_rate"),
("rec", "rec_success_rate"),
("pref", "pref_success_rate"),
("", "success_rate"),
("", "rate"),
]
stage = ""
rate_col = None
for st, col in stage_order:
if col in s.columns:
stage, rate_col = st, col
break
if rate_col is None:
return _empty_fig("No rate column")
# ----- 2) 표본(n) 컬럼 찾기(단계별 우선, 없으면 일반 표본명으로 폴백)
def _find_n_col(stage_name: str) -> str | None:
cands = []
if stage_name:
cands += [f"{stage_name}_sample_size", f"{stage_name}_n", f"{stage_name}_total"]
cands += ["sample_size", "n", "N", "total", "count", "nobs", "베이스수", "표본수", "pref_sample_size"]
for c in cands:
if c in s.columns:
return c
return None
n_col = _find_n_col(stage)
if n_col is None:
return _empty_fig("No sample size column")
# ----- 3) 숫자화 + 비율 정규화
s[rate_col] = pd.to_numeric(s[rate_col], errors="coerce")
s[n_col] = pd.to_numeric(s[n_col], errors="coerce")
s = s.dropna(subset=[rate_col, n_col])
if s.empty:
return _empty_fig("No Forest values")
r = np.where(s[rate_col] > 1.5, s[rate_col] / 100.0, s[rate_col]) # % → 비율
r = np.clip(r, 0.0, 1.0)
n = np.clip(s[n_col].to_numpy().astype(float), 0.0, np.inf)
k = np.clip(np.round(r * n), 0.0, n) # 성공 수 추정
# ----- 4) 모델 단위로 집계(중복 y축 제거)
agg = (pd.DataFrame({
"model": s["model"].astype(str),
"segment": s["segment"].astype(str),
"k": k, "n": n
})
.groupby("model", as_index=False)
.agg(k=("k","sum"), n=("n","sum"), seg=("segment", lambda x: x.iloc[0])))
if agg.empty or not np.isfinite(agg["n"]).any():
return _empty_fig("No Forest values")
# ----- 5) Jeffreys 95% CI
alpha = 0.05
try:
from scipy.stats import beta as _beta
agg["p"] = (agg["k"] + 0.5) / (agg["n"] + 1.0)
agg["lo"] = _beta.ppf(alpha/2, agg["k"] + 0.5, agg["n"] - agg["k"] + 0.5)
agg["hi"] = _beta.ppf(1 - alpha/2, agg["k"] + 0.5, agg["n"] - agg["k"] + 0.5)
except Exception:
try:
from statsmodels.stats.proportion import proportion_confint
agg["p"] = (agg["k"] + 0.5) / (agg["n"] + 1.0)
lo, hi = proportion_confint(agg["k"], agg["n"], alpha=alpha, method="beta")
agg["lo"], agg["hi"] = lo, hi
except Exception:
# Wilson 폴백
z = 1.959963984540054
p = agg["k"] / agg["n"]
denom = 1 + z*z/agg["n"]
center = (p + z*z/(2*agg["n"])) / denom
half = z*np.sqrt((p*(1-p) + z*z/(4*agg["n"])) / agg["n"]) / denom
agg["p"] = p
agg["lo"] = np.maximum(0.0, center - half)
agg["hi"] = np.minimum(1.0, center + half)
use = agg.sort_values("p").reset_index(drop=True)
# ----- 6) 색(모델의 우세 세그먼트) 지정
dom_seg = _model_dominant_segment(df_scope)
mapped_seg = use["model"].map(dom_seg).fillna(use["seg"])
colors = mapped_seg.apply(_tier_color_for_segment).tolist()
err_plus = (use["hi"] - use["p"]).to_numpy()
err_minus = (use["p"] - use["lo"]).to_numpy()
# ----- 7) 플롯
fig = go.Figure()
fig.add_trace(go.Scatter(
x=use["p"].astype(float),
y=use["model"].astype(str),
mode="markers",
name="모델", # ← trace 이름 지정 (trace 0 제거)
hovertemplate="%{y}: %{x:.1%}<extra></extra>",
marker=dict(size=10, color=colors, line=dict(color=COL_BLACK, width=1.6)),
))
fig.update_traces(error_x=dict(
type="data", symmetric=False,
array=err_plus, arrayminus=err_minus,
color=COL_BLACK, thickness=1.2, width=3
))
add_vline_safe(fig, 0.5, line_dash="dot", line_color=COL_BLACK, opacity=0.4)
fig.update_layout(
height=320,
title="포레스트 플롯 (모델 비교) — 95% CI",
xaxis=dict(range=[0, 1], dtick=0.1, tickformat=".0%", title="성공률"),
margin=dict(l=10, r=10, t=54, b=18),
showlegend=False,
)
fig = apply_dense_grid(fig, x_prob=True)
fig.update_layout(margin=dict(l=10, r=10, t=78, b=24)) # 상단 여백 키움
fig.update_yaxes(domain=[0.12, 1.00]) # 위쪽 12% 비워서 아래로 내림
return fig
def compare_distribution_figure(df_master, seg, mod, loy, stage_label):
if df_master is None or df_master.empty:
return _empty_fig("No Ranking data")
seg = _as_all(seg); mod = _as_all(mod); loy = _as_all(loy)
stage2lift = {
"선호": "pref_lift_vs_galaxy",
"추천": "rec_lift_vs_galaxy",
"구매의향": "intent_lift_vs_galaxy",
"구매": "buy_lift_vs_galaxy",
}
lift_col = stage2lift.get(stage_label, "buy_lift_vs_galaxy")
if lift_col not in df_master.columns:
return _empty_fig("No lift column")
# 1) 비교 축 고르기
candidates = []
if mod == "ALL": candidates.append("model")
if seg == "ALL": candidates.append("segment")
if loy == "ALL": candidates.append("loyalty")
key = None
for k in candidates:
if k in df_master.columns and df_master[k].astype(str).nunique(dropna=True) > 1:
key = k
break
if key is None:
# fallback: 유니크 가장 많은 축
avail = [c for c in ["model","segment","loyalty"] if c in df_master.columns]
if not avail:
return _empty_fig("No grouping key")
key = max(avail, key=lambda c: df_master[c].astype(str).nunique(dropna=True))
# 2) 전체/선택 집계
overall = (df_master.groupby(key, as_index=False)
.agg({lift_col: "mean"})
.rename(columns={lift_col: "전체"}))
scope = df_master.copy()
if seg != "ALL": scope = scope[scope["segment"].astype(str) == seg]
if mod != "ALL": scope = scope[scope["model"].astype(str) == mod]
if loy != "ALL": scope = scope[scope["loyalty"].astype(str) == loy]
if scope.empty:
return _empty_fig("No values")
selected = (scope.groupby(key, as_index=False)
.agg({lift_col: "mean"})
.rename(columns={lift_col: "선택"}))
merged = pd.merge(overall, selected, on=key, how="outer")
if merged.empty:
return _empty_fig("No values")
# 3) 정리: 키는 문자열로, 결측 수치만 0.0으로
merged[key] = merged[key].astype(str)
for col in ["전체", "선택"]:
if col in merged.columns:
merged[col] = pd.to_numeric(merged[col], errors="coerce")
merged[["전체","선택"]] = merged[["전체","선택"]].fillna(0.0)
# 정렬 순서(선택 오름차순이 기본, 전부 0이면 전체 기준)
if (merged["선택"] != 0).any():
order = merged.sort_values("선택", ascending=True)[key].tolist()
else:
order = merged.sort_values("전체", ascending=True)[key].tolist()
base = merged.set_index(key).loc[order]
# 4) 색상
vals_sel = base["선택"].to_numpy()
if key == "model":
dom_seg = _model_dominant_segment(df_master)
bar_colors = [_tier_color_for_segment(dom_seg.get(k, "LowEnd")) for k in order]
else:
bar_colors = royg_color_for(vals_sel)
# 5) 그림
fig = go.Figure()
fig.add_trace(go.Bar(
x=base["전체"], y=order, orientation="h", name="전체",
marker_color="rgba(150,150,150,0.35)"
))
fig.add_trace(go.Bar(
x=vals_sel, y=order, orientation="h", name="선택",
marker=dict(color=bar_colors, line=dict(color=COL_GRAY, width=0.5)),
text=[f"{v:+.1f}" for v in vals_sel], textposition="outside"
))
add_vline_safe(fig, 0, line_dash="dot", line_color=COL_GRAY)
fig.update_layout(
barmode="group",
title=f"{stage_label} Lift ({key})",
height=320,
margin=dict(l=10, r=10, t=54, b=18),
paper_bgcolor="#ffffff", plot_bgcolor="#ffffff"
)
# 공통 스타일 먼저
fig = apply_dense_grid(fig)
# 3) 위로 들러붙는 것 방지용으로 '위 여백+도메인' 덮어쓰기
fig.update_layout(margin=dict(l=10, r=10, t=68, b=28))
fig.update_yaxes(domain=[0.0, 0.86]) # 위쪽 14% 비워서 아래로 내림
# 4) 리턴
return fig
def bubble_figure(
df_scope: pd.DataFrame,
lift_col: str,
snr_col: str,
label_top_n: int = 4,
label_inside: bool = False,
textfont_size: int = 11
) -> go.Figure:
# --- 가드 ---
if df_scope is None or df_scope.empty:
return _empty_fig("No Bubble data")
if lift_col not in df_scope.columns or snr_col not in df_scope.columns:
return _empty_fig("No Bubble data")
s = df_scope.copy()
s[lift_col] = pd.to_numeric(s[lift_col], errors="coerce")
s[snr_col] = pd.to_numeric(s[snr_col], errors="coerce")
s["pref_sample_size"] = pd.to_numeric(
s.get("pref_sample_size", pd.Series(1, index=s.index)),
errors="coerce"
).fillna(1.0)
key = "model" if ("model" in s.columns and s["model"].notna().any()) else (
"segment" if "segment" in s.columns else None)
if key is None:
return _empty_fig("No Bubble key")
need_cols = [key, lift_col, snr_col, "pref_sample_size"]
if "segment" in s.columns and "segment" not in need_cols:
need_cols.append("segment")
use = s[need_cols].dropna(subset=[lift_col, snr_col])
if use.empty:
return _empty_fig("No Bubble values")
# ---- 집계 ----
if "segment" in use.columns:
grp = (use.groupby(key, as_index=False)
.agg(x=(lift_col, "mean"),
y=(snr_col, "mean"),
n=("pref_sample_size", "sum"),
seg=("segment", "first")))
else:
grp = (use.groupby(key, as_index=False)
.agg(x=(lift_col, "mean"),
y=(snr_col, "mean"),
n=("pref_sample_size", "sum")))
grp["seg"] = np.nan
# ---- 색상 ----
dom_seg = _model_dominant_segment(df_scope)
def _color_for(row):
if key == "model":
base_seg = dom_seg.get(str(row[key]), row["seg"])
else:
base_seg = row["seg"] if pd.notna(row["seg"]) else row[key]
return _tier_color_for_segment(base_seg)
grp["color"] = grp.apply(_color_for, axis=1)
# ---- 버블 크기(√스케일) ----
n = grp["n"].astype(float).to_numpy()
if np.isfinite(n).any():
r = np.sqrt(np.maximum(n, 0))
r0, r1 = float(np.nanmin(r)), float(np.nanmax(r))
size = 24.0 if abs(r1 - r0) < 1e-9 else 12 + (r - r0)/(r1 - r0) * 48
else:
size = np.full(len(grp), 24.0)
# ---- 라벨 ----
labels_all = grp[key].astype(str).tolist()
if label_top_n is None or label_top_n == -1:
text = labels_all
elif label_top_n <= 0:
text = [""] * len(labels_all)
else:
top_idx = np.argsort(-grp["n"].to_numpy())[:label_top_n]
show = set(top_idx.tolist())
text = [labels_all[i] if i in show else "" for i in range(len(labels_all))]
hovertext = grp[key].astype(str)
# ===== 승/패 분할 경계 & 음영 =====
x_vals = grp["x"].astype(float).to_numpy()
y_vals = grp["y"].astype(float).to_numpy()
x_thr = 0.0 if (np.nanmin(x_vals) < 0 < np.nanmax(x_vals)) else float(np.nanmedian(x_vals))
y_thr = 2.0 if (np.nanmin(y_vals) <= 2.0 <= np.nanmax(y_vals)) else float(np.nanmedian(y_vals))
x_min, x_max = float(np.nanmin(x_vals)), float(np.nanmax(x_vals))
y_min, y_max = float(np.nanmin(y_vals)), float(np.nanmax(y_vals))
x_pad = (x_max - x_min) * 0.03 if np.isfinite(x_max - x_min) else 0.0
y_pad = (y_max - y_min) * 0.03 if np.isfinite(y_max - y_min) else 0.0
x0, x1 = x_min - x_pad, x_max + x_pad
y0, y1 = y_min - y_pad, y_max + y_pad
winner_fill = hex_to_rgba("#FDE68A", 0.16)
loser_fill = hex_to_rgba("#9CA3AF", 0.14)
fig = go.Figure()
add_vrect_safe(fig, x0, x_thr, y0=y_thr, y1=y1, fillcolor=loser_fill, layer="below")
add_vrect_safe(fig, x_thr, x1, y0=y_thr, y1=y1, fillcolor=winner_fill, layer="below")
add_vline_safe(fig, x_thr, line_dash="dot", line_color="#888", opacity=0.6)
add_hline_safe(fig, y_thr, line_dash="dot", line_color="#888", opacity=0.6)
fig.add_trace(go.Scatter(
x=grp["x"], y=grp["y"],
mode="markers+text",
text=text,
hovertext=hovertext,
textposition=("middle center" if label_inside else "top center"),
textfont=dict(size=textfont_size),
cliponaxis=False,
marker=dict(size=size, color=grp["color"], line=dict(color="#111", width=0.7)),
customdata=grp["n"].astype(float),
hovertemplate=(f"{key}=%{{hovertext}}<br>"
"Lift=%{x:.1f}<br>"
"SNR=%{y:.1f}<br>"
"표본=%{customdata:,}<extra></extra>"),
name="모델/세그"
))
# 기본 레이아웃
fig.update_layout(
xaxis_title=None,
yaxis_title="SNR",
height=320,
showlegend=False,
paper_bgcolor="#fff", plot_bgcolor="#fff",
margin=dict(l=10, r=10, t=26, b=48)
)
fig.update_xaxes(title_standoff=18, automargin=True)
fig.update_yaxes(title_standoff=8, automargin=True)
# 각주
foot_y = -0.20
fig.add_annotation(xref="paper", yref="paper", x=0.00, y=foot_y,
text="<b>■</b>", showarrow=False, font=dict(size=11, color="#FDE68A"))
fig.add_annotation(xref="paper", yref="paper", x=0.035, y=foot_y,
text="승자 영역 (Lift↑, SNR↑)", showarrow=False, font=dict(size=10, color="#555"), xanchor="left")
fig.add_annotation(xref="paper", yref="paper", x=0.32, y=foot_y,
text="<b>■</b>", showarrow=False, font=dict(size=11, color="#9CA3AF"))
fig.add_annotation(xref="paper", yref="paper", x=0.355, y=foot_y,
text="패자 영역 (Lift↓, SNR↑)", showarrow=False, font=dict(size=10, color="#555"), xanchor="left")
fig.add_annotation(xref="paper", yref="paper", x=0.67, y=foot_y,
text="○ 원 크기 = 표본수(√스케일)", showarrow=False, font=dict(size=10, color="#666"), xanchor="left")
# 공통 스타일 적용 후 '위로 들러붙음' 해소용 덮어쓰기
fig = apply_dense_grid(fig)
fig.update_layout(
height=320,
margin=dict(l=10, r=10, t=84, b=52), # ↑ 상단 여백 크게
title=dict(y=0.98, pad=dict(t=18, b=0)) # 타이틀도 살짝 내려줌
)
fig.update_yaxes(domain=[0.12, 1.00], automargin=True) # ↑ 플롯 영역 자체를 아래로
return fig
def ppc_purchase_overlay_figure(row: pd.Series, m: int | None = None, draws: int = 6000) -> go.Figure:
"""관측 구매율과 Posterior(베타) & Posterior Predictive(베타-이항) 오버레이."""
# 관측치
n = _pick_sample_for_stage(row, "buy")
if n <= 0:
n = _safe_int0(row.get("pref_sample_size"))
p_obs = _safe_num(row.get("buy_success_rate"))
if not np.isfinite(p_obs):
return _empty_fig("No PPC data")
p_obs = float(np.clip(p_obs/100.0 if p_obs > 1.5 else p_obs, 0.0, 1.0))
k_obs = int(np.clip(round(p_obs * max(n, 1)), 0, max(n, 1)))
if m is None:
m = n
# Posterior (Jeffreys prior: Beta(0.5,0.5))
a, b = k_obs + 0.5, (n - k_obs) + 0.5
p = np.random.beta(a, b, size=draws)
# Posterior predictive (새 표본 m개 관측 시 비율)
m = max(int(m), 1)
k_pred = np.random.binomial(m, p)
rate_pred = k_pred / m
# 95% HDI
lo, hi = np.quantile(p, [0.025, 0.975])
fig = go.Figure()
fig.add_histogram(
x=p, nbinsx=60, histnorm="probability density",
name="Posterior p", marker_color=hex_to_rgba("#9CA3AF", 0.45), opacity=0.55
)
fig.add_histogram(
x=rate_pred, nbinsx=60, histnorm="probability density",
name=f"PPC n={m:,}", marker_color=hex_to_rgba(COL_STAGE_BUY, 0.55), opacity=0.55
)
# 관측치/구간 표시
add_vline_safe(fig, p_obs, line_color="#111", line_width=2, opacity=0.9)
fig.add_vrect(x0=lo, x1=hi, fillcolor=hex_to_rgba("#60A5FA", 0.18), line_width=0)
# ← 핵심: 범례를 아래로(도면 밖) 보내고 아주 작게
fig.update_layout(
barmode="overlay",
title="PPC(구매율) — Posterior & Posterior Predictive",
height=320,
margin=dict(l=10, r=10, t=30, b=64), # 바닥 여백 확보
showlegend=True,
legend=dict(
orientation="h",
y=-0.22, yanchor="top", # 플롯 아래쪽, 도면 밖
x=0.0, xanchor="left",
font=dict(size=9),
itemsizing="constant",
itemwidth=30
)
)
fig.update_xaxes(range=[0, 1], tickformat=".0%", title="구매율")
fig.update_yaxes(title="밀도")
return apply_dense_grid(fig, x_prob=True)
percent1 = FormatTemplate.percentage(1)
num1 = Format(precision=1, scheme=Scheme.fixed)
CARD_STYLE = {
"background": "white",
"border": "none", # ← 보더 제거
"borderRadius": "14px",
"padding": "14px",
"boxShadow": "none", # ← 그림자도 제거(원하면 유지)
}
# (추가) KPI 전용 카드 — 하늘색 배경
KPI_CARD_STYLE = {
**CARD_STYLE,
"background": "#EAF2FF",
"border": "1px solid #d6e4ff"
}
ROW2_CARD_H = 360
ROW2_GRAPH_H = 320
# ───────────── spacing knobs (한 곳에서 조절) ─────────────
ROW_GAP = "16px" # 카드 사이 간격
PAGE_PAD = "24px 28px 24px" # 행 안쪽 패딩
CARD_H = "430px" # 카드(박스) 높이
GRAPH_H = "390px" # 카드 안 그래프 높이 (CARD_H보다 40px 작게)
KPI_GAP = "12px" # KPI 카드 간격
ROW1_COLS = "1fr 1fr 1fr" # 상단 3카드 동일 너비
ROW2_COLS = "1fr 1fr 1fr" # 하단 3카드 동일 너비
# ───────────────── app.layout 교체 ─────────────────
# ───────────── spacing & sizing knobs ─────────────
TOP_CARD_H = "430px" # 맨 위 3개 카드 박스 높이
TOP_GRAPH_H = "390px" # 박스 안 그래프 높이 (탭/제목 여백 고려해 TOP_CARD_H - 40)
ROW_CARD_H = "420px" # 아래 행 카드 높이
ROW_GRAPH_H = "380px"
PAGE_PAD = "24px 28px 24px" # 각 행 내부 패딩
ROW_GAP = "16px" # 카드 사이 간격
KPI_GAP = "12px"
# 카드 공통 스타일: flex column으로 그래프가 꽉 차도록
CARD_STYLE = {
"background": "#fff",
"borderRadius": "12px",
"padding": "12px",
"boxShadow": "0 1px 3px rgba(0,0,0,0.06)",
"display": "flex",
"flexDirection": "column",
}
# 그래프 내부 여백/레전드/텍스트를 통일해 보이는 영역을 맞춤
def standardize_top_fig(fig):
fig.update_layout(
margin=dict(l=28, r=16, t=36, b=28),
title_x=0.02,
title_pad=dict(t=4, b=4),
uniformtext=dict(minsize=10, mode="hide"),
legend=dict(orientation="h", x=0, y=-0.2), # 하단 가로배치 → 높이 편차 제거
)
# 축이 있는 차트는 automargin
for ax in ("xaxis", "yaxis"):
if ax in fig.layout:
fig.layout[ax].update(automargin=True, title_standoff=6)
return fig
# ───────────────── app.layout 교체 ─────────────────
# ───────────── spacing & sizing knobs ─────────────
TOP_CARD_H = "430px" # 맨 위 3개 카드 박스 높이
TOP_GRAPH_H = "390px" # 박스 안 그래프 높이 (탭/제목 여백 고려해 TOP_CARD_H - 40)
ROW_CARD_H = "420px" # 아래 행 카드 높이
ROW_GRAPH_H = "380px"
PAGE_PAD = "24px 28px 24px" # 각 행 내부 패딩
ROW_GAP = "16px" # 카드 사이 간격
KPI_GAP = "12px"
# 카드 공통 스타일: flex column으로 그래프가 꽉 차도록
CARD_STYLE = {
"background": "#fff",
"borderRadius": "12px",
"padding": "12px",
"boxShadow": "0 1px 3px rgba(0,0,0,0.06)",
"display": "flex",
"flexDirection": "column",
}
# 그래프 내부 여백/레전드/텍스트를 통일해 보이는 영역을 맞춤
def standardize_top_fig(fig):
fig.update_layout(
margin=dict(l=28, r=16, t=36, b=28),
title_x=0.02,
title_pad=dict(t=4, b=4),
uniformtext=dict(minsize=10, mode="hide"),
legend=dict(orientation="h", x=0, y=-0.2), # 하단 가로배치 → 높이 편차 제거
)
# 축이 있는 차트는 automargin
for ax in ("xaxis", "yaxis"):
if ax in fig.layout:
fig.layout[ax].update(automargin=True, title_standoff=6)
return fig
# ───────────────── app.layout 교체 ─────────────────
ROW_GAP = "16px" # 카드 사이 간격
PAGE_PAD = "24px 28px 24px" # 행 안쪽 패딩
CARD_H = "430px" # 카드(박스) 높이
GRAPH_H = "390px" # 카드 안 그래프 높이 (CARD_H보다 40px 작게)
KPI_GAP = "12px" # KPI 카드 간격
ROW1_COLS = "1fr 1fr 1fr" # 상단 3카드 동일 너비
ROW2_COLS = "1fr 1fr 1fr" # 하단 3카드 동일 너비
app.layout = html.Div(
[
dcc.Store(id="store-master"),
dcc.Store(id="store-tm"),
dcc.Store(id="store-sankey"),
dcc.Store(id="store-overall"),
dcc.Store(id="store-mod-opts"),
# Sankey 드래그 토글 + 인터랙션 로그
html.Div(
[
dcc.Checklist(
id="sankey-drag",
options=[{"label": " Sankey 드래그 허용", "value": "drag"}],
value=[],
inputStyle={"marginRight": "6px"},
style={"fontSize": "12px", "color": "#555"},
),
html.Div(id="interact-msg", style={"marginTop": "6px","fontSize": "12px","color": "#444"}),
],
style={"display":"flex","justifyContent":"space-between","alignItems":"center","padding":"0 16px 8px"},
),
# 상단 바
html.Div(
[
html.Div("Bayesian Journey Dashboard", style={"fontWeight":"700","fontSize":"18px"}),
html.Div(
[
dcc.Input(id="excel-path", value=DEFAULT_PATH, placeholder="Excel 경로",
style={"width":"520px","marginRight":"8px"}),
html.Button("Load", id="load-btn", n_clicks=0, className="btn", style={"marginRight":"8px"}),
],
style={"display":"flex","alignItems":"center"},
),
],
style={"display":"flex","justifyContent":"space-between","alignItems":"center",
"padding":"12px 16px","borderBottom":"1px solid #eee","position":"sticky",
"top":"0","background":"#fafafa","zIndex":10},
),
html.Div(id="status-msg", style={"padding":"8px 16px","color":"#555","fontSize":"12px"}),
# 필터
html.Div(
[
html.Div([html.Label("Segment", style={"fontWeight":"600"}),
dcc.Dropdown(id="dd-seg", options=[], value="ALL", clearable=True)],
style={"flex":"1","minWidth":"220px","marginRight":"8px"}),
html.Div([html.Label("Model", style={"fontWeight":"600"}),
dcc.Dropdown(id="dd-mod", options=[], value="ALL", clearable=True)],
style={"flex":"1","minWidth":"220px","marginRight":"8px"}),
html.Div([html.Label("Loyalty", style={"fontWeight":"600"}),
dcc.Dropdown(id="dd-loy", options=[], value="ALL", clearable=True)],
style={"flex":"1","minWidth":"220px"}),
],
style={"display":"flex","gap":"8px","padding":"12px 16px"},
),
# KPI
html.Div(
[
html.Div([html.Div("표본 수", style={"color":"#888","fontSize":"12px"}),
html.H3(id="kpi-sample", style={"margin":"4px 0 0"})], style=KPI_CARD_STYLE),
html.Div([html.Div("최종 구매율 (Δ 포함)", style={"color":"#888","fontSize":"12px"}),
html.H3(id="ins-final", style={"margin":"4px 0 0"})], style=KPI_CARD_STYLE),
html.Div([html.Div("최대 드롭", style={"color":"#888","fontSize":"12px"}),
html.H3(id="ins-drop", style={"margin":"4px 0 0","fontSize":"18px"})], style=KPI_CARD_STYLE),
html.Div([html.Div("불확실성 (95% HDI 폭)", style={"color":"#888","fontSize":"12px"}),
html.H3(id="ins-uncert", style={"margin":"4px 0 0"})], style=KPI_CARD_STYLE),
],
style={
"display":"grid",
"gridTemplateColumns":"repeat(4, minmax(0,1fr))",
"gap": KPI_GAP,
"padding":"0 16px 12px"
},
),
# 숨김 KPI(호환)
html.Div([html.H3(id="kpi-buy-success"), html.H3(id="kpi-buy-fail")], style={"display":"none"}),
# Row 1: Sankey + 전이 퍼널(누적율) + (워터폴/PPC 탭)
html.Div(
[
html.Div(
dcc.Graph(
id="fig-sankey",
config=GRAPH_CONFIG | {"responsive": True},
style={"height": GRAPH_H, "width": "100%"}
),
style={**CARD_STYLE, "height": CARD_H, "overflow": "hidden"} # ← 고정/클립
),
html.Div(
dcc.Graph(
id="fig-matrix",
config=GRAPH_CONFIG | {"responsive": True},
style={"height": GRAPH_H, "width": "100%"}
),
style={**CARD_STYLE, "height": CARD_H, "overflow": "hidden"}
),
html.Div(
[
dcc.Tabs(
id="tab-right", value="waterfall",
children=[
dcc.Tab(label="워터폴", value="waterfall"),
dcc.Tab(label="PPC(구매율)", value="ppc"),
],
style={"marginBottom":"6px"},
),
dcc.Graph(
id="fig-right",
config=GRAPH_CONFIG | {"responsive": True},
style={"height": GRAPH_H, "width": "100%"}
),
],
style={**CARD_STYLE, "height": CARD_H, "overflow": "hidden"},
),
],
style={
"display":"grid",
"gridTemplateColumns": ROW1_COLS,
"gap": ROW_GAP,
"padding": PAGE_PAD,
"marginBottom":"22px",
},
),
# Row 2: 스테이지 리프트 + 포레스트 + 버블
html.Div(
[
html.Div(
[
html.Div(
[
html.Span(
"Stage",
style={"fontSize": "12px", "color": "#666", "marginRight": "8px"},
),
dcc.Dropdown(
id="dd-stage-rank",
options=[{"label": v, "value": v} for v in ["선호", "추천", "구매의향", "구매"]],
value="구매",
clearable=False,
style={"width": "140px", "fontSize": "12px"},
),
],
style={
"display": "flex",
"justifyContent": "flex-end",
"alignItems": "center",
"marginBottom": "6px",
},
),
dcc.Graph(
id="fig-stage-rank",
config={**GRAPH_CONFIG, "responsive": True},
style={"height": GRAPH_H, "width": "100%"},
),
],
style={**CARD_STYLE, "height": CARD_H, "overflow": "hidden"},
),
html.Div(
dcc.Graph(
id="fig-forest",
config={**GRAPH_CONFIG, "responsive": True},
style={"height": GRAPH_H, "width": "100%"},
),
style={**CARD_STYLE, "height": CARD_H, "overflow": "hidden"},
),
html.Div(
dcc.Graph(
id="fig-bubble",
config={**GRAPH_CONFIG, "responsive": True},
style={"height": GRAPH_H, "width": "100%"},
),
style={**CARD_STYLE, "height": CARD_H, "overflow": "hidden"},
),
],
style={
"display": "grid",
"gridTemplateColumns": ROW2_COLS,
"gap": ROW_GAP,
"padding": PAGE_PAD,
"marginTop": "4px",
},
),
# 숨김 그래프
html.Div(
[
dcc.Graph(id="fig-survival", config=GRAPH_CONFIG, style={"height": GRAPH_H}),
dcc.Graph(id="fig-funnel", config=GRAPH_CONFIG, style={"height": GRAPH_H}),
],
style={"display":"none"},
),
# 상세 테이블
html.Div(
[
html.H4("상세 메트릭", style={"margin":"0 0 8px 0"}),
dash_table.DataTable(
id="metrics-table",
columns=[
{"name": "단계", "id": "단계"},
{"name": "베이스수", "id": "베이스수", "type": "numeric",
"format": Format(precision=0, scheme=Scheme.fixed)},
{"name": "성공확률", "id": "성공확률", "type": "numeric", "format": percent1},
{"name": "실패확률", "id": "실패확률", "type": "numeric", "format": percent1},
{"name": "하한", "id": "하한", "type": "numeric", "format": percent1},
{"name": "상한", "id": "상한", "type": "numeric", "format": percent1},
{"name": "판정", "id": "판정"},
{"name": "평가등급", "id": "평가등급"},
{"name": "SNR", "id": "SNR", "type": "numeric", "format": num1},
{"name": "Lift", "id": "Lift", "type": "numeric", "format": num1},
{"name": "raw평균", "id": "raw평균", "type": "numeric", "format": percent1},
{"name": "raw표준편차", "id": "raw표준편차", "type": "numeric", "format": percent1},
],
data=[],
page_size=10,
style_table={"overflowX":"auto"},
style_cell={"fontFamily":"Noto Sans KR, Arial, sans-serif","fontSize":"12px","padding":"6px"},
style_header={"fontWeight":"bold"},
style_data_conditional=[
{"if": {"column_id": "베이스수"}, "textAlign": "right"},
{"if": {"column_id": "성공확률"}, "textAlign": "right"},
{"if": {"column_id": "실패확률"}, "textAlign": "right"},
{"if": {"column_id": "하한"}, "textAlign": "right"},
{"if": {"column_id": "상한"}, "textAlign": "right"},
{"if": {"column_id": "SNR"}, "textAlign": "right"},
{"if": {"column_id": "Lift"}, "textAlign": "right"},
{"if": {"column_id": "raw평균"}, "textAlign": "right"},
{"if": {"column_id": "raw표준편차"}, "textAlign": "right"},
{"if": {"row_index": "odd"}, "backgroundColor": "#fafafa"},
],
),
],
style={**CARD_STYLE, "margin":"18px 16px 24px"},
),
],
style={"background":"#f6f7fb","minHeight":"100vh"},
)
# ───────────────── app.layout 교체 끝 ─────────────────
# ===================== 콜백: Load =====================
@app.callback(
Output("store-master","data"),
Output("store-tm","data"),
Output("store-sankey","data"),
Output("store-overall","data"),
Output("dd-seg","options"),
Output("dd-seg","value"),
Output("store-mod-opts","data"),
Output("dd-loy","options"),
Output("dd-loy","value"),
Output("status-msg","children"),
Input("load-btn","n_clicks"),
State("excel-path","value"),
prevent_initial_call=True
)
def on_load(n, path):
try:
exists = os.path.exists(path)
size = (os.path.getsize(path) if exists else 0)
# 1) 엑셀 로드
df_master, df_tm, df_sankey, overall, seg_opts, mod_opts_all, loy_opts, dbg = load_excel(path)
# 2) 마스터로부터 모든 조합 Sankey 캐시 합성
df_sankey_syn = build_sankey_cache_from_master(df_master, collapse_to_buy=True)
# 3) 상태 메시지(캐시 행수 포함)
status = (f"✅ 로드 완료 | path={path} (exists={exists}, size={size:,} bytes) | "
f"engine={dbg.get('engine')} | sheets={dbg.get('sheets')} | matched={dbg.get('matched')} | "
f"sankey_cache={len(df_sankey_syn):,} rows")
# 4) 리턴: 세 번째(store-sankey)에 캐시를 넣는다
return (
df_master.to_json(date_format="iso", orient="split"),
df_tm.to_json(date_format="iso", orient="split"),
df_sankey_syn.to_json(date_format="iso", orient="split"), # ⬅ 여기!
json.dumps(overall),
[{"label":v, "value":v} for v in seg_opts], "ALL",
json.dumps(mod_opts_all),
[{"label":v, "value":v} for v in loy_opts], "ALL",
status
)
except Exception as e:
err = f"❌ LOAD ERROR: {type(e).__name__}: {e}"
print("LOAD ERROR TRACE:\n", traceback.format_exc())
return None, None, None, None, [], None, None, [], None, err
# 세그먼트 변경 시 모델 옵션 업데이트
@app.callback(
Output("dd-mod","options"),
Output("dd-mod","value"),
Input("dd-seg","value"),
State("store-master","data"),
State("store-mod-opts","data"),
)
def on_seg_change(seg, js_master, js_allmods):
if not js_master or not js_allmods:
return [], None
df_master = pd.read_json(js_master, orient="split")
seg_val = _as_all(seg)
if seg_val!="ALL":
mods = ["ALL"] + sorted([str(v) for v in df_master[df_master["segment"].astype(str)==seg_val]["model"].dropna().astype(str).unique().tolist() if str(v)!="ALL"])
else:
mods = json.loads(js_allmods)
return [{"label":v,"value":v} for v in mods], "ALL"
@app.callback(
Output("interact-msg","children"),
Input("fig-sankey","clickData"),
Input("fig-matrix","relayoutData"),
Input("fig-right","relayoutData"),
Input("fig-stage-rank","selectedData"),
Input("fig-forest","selectedData"),
Input("fig-bubble","selectedData"),
prevent_initial_call=True
)
def on_interact(sankey_click, matrix_relayout, wf_relayout, rank_sel, forest_sel, bubble_sel):
ctx = dash.callback_context
if not ctx.triggered:
return dash.no_update
tid = ctx.triggered[0]["prop_id"] # e.g. "fig-bubble.selectedData"
comp, prop = tid.split(".")
payload = ctx.triggered[0]["value"]
if prop == "clickData" and payload:
pt = (payload.get("points") or [{}])[0]
label = pt.get("label") or f"{pt.get('sourceLabel','?')}→{pt.get('targetLabel','?')}"
return f"🖱 {comp}: {label} 클릭"
if prop == "selectedData" and payload:
n = len(payload.get("points", []))
return f"🔎 {comp}: {n}개 선택"
if prop == "relayoutData" and payload:
keys = ", ".join(list(payload.keys())[:3])
return f"🧭 {comp}: 뷰 변경({keys}...)"
return dash.no_update
# update_all 위쪽(같은 파일)에 추가
def _slice_sankey_cache_by_choice(df, seg, mod, loy):
if df is None or df.empty:
return pd.DataFrame()
sub = df.copy()
if "segment" in sub.columns and seg != "ALL":
sub = sub[(sub["segment"].astype(str) == seg) | sub["segment"].isna() | (sub["segment"].astype(str) == "ALL")]
if "model" in sub.columns and mod != "ALL":
sub = sub[(sub["model"].astype(str) == mod) | sub["model"].isna() | (sub["model"].astype(str) == "ALL")]
if "loyalty" in sub.columns and loy != "ALL":
sub = sub[(sub["loyalty"].astype(str) == loy) | sub["loyalty"].isna() | (sub["loyalty"].astype(str) == "ALL")]
if "level" in sub.columns:
for lv in LVL_PRIORITY:
cand = sub[sub["level"].astype(str) == lv]
if not cand.empty:
return cand.copy()
return sub
# 레벨 우선순위(가장 세분화된 것부터)로 하나만 남기기
if "level" in sub.columns:
for lv in LVL_PRIORITY:
cand = sub[sub["level"].astype(str) == lv]
if not cand.empty:
return cand.copy()
return sub
def _read_df_store(js):
if not js:
return pd.DataFrame()
# 이미 dict/object로 들어오면 시도
if isinstance(js, dict):
if {"columns","data"}.issubset(js.keys()):
return pd.DataFrame(js["data"], columns=js["columns"])
try:
return pd.DataFrame(js)
except Exception:
return pd.DataFrame()
# 문자열이면 우선 split → 실패 시 일반 json 해석
if isinstance(js, str):
try:
return pd.read_json(io.StringIO(js), orient="split")
except Exception:
try:
obj = json.loads(js)
if isinstance(obj, dict) and {"columns","data"}.issubset(obj.keys()):
return pd.DataFrame(obj["data"], columns=obj["columns"])
elif isinstance(obj, list):
return pd.DataFrame(obj)
elif isinstance(obj, dict):
# overall 같은 dict가 오면 DF로 만들지 않고 빈 DF 반환
return pd.DataFrame()
except Exception:
return pd.DataFrame()
return pd.DataFrame()
def _read_overall(js_overall):
if not js_overall:
return {}
if isinstance(js_overall, dict):
return js_overall
try:
return json.loads(js_overall)
except Exception:
return {}
# ===================== 콜백: 대시보드 계산 =====================
@app.callback(
Output("kpi-sample","children"),
Output("kpi-buy-success","children"),
Output("kpi-buy-fail","children"),
Output("ins-final","children"),
Output("ins-drop","children"),
Output("ins-uncert","children"),
Output("metrics-table","data"),
Output("fig-sankey","figure"),
Output("fig-matrix","figure"),
#Output("fig-simfan","figure"),
Output("fig-bubble","figure"),
Output("fig-stage-rank","figure"),
Output("fig-survival","figure"),
Output("fig-right","figure"),
# Output("fig-waterfall","figure"),
Output("fig-funnel","figure"),
Output("fig-forest","figure"),
Input("dd-seg","value"),
Input("dd-mod","value"),
Input("dd-loy","value"),
Input("sankey-drag","value"),
Input("dd-stage-rank","value"),
Input("tab-right","value"), # ← 추가
Input("store-master","data"),
Input("store-tm","data"),
Input("store-sankey","data"),
Input("store-overall","data"),
)
def update_all(seg, mod, loy, drag_val, stage_label, tab_right,
js_master, js_tm, js_sankey, js_overall=None):
# 기본값 보정
seg = _as_all(seg); mod = _as_all(mod); loy = _as_all(loy)
if not isinstance(stage_label, str) or not stage_label:
stage_label = "구매"
empty = _empty_fig("Load data first")
# 가드: 마스터 없으면 15개 템플릿 리턴
if not js_master:
return (
"–", "–", "–", # kpi-sample, kpi-buy-success, kpi-buy-fail
"–", "–", "–", # ins-final, ins-drop, ins-uncert
[], # metrics-table.data
empty, empty, # fig-sankey, fig-matrix
empty, empty, # fig-bubble, fig-stage-rank
empty, empty, # fig-survival, fig-right
empty, # fig-funnel
empty # fig-forest
)
js_sankey, js_overall, _ = _maybe_swap_sankey_overall(js_sankey, js_overall)
try:
# 0) sankey/overall 뒤바뀜 자동 교정
js_sankey, js_overall, _ = _maybe_swap_sankey_overall(js_sankey, js_overall)
# 1) 스토어 읽기(안전)
df_master = _read_df_store(js_master)
df_tm = _read_df_store(js_tm)
df_sankey = _read_df_store(js_sankey)
overall = _read_overall(js_overall)
# 2) 선택/스코프
row_pick = pick_row_for(df_master, seg, mod, loy)
scope = df_master.copy()
if seg!="ALL": scope = scope[scope["segment"].astype(str)==seg]
if mod!="ALL": scope = scope[scope["model"].astype(str)==mod]
if loy!="ALL": scope = scope[scope["loyalty"].astype(str)==loy]
# 집계행으로 결측 보강
row_agg = compose_composite_row(scope)
rowd = {k: row_pick[k] for k in row_pick.index}
def _safe_num_or_nan(x):
try:
fx = float(x)
return fx if np.isfinite(fx) else np.nan
except Exception:
return np.nan
def coalesce_into(dst_dict, src_series, cols):
for c in cols:
va = _safe_num_or_nan(dst_dict.get(c))
if np.isnan(va):
dst_dict[c] = (src_series.get(c) if isinstance(src_series, pd.Series) else np.nan)
core_cols = [
"pref_sample_size",
"pref_success_rate","pref_ci_lower","pref_ci_upper",
"rec_success_rate","rec_ci_lower","rec_ci_upper",
"intent_success_rate","intent_ci_lower","intent_ci_upper",
"buy_success_rate","buy_ci_lower","buy_ci_upper",
"bayesian_dropout_pref_to_rec","bayesian_dropout_rec_to_intent","bayesian_dropout_intent_to_buy",
"bayesian_full_conversion",
"pref_snr","rec_snr","intent_snr","buy_snr",
"pref_lift_vs_galaxy","rec_lift_vs_galaxy","intent_lift_vs_galaxy","buy_lift_vs_galaxy",
]
coalesce_into(rowd, row_agg, core_cols)
row = pd.Series(rowd)
# 3) KPI/테이블
tbl = metrics_table_row(row)
def _face(val, good, soso, reverse=False):
if not np.isfinite(val): return "❔"
v = (1 - val) if reverse else val
return "🟢" if v >= good else ("🟡" if v >= soso else "🔴")
GOOD_P, SOSO_P = 0.55, 0.45
GOOD_DROP, SOSO_DROP = 0.20, 0.35
GOOD_W, SOSO_W = 0.08, 0.12
sample = _safe_int0(row.get("pref_sample_size"))
kpi_sample_text = f"📊 {sample:,}"
buy_p = _safe_num(row.get("buy_success_rate"))
buy_s = (f"{buy_p:.1%}" if np.isfinite(buy_p) else "N/A")
buy_f = (f"{(1-buy_p):.1%}" if np.isfinite(buy_p) else "N/A")
overall_buy = _safe_num(overall.get("buy_mean"))
delta = (buy_p - overall_buy) if (np.isfinite(buy_p) and np.isfinite(overall_buy)) else np.nan
face_final = _face(buy_p, GOOD_P, SOSO_P, reverse=False)
ins_final = (f"{face_final} 성공 {buy_s} / 실패 {buy_f} (vs 전체 {delta:+.1%}p)"
if np.isfinite(delta) else f"{face_final} 성공 {buy_s} / 실패 {buy_f}")
d1, d2, d3, _ = drops_from_anywhere(row, df_tm, seg, mod, loy)
drops = [v for v in [d1, d2, d3] if np.isfinite(v)]
dmax = max(drops) if drops else np.nan
face_drop = _face(dmax, GOOD_DROP, SOSO_DROP, reverse=True)
ins_drop = f"{face_drop} " + biggest_drop_text_by_sources(row, df_tm, seg, mod, loy)
def _widest_hdi(r):
pick = []
for stage, lo_col, hi_col in [("선호","pref_ci_lower","pref_ci_upper"),
("추천","rec_ci_lower","rec_ci_upper"),
("구매의향","intent_ci_lower","intent_ci_upper"),
("구매","buy_ci_lower","buy_ci_upper")]:
lo = _safe_num(r.get(lo_col)); hi = _safe_num(r.get(hi_col))
if np.isfinite(lo) and np.isfinite(hi):
pick.append((stage, max(0.0, hi - lo)))
return max(pick, key=lambda x: x[1]) if pick else (None, np.nan)
stage_w, width_w = _widest_hdi(row)
face_unc = _face(width_w, GOOD_W, SOSO_W, reverse=True)
ins_uncert = "데이터 없음" if stage_w is None else f"{face_unc} {stage_w} 단계 {width_w*100:.1f}%p"
# 4) Sankey (캐시 정규화 → 보강)
g_for_sankey = build_sankey_flow_table(df_sankey, seg=seg, mod=mod, loy=loy, collapse_to_buy=True)
if g_for_sankey is None or g_for_sankey.empty:
# 완전 비면 현재 row로 즉석 합성
g_for_sankey = _sankey_from_master_row(row, seg, mod, loy)
g_for_sankey = add_collapsed_to_buy(g_for_sankey, add_from=("선호","추천","구매의향"))
fig_sankey = sankey_figure(
df_sankey=None,
seg=seg, mod=mod, loy=loy,
drag=("drag" in (drag_val or [])),
table_override=g_for_sankey
)
# 5) 나머지 그래프
fig_matrix = matrix_funnel_figure(row, df_tm, seg, mod, loy)
lift_col = "buy_lift_vs_galaxy" if "buy_lift_vs_galaxy" in scope.columns else "pref_lift_vs_galaxy"
snr_col = "buy_snr" if "buy_snr" in scope.columns else "pref_snr"
fig_bubble = bubble_figure(scope, lift_col, snr_col)
fig_stage_rank = compare_distribution_figure(df_master, seg, mod, loy, stage_label)
fig_survival = survival_curve_figure(row, df_tm, seg, mod, loy)
fig_funnel = stacked_funnel_figure(row)
fig_forest = forest_figure(scope)
fig_right = (ppc_purchase_overlay_figure(row)
if (tab_right or "waterfall") == "ppc"
else waterfall_figure(row, df_tm, seg, mod, loy))
# 6) 최종 15개 리턴(콜백 Output 순서대로)
return (
kpi_sample_text, buy_s, buy_f, # kpi-sample, kpi-buy-success, kpi-buy-fail
ins_final, ins_drop, ins_uncert, # 인사이트 3개
tbl.to_dict("records"), # metrics-table.data
fig_sankey, fig_matrix, # sankey, matrix
fig_bubble, fig_stage_rank, # bubble, stage-rank
fig_survival, fig_right, # survival, right-panel(waterfall/ppc)
fig_funnel, # funnel
fig_forest # forest
)
except Exception:
print("UPDATE ERROR:\n", traceback.format_exc())
return (
"–","–","–","–","–","–",
[],
empty, empty, empty, empty, empty, empty, empty, empty
)
# ===================== 실행 =====================
if __name__ == "__main__":
base_port = int(os.getenv("PORT", "8059"))
for i in range(5):
try:
app.run_server(host="0.0.0.0", port=base_port + i, debug=False, use_reloader=False)
break
except (OSError, SystemExit) as e:
if "Address already in use" in str(e) or getattr(e, "code", None) == 1:
continue
raise
|