limitwise / app.py
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"""The public page of a governed system: the signed model, its monitoring page, and the dossier.
Built for the AI Governance Practicum (AI Governance Collective). One app.py serves all three organizations; space_config.json says which."""
import json, os, pickle, io, warnings
import numpy as np, pandas as pd
import gradio as gr
import matplotlib
matplotlib.use("Agg")
import matplotlib.pyplot as plt
warnings.filterwarnings("ignore")
HERE = os.path.dirname(os.path.abspath(__file__))
# Hugging Face's free tier runs Gradio Spaces on ZeroGPU, which refuses to start an app that declares no GPU function.
# This app needs no GPU: the declaration below satisfies the check and is never called. On a plain CPU Space it is skipped.
try:
import spaces
@spaces.GPU
def _gpu_not_used():
return "This app runs on the CPU."
except Exception:
pass
CFG = json.load(open(os.path.join(HERE, "space_config.json")))
REF = json.load(open(os.path.join(HERE, "reference.json")))
MODEL = pickle.load(open(os.path.join(HERE, CFG["model_file"]), "rb"))
RECAL = pickle.load(open(os.path.join(HERE, CFG["recal_file"]), "rb")) if CFG.get("recal_file") else None
REASONS = pd.read_csv(os.path.join(HERE, CFG["reasons_file"])) if CFG.get("reasons_file") else None
EXAMPLES = pd.read_csv(os.path.join(HERE, "examples.csv"), keep_default_na=False)
INPUTS, KEPT, SHARE = CFG["inputs"], CFG["kept"], CFG["share"]
CAL_FLOOR = 25 # a calibration band is read only when it expects at least this many outcomes; a smaller band says nothing either way
SPACE_ID = os.environ.get("SPACE_ID", "")
WEEK6 = CFG["week6"]
# ----------------------------------------------------------------------------- scoring
def score_frame(X):
"""The production score. Where the Week 6 memo ratified fitted steps (the recalibration and the odds correction), they run here."""
X = X[INPUTS]
if RECAL is not None:
pf = RECAL.predict_proba(X)[:, 1]; f = CFG["odds_factor"]
return pf * f / (pf * f + 1 - pf)
return MODEL.predict_proba(X)[:, 1]
def contributions(X):
"""Each input's fixed weight times the record's value on the scaled, remover-adjusted inputs. The record's own reasons."""
Z = X[INPUTS]
for name, step in MODEL.steps[:-1]:
Z = step.transform(Z)
coef = MODEL.named_steps["model"].coef_[0]
return pd.DataFrame(np.asarray(Z) * coef, columns=KEPT, index=X.index)
def allowed_reasons(con):
"""Drop the columns a reason may never cite: a medication the record marks No (Alderwyn, Week 6 memo, ruling 5)."""
drugs = CFG.get("drug_fields", [])
if not drugs: return con
keep = [c for c in con.index if not any(c == d + "_No" for d in drugs)]
return con[keep]
def allowed_reasons_frame(frame):
drugs = CFG.get("drug_fields", [])
return frame[[c for c in frame.columns if not any(c == d + "_No" for d in drugs)]] if drugs else frame
def readable(col):
if REASONS is not None:
r = REASONS.loc[(REASONS.input == col) | ((REASONS.input + "_" + REASONS.value.astype(str)) == col), "reason"]
if len(r): return r.iloc[0]
for c in CFG["categorical"]:
if col.startswith(c + "_"): return f"{c} is {col[len(c) + 1:]}"
return col
def coerce(df):
"""Read a file the way the working file is read: numeric inputs as numbers, categorical inputs as text."""
df = df.copy()
for c in CFG["numeric"]:
if c in df: df[c] = pd.to_numeric(df[c], errors="coerce")
for c in CFG["categorical"]:
if c in df: df[c] = df[c].astype(str)
return df
def groups_of(frame):
g = {}
for gname, d in CFG["groups"].items():
col = d["col"]
if col not in frame: continue
if "bands" in d:
v = pd.to_numeric(frame[col], errors="coerce"); lab = pd.Series(["unrecorded"] * len(frame), index=frame.index, dtype=object)
for lo, hi, name in d["bands"]: lab[(v >= lo) & (v <= hi)] = name
g[gname] = lab
else:
s = frame[col].astype(str); g[gname] = s.map(d["map"]).fillna(s) if d.get("map") else s
return pd.DataFrame(g, index=frame.index)
def pct(x, d=1): return f"{x * 100:.{d}f} percent"
# ----------------------------------------------------------------------------- the signed version (the collapsed panel at the top)
def model_header():
a = CFG["artifacts"][CFG["model_file"]]
L = [f"**Organization:** {CFG['org']}. **Signed by:** {CFG['caio']} ({CFG['memo_ref']}). **Kept by:** {CFG['lead']}.",
f"**File:** `{CFG['model_file']}`, {a['bytes']:,} bytes, SHA-256 `{a['sha256']}`."]
if RECAL is not None:
r = CFG["artifacts"][CFG["recal_file"]]
L.append(f"**Fitted steps the memo ratified:** the isotonic recalibration (`{CFG['recal_file']}`, SHA-256 `{r['sha256']}`), then the odds correction to the {int(CFG['calibration']['book_rate']*100)} percent book rate (factor {CFG['odds_factor']}). Every score on this page has both applied.")
L.append(f"**What it is:** a logistic regression with {len(KEPT)} fitted columns from {len(INPUTS)} input fields. The weights are fixed. The same record gets the same score every time.")
L.append(f"**Operating point:** the top {int(SHARE*100)} percent of the ranked file gets {CFG['action']}. On the Week 6 test set ({WEEK6['test_rows']:,} {CFG['units']}) that was {WEEK6['flagged']:,} {CFG['units']}, of which {WEEK6['caught']:,} were {CFG['positive_label']}. Test-set ROC-AUC {WEEK6['roc_auc']:.3f}.")
L.append(f"**Libraries:** scikit-learn {CFG['versions']['sklearn']}, fairlearn {CFG['versions']['fairlearn']}. The model does not load on another version of scikit-learn, by design.")
return "\n\n".join(L)
def weights_table(n=25):
return pd.DataFrame([dict(column=c, weight=round(w, 4), meaning=readable(c)) for c, w in CFG["weights"][:n]])
# ----------------------------------------------------------------------------- tab 1: one record
CAT = [c for c in INPUTS if c in CFG["categorical"]]
NUM = [c for c in INPUTS if c in CFG["numeric"]]
FORM = CAT + NUM # the order of the form's controls
def _typical():
d = {c: REF["numeric"][c]["median"] for c in NUM}
for c in CAT:
r = REF["categorical"][c]; d[c] = max(r, key=r.get)
return d
def _case_row(i):
row = EXAMPLES.iloc[i]
return {c: (float(row[c]) if c in NUM else str(row[c])) for c in FORM}
PRESETS = {f"Typical {CFG['unit']} (training-file medians and most common values)": _typical()}
for i in range(len(EXAMPLES)):
PRESETS[f"{EXAMPLES['case'].iloc[i].capitalize()} (Week 6 case, rank {EXAMPLES['week6_rank'].iloc[i]} of {WEEK6['test_rows']:,})"] = _case_row(i)
FIRST = list(PRESETS)[0]
def apply_preset(name):
d = PRESETS[name]
return [d[c] for c in FORM]
def field_label(c):
"""The input's name, with the meaning of its codes where the program's group definitions give one (SEX: 1 male, 2 female)."""
for d in CFG["groups"].values():
if d["col"] == c and d.get("map"):
return c + " (" + ", ".join(f"{k} {v}" for k, v in d["map"].items()) + ")"
return c
def choices_for(c):
ch = sorted(REF["categorical"][c], key=str)
for v in EXAMPLES[c].astype(str).unique():
if v not in ch: ch.append(v)
return ch
def score_one(*vals):
row = {c: v for c, v in zip(FORM, vals)}
X = coerce(pd.DataFrame([row]))
p = float(score_frame(X)[0]); cut = REF["cut_score"]; inside = p >= cut
verdict = (f"## Score: **{p:.1%}**\n\n"
f"### {'馃敶 Above the cut' if inside else '馃煝 Below the cut'} (Week 6 cut = {cut:.1%}, the score of the last {CFG['unit']} inside the top {int(SHARE*100)} percent)\n\n"
f"At the operating point the {CFG['memo_ref']} set, this {CFG['unit']} {'would' if inside else 'would not'} be {CFG['flagged_word']}: {CFG['action']}. "
f"The score says where the record ranks. It is not a decision about the {CFG['person']}.")
con = allowed_reasons(contributions(X).iloc[0])
up = con[con > 0].sort_values(ascending=False).head(6); down = con[con < 0].sort_values().head(4)
items = list(up.items()) + list(down.items())
labs = [readable(c) for c, _ in items][::-1]; v = [float(x) for _, x in items][::-1]
fig, ax = plt.subplots(figsize=(11, 0.45 * len(v) + 1.8))
ax.barh(range(len(v)), v, color=["#d62728" if x > 0 else "#2ca02c" for x in v])
ax.set_yticks(range(len(v))); ax.set_yticklabels(labs, fontsize=9); ax.axvline(0, color="black", lw=0.8)
ax.set_xlabel(f"Toward {CFG['positive_label']} (red) or away from it (green): the fixed weight times this record's value", fontsize=9)
ax.set_title(f"Why {CFG['system']} scored this {CFG['unit']} {p:.1%}: the record's own reasons", fontsize=11, loc="left")
fig.tight_layout()
return verdict, fig
# ----------------------------------------------------------------------------- tab 2: batch upload
def score_batch(file, top_n):
if file is None: return None, f"Upload a CSV of {CFG['units']} to score (the model's input columns, one row per {CFG['unit']}).", None
try: df = coerce(pd.read_csv(file.name if hasattr(file, "name") else file, low_memory=False, keep_default_na=False, na_values=[]))
except Exception as e: return None, f"Could not read the file: {e}", None
missing = [c for c in INPUTS if c not in df.columns]
if missing: return None, "The file is missing input columns: " + ", ".join(missing) + ". Nothing was scored.", None
s = score_frame(df); order = np.argsort(-s, kind="stable"); k = int(round(SHARE * len(df)))
idc = CFG.get("id_col"); ids = df[idc].values if idc and idc in df.columns else np.arange(1, len(df) + 1)
con = allowed_reasons_frame(contributions(df)); top = [readable(con.columns[i]) for i in np.argmax(con.values, axis=1)]
out = pd.DataFrame({(idc if idc and idc in df.columns else "row"): ids, "score": np.round(s, 4), "ranked_in": np.where(np.arange(len(df)) >= 0, "", ""), "top_reason": top})
out = out.iloc[order].reset_index(drop=True); out.insert(0, "rank", np.arange(1, len(df) + 1)); out["ranked_in"] = np.where(out["rank"] <= k, "yes", "no")
path = os.path.join("/tmp", "ranked_list.csv"); out.to_csv(path, index=False)
msg = (f"Scored **{len(df):,}** {CFG['units']}. The top {int(SHARE*100)} percent, the operating point, is **{k:,}** {CFG['units']}. "
f"Showing the top **{int(top_n)}** by score (the team's capacity). The download carries every record with its score, rank, whether it is ranked in, and its own top reason.")
return out.head(int(top_n)), msg, path
# ----------------------------------------------------------------------------- tab 2: monitoring
def psi(ref_shares, new_shares):
keys = set(ref_shares) | set(new_shares); eps = 1e-4; v = 0.0
for k in keys:
a, b = max(ref_shares.get(k, 0.0), eps), max(new_shares.get(k, 0.0), eps); v += (b - a) * np.log(b / a)
return float(v)
def drift_table(df):
rows = []
for c in INPUTS:
if c not in df.columns: continue
watch = c in CFG["watch_fields"]
if c in REF["numeric"]:
r = REF["numeric"][c]; v = pd.to_numeric(df[c], errors="coerce"); edges = r["edges"]
if len(edges) < 3: continue
def shares(x):
b = np.clip(np.searchsorted(edges, x, side="right") - 1, 0, len(edges) - 2); return {str(i): float((b == i).mean()) for i in range(len(edges) - 1)}
ref_sh = r["shares"]; new_sh = shares(v.dropna().values)
idx = psi(ref_sh, new_sh)
rows.append(dict(input=c, kind="number", training_file=f"mean {r['mean']:,.2f}, median {r['median']:,.2f}", this_file=f"mean {v.mean():,.2f}, median {v.median():,.2f}", missing=int(v.isna().sum()), stability_index=round(idx, 3), reading=reading(idx), watched="yes" if watch else ""))
elif c in REF["categorical"]:
r = REF["categorical"][c]; vc = df[c].astype(str).value_counts(normalize=True); new_sh = {str(k): float(x) for k, x in vc.items()}
idx = psi(r, new_sh); top_r = max(r, key=r.get); top_n = max(new_sh, key=new_sh.get) if new_sh else ""
new_levels = [k for k in new_sh if k not in r]
rows.append(dict(input=c, kind="category", training_file=f"most common {top_r} ({pct(r[top_r])})", this_file=f"most common {top_n} ({pct(new_sh.get(top_n, 0))})" + (f"; new levels: {', '.join(new_levels)}" if new_levels else ""),
missing=int((df[c].astype(str) == "nan").sum()), stability_index=round(idx, 3), reading=reading(idx), watched="yes" if watch else ""))
t = pd.DataFrame(rows)
return t.sort_values(["watched", "stability_index"], ascending=[False, False]).reset_index(drop=True) if len(t) else t
def reading(idx):
return "stable" if idx < 0.10 else ("watch" if idx < 0.25 else "SHIFTED")
def group_table(df, s, flag, y):
"""Each group's rate at the cut beside the Week 6 test-set reading and the tripwire. With outcomes: the ruled check (false alarm or miss). Without: the share ranked in."""
G = groups_of(df); rows = []; check = CFG["group_check"]; line = CFG["group_tripwire"]
if y is not None:
pos, neg = y == 1, y == 0
port = (((flag == 1) & neg).sum() / max(neg.sum(), 1)) if check == "false_alarm" else (((flag == 0) & pos).sum() / max(pos.sum(), 1))
for gname in G.columns:
d = CFG["groups"][gname]; order = [b[2] for b in d["bands"]] if "bands" in d else d.get("order", [])
for lvl in sorted(G[gname].unique(), key=lambda s: (order.index(s) if s in order else len(order), str(s))):
m = (G[gname] == lvl).values; n = int(m.sum())
wk6 = REF["group_rates"].get(gname, {}).get(str(lvl), {})
covered = n >= CFG["min_group"] # the memo's group floor, applied to the month's file
if y is not None:
rate = (((flag == 1) & neg & m).sum() / max((neg & m).sum(), 1)) if check == "false_alarm" else (((flag == 0) & pos & m).sum() / max((pos & m).sum(), 1))
base = wk6.get("false_alarm" if check == "false_alarm" else "miss", np.nan)
over = rate > port * (1 + line)
result = (f"not judged (under the group floor of {CFG['min_group']:,})" if not covered else ("TRIP" if over else "inside the line"))
rows.append({"group": gname, "level": lvl, "records this file": n, ("false alarm rate" if check == "false_alarm" else "miss rate"): pct(rate), "whole file": pct(port), "line": pct(port * (1 + line)), "Week 6 test set": pct(base) if base == base else "", "watched": "yes" if str(lvl) in CFG["watch_groups"] else "", "result": result})
else:
rate = float(flag[m].mean()); base = wk6.get("flagged_share", np.nan)
rows.append({"group": gname, "level": lvl, "records this file": n, "share ranked in": pct(rate), "whole file": pct(SHARE), "Week 6 test set": pct(base) if base == base else "", "watched": "yes" if str(lvl) in CFG["watch_groups"] else "", "result": "no outcomes yet: share ranked in only" if covered else f"not judged (under the group floor of {CFG['min_group']:,})"})
return pd.DataFrame(rows)
def calibration_table(s, y):
cal = CFG["calibration"]; rows = []
for lo, hi, name in cal["bands"]:
m = (s >= lo) & (s < hi)
if m.sum() == 0: rows.append(dict(band=name, records=0, predicted="", observed="", gap_share_of_observed="", result="empty band")); continue
mp, ob = float(s[m].mean()), float(y[m].mean()); gap = abs(mp - ob); expected = mp * m.sum()
if expected < CAL_FLOOR: res = f"not read (fewer than {CAL_FLOOR} expected outcomes in the band)"
else: res = "no outcomes in band" if ob == 0 else ("pass" if gap / ob <= cal["tripwire"] else "TRIP")
rows.append(dict(band=name, records=int(m.sum()), predicted=pct(mp, 2), observed=pct(ob, 2), gap_share_of_observed=(pct(gap / ob, 1) if ob else ""), result=res))
return pd.DataFrame(rows)
def monitor(file):
empty = (None, None, None)
if file is None: return "Upload a monthly file: one row per " + CFG["unit"] + ", the model's input columns, the measurement fields, and the outcome column once it is known.", *empty
try: df = coerce(pd.read_csv(file.name if hasattr(file, "name") else file, low_memory=False, keep_default_na=False, na_values=[]))
except Exception as e: return f"Could not read the file: {e}", *empty
missing = [c for c in INPUTS if c not in df.columns]
if missing: return "The file is missing input columns: " + ", ".join(missing) + ". The job would hold this file out of the cycle (the input contract).", *empty
s = score_frame(df); order = np.argsort(-s, kind="stable"); k = int(round(SHARE * len(df))); flag = np.zeros(len(df), int); flag[order[:k]] = 1
y = (df[CFG["outcome"]].astype(str) == str(CFG["positive"])).astype(int).values if CFG["outcome"] in df.columns else None
above_cut = float((s >= REF["cut_score"]).mean())
L = [f"**File:** {len(df):,} {CFG['units']}, {df.shape[1]} columns. Outcome column `{CFG['outcome']}`: " + ("present, so the ruled checks run." if y is not None else "absent, so only the input and score readings run. Upload again when the outcomes are known."),
f"**Scores:** mean {s.mean():.4f} (training-file positive rate {pct(REF['positive_rate'])}). {pct(above_cut)} of this file scores above the Week 6 cut of {REF['cut_score']:.4f}, against {pct(SHARE, 0)} by construction on the test set. The top {int(SHARE*100)} percent of this file is {k:,} {CFG['units']}.",
f"**Inputs:** the stability index compares each input's distribution with the training file's ({REF['rows']:,} rows). Under 0.10 is stable, 0.10 to 0.25 is watch, over 0.25 is shifted. These lines are the usual working lines, provisional until the Week 8 monitoring plan sets the program's own. Watched fields: {CFG['watch_fields_label']}."]
if y is not None:
pos = y == 1
L.append(f"**At the cut:** {int((flag & pos).sum()):,} of the {int(pos.sum()):,} {CFG['positive_label']} {CFG['units']} are ranked in ({pct((flag & pos).sum() / max(pos.sum(), 1))}); the whole-file {'false alarm' if CFG['group_check'] == 'false_alarm' else 'miss'} rate is the line every group is read against, plus {int(CFG['group_tripwire']*100)} percent ({CFG['memo_ref']}).")
cal = calibration_table(s, y) if (CFG.get("calibration") and y is not None) else None
if cal is not None:
worst = [r for r in cal.result if r == "TRIP"]; read = [r for r in cal.result if r in ("TRIP", "pass")]
L.append(f"**Calibration:** predicted against observed by score band, line {int(CFG['calibration']['tripwire']*100)} percent of observed. Bands that expect fewer than {CAL_FLOOR} outcomes are not read. " + (f"{len(read)} band(s) read, every one inside the line." if not worst else f"{len(worst)} of {len(read)} band(s) read are over the line: the calibration condition (ruling 1) is not met for this file."))
return "\n\n".join(L), drift_table(df), group_table(df, s, flag, y), cal
# ----------------------------------------------------------------------------- tab 4: the dossier
def dossier_markdown():
L = [f"## The dossier: {CFG['system']} at {CFG['org']}", "", "The six deliverables of the practicum, in course order. Each opens in the browser.", ""]
for f, label in CFG["docs"]:
p = os.path.join(HERE, "docs", f)
if SPACE_ID: url = f"https://huggingface.co/spaces/{SPACE_ID}/resolve/main/docs/{f}"
else: url = f"docs/{f}"
L.append(f"- [{label}]({url})" + ("" if os.path.exists(p) else " (not uploaded yet)"))
L += ["", f"**Monitoring targets from the {CFG['memo_ref']}:**"] + [f"- {m}" for m in CFG["monitoring_lines"]]
L += ["", f"**Data:** [{CFG['data_file']}]({CFG['data_url']}) in the program's dataset repository (MD5 `{CFG['md5']}`). The data is not copied into this page."]
return "\n".join(L)
# ----------------------------------------------------------------------------- the page
INTRO = f"""
# {CFG['system']} {CFG['version']}: {CFG['org']}
**Governance analyst: [YOUR NAME]** 路 a teaching deployment for the *AI Governance Practicum*, Track 1
---
{CFG['system']} estimates, for each {CFG['unit']}, the likelihood of {CFG['positive_label']}, ranks the file, and sends the top {int(SHARE*100)} percent to a person for {CFG['action']}. This page runs the signed version ({CFG['memo_ref']}). It is for **education**, not real decisions. A score says where a {CFG['person']}'s record ranks on one list. It is not a decision about the {CFG['person']}.
"""
with gr.Blocks(title=f"{CFG['org']} {CFG['system']}") as demo:
gr.Markdown(INTRO)
with gr.Accordion("About the signed version: the file, its hash, the fitted steps, the weights", open=False):
gr.Markdown(model_header())
gr.Markdown("**The fixed weights.** The largest by size, with what each column means. A positive weight pushes the score up.")
gr.Dataframe(weights_table(), interactive=False, wrap=True)
with gr.Tab(f"1 路 Single {CFG['unit']}"):
gr.Markdown(f"Score one {CFG['unit']}, then read the **reasons**. Load a Week 6 case to fill the form, or edit any field and score again.")
with gr.Row():
preset = gr.Dropdown(list(PRESETS), label="Load an example", value=FIRST)
d0 = PRESETS[FIRST]
widgets = {}
with gr.Accordion("Categorical inputs", open=True):
for i in range(0, len(CAT), 4):
with gr.Row():
for c in CAT[i:i + 4]:
widgets[c] = gr.Dropdown(choices_for(c), value=d0[c], label=field_label(c), allow_custom_value=True)
with gr.Accordion("Numeric inputs", open=(len(CAT) == 0)):
for i in range(0, len(NUM), 4):
with gr.Row():
for c in NUM[i:i + 4]:
widgets[c] = gr.Number(value=d0[c], label=c)
ordered = [widgets[c] for c in FORM]
score_btn = gr.Button(f"Score this {CFG['unit']}", variant="primary")
out_md = gr.Markdown(); out_plot = gr.Plot()
preset.change(apply_preset, preset, ordered)
score_btn.click(score_one, ordered, [out_md, out_plot])
with gr.Tab("2 路 Batch upload"):
gr.Markdown(f"Upload a CSV of {CFG['units']} (the same columns as the working file). {CFG['system']} scores every row, ranks the file, and marks the top {int(SHARE*100)} percent, the operating point the {CFG['memo_ref']} set. Top-N is how many of the ranked list the team can work. `sample_month.csv` in this repository is a file to try.")
with gr.Row():
up = gr.File(label=f"{CFG['units'].capitalize()} CSV", file_types=[".csv"])
with gr.Column():
topn = gr.Slider(5, 100, value=20, step=5, label="Top-N by capacity (how many the team can work)")
batch_btn = gr.Button("Score & rank", variant="primary")
batch_msg = gr.Markdown(); batch_tbl = gr.Dataframe(interactive=False, wrap=True); batch_dl = gr.File(label="Download the full ranked list")
batch_btn.click(score_batch, [up, topn], [batch_tbl, batch_msg, batch_dl])
with gr.Tab("3 路 Monitoring"):
gr.Markdown(f"**One month at a time.** Upload the month's file. The page reads it against the training file and the tripwires the {CFG['memo_ref']} set: the inputs' distributions, the scores, the groups at the cut, " + ("and the calibration table." if CFG.get("calibration") else "and the ruled group check.") + f" `sample_month.csv` in this repository is a stand-in drawn from the Week 6 test set, so the page can be tried before a monthly file exists.")
mf = gr.File(label="Monthly file (CSV)", file_types=[".csv"])
mon_btn = gr.Button("Read this month", variant="primary")
m_msg = gr.Markdown()
m_drift = gr.Dataframe(interactive=False, label="Inputs against the training file", wrap=True)
m_groups = gr.Dataframe(interactive=False, label="Groups at the cut, against the whole file and the line", wrap=True)
m_cal = gr.Dataframe(interactive=False, label="Calibration by score band", visible=bool(CFG.get("calibration")))
mon_btn.click(monitor, mf, [m_msg, m_drift, m_groups, m_cal])
with gr.Tab("4 路 The dossier"):
gr.Markdown(dossier_markdown())
gr.Markdown(f"---\n*{CFG['system']} is a fictional model built on a public dataset for the AI Governance Practicum (AI Governance Collective). The organization, the people, and the program are fictional. Data: [{CFG['data_file']}]({CFG['data_url']}).*")
if __name__ == "__main__":
demo.launch()