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"""
main.py β€” Gradio interface with integrated ML probability filter.

Pipeline:
    OHLCV Data
        β”‚
        β–Ό
    Rule Engine (regime + volume + scoring + veto)
        β”‚
        β”œβ”€β–Ί Vetoed β†’ skip (no ML call, save compute)
        β”‚
        └─► Approved by rules
                β”‚
                β–Ό
            ML Filter (LightGBM / HGBM probability)
                β”‚
                β”œβ”€β–Ί prob < threshold β†’ FILTERED (shown as ML_REJECT)
                β”‚
                └─► prob >= threshold β†’ Risk Engine β†’ Final setup
                            β”‚
                            β–Ό
                        Ranked output with ML prob overlay
"""

import logging
import sys
import time
from typing import List, Optional, Dict, Any

import gradio as gr

from config import (
    DEFAULT_SYMBOLS,
    TOP_N_DEFAULT,
    DEFAULT_ACCOUNT_EQUITY,
    TIMEFRAME,
    CANDLE_LIMIT,
)
from data_fetcher import fetch_multiple, fetch_instruments
from regime import detect_regime
from volume_analysis import analyze_volume
from risk_engine import evaluate_risk
from veto import apply_veto, veto_summary
from scorer import compute_structure_score, score_token, rank_tokens, format_score_bar, quality_tier
from feature_builder import build_feature_dict, validate_features
from ml_filter import TradeFilter

logging.basicConfig(
    level=logging.INFO,
    format="%(asctime)s [%(levelname)s] %(name)s: %(message)s",
    stream=sys.stdout,
)
logger = logging.getLogger("main")

# Load ML filter once at startup (None if not yet trained)
_TRADE_FILTER: Optional[TradeFilter] = TradeFilter.load_or_none()

_TREND_ICON  = {"bullish": "β–²", "ranging": "β—†", "bearish": "β–Ό"}
_BREAK_LABEL = {1: "↑UP", -1: "↓DN", 0: " β€” "}
_DIR_LABEL   = {1: "LONG", -1: "SHORT", 0: "NONE"}


def infer_direction(trend: str, breakout: int) -> int:
    if trend == "bullish" or breakout == 1:
        return 1
    if trend == "bearish" or breakout == -1:
        return -1
    return 0


def analyze_single(
    symbol: str,
    df,
    account_equity: float,
    consec_losses: int = 0,
    equity_drawdown_pct: float = 0.0,
    use_ml: bool = True,
) -> Dict[str, Any]:
    # ── RULE ENGINE ───────────────────────────────────────────────────────────
    regime_data  = detect_regime(df)
    volume_data  = analyze_volume(df, atr_series=regime_data["atr_series"])
    structure_sc = compute_structure_score(regime_data)
    direction    = infer_direction(regime_data["trend"], volume_data["breakout"])
    vetoed, veto_reason = apply_veto(regime_data, volume_data, structure_sc, direction=direction)
    scores = score_token(regime_data, volume_data, vetoed)

    # ── ML FILTER ─────────────────────────────────────────────────────────────
    ml_prob       = None
    ml_approved   = None
    ml_reject_reason = ""

    if use_ml and _TRADE_FILTER is not None and not vetoed:
        try:
            feat = build_feature_dict(regime_data, volume_data, scores)
            if validate_features(feat):
                result = _TRADE_FILTER.predict(regime_data, volume_data, scores)
                ml_prob     = result.probability
                ml_approved = result.approved
                ml_reject_reason = result.reject_reason
            else:
                ml_approved = None  # pass through if features invalid
        except Exception as e:
            logger.warning(f"{symbol}: ML filter error: {e}")
            ml_approved = None

    # ── RISK ENGINE ───────────────────────────────────────────────────────────
    # Only compute full risk if not vetoed by rules AND not rejected by ML
    final_approved = (
        not vetoed and
        (ml_approved is None or ml_approved)
    )

    risk_data = evaluate_risk(
        close=float(df["close"].iloc[-1]),
        atr=regime_data["atr"],
        atr_pct=regime_data["atr_pct"],
        regime_score=regime_data["regime_score"],
        vol_ratio=regime_data["vol_ratio"],
        volume_score=volume_data["volume_score"],
        regime_confidence=regime_data["regime_confidence"],
        vol_compressed=regime_data["vol_compressed"],
        consec_losses=consec_losses,
        equity_drawdown_pct=equity_drawdown_pct,
        account_equity=account_equity,
    ) if final_approved else {}

    return {
        "symbol":             symbol,
        "close":              float(df["close"].iloc[-1]),
        "trend":              regime_data["trend"],
        "adx":                regime_data["adx"],
        "di_plus":            regime_data["di_plus"],
        "di_minus":           regime_data["di_minus"],
        "vol_ratio":          regime_data["vol_ratio"],
        "vol_compressed":     regime_data["vol_compressed"],
        "vol_expanding_from_base": regime_data["vol_expanding_from_base"],
        "vol_expanding":      regime_data["vol_expanding"],
        "dist_atr":           regime_data["dist_atr"],
        "price_extended":     regime_data["price_extended_long"] or regime_data["price_extended_short"],
        "regime_confidence":  regime_data["regime_confidence"],
        "spike":              volume_data["spike"],
        "climax":             volume_data["climax"],
        "absorption":         volume_data["absorption"],
        "failed_breakout":    volume_data["failed_breakout"],
        "recent_failed":      volume_data["recent_failed_count"],
        "breakout":           volume_data["breakout"],
        "obv_slope":          volume_data["obv_slope_norm"],
        "delta_sign":         volume_data["delta_sign"],
        "direction":          direction,
        "rule_vetoed":        vetoed,
        "veto_reason":        veto_reason,
        "ml_prob":            ml_prob,
        "ml_approved":        ml_approved,
        "ml_reject_reason":   ml_reject_reason,
        "final_approved":     final_approved,
        "regime_score":       scores["regime_score"],
        "volume_score":       scores["volume_score"],
        "structure_score":    scores["structure_score"],
        "confidence_score":   scores["confidence_score"],
        "total_score":        scores["total_score"],
        "risk":               risk_data,
    }


def _ml_status(d: Dict) -> str:
    if _TRADE_FILTER is None:
        return "NO_MODEL"
    if d["rule_vetoed"]:
        return "RULE_VET"
    if d["ml_prob"] is None:
        return "ML_ERR  "
    prob_str = f"{d['ml_prob']:.3f}"
    return f"βœ“{prob_str}" if d["ml_approved"] else f"βœ—{prob_str}"


def build_ranked_table(ranked: list, top_n: int) -> str:
    hdr = (
        f"{'#':>3}  {'Symbol':<14}  {'Score':>7}  {'Tier':>4}  "
        f"{'Regime':>6}  {'Vol':>6}  {'S':>5}  {'C':>5}  "
        f"{'Trend':>7}  {'ADX':>5}  {'VR':>5}  "
        f"{'ML':>8}  {'Status'}\n"
    )
    sep  = "─" * 105 + "\n"
    rows = hdr + sep

    for rank, (sym, d) in enumerate(ranked[:top_n], 1):
        icon   = _TREND_ICON.get(d["trend"], "?")
        tier   = quality_tier(d["total_score"])
        ml_str = _ml_status(d)

        if d["rule_vetoed"]:
            status = "RULE_VET"
        elif not d["final_approved"]:
            status = "ML_FILT "
        else:
            status = "OK      "

        rows += (
            f"{rank:>3}  {sym:<14}  {d['total_score']:>7.4f}  {tier:>4}  "
            f"{d['regime_score']:>6.3f}  {d['volume_score']:>6.3f}  "
            f"{d['structure_score']:>5.3f}  {d['confidence_score']:>5.3f}  "
            f"{icon} {d['trend']:<5}  {d['adx']:>5.1f}  {d['vol_ratio']:>5.2f}  "
            f"{ml_str:>8}  {status}\n"
        )
    return rows


def build_best_detail(data: Dict[str, Any]) -> str:
    r = data.get("risk", {})
    sym = data["symbol"]
    icon = _TREND_ICON.get(data["trend"], "?")

    vol_state = []
    if data["vol_compressed"]:          vol_state.append("COMPRESSED")
    if data["vol_expanding_from_base"]: vol_state.append("EXPANDING FROM BASE βœ“")
    if data["vol_expanding"] and not data["vol_expanding_from_base"]:
        vol_state.append("EXPANDING (no base)")
    vol_state_str = " | ".join(vol_state) or "NORMAL"

    ml_section = ""
    if _TRADE_FILTER is not None:
        prob_str = f"{data['ml_prob']:.4f}" if data["ml_prob"] is not None else "N/A"
        thresh_str = f"{_TRADE_FILTER.threshold:.4f}"
        decision = "APPROVED βœ“" if data["ml_approved"] else "FILTERED βœ—"
        ml_section = (
            f"\n  ── ML PROBABILITY FILTER ─────────────────────────\n"
            f"  P(win):          {prob_str}\n"
            f"  Threshold:       {thresh_str}\n"
            f"  ML Decision:     {decision}\n"
        )

    risk_section = ""
    if r:
        risk_section = (
            f"\n  ── RISK PARAMETERS ────────────────────────────────\n"
            f"  Entry:           {r.get('entry_price', 0):.8f}\n"
            f"  ATR:             {r.get('atr', 0):.8f}  ({r.get('atr_pct', 0):.3f}%)\n"
            f"  Stop Mult:       {r.get('stop_mult', 0):.1f}x ATR\n"
            f"  LONG  β†’ Stop: {r.get('stop_long', 0):.8f}  Target: {r.get('target_long', 0):.8f}\n"
            f"  SHORT β†’ Stop: {r.get('stop_short', 0):.8f}  Target: {r.get('target_short', 0):.8f}\n"
            f"  R:R Ratio:       1 : {r.get('rr_ratio', 2):.1f}\n"
            f"  Risk Fraction:   {r.get('risk_fraction', 0):.4f}%\n"
            f"  $ At Risk:       ${r.get('dollar_at_risk', 0):.2f}\n"
            f"  Position Size:   ${r.get('position_notional', 0):.2f} notional\n"
            f"  Leverage (est):  {r.get('leverage_implied', 0):.2f}x\n"
            f"  Consec. Losses:  {r.get('consec_losses', 0)}\n"
            f"  Sizing Halted:   {'YES β›”' if r.get('sizing_halted') else 'no'}\n"
        )

    lines = [
        "═" * 64,
        f"  BEST APPROVED SETUP: {sym}  [{_DIR_LABEL.get(data['direction'], '?')}]",
        "═" * 64,
        f"  Trend:            {icon} {data['trend'].upper()}",
        f"  ADX:              {data['adx']:.1f}  (DI+ {data['di_plus']:.1f} / DI- {data['di_minus']:.1f})",
        f"  Vol State:        {vol_state_str}",
        f"  Dist from Mean:   {data['dist_atr']:.2f} ATR",
        f"  Regime Confidence:{data['regime_confidence']:.3f}",
        "",
        "  ── SCORES ──────────────────────────────────────────",
        f"  Regime:     {format_score_bar(data['regime_score'])}",
        f"  Volume:     {format_score_bar(data['volume_score'])}",
        f"  Structure:  {format_score_bar(data['structure_score'])}",
        f"  Confidence: {format_score_bar(data['confidence_score'])}",
        f"  TOTAL:      {format_score_bar(data['total_score'])}",
    ]
    lines.append(ml_section)
    lines.append(risk_section)
    lines.append("═" * 64)
    return "\n".join(lines)


def parse_symbols(raw: str) -> List[str]:
    out = []
    for tok in raw.replace(",", " ").replace("\n", " ").split():
        tok = tok.strip().upper()
        if tok:
            out.append(tok if "-" in tok else f"{tok}-USDT")
    return out or DEFAULT_SYMBOLS


def run_analysis(
    symbols_input: str,
    equity: float,
    consec_losses: int,
    drawdown_pct: float,
    top_n: int,
    use_live: bool,
    use_ml: bool,
    progress=gr.Progress(track_tqdm=False),
) -> str:
    t0 = time.time()
    lines = []

    ml_status_str = "ACTIVE" if (_TRADE_FILTER is not None and use_ml) else (
        "DISABLED" if not use_ml else "NOT TRAINED (run train.py)"
    )

    lines += [
        "━" * 68,
        "  OKX QUANTITATIVE ANALYSIS ENGINE  v3",
        f"  ML Filter: {ml_status_str}",
        "━" * 68,
    ]

    if _TRADE_FILTER is not None and use_ml:
        lines.append(f"  ML threshold: {_TRADE_FILTER.threshold:.4f}  |  Stats: {_TRADE_FILTER.stats()}")

    if use_live:
        lines.append("⟳  Fetching live OKX instrument list...")
        symbols = fetch_instruments("SPOT") or DEFAULT_SYMBOLS
        lines.append(f"βœ“  {len(symbols)} live USDT instruments")
    else:
        symbols = parse_symbols(symbols_input)
        lines.append(f"βœ“  {len(symbols)} symbol(s)")

    lines.append(
        f"   Equity: ${equity:,.0f}  |  Losses: {int(consec_losses)}"
        f"  |  DD: {drawdown_pct:.1f}%  |  TF: {TIMEFRAME}"
    )
    lines.append("")

    total = len(symbols)

    def prog_cb(i, t, sym):
        progress(i / t, desc=f"Fetching {sym} ({i}/{t})")

    ohlcv_map = fetch_multiple(symbols, min_bars=50, progress_callback=prog_cb)
    lines.append(f"βœ“  Fetched {len(ohlcv_map)}/{total}")
    lines.append("")

    all_results: Dict[str, Any] = {}
    errors = []

    for sym, df in ohlcv_map.items():
        try:
            all_results[sym] = analyze_single(
                sym, df,
                account_equity=equity,
                consec_losses=int(consec_losses),
                equity_drawdown_pct=drawdown_pct / 100.0,
                use_ml=use_ml,
            )
        except Exception as exc:
            logger.error(f"{sym}: {exc}", exc_info=True)
            errors.append(sym)

    if errors:
        lines.append(f"⚠  Errors: {', '.join(errors)}")

    ranked = rank_tokens(all_results)

    rule_vetoed_n = sum(1 for _, d in ranked if d["rule_vetoed"])
    ml_filtered_n = sum(1 for _, d in ranked if not d["rule_vetoed"] and not d["final_approved"])
    approved_n    = sum(1 for _, d in ranked if d["final_approved"])

    lines += [
        f"  {len(all_results)} analyzed  |  {approved_n} approved  |  "
        f"{rule_vetoed_n} rule-vetoed  |  {ml_filtered_n} ML-filtered",
        "",
        "  RANKED SETUPS",
        "─" * 105,
        build_ranked_table(ranked, int(top_n)),
    ]

    final_approved = [(s, d) for s, d in ranked if d["final_approved"]]
    if final_approved:
        best_sym, best_data = final_approved[0]
        lines += ["", build_best_detail(best_data)]
    else:
        lines += [
            "",
            "  ⚠  No fully approved setups.",
            "     Possible causes: market regime unfavorable, ML model not trained,",
            "     or all signals vetoed by rule engine.",
        ]

    if _TRADE_FILTER is not None and use_ml:
        lines += ["", f"  ML session stats: {_TRADE_FILTER.stats()}"]

    lines += ["", f"  βœ“  Complete in {time.time() - t0:.1f}s", "━" * 68]
    return "\n".join(lines)


def build_app() -> gr.Blocks:
    with gr.Blocks(
        title="OKX Quant Engine v3",
        theme=gr.themes.Base(
            primary_hue="slate",
            neutral_hue="zinc",
            font=[gr.themes.GoogleFont("JetBrains Mono"), "monospace"],
        ),
        css="""
        body, .gradio-container {
            background: #060a10 !important;
            font-family: 'JetBrains Mono', monospace !important;
            max-width: 1280px !important;
        }
        .gr-button-primary {
            background: linear-gradient(90deg, #1a6bff, #0044cc) !important;
            border: none !important;
            font-weight: 700 !important;
            letter-spacing: 0.06em !important;
        }
        #output_box textarea {
            font-family: 'JetBrains Mono', monospace !important;
            font-size: 12px !important;
            line-height: 1.55 !important;
            background: #0a0e18 !important;
            color: #b0c4de !important;
            border: 1px solid #182030 !important;
            min-height: 740px !important;
        }
        label { color: #4a6080 !important; font-size: 11px !important; text-transform: uppercase !important; letter-spacing: 0.09em !important; }
        h1, h2 { color: #c0d4f0 !important; font-family: 'JetBrains Mono', monospace !important; }
        p { color: #384858 !important; font-size: 12px !important; }
        .gr-panel { background: #0c1020 !important; border: 1px solid #182030 !important; }
        """,
    ) as app:
        gr.Markdown("# β—ˆ OKX QUANT ENGINE  v3")
        gr.Markdown(
            "ADX Β· absorption detection Β· volatility compression Β· "
            "fake breakout filter Β· **LightGBM probability layer** Β· adaptive risk"
        )

        with gr.Row():
            with gr.Column(scale=2):
                symbols_box = gr.Textbox(
                    label="Symbols  (comma / newline β€” blank = defaults)",
                    placeholder="BTC-USDT, ETH-USDT, SOL-USDT ...",
                    lines=4, value="",
                )
            with gr.Column(scale=1):
                equity_slider = gr.Slider(
                    label="Account Equity  ($)",
                    minimum=100, maximum=1_000_000, step=500,
                    value=DEFAULT_ACCOUNT_EQUITY,
                )
                top_n_slider = gr.Slider(
                    label="Top N  to Display",
                    minimum=5, maximum=100, step=5, value=TOP_N_DEFAULT,
                )
            with gr.Column(scale=1):
                consec_loss = gr.Slider(label="Consecutive Losses", minimum=0, maximum=10, step=1, value=0)
                drawdown    = gr.Slider(label="Drawdown from Peak  (%)", minimum=0.0, maximum=30.0, step=0.5, value=0.0)
                live_check  = gr.Checkbox(label="Fetch live OKX instruments  (100+)", value=False)
                ml_check    = gr.Checkbox(
                    label=f"Enable ML Filter  (model: {'LOADED' if _TRADE_FILTER else 'NOT TRAINED'})",
                    value=_TRADE_FILTER is not None,
                )

        run_btn = gr.Button("β–Ά  RUN ANALYSIS", variant="primary", size="lg")
        output_box = gr.Textbox(
            label="Analysis Output",
            lines=50, max_lines=150,
            interactive=False,
            elem_id="output_box",
        )

        run_btn.click(
            fn=run_analysis,
            inputs=[symbols_box, equity_slider, consec_loss, drawdown, top_n_slider, live_check, ml_check],
            outputs=output_box,
        )

        gr.Markdown(
            "**Research use only. Not financial advice.**  "
            "Train the ML filter: `python train.py --use-defaults`  |  "
            "Re-optimize threshold: `python threshold_optimizer.py`"
        )

    return app


if __name__ == "__main__":
    import argparse
    parser = argparse.ArgumentParser()
    parser.add_argument("--port", type=int, default=7860)
    parser.add_argument("--share", action="store_true")
    a = parser.parse_args()
    build_app().launch(server_name="0.0.0.0", server_port=a.port, share=a.share, show_error=True)