Hitonabi
43880b1965
- fit.estimate_memory_gb: KV-Cache jetzt sqrt-skaliert (nicht linear mit Gesamt-Params),
kalibriert an Hermes-14B@128K ~19GB KV -> realistische Footprints (vorher massive Ueberschaetzung).
- agent.hermes_brain_info Budget: prueft jetzt Brain (immer resident) + groesstes on-demand-Modell
<= GTT-Budget (fast/vision duerfen verdraengt werden) -> brain-spezifische, aussagekraeftige Warnung.
- Cockpit: Budget-Zeile + Confirm-Warnung entsprechend ("Brain ~X GB + groesstes on-demand ~Y GB").
Co-Authored-By: Claude Opus 4.8 <noreply@anthropic.com>
96 lines
3.7 KiB
Python
96 lines
3.7 KiB
Python
"""
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Hardware-Fit-Mathe (VRAM/RAM, tps-Schätzung) für APUs mit Unified Memory
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(Bosgame M5 / Strix Halo). Portiert aus Mission Control v1 (hw_math.py).
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"""
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import re
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# Bytes pro Parameter je GGUF-Quant (Annahme).
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QUANT_BYTES_PER_PARAM = {
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"Q2_K": 0.35, "Q3_K_S": 0.38, "Q3_K_M": 0.42, "Q3_K_L": 0.45,
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"Q4_0": 0.50, "Q4_1": 0.55, "Q4_K_S": 0.50, "Q4_K_M": 0.55,
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"Q5_0": 0.62, "Q5_1": 0.68, "Q5_K_S": 0.62, "Q5_K_M": 0.65,
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"Q6_K": 0.75, "Q8_0": 1.00, "F16": 2.00, "BF16": 2.00,
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}
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def estimate_memory_gb(params_b: float, quant: str, ctx: int) -> float:
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"""Geschätzter Speicherbedarf in GB (Gewichte + Kontext-KV).
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KV-Cache skaliert NICHT linear mit den Gesamt-Parametern (er hängt an
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Layern × KV-Heads, gedämpft durch GQA) → sqrt-Skalierung, kalibriert am
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gemessenen Punkt Hermes-4-14B @ 128K ≈ 19 GB KV."""
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bpp = QUANT_BYTES_PER_PARAM.get(quant.upper(), 0.65)
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weights = params_b * bpp
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context_vram = (ctx / 8192) * (max(params_b, 7) / 7) ** 0.5 * 0.84
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return weights + context_vram
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def extract_active_params_b(name: str) -> float | None:
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"""Aktive Parameter bei MoE ('30B-A3B' → 3.0). None bei Dense."""
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m = re.search(r"(?<![a-zA-Z])a(\d+(?:\.\d+)?)b\b", name.lower())
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return float(m.group(1)) if m else None
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def estimate_speed(req_gb: float, sys_ram_gb: float, moe_active_ratio: float = 1.0) -> float:
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"""Geschätzte t/s anhand der ~273 GB/s Bandbreite der APU.
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moe_active_ratio = aktive/gesamt Params; < 1 bei MoE."""
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bw = 273 if sys_ram_gb > 8 else 70
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if req_gb <= 0:
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return 0.0
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raw_tps = (bw / req_gb) * 0.55
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if moe_active_ratio < 0.8:
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raw_tps *= (1.0 / moe_active_ratio) ** 0.5
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return raw_tps
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def evaluate_fit(params_b: float, quant: str, ctx: int, sys_ram_gb: float, name: str = "") -> dict:
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"""Fit für ein Shared-Memory-System (APU). name → MoE-Erkennung (optional)."""
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req_gb = estimate_memory_gb(params_b, quant, ctx)
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active_b = extract_active_params_b(name) if name else None
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moe_ratio = (active_b / params_b) if (active_b and params_b > 0) else 1.0
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tps = estimate_speed(req_gb, sys_ram_gb, moe_ratio)
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usable_ram = max(sys_ram_gb - 4.0, 0)
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if req_gb > usable_ram:
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fit_level, text = "too_tight", "Zu groß (OOM)"
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elif req_gb > usable_ram * 0.8:
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fit_level, text = "marginal", "Könnte knapp werden"
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else:
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fit_level, text = "perfect", "Passt perfekt"
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return {"level": fit_level, "text": text, "req_gb": round(req_gb, 1), "tps": round(tps, 0)}
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def extract_params_b(name: str) -> float:
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"""Parametergröße (Mrd.) aus Repo-/Dateiname. 8x7B (MoE) → 56."""
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moe = re.search(r"(\d+)x(\d+(?:\.\d+)?)[bB]", name)
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if moe:
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return float(moe.group(1)) * float(moe.group(2))
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m = re.search(r"(\d+(?:\.\d+)?)[bB](?![a-zA-Z])", name)
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return float(m.group(1)) if m else 7.0
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_NICE_CTX = [2048, 4096, 8192, 16384, 32768, 49152, 65536, 98304, 131072]
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def max_ctx_for(params_b: float, quant: str, sys_ram_gb: float) -> int:
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"""Größter 'schöner' Kontext, der komfortabel passt (80 % des nutzbaren RAM)."""
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bpp = QUANT_BYTES_PER_PARAM.get(quant.upper(), 0.65)
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weights = params_b * bpp
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usable = max(sys_ram_gb - 4.0, 0) * 0.8
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ctx_budget = usable - weights
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if ctx_budget <= 0:
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return 2048
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per_8k = (max(params_b, 7) / 7) * 0.8
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raw_ctx = (ctx_budget / per_8k) * 8192
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best = _NICE_CTX[0]
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for c in _NICE_CTX:
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if c <= raw_ctx:
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best = c
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return best
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def recommend_ctx(params_b: float, quant: str, sys_ram_gb: float) -> dict:
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ctx = max_ctx_for(params_b, quant, sys_ram_gb)
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k = ctx // 1024
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return {"ctx": ctx, "k": k,
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"note": f"Bis ~{k}k Kontext passt komfortabel auf deine Hardware ({round(sys_ram_gb)} GB)."}
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