@bridgemindai I doubt they will remove fable from subscription for one simple reason. If they do, OpenAI will lunch a competitor in their subs and win the market.
Here's a teaser of our Mac-1 model.
> 6.6B model
> runs locally (on any Mac)
> requires 7GB RAM (12GB ideal)
> can use 487 MacOS native tools
> perform multi-tool chained tasks
> reasoning: ON
> output: ~65 tok/s
We built a robust application layer around the model to make UI/UX MacOS native. The "model-focused" SaaS era is here.
Stay tuned for more.
As an AI Engineer. Please learn
>Harness engineering, not just prompt engineering
>Context engineering, not just long prompts
>Prompt caching vs. semantic caching tradeoffs
>KV cache management, eviction, reuse, and memory pressure at scale
>Prefill vs. decode latency and why they optimize differently
>Continuous batching, paged attention, and throughput optimization
>Speculative decoding vs. quantization vs. distillation tradeoffs
>INT8, INT4, FP8, AWQ, GPTQ, and when quantization hurts quality
>Structured output failures, schema validation, repair loops, and fallback chains
>Function calling reliability, tool contracts, argument validation, and idempotency
>Agent guardrails, loop budgets, tool budgets, and termination conditions
>Model routing, graceful fallback logic, and degraded-mode UX
>RAG architecture: chunking, embeddings, hybrid search, reranking, and freshness
>Retrieval evals: recall, precision, grounding, attribution, and citation quality
>Evals: golden sets, regression tests, adversarial tests, LLM-as-judge, and human evals
>LLM observability as a first-class discipline: traces, spans, tokens, latency, errors, and drift
>Cost attribution per feature, workflow, tenant, and user journey not just per model
>Safety engineering: prompt injection defense, data leakage prevention, and permission boundaries
>Multi-tenant isolation, cache safety, and cross-user context contamination prevention
>Fine-tuning vs. in-context learning vs. RAG vs. distillation and when each is the wrong tool
>Latency, quality, cost, and reliability tradeoffs across the full inference stack
>Production failure modes: hallucinated tool calls, malformed JSON, stale retrieval, runaway agents, and silent eval regressions
A 2.1GB model on my gaming PC CPU just beat a $10M AI model on HumanEval.
Here's exactly how:
The model: Qwen2.5-Coder-3B-Instruct — 3.1B params from Alibaba, quantized to 4-bit.
Downloaded in 30 seconds.
The hardware: Intel i9-12900K. No GPU. A $350 consumer CPU.
The score: 89.0% (146/164 problems passed)
Cohere Command A+: 218B parameters, $10M+ training cost, requires 2x H100 GPUs. Scored 75%.
We're +14 points. On a cpu.
I resurrected busyBeaver:
→ Prompt engineering (expert coder framing)
→ pass@3 retry at 3 temperatures (pushes 80% → 89%)
→ Code extraction from markdown output
→ Sandboxed test execution (15s timeout, crash recovery)
→ Checkpointing (resume from any crash point)
The model writes the code. The harness measures it fairly.
Eval protocol: Textbook standard. Feed signature + docstring → generate code → run tests → count passes. No tricks. No benchmark training. No contamination.
Honest scorecard:
- HumanEval: 89% vs 75% ✅
- MBPP: 70% vs 72%
- MMLU-Pro: 27% vs 68% ❌ Expected (code model vs knowledge model)
You don't need $10M to beat a $10M benchmark. You need a 2GB model + a clean eval harness + a gaming PC.
Code: https://t.co/48mhZP7reY