✅ Validated on 20 benchmarks — 17 wins, 3 losses

Bio-Inspired Adapters That
Actually Beat LoRA

Intelligent search over 50+ neuroscience-inspired mechanisms discovers lightweight adapters that improve foundation models beyond state-of-the-art parameter-efficient fine-tuning.

📊 See Benchmark Results → 🤗 Model on HuggingFace How It Works
📄 Read the Paper 🔬 See Research Results GitHub
+2.05
Average Improvement
Absolute points across 20 metrics
85%
Win Rate
17 wins / 3 losses
+14.7%
Best Single Gain
PAWS adversarial paraphrase
~1K
Experiments
Out of 10²² possible configs

📊 Benchmark Results

all-MiniLM-L6-v2 + GENbAIs Bio Adapters vs. baseline sentence-transformers/all-MiniLM-L6-v2

TaskDatasetMetric BaselineFinetunedΔΔ%

Key Takeaways

🪨Hard-mode validation: all-MiniLM-L6-v2 is a 22M-param, 6-layer model already distilled and heavily optimized by the sentence-transformers team. Getting meaningful gains here is like squeezing blood from a stone — larger models (CLIP, LLaMA, Mistral) with more layers and parameters offer far more room for bio-adapter improvement.
🏆Strongest gains on adversarial tasks — PAWS AP +14.7% suggests bio features capture genuine semantic structure beyond lexical overlap
📈STS13 (+6.7%) and STS14 (+10.0%) show large improvements on classic semantic similarity
🔀Gains are broad — STS, pair classification, AND clustering all improve (not task-specific overfitting)
⚠️Regressions on biosses (-3.6%, tiny biomedical dataset) and SNLI (-2.3%) — worth investigating

🧬 How GENbAIs Works

General Efficient Neural bio-Adapter Intelligent Search

🧠
Step 1

Bio-Feature Library (50+ mechanisms)

A library of 50+ computational primitives inspired by neuroscience — lateral inhibition, predictive coding, Hebbian learning, cortical column dynamics, and more. Each is implemented as a lightweight adapter module.

Each feature adds up to ~1% of model parameters, scales with model size
Zero-initialized gates ensure no degradation at init
Features span 6 cortical processing stages
🎯
Step 2

Intelligent Search (Thompson Sampling NAS)

The search space is astronomical (~10²² configurations). We use Thompson sampling with Bayesian pruning to find winning combinations in ~1,000 experiments — exploring just 0.00000000000000001% of the space.

Stage 1: Sweep all features at each layer position
Stage 2: Pair top features, track synergies & conflicts
Stage 3: Adaptive extension to 3+ feature combinations
Feature interaction tracking prunes dead ends early
🔧
Step 3

Stacking on Best LoRA

We first grid-search for the optimal LoRA configuration, merge it into the base model, then stack bio-adapters on top. This ensures bio features provide genuine additive improvement over the best available PEFT.

5 LoRA configs tested with 3 seeds each
Best LoRA merged permanently into weights
Bio features trained with residual mixing (starts near zero)
📊
Step 4

Validation (20 Benchmarks)

The winning configuration is evaluated on 20 held-out benchmark metrics spanning semantic textual similarity, adversarial pair classification, and clustering — tasks never seen during the search process.

17/3 win rate across 20 metrics
+2.05 average absolute improvement
Strongest gains on adversarial tasks (PAWS +14.7%)

Neuroscience-Inspired Mechanisms

A sample of the 50+ bio-features in the library
⚡ Predictive Coding🏆 Lateral Inhibition 🌳 Dendritic Computation🔄 Homeostatic Scaling 🔗 Hebbian Learning🧠 Cortical Columns 🌊 Oscillatory Sync🎯 Attention Gating 💾 Memory Consolidation🔀 Sparse Coding ⚖️ Divisive Normalization🌀 Recurrent Circuits 🎲 Bayesian Inference🧬 Neuromodulation 📡 Global Workspacemore...

🎯 Intelligent Search, Not Brute Force

We don't start building models from scratch — that requires enormous resources and money. Instead we modify existing models in a novel way.

Even though the number of possible modifications is astronomical, our intelligent pruning enables significant results with only ~1,000 experiments. That's exploring 0.00000000000000001% of the search space while discovering configurations that outperform LoRA!

💰 Enhancement Pricing

No improvement, no payment. Price scales with difficulty — you control the cap.

Pricing Formula
SELECT YOUR TIER
Pricing has three components:
Base price — set by tier
Model size factor — (params/1B)^0.67 — larger models cost more, but sublinearly
Difficulty factor — 2^(accuracy/10) — higher accuracy gets exponentially harder

Each improvement micro-step is +0.1 percentage points.
You pay per step, and each step costs more than the last because the difficulty factor increases.
Total cost = sum of all steps from baseline to target.
You only pay for improvement actually achieved.

🎚️ Interactive Price Calculator

Adjust parameters to see pricing for your model

Model Size 150M params
66M (DistilBERT)1.5B (GPT-2 XL)70B (Llama-3)
Current Baseline Accuracy 80%
Error Reduction 50%
Absolute Improvement +10.0 points
Scaling Factor
1.00x
Total Investment
$368.1k
80% → 90%

🔬 Ready to Enhance Your Model?

Get a custom quote based on your specific baseline and targets

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SUPPORTING RESEARCH

Our Research Foundation

GENbAIs bio-adapter enhancement is built on systematic AI assessment research

⛏️ Frac⛏️ure — AI Stress Testing

Adversarial stress testing framework for probing AI system boundaries and failure modes.

🔍 Bias Detection Framework

Systematic LLM bias detection using real-world scenarios. Revealed corporate bias signatures and RLHF training patterns across 8 major AI systems.

8
Models
2,960
Responses
5,807
Bias Instances
6
Dimensions

💼 Expert Consulting

Research-based AI bias analysis and model enhancement services for organizations deploying AI in production.