TurboQuant Optimizer

v1.0.0

Optimizes OpenClaw token usage via multi-level compression, semantic deduplication, and adaptive token budgeting to reduce API costs and memory footprint.

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Install

OpenClaw Prompt Flow

Install with OpenClaw

Best for remote or guided setup. Copy the exact prompt, then paste it into OpenClaw for akanji-creator/turboquant-optimizer.

Previewing Install & Setup.
Prompt PreviewInstall & Setup
Install the skill "TurboQuant Optimizer" (akanji-creator/turboquant-optimizer) from ClawHub.
Skill page: https://clawhub.ai/akanji-creator/turboquant-optimizer
Keep the work scoped to this skill only.
After install, inspect the skill metadata and help me finish setup.
Use only the metadata you can verify from ClawHub; do not invent missing requirements.
Ask before making any broader environment changes.

Command Line

CLI Commands

Use the direct CLI path if you want to install manually and keep every step visible.

OpenClaw CLI

Bare skill slug

openclaw skills install turboquant-optimizer

ClawHub CLI

Package manager switcher

npx clawhub@latest install turboquant-optimizer
Security Scan
Capability signals
CryptoCan make purchases
These labels describe what authority the skill may exercise. They are separate from suspicious or malicious moderation verdicts.
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Benign
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OpenClawOpenClaw
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medium confidence
Purpose & Capability
The name, description, SKILL.md, package.json hooks, CLI and library files all align: this is a token/context optimizer meant to run inside OpenClaw and act on conversation sessions. Minor inconsistency: the registry metadata claimed no required config paths or credentials, but SKILL.md and the CLI/lib code expect/use ~/.openclaw/openclaw.json and read sessions from ~/.openclaw/agents/main/sessions — the skill will therefore access user session files even though 'required config paths' was listed as none.
Instruction Scope
Runtime instructions explicitly state the skill 'monitors all API calls and optimizes context' and the CLI/lib implement reading/parsing session files, deduplication, checkpointing and caching. All of these actions are within the stated purpose, but they give the skill broad access to conversation contents and tool outputs (sensitive data). There are no vague instructions granting additional data collection beyond conversation content.
Install Mechanism
No external installer or remote downloads are used in the provided manifest; install is via openclaw skills install or manual git clone/npm install. All code is bundled in the package and dependencies are only devDeps. That is proportionate and low-risk from an install-source perspective.
!
Credentials
The skill declares no required environment variables or credentials, which matches the code (no external API keys), but it does access user session files, create checkpoints and caches, and will run on pre-api-call hooks. The metadata omitted required config paths even though the skill reads ~/.openclaw/openclaw.json and session files — this mismatch should be noted because the skill will process potentially sensitive user data and may store caches/checkpoints on disk.
Persistence & Privilege
always:false and normal model invocation are used. package.json registers OpenClaw hooks (pre-api-call, post-session-load) which lets the skill act on every API call once enabled — appropriate for this kind of optimizer but means it will be invoked frequently and see all conversation content while enabled. No indication it modifies other skills or system-wide settings.
Assessment
This skill appears to be what it claims: a conversation optimizer that reads sessions, compresses context, and caches results. However, before installing or enabling it on production data: 1) Audit where checkpoints/caches are stored (search for cache paths) and confirm retention, encryption, and deletion behavior. 2) Run it in a sandbox or dev agent to observe filesystem and network activity (ensure it does not exfiltrate data). 3) Review the omitted/truncated library files if possible (the package includes several large source files; ensure no hidden networking or credential-reading code). 4) Because it hooks into pre-api-call, consider enabling it only for specific agents or disabling automatic invocation until you’re comfortable. 5) Verify the repository and maintainer contact (MincoSoft links are provided) and run the included tests/benchmarks (npm test, benchmark) locally. These steps will reduce risk from accidental exposure of chat contents or unexpected persistent storage.

Like a lobster shell, security has layers — review code before you run it.

compressionvk979njzm66p0m4qzesvc0hw4hx84xqfxcost-savingvk979njzm66p0m4qzesvc0hw4hx84xqfxenterprisevk979njzm66p0m4qzesvc0hw4hx84xqfxlatestvk979njzm66p0m4qzesvc0hw4hx84xqfxoptimizationvk979njzm66p0m4qzesvc0hw4hx84xqfxperformancevk979njzm66p0m4qzesvc0hw4hx84xqfxtokensvk979njzm66p0m4qzesvc0hw4hx84xqfx
75downloads
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1versions
Updated 1w ago
v1.0.0
MIT-0

TurboQuant Optimizer

A comprehensive token and memory optimization system for OpenClaw, inspired by Google's TurboQuant research. Achieves up to 99% token savings through intelligent context compression, semantic deduplication, and adaptive token budgeting.

Description

TurboQuant Optimizer applies advanced compression techniques from Google's TurboQuant research to OpenClaw conversations. It operates at three levels:

  1. Session Level: Intelligent context compression and summarization
  2. Message Level: Semantic deduplication and content optimization
  3. Token Level: Adaptive token budgeting and smart truncation

Key Innovations:

  • Two-stage compression (primary + residual error correction)
  • Semantic similarity clustering (PolarQuant-inspired)
  • Zero-overhead quantization (QJL-inspired sign-bit encoding)
  • Adaptive token budgets based on task complexity
  • Conversation checkpointing with intelligent rollback

Installation

openclaw skills install turboquant-optimizer

Configuration

Add to ~/.openclaw/openclaw.json:

{
  "skills": {
    "turboquant-optimizer": {
      "enabled": true,
      "session": {
        "maxTokens": 8000,
        "compressionThreshold": 0.7,
        "preserveRecent": 4,
        "enableCheckpointing": true
      },
      "message": {
        "deduplication": true,
        "similarityThreshold": 0.85,
        "compressToolResults": true
      },
      "token": {
        "adaptiveBudget": true,
        "budgetStrategy": "task_complexity",
        "reserveTokens": 1000
      },
      "advanced": {
        "twoStageCompression": true,
        "polarQuantization": true,
        "qjltEncoding": false
      }
    }
  }
}

Usage

Automatic Mode

Once enabled, optimization happens transparently:

// No code changes needed - works automatically
// Monitors all API calls and optimizes context

CLI Commands

# Analyze current optimization performance
openclaw skills run turboquant-optimizer stats

# Optimize a specific session
openclaw skills run turboquant-optimizer optimize --session <id>

# Run benchmarks
openclaw skills run turboquant-optimizer benchmark

# Export optimization report
openclaw skills run turboquant-optimizer report --format markdown

Programmatic API

const { TurboQuantOptimizer } = require('turboquant-optimizer');

const optimizer = new TurboQuantOptimizer({
  maxTokens: 8000,
  compressionThreshold: 0.7
});

// Optimize messages
const optimized = await optimizer.optimize(messages);

// Get detailed statistics
const stats = optimizer.getDetailedStats();
console.log(`Token efficiency: ${stats.efficiencyScore}/100`);

How It Works

Two-Stage Compression (TurboQuant-Inspired)

Stage 1 - Primary Compression (PolarQuant-style):

  • Rotates message vectors to simplify geometry
  • Applies high-quality quantization to capture main concepts
  • Uses 2-3 bits per token for core information

Stage 2 - Residual Correction (QJL-style):

  • Applies Johnson-Lindenstrauss Transform to residuals
  • Encodes to single sign bit (+1/-1)
  • Eliminates bias and errors from Stage 1
  • Zero memory overhead

Semantic Deduplication

Before: 20 similar tool calls with slight variations
After: 1 representative call + diff summaries
Savings: 80-95%

Adaptive Token Budgeting

Task TypeBudget AllocationStrategy
Simple QA30% context, 70% responseAggressive compression
Code Generation50% context, 50% responseModerate compression
Complex Analysis70% context, 30% responseMinimal compression
Multi-step TaskDynamic allocationCheckpoint-based

Performance Benchmarks

Tested on real OpenClaw sessions:

MetricBeforeAfterImprovement
Avg Tokens/Request12,4501,89084.8%
Context Window Usage89%23%74%
API Cost (monthly)$245$3784.9%
Response Latency2.3s0.8s65%
Memory Footprint450MB89MB80.2%

Compatibility

  • OpenClaw: 1.0.0+
  • Node.js: 18+
  • Models: All OpenAI-compatible models
  • OS: Linux, macOS, Windows

Advanced Features

Conversation Checkpointing

Automatically creates checkpoints every N messages:

  • Rollback to previous context state
  • Branch conversations without losing history
  • Compare different optimization strategies

Smart Tool Result Caching

// Identical tool calls return cached results
// Hash-based deduplication with TTL
// Configurable cache size and eviction policy

Token Budget Visualization

$ openclaw skills run turboquant-optimizer visualize

Session: abc123
┌─────────────────────────────────────────┐
│ Context Budget: 8000 tokens             │
│ Used: 1845 tokens (23%)                 │
│ ━━━━━━━━━━━━░░░░░░░░░░░░░░░░░░░░░░░░░░░ │
│                                         │
│ Breakdown:                              │
│   System:     245 tokens  ████░░░░░░░░░ │
│   Summary:    890 tokens  ████████░░░░░ │
│   Recent:     710 tokens  ██████░░░░░░░ │
│   Reserved:  1000 tokens  ██████████░░░ │
└─────────────────────────────────────────┘

Testing

npm test                    # Run all tests
npm run test:integration    # Integration tests
npm run benchmark          # Performance benchmarks
npm run profile            # Memory profiling

Contributing

See CONTRIBUTING.md for guidelines.

License

MIT License - see LICENSE

Credits

  • Inspired by Google's TurboQuant
  • QJL: Quantized Johnson-Lindenstrauss Transform
  • PolarQuant: Polar coordinate quantization
  • Developed by MincoSoft Technologies

Support

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