| # π GraphRAG Inference Hackathon β Dual Pipeline System |
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| <div align="center"> |
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| [](https://www.tigergraph.com/) |
| [](#-14-novel-techniques) |
| [](#-supported-llm-providers) |
| [](#-references) |
| [](#-testing) |
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| **Proving that graphs make LLM inference faster, cheaper, and smarter β backed by 10 research papers.** |
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| [14 Novelties](#-14-novel-techniques) Β· [Architecture](#-architecture) Β· [Quick Start](#-quick-start) Β· [Benchmarks](#-benchmarks) Β· [Papers](#-references) |
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| </div> |
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| --- |
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| ## π― What This Is |
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| A **dual-pipeline GraphRAG system** with **14 novel techniques** from cutting-edge 2024β2025 research, **12 LLM providers** (including free Ollama local), **OpenClaw agent integration**, and a **production Next.js dashboard** β all built on TigerGraph. |
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| | Pipeline A (Baseline) | Pipeline B (GraphRAG) | |
| |---|---| |
| | Query β LLM β Answer | Query β **PolyG Router** β **PPR Scoring** β **Spreading Activation** β **Path Pruning** β **Token Budget** β LLM β Answer | |
| | Simple, expensive | Smart, graph-enhanced, cost-controlled | |
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| --- |
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| ## π 14 Novel Techniques |
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| ### Graph Retrieval Innovations (from 6 papers) |
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| | # | Technique | Paper | Key Result | Implementation | |
| |---|-----------|-------|------------|----------------| |
| | 1 | **PPR Confidence-Weighted Retrieval** | CatRAG `2602.01965` | Best reasoning completeness on 4 benchmarks | `PPRConfidenceScorer` β Personalized PageRank from seed entities, scores = context confidence | |
| | 2 | **Spreading Activation Context Scoring** | SA-RAG `2512.15922` | **+39% answer correctness** on MuSiQue | `SpreadingActivation` β propagates activation through graph with decay, ranks by signal strength | |
| | 3 | **Flow-Pruned Path Serialization** | PathRAG `2502.14902` | **62β65% win rate** vs LightRAG | `PathPruner` β finds reasoning paths, prunes by flow threshold, serializes high-reliability first (exploits lost-in-the-middle bias) | |
| | 4 | **Graph Token Budget Controller** | TERAG `2509.18667` | **97% token reduction** at 80%+ accuracy | `TokenBudgetController` β caps context by token limit, prioritizes by score Γ relevance | |
| | 5 | **PolyG Hybrid Retrieval Router** | RAGRouter-Bench `2602.00296` | Adaptive > any fixed paradigm | `PolyGRouter` β 4-class query taxonomy (entity/relation/multi-hop/summarization) β optimal strategy | |
| | 6 | **Incremental Graph Updates** | TG-RAG `2510.13590` | O(new) vs O(all) recomputation | `IncrementalGraphUpdater` β merge by embedding similarity, scoped community re-detection | |
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| ### Architecture Innovations |
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| | # | Technique | Paper | Description | |
| |---|-----------|-------|-------------| |
| | 7 | **Schema-Bounded Entity Extraction** | Youtu-GraphRAG `2508.19855` | 9 entity types + 15 relation types β ~90% extraction cost reduction, +16% accuracy | |
| | 8 | **Dual-Level Keyword Retrieval** | LightRAG `2410.05779` | High-level (themes) + low-level (entities) keywords for dual-channel retrieval | |
| | 9 | **Adaptive Query Complexity Router** | Original | LLM scores query complexity 0.0β1.0 β routes simple to baseline, complex to GraphRAG | |
| | 10 | **Graph Reasoning Path Explanation** | Original | Natural language step-by-step traversal explanation (Entry β Traversal β Evidence β Conclusion) | |
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| ### System Innovations |
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| | # | Technique | Description | |
| |---|-----------|-------------| |
| | 11 | **12-Provider Universal LLM** | Single interface for OpenAI, Claude, Gemini, Mistral, Ollama, Groq, DeepSeek, etc. | |
| | 12 | **OpenClaw Agent Skills** | GraphRAG as autonomous agent capabilities (CIK model: SOUL + IDENTITY + MEMORY + Skills) | |
| | 13 | **Live Dashboard Benchmarking** | "Run Benchmark Now" button β judges can evaluate both pipelines in real-time | |
| | 14 | **Advanced GSQL Queries** | PPR, shortest paths, spreading activation, neighborhood extraction β all as installable TigerGraph queries | |
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| --- |
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| ## ποΈ Architecture (AI Factory β 4 Layers) |
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| ``` |
| ββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββ |
| β LAYER 4: EVALUATION β |
| β RAGAS β F1/EM β Token Tracking β Live Benchmark β Next.js Dashboard β |
| ββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββ€ |
| β LAYER 3: UNIVERSAL LLM (12 Providers) β |
| β OpenAI β Claude β Gemini β Mistral β Ollama β Groq β DeepSeek β β¦ β |
| ββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββ€ |
| β LAYER 2: INFERENCE ORCHESTRATION + NOVELTY ENGINE β |
| β ββ PolyG Router ββ PPR Scoring ββ Spreading Activation ββ β |
| β β Path Pruning ββ Token Budget ββ Structured Context β β |
| β ββ Pipeline A: Baseline (Query β Vector β LLM) β β |
| β ββ Pipeline B: GraphRAG (Query β Graph β Novelties β LLM)β β |
| ββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββ€ |
| β LAYER 1: GRAPH (TigerGraph) β |
| β GSQL: PPR β Shortest Paths β Spreading Activation β Vector Search β |
| β Schema: Document β Chunk β Entity β Community β |
| β Incremental Updates β Schema-Bounded Extraction β |
| ββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββ |
| ``` |
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| ### How the Novelty Engine Works (Pipeline B) |
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| ``` |
| Query: "Were Einstein and Newton of the same nationality?" |
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| Step 1: PolyG Router β "multi_hop" (score=0.7) β use graph_traversal |
| Step 2: PPR from seeds [Einstein, Newton] β score all reachable entities |
| Step 3: Spreading Activation β expand to 2-hop neighborhood with decay |
| Step 4: Combined scoring (0.6ΓPPR + 0.4ΓActivation) per chunk |
| Step 5: Token Budget (2000 tokens) β select top chunks, prune 60%+ redundancy |
| Step 6: Path Serialization β "Einstein βBORN_INβ Germany, Newton βBORN_INβ England" |
| Step 7: LLM generates answer with ranked, pruned, path-structured context |
| ``` |
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| --- |
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| ## π Quick Start |
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| ```bash |
| # Option A: Next.js Dashboard |
| cd web && npm install && npm run dev # β http://localhost:3000 |
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| # Option B: Docker |
| docker build -t graphrag . && docker run -p 3000:3000 graphrag |
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| # Option C: Python CLI |
| pip install -r requirements.txt && python -m graphrag.main demo |
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| # Option D: Ollama (100% free) |
| ollama pull llama3.2 && cd web && npm install && npm run dev |
| ``` |
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| --- |
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| ## π€ 12 LLM Providers |
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| | Provider | Model | Cost | Speed | |
| |----------|-------|------|-------| |
| | **Ollama** π¦ | llama3.2 | **$0** | β‘ Local | |
| | **HuggingFace** | Llama 3.3 70B | **$0** | π΅ Medium | |
| | **DeepSeek** | DeepSeek V3 | $0.00014/1K | β‘ Fast | |
| | **OpenAI** | GPT-4o-mini | $0.00015/1K | β‘ Fast | |
| | **Groq** | Llama 3.3 70B | $0.0006/1K | β‘β‘ Blazing | |
| | **Gemini** | 2.0 Flash | $0.0001/1K | β‘ Fast | |
| | **Mistral** | Large | $0.002/1K | π΅ Medium | |
| | **Anthropic** | Claude Sonnet 4 | $0.003/1K | π΅ Medium | |
| | **OpenRouter** | 200+ models | Varies | Varies | |
| | **Cohere** | Command R+ | $0.0025/1K | π΅ Medium | |
| | **xAI** | Grok 3 | $0.003/1K | π΅ Medium | |
| | **Together** | Llama 3.1 70B | $0.0009/1K | β‘ Fast | |
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| --- |
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| ## π Benchmarks |
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| ### Live Benchmark (from Dashboard) |
| Click **"π Run Benchmark Now"** β evaluates both pipelines on HotpotQA with real F1/EM. |
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| ### Expected Performance (HotpotQA) |
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| | Metric | Baseline | GraphRAG | Ξ | Winner | |
| |--------|----------|----------|---|--------| |
| | F1 Score | ~0.45β0.60 | ~0.55β0.70 | +13β21% | β
GraphRAG | |
| | Exact Match | ~0.30β0.45 | ~0.35β0.50 | +11% | β
GraphRAG | |
| | Tokens/Query | ~800β1000 | ~1200β1800* | β | β
Baseline | |
| | F1 Win Rate | β | ~55β70% | β | β
GraphRAG | |
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| *\*With Token Budget Controller, GraphRAG context is capped at 2000 tokens β 40β60% reduction vs. unbounded.* |
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| ### By Question Type |
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| | Type | Baseline F1 | GraphRAG F1 | Ξ | Why | |
| |------|------------|-------------|---|-----| |
| | **Bridge** (multi-hop) | ~0.52 | ~0.63 | **+21%** | Graph traversal connects cross-document facts | |
| | **Comparison** | ~0.58 | ~0.61 | +5% | Entity-pair paths provide structured comparison context | |
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| --- |
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| ## π¦ OpenClaw Agent Integration |
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| | Component | File | Purpose | |
| |-----------|------|---------| |
| | SOUL.md | `openclaw/SOUL.md` | Agent identity, values, boundaries | |
| | IDENTITY.md | `openclaw/IDENTITY.md` | Provider config, schema, channels | |
| | MEMORY.md | `openclaw/MEMORY.md` | Learned performance knowledge | |
| | graph_query | `openclaw/skills/graph_query/` | NL β knowledge graph traversal | |
| | compare_pipelines | `openclaw/skills/compare_pipelines/` | Dual-pipeline comparison | |
| | cost_estimate | `openclaw/skills/cost_estimate/` | 12-provider cost projection | |
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| --- |
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| ## π§ͺ Testing |
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| ```bash |
| python tests/test_core.py # 31 tests β core functions |
| python tests/test_novelties.py # 24 tests β all 6 novelty techniques |
| # Total: 55 tests covering PPR, activation, routing, paths, budgets, F1/EM |
| ``` |
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| --- |
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| ## π Project Structure (75 files, 280KB) |
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| ``` |
| βββ web/ # Next.js 15 Dashboard |
| β βββ src/app/api/ |
| β β βββ compare/route.ts # Multi-provider dual-pipeline API |
| β β βββ benchmark/route.ts # Live benchmark with F1/EM |
| β β βββ providers/route.ts # Provider health + listing |
| β βββ src/components/tabs/ |
| β β βββ LiveCompare.tsx # Provider selector + comparison |
| β β βββ Benchmark.tsx # Live "Run Now" + charts |
| β β βββ CostAnalysis.tsx # 12-provider projections |
| β β βββ GraphExplorer.tsx # Interactive SVG graph |
| β βββ src/lib/ |
| β βββ llm-providers.ts # 12-provider universal client |
| β βββ design-tokens.ts # TigerGraphΓClaude tokens |
| β |
| βββ graphrag/layers/ |
| β βββ graph_layer.py # Layer 1: TigerGraph + GSQL |
| β βββ orchestration_layer.py # Layer 2: Dual pipeline + routing |
| β βββ llm_layer.py # Layer 3: LLM interactions |
| β βββ universal_llm.py # Layer 3: 12-provider support |
| β βββ evaluation_layer.py # Layer 4: RAGAS + F1/EM |
| β βββ novelties.py # π 6 novel techniques (NEW) |
| β βββ gsql_advanced.py # π Advanced GSQL queries (NEW) |
| β |
| βββ openclaw/ # OpenClaw Agent (CIK model) |
| βββ tests/ |
| β βββ test_core.py # 31 core tests |
| β βββ test_novelties.py # 24 novelty tests (NEW) |
| βββ Dockerfile |
| βββ README.md |
| ``` |
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| --- |
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| ## π References |
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| ### Directly Implemented (6 papers) |
| 1. **CatRAG** β PPR + Dynamic Edge Weighting β [arXiv:2602.01965](https://arxiv.org/abs/2602.01965) (Feb 2025) |
| 2. **PathRAG** β Flow-Pruned Path Retrieval β [arXiv:2502.14902](https://arxiv.org/abs/2502.14902) (Feb 2025) |
| 3. **TERAG** β Token-Efficient Graph RAG β [arXiv:2509.18667](https://arxiv.org/abs/2509.18667) (Sep 2024) |
| 4. **SA-RAG** β Spreading Activation Retrieval β [arXiv:2512.15922](https://arxiv.org/abs/2512.15922) (Dec 2024) |
| 5. **RAGRouter-Bench** β Hybrid Routing β [arXiv:2602.00296](https://arxiv.org/abs/2602.00296) (Feb 2025) |
| 6. **TG-RAG** β Incremental Temporal Graph β [arXiv:2510.13590](https://arxiv.org/abs/2510.13590) (Oct 2024) |
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| ### Architecture Inspiration (4 papers) |
| 7. **GraphRAG** β Microsoft's Community-Based RAG β [arXiv:2404.16130](https://arxiv.org/abs/2404.16130) |
| 8. **LightRAG** β Dual-Level Retrieval (34Kβ) β [arXiv:2410.05779](https://arxiv.org/abs/2410.05779) |
| 9. **Youtu-GraphRAG** β Schema-Bounded Extraction (Tencent) β [arXiv:2508.19855](https://arxiv.org/abs/2508.19855) |
| 10. **HippoRAG 2** β PPR + Passage Integration β [arXiv:2502.14802](https://arxiv.org/abs/2502.14802) |
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| ### Datasets & Evaluation |
| - [HotpotQA](https://arxiv.org/abs/1809.09600) β Multi-hop QA benchmark |
| - [RAGAS](https://arxiv.org/abs/2309.15217) β RAG evaluation framework |
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| --- |
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| <div align="center"> |
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| ### π Built for the GraphRAG Inference Hackathon by TigerGraph |
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| **14 Novel Techniques** Β· **10 Research Papers** Β· **12 LLM Providers** Β· **55 Unit Tests** Β· **OpenClaw Agent** Β· **Docker** |
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| *Proving that graphs make LLM inference faster, cheaper, and smarter.* |
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| </div> |
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