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OpenRAG 2.0

OpenRAG 2.0 is a document-centric Retrieval-Augmented Generation (RAG) platform developed by LINAGORA. According to the provided Discovery record, it was released on July 8, 2026, and offers a React console for managing documents, partitions, processing jobs, and models, along with an OpenAI-compatible API. Its internal architecture adopts a hexagonal architecture that separates the core, services, api, and di layers. To use a library analogy: documents are books, and partitions are subject categories.

OpenRAG 2.0 is a document-centric Retrieval-Augmented Generation (RAG) platform developed by LINAGORA. According to the provided Discovery records, it was released on July 8, 2026, and offers a React console for managing documents, partitions, processing jobs, and models, along with an OpenAI-compatible API. Internally, it adopts a Hexagonal architecture that separates layers into core, services, api, and di. To use a library analogy: documents correspond to books, partitions to subject-specific shelves, and indexing/search presets to the librarian’s classification rules. This allows researchers to swap out specific components without rebuilding the entire model or storage layer.

Typical RAG implementations require assembling document collectors, parsers, embedding models, vector stores, retrievers, generation models, and management UIs from disparate projects. During this process, differing API formats and data models make configuration changes and fault tracing difficult. Additionally, relying on managed services may expose documents and queries to external systems. OpenRAG 2.0 differentiates itself through a sovereign-by-design structure that enables running the entire stack on self-hosted infrastructure, along with partition-specific indexing and search pipeline presets. Just as GPT handles various types of text via a common interface, OpenRAG adopts an approach that organizes distinct document sets and search configurations into partitions as operational units. However, supported document formats, built-in embedding models, vector store types, Reranking capabilities, and authentication methods must be verified against the official documentation.

Life science researchers can utilize the platform by loading papers, experimental protocols, and equipment manuals into separate partitions and isolating search policies. For example, one could index 50 new daily papers into a literature partition, request the top 10 source documents per query via the OpenAI-compatible API, and configure the generation model to summarize abstracts and source locations for five candidate papers. Note that this is a hypothetical operational scenario configurable by the researcher rather than an official performance metric; actual request parameters and response schemas require verification via the API reference.

Another use case involves isolating Standard Operating Procedures (SOPs), safety guidelines, and quality documents into department-specific partitions to control query scope. By dividing 1,000 documents across research, quality, and safety partitions and designing queries to search only designated partitions, the inclusion of irrelevant documents in results can be minimized. While the OpenAI-compatible API aims for an interface that facilitates easy integration with existing clients, the full scope of compatibility and model replacement procedures remain unverified. Therefore, before processing sensitive research data, access control, transmission and storage encryption, audit logs, and deletion policies must be confirmed in the official deployment documentation.

💻 System Requirements

🧠RAM

Varies depending on the selected embedding and generation models; consult official guidelines for details.

💾Storage

Varies depending on the original document volume, index size, and connected models.

⚡ Installation

4-1. Quick Start

The official installation command is not included in the Discovery information, so it is omitted. You should check the repository README and reflect the official command as-is.

4-2. Detailed Installation

The deployment method, required services, environment variables, and procedures for connecting to the database and model must be verified through official documentation. No arbitrary pip, Docker, or source installation commands are provided prior to verification.

🧬 Bio Use Cases

🔬

🔬 New Life Sciences Paper Evidence Search

Load 50 papers daily into the literature partition, query via an OpenAI-compatible API, and retrieve the top 10 results. The generative model then compiles five candidate papers with supporting evidence. These figures represent virtual operational targets; actual throughput must be measured in the deployment environment.

🧬

🧬 Experimental Protocol Partition Separation Search

Divide 1,000 cell culture, sequencing, and imaging protocols into three partitions. Configure the system to search only within the relevant experimental partition and return ten candidate documents. Researchers verify the original text to confirm experimental conditions and safety guidelines.

💊

🧪 Quality and Regulatory Document Query System

Index 2,000 SOPs and equipment manuals by department partition. For each query, present five supporting documents. Reviewers verify citation locations to reduce time spent on training and audit preparation; actual access control features require verification against official documentation.

FAQ

What is OpenRAG 2.0?

OpenRAG 2.0 is a document-centric Retrieval-Augmented Generation (RAG) platform developed by LINAGORA. According to the provided Discovery records, it was released on July 8, 2026, and offers a React console for managing documents, partitions, processing jobs, and models, along with an OpenAI-compatible API. Internally, it adopts a Hexagonal architecture that separates layers into core, services, api, and di. To use a library analogy: documents correspond to books, partitions to subject-specific shelves, and indexing/search presets to the librarian’s classification rules. This allows researchers to swap out specific components without rebuilding the entire model or storage layer. Typical RAG implementations require assembling document collectors, parsers, embedding models, vector stores, retrievers, generation models, and management UIs from disparate projects. During this process, differing API formats and data models make configuration changes and fault tracing difficult. Additionally, relying on managed services may expose documents and queries to external systems. OpenRAG 2.0 differentiates itself through a sovereign-by-design structure that enables running the entire stack on self-hosted infrastructure, along with partition-specific indexing and search pipeline presets. Just as GPT handles various types of text via a common interface, OpenRAG adopts an approach that organizes distinct document sets and search configurations into partitions as operational units. However, supported document formats, built-in embedding models, vector store types, Reranking capabilities, and authentication methods must be verified against the official documentation. Life science researchers can utilize the platform by loading papers, experimental protocols, and equipment manuals into separate partitions and isolating search policies. For example, one could index 50 new daily papers into a literature partition, request the top 10 source documents per query via the OpenAI-compatible API, and configure the generation model to summarize abstracts and source locations for five candidate papers. Note that this is a hypothetical operational scenario configurable by the researcher rather than an official performance metric; actual request parameters and response schemas require verification via the API reference. Another use case involves isolating Standard Operating Procedures (SOPs), safety guidelines, and quality documents into department-specific partitions to control query scope. By dividing 1,000 documents across research, quality, and safety partitions and designing queries to search only designated partitions, the inclusion of irrelevant documents in results can be minimized. While the OpenAI-compatible API aims for an interface that facilitates easy integration with existing clients, the full scope of compatibility and model replacement procedures remain unverified. Therefore, before processing sensitive research data, access control, transmission and storage encryption, audit logs, and deletion policies must be confirmed in the official deployment documentation.

When should I use OpenRAG 2.0?

OpenRAG 2.0 is a document-centric Retrieval-Augmented Generation (RAG) platform developed by LINAGORA. According to the provided Discovery record, it was released on July 8, 2026, and offers a React console for managing documents, partitions, processing jobs, and models, along with an OpenAI-compatible API. Its internal architecture adopts a hexagonal architecture that separates the core, services, api, and di layers. To use a library analogy: documents are books, and partitions are subject categories.

What is a biomedical use case for OpenRAG 2.0?

🔬 New Life Sciences Paper Evidence Search: Load 50 papers daily into the literature partition, query via an OpenAI-compatible API, and retrieve the top 10 results. The generative model then compiles five candidate papers with supporting evidence. These figures represent virtual operational targets; actual throughput must be measured in the deployment environment.

📄 Official Docs🐙 GitHub

📝 Update Notes

  1. vv2.3.210/24/2026

    임베딩 모델을 변경할 때 파일을 다시 업로드할 필요가 없어, 방대한 양의 연구 문헌 데이터를 훨씬 효율적으로 관리할 수 있어요. 리랭킹(Rerank) 기능이 추가되어 복잡한 생명공학 논문 속에서 원하는 정보를 더욱 정밀하게 찾아낼 수 있게 되었습니다. 또한 PDF 파싱 안정성이 높아져 구조가 복잡한 논문을 처리할 때 발생하던 시스템 오류도 줄어들 거예요. 다만, 저장소 엔진이 변경되는 중요한 업데이트이므로 데이터 손실 방지를 위해 반드시 기존 데이터를 백업한 후 진행하시길 권장해요.

  2. vv2.3.110/6/2026

    이번 업데이트에서는 LLM이 설정된 top_n만큼의 텍스트 조각을 온전히 전달받을 수 있게 되어, 방대한 양의 연구 문헌을 더 풍부한 문맥으로 분석할 수 있어요. 또한, 모델의 컨텍스트 창을 초과하는 너무 긴 프롬프트에 대해 사전에 오류를 감지하는 기능이 개선되어, 대용량 생물학적 데이터를 처리할 때의 안정성이 한층 높아졌습니다. 덕분에 복잡한 실험 데이터나 긴 논문을 검색할 때 더욱 정확하고 끊김 없는 연구 결과를 얻으실 수 있습니다.

  3. vv2.3.010/1/2026

    OpenRAG 2.3.0은 임베더 변경 시 데이터 불일치를 방지하고 업로드 보안을 강화하여, 소중한 연구 데이터의 무결성을 더욱 안전하게 보호해요. 인덱싱 작업의 히스토리 관리와 모니터링 기능이 강화되어, 대규모 논문이나 실험 데이터를 처리할 때 작업의 안정성과 추적 가능성이 높아졌어요. 다만, API 구조와 메타데이터 처리 방식에 중요한 변경 사항이 포함되어 있으니, 기존에 구축한 연구 자동화 파이프라인이 있다면 반드시 코드 업데이트를 검토해야 해요.

  4. vv2.2.29/26/2026

    이번 업데이트에서는 사실 관계를 묻는 질문 시 인덱싱된 문서를 기본적으로 검색하도록 개선되어, 실험 데이터나 논문 기반 질문에 대한 답변 정확도가 높아졌습니다. 이를 통해 문맥 파악 과정에서 발생할 수 있는 근거 없는 답변을 방지하고, 보다 신뢰할 수 있는 연구 정보 추출이 가능해졌습니다. 또한, AI 어시스턴트의 이름을 연구실 환경에 맞춰 자유롭게 설정할 수 있으며, 배포 관련 기술적 오류도 해결되어 더욱 안정적인 구축이 가능합니다.

  5. vv2.2.19/17/2026

    OpenRAG 2.2.1 업데이트에서는 Milvus 버전을 업그레이드하여 하이브리드 검색 시 결과가 빈 값으로 나오던 버그를 해결했어요. 방대한 논문과 실험 데이터 속에서 키워드와 의미를 동시에 활용해 정보를 찾는 생명공학 연구자들에게는 검색 결과의 누락을 막아주는 매우 중요한 개선이에요. 이제 복잡한 생물학적 용어를 포함한 검색에서도 놓치는 데이터 없이 더욱 정확하고 신뢰도 높은 문헌 조사가 가능해졌습니다.

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