Inferensys

Integration

AI Integration for OpenText InfoArchive

Add AI-powered natural language querying and automated insight discovery to your OpenText InfoArchive repository, turning historical compliance and operational data into an accessible knowledge asset.
Knowledge engineer constructing knowledge base on laptop, document hierarchy visible, casual office setup.
ARCHIVE INTELLIGENCE

Unlock Historical Data in OpenText InfoArchive with AI

Apply AI to analyze and index archived content in InfoArchive, enabling natural language querying and insight discovery from historical compliance and operational data.

OpenText InfoArchive is designed for long-term, compliant storage of structured and unstructured data from decommissioned legacy systems. While it excels at preservation, accessing and analyzing this 'dark data' is traditionally manual and slow. An AI integration connects modern LLMs and vector search to the archive's ODBC/JDBC interfaces and Content Server APIs, creating a semantic index layer over archived SAP tables, mainframe reports, legacy CRM records, and scanned document images. This transforms the archive from a passive repository into an active intelligence source.

Implementation typically involves a secure middleware service that queries InfoArchive, processes retrieved objects (e.g., InvoiceArchive, HRCaseRecord), and uses embedding models to create vector representations stored in a dedicated vector database like Pinecone or Weaviate. This enables use cases such as: - Natural Language Compliance Audits: Ask "Show all contracts with non-standard termination clauses from the 2018 merger" and get precise, cited excerpts. - Operational Trend Discovery: Analyze years of archived manufacturing defect reports to identify previously hidden root-cause patterns. - Legacy Customer Service: Ground a support agent with complete, semantically searchable interaction history from retired ticketing systems. The architecture maintains InfoArchive's integrity—AI queries are read-only, and all access is logged through the platform's native audit trails.

Rollout focuses on governed, phased access. Start with a pilot cohort (e.g., legal or audit teams) querying a single high-value archive object. Implement role-based access control (RBAC) synced from Active Directory to ensure AI query permissions mirror existing archive entitlements. Use prompt templates and output guardrails to prevent the generation of synthetic or misleading summaries from historical data. For organizations using InfoArchive for legal hold, ensure AI indexing and query workflows are included in eDiscovery playbooks to maintain defensibility. This integration doesn't replace InfoArchive; it unlocks its latent value for decision support and regulatory response, turning compliance cost into competitive insight.

ARCHITECTURAL SURFACES

Where AI Connects to the InfoArchive Platform

Intelligent Content Indexing

AI connects directly to InfoArchive's stored objects—PDFs, emails, scanned images, and structured reports—to perform deep analysis that traditional full-text search cannot. This layer transforms passive archives into queryable knowledge bases.

Key Integration Points:

  • Content Ingestion Pipelines: Inject AI models into the archiving workflow to analyze documents as they are ingested, generating semantic metadata and summaries.
  • Bulk Processing Jobs: Run batch AI jobs against existing archives to retroactively index historical data for natural language querying.
  • File Handlers & Extractors: Use AI to perform OCR, entity extraction, and classification on binary objects stored within InfoArchive's Universal Archive Model.

This enables use cases like finding all archived correspondence related to a specific regulatory clause or summarizing a decade's worth of audit reports in seconds.

ARCHIVED CONTENT INTELLIGENCE

High-Value AI Use Cases for InfoArchive

Transform your OpenText InfoArchive from a static compliance repository into an active intelligence asset. These use cases apply AI to analyze, index, and query historical data, unlocking insights trapped in archived documents, emails, and structured records.

01

Natural Language Archive Search

Deploy a RAG (Retrieval-Augmented Generation) layer over InfoArchive to enable conversational search. Users ask questions in plain English (e.g., 'Show all contracts with Acme Corp from 2020 that have a liability cap over $1M'), and the system retrieves and synthesizes answers from across the archived corpus, citing source documents.

Days -> Minutes
Discovery Time
02

Automated eDiscovery & Legal Hold Triage

Integrate AI to proactively scan archived content—emails, chats, documents—for relevance to active litigation or investigations. The model identifies potentially responsive material based on case parameters (parties, date ranges, topics), suggests legal holds, and generates preliminary relevance reports, drastically reducing manual pre-collection review.

Batch -> Proactive
Compliance Posture
03

Historical Trend Analysis & Reporting

Connect AI to analyze time-series data within archived operational reports, financial statements, and compliance logs. The system identifies trends, anomalies, and correlations across years of data, generating executive summaries and visualizations for strategic planning, regulatory reporting, or internal audit.

1 Sprint
Report Generation
04

Intelligent Records Classification & Disposition

Apply AI classifiers to automatically apply records retention schedules and identify high-risk content. The model analyzes document content, context, and metadata to assign the correct retention code, flag records for permanent preservation, or recommend defensible deletion, ensuring consistent policy enforcement at scale.

Manual -> Automated
Policy Application
05

Regulatory Change Impact Assessment

Use AI to cross-reference new regulatory texts (e.g., GDPR, CCPA updates) against archived policy documents, procedures, and customer communications. The system highlights areas of potential non-compliance, suggests required updates, and identifies archived records that may need review or remediation based on the new rules.

Same Day
Impact Analysis
06

Archived Customer Communication Synthesis

For industries with long-term customer relationships (financial services, insurance, utilities), use AI to analyze decades of archived correspondence, statements, and claim notes. Create a unified, searchable narrative of each customer's history to empower service agents, support dispute resolution, and personalize outreach.

Hours -> Minutes
Case Familiarization
ARCHIVED CONTENT INTELLIGENCE

Example AI-Powered Workflows for InfoArchive

These workflows demonstrate how to inject AI into OpenText InfoArchive's ingestion, management, and access layers, transforming passive compliance storage into an active intelligence asset. Each flow is designed to be event-driven, secure, and auditable.

Trigger: A new batch of documents (e.g., loan files, clinical trial records, closed support cases) is ingested into InfoArchive via its API or a watched directory.

Context/Data Pulled: The raw document bytes and any available source metadata (source system, date, batch ID) are passed to the AI service.

Model or Agent Action: A multi-step AI agent performs:

  1. Document Type Identification: Classifies the document (e.g., Loan Application, Adverse Event Report, Final Invoice).
  2. Key Entity Extraction: Uses an LLM with a custom prompt to extract structured data relevant to the document type (e.g., Customer ID, Loan Amount, Report Date, Principal Investigator).
  3. Sensitivity & Retention Tagging: Analyzes content for PII/PHI and suggests a retention schedule code based on extracted entities and regulatory rules.

System Update: The extracted metadata is written back to the corresponding InfoArchive XML index via the InfoArchive Indexing Service (IIS) API, enriching the archived object. The suggested classification and retention tags are applied, making the content immediately discoverable by policy.

Human Review Point: Documents with low confidence scores for classification or entities that don't match validation rules are routed to a "Needs Review" queue in a connected case management system, flagged in the archive metadata.

ARCHITECTING AI FOR COMPLIANCE ARCHIVES

Implementation Architecture: Connecting AI to InfoArchive

A practical blueprint for adding natural language querying and insight discovery to archived content without disrupting compliance or data integrity.

Connecting AI to OpenText InfoArchive requires a layered approach that respects the system's role as a compliant, immutable archive. The integration typically involves a read-only indexing pipeline that extracts text and metadata from archived objects (documents, emails, database dumps) and pushes it to a separate vector database like Pinecone or Weaviate. This keeps the archive itself untouched while enabling semantic search and RAG (Retrieval-Augmented Generation) capabilities. Key integration points are InfoArchive's REST API for secure content access and its audit logs to track all AI-driven queries for compliance reporting.

In production, the AI layer acts as a query front-end. A user asks a natural language question like "Show all contracts with vendor X that expired in 2023." The system converts this to a semantic search, queries the vector index for relevant archived documents, retrieves the source records from InfoArchive via their immutable IDs, and uses an LLM to synthesize a grounded answer. High-value use cases include compliance investigation (e.g., finding all communications related to a specific regulatory clause), operational discovery (analyzing historical support tickets for root cause trends), and eDiscovery support (rapidly identifying potentially relevant archives for legal hold).

Rollout and governance are critical. Start with a pilot archive collection—like historical customer correspondence or retired project files—where insights are valuable but risk is contained. Implement strict RBAC so AI query access mirrors existing archive permissions. All queries and document retrievals should be logged back to InfoArchive or a SIEM as part of the chain of custody. For organizations using our /integrations/ai-governance-and-llmops-platforms services, we instrument evaluation and drift detection to ensure answer quality remains high as the archive grows. The goal isn't to replace InfoArchive but to make its decades of locked-away data conversationally accessible for the first time.

AI INTEGRATION PATTERNS FOR OPENTEXT INFOARCHIVE

Code and Payload Examples

Natural Language Query to SQL

Use an LLM to translate a user's natural language question into a structured SQL query against the InfoArchive database. This pattern enables business users to ask questions like "Show me all contracts amended in Q4 2023" without knowing the underlying schema.

python
# Example: Translating a natural language query to an InfoArchive SQL query
from openai import OpenAI
import pyodbc  # or use InfoArchive REST API

client = OpenAI(api_key="your-key")

nl_query = "Find all invoices from vendor 'Acme Corp' over $10,000 from last year."

system_prompt = """You are a SQL expert for OpenText InfoArchive. Translate the user's question into a valid SQL query.
The main table is 'ia_documents'. Key columns include: document_id, document_type, vendor_name, amount, document_date, archive_path.
Return ONLY the SQL query."""

response = client.chat.completions.create(
    model="gpt-4",
    messages=[
        {"role": "system", "content": system_prompt},
        {"role": "user", "content": nl_query}
    ]
)

generated_sql = response.choices[0].message.content
# Example output: SELECT document_id, vendor_name, amount, document_date FROM ia_documents WHERE vendor_name = 'Acme Corp' AND amount > 10000 AND YEAR(document_date) = YEAR(GETDATE()) - 1

# Execute query via ODBC connection
conn = pyodbc.connect('DSN=InfoArchive;UID=user;PWD=pass')
cursor = conn.cursor()
cursor.execute(generated_sql)
results = cursor.fetchall()
AI-ENABLED INFOARCHIVE OPERATIONS

Realistic Time Savings and Business Impact

How AI integration transforms passive archives into active intelligence assets, reducing manual review cycles and accelerating insight discovery.

Workflow / TaskBefore AIAfter AINotes

Compliance Document Search

Keyword-based queries across structured fields only

Natural language questions across full text and metadata

Enables discovery of non-indexed content; reduces search time from hours to minutes.

eDiscovery Collection & Culling

Manual sampling and linear review of archive sets

AI-powered relevance scoring and concept clustering

Prioritizes high-value documents for legal review; reduces collection scope by 30-50%.

Retention Schedule Application

Manual classification or rule-based policies on metadata

AI analysis of document content, context, and type

Automates classification for defensible disposition; applies correct schedules to unstructured content.

Regulatory Audit Preparation

Manual compilation of evidence from disparate archive folders

AI-driven continuous monitoring and evidence gathering

Proactively identifies relevant documents; cuts audit prep from weeks to days.

Historical Trend Analysis

Quarterly manual reports using sampled data

On-demand natural language queries for trend spotting

Enables real-time business intelligence from archived operational data.

Archive Health & Cleanup

Periodic manual projects to identify ROT (Redundant, Obsolete, Trivial)

AI-powered duplicate detection and business value scoring

Identifies low-value content for defensible deletion; optimizes storage costs.

Data Subject Access Request (DSAR) Fulfillment

Manual search across archives for PII/PHI

AI-powered sensitive data identification and collection

Accelerates response time; reduces risk of missing relevant archived communications.

ARCHITECTING FOR COMPLIANCE AND CONTROL

Governance, Security, and Phased Rollout

Integrating AI with OpenText InfoArchive requires a deliberate approach to data governance, security, and controlled rollout to protect sensitive historical records.

A production architecture for InfoArchive typically involves a secure proxy layer that sits between the AI service and the archive. This layer manages authentication, enforces InfoArchive's native security model (object-level permissions, retention holds), and logs all queries and data accesses for a complete audit trail. Sensitive data can be masked or redacted in-flight before being sent to the LLM, and all AI-generated outputs (like summaries or extracted insights) are written back as new metadata objects or annotations within InfoArchive, maintaining the chain of custody and immutability of the original archived records.

Rollout follows a phased, risk-based approach. Phase 1 often begins with a pilot on a single, well-understood archive collection (e.g., closed financial period records) with read-only queries, focusing on non-PII data. Phase 2 expands to more collections and introduces write-back of AI-generated metadata. Phase 3 integrates AI-driven workflows, such as auto-classifying incoming archive batches or triggering compliance reviews based on AI-identified patterns. Each phase includes defined success metrics, user acceptance testing, and updates to the organization's information governance policy to account for AI-assisted analysis.

Key governance checkpoints include establishing a review board for prompt management and model outputs, implementing human-in-the-loop approvals for any AI-suggested reclassification or disposition actions, and configuring performance monitoring to track query accuracy and relevance over time. This controlled approach ensures the integration enhances InfoArchive's value as a system of record without introducing unmanaged risk or compromising its compliance posture.

IMPLEMENTATION & WORKFLOWS

Frequently Asked Questions

Common technical and strategic questions about integrating AI with OpenText InfoArchive to unlock insights from historical data.

AI integration connects at two primary layers:

  1. Ingestion/Indexing Pipeline: As records are ingested into InfoArchive, an AI processing service can be triggered via API or event listener. This service:

    • Extracts full text from archived files (PDFs, emails, office docs).
    • Uses an embedding model (e.g., from OpenAI, Cohere, or open-source) to generate vector representations of the text chunks.
    • Stores these vectors in a separate, high-performance vector database (like Pinecone or Weaviate) linked back to the original archive record ID.
  2. Query Layer: A custom API endpoint or service sits between users and InfoArchive. When a natural language query is received:

    • It converts the query into an embedding.
    • Performs a similarity search in the vector database.
    • Retrieves the top-k most relevant archived record IDs and their text snippets.
    • Uses a Large Language Model (LLM) to synthesize a grounded answer from the snippets and, if needed, fetches the full record from InfoArchive for user review.

This keeps the core archive immutable while enabling intelligent retrieval.

Prasad Kumkar

About the author

Prasad Kumkar

CEO & MD, Inference Systems

Prasad Kumkar is the CEO & MD of Inference Systems and writes about AI systems architecture, LLM infrastructure, model serving, evaluation, and production deployment. Over 5+ years, he has worked across computer vision models, L5 autonomous vehicle systems, and LLM research, with a focus on taking complex AI ideas into real-world engineering systems.

His work and writing cover AI systems, large language models, AI agents, multimodal systems, autonomous systems, inference optimization, RAG, evaluation, and production AI engineering.