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System Overview and Context

**Referenced Files in This Document** - [[bi-analysis README.md]](file/bi-analysis/readme.md) - [[bi-analysis cmd/bi-analysis/main.go]](file/bi-analysis/cmd/bi-analysis/main.go) - [[bi-analysis go.mod]](file/bi-analysis/go.mod) - [[bi-common README.md]](file/bi-common/readme.md) - [[bi-common go.mod]](file/bi-common/go.mod) - [[bi-analysis configs/application-dev.yaml]](file/bi-analysis/configs/application-dev.yaml)

Table of Contents

  1. Introduction
  2. Project Structure
  3. Core Components
  4. Architecture Overview
  5. Detailed Component Analysis
  6. Dependency Analysis
  7. Performance Considerations
  8. Troubleshooting Guide
  9. Conclusion
  10. Appendices

Introduction

This document provides a system overview of the BI Analysis Platform, an enterprise e-commerce Business Intelligence solution designed to deliver real-time analytics, AI-powered insights, and multi-tenant capabilities. The platform is built as a set of microservices using the Kratos framework, integrated with shared infrastructure components from the bi-common library. It emphasizes:

  • Real-time analytics via streaming ingestion and OLAP-friendly storage
  • AI agent system for conversational insights and automated analysis
  • Multi-tenant architecture enabling tenant isolation and customizable configurations
  • Unified APIs, observability, and operational excellence

Target audiences include:

  • Data analysts who need fast, reliable access to metrics and dashboards
  • Business users who benefit from conversational AI-driven insights
  • System administrators who operate and maintain the platform at scale

Project Structure

The BI Analysis Platform is organized around modular microservices and shared libraries:

  • bi-analysis: Core analytical service built on Kratos, exposing unified APIs and integrating bi-common
  • bi-common: Shared infrastructure library providing configuration, logging, database, caching, messaging, and AI-related integrations
  • Supporting services: bi-api-jushuitan, bi-api-leke, bi-basic, bi-chat, bi-tenant, and others form the broader ecosystem

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Core Components

  • Microservices with Kratos: Each service encapsulates domain capabilities, exposing HTTP/gRPC endpoints and leveraging bi-common for infrastructure.
  • Shared components: Nacos for configuration and service discovery, gormx for database access, redisx for caching, kafkax for event streaming, and logger for observability.
  • Unified API and documentation: Protobuf definitions and OpenAPI generation streamline API development and maintenance.
  • Tenant isolation: Dedicated tenant service and configuration enable multi-tenancy across analytics and AI features.

Practical examples of common use cases:

  • Real-time sales monitoring dashboard with drill-down analytics
  • Conversational insights for marketing campaign ROI
  • Tenant-specific KPI views and compliance reporting

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Architecture Overview

The platform follows a microservices-first architecture with centralized configuration and shared infrastructure:

  • Application bootstrap loads environment-specific configuration from Nacos
  • Kratos servers host HTTP and gRPC endpoints
  • bi-common provides standardized components for reliability and operability
  • AI agent system integrates with analytics data for contextual insights

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Detailed Component Analysis

Microservices Bootstrap and Configuration

The bi-analysis service initializes Kratos, loads configuration from Nacos, sets up logging and service registration, and wires application components.

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Shared Infrastructure Library (bi-common)

bi-common centralizes infrastructure concerns:

  • Nacos integration for zero-configuration setup and dynamic configuration
  • gormx for database connectivity and StarRocks support
  • redisx for caching and session management
  • kafkax for asynchronous event processing
  • logger for structured logging and SLS integration

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Unified API and Documentation

bi-analysis defines APIs using Protobuf and generates OpenAPI documentation automatically, ensuring consistent responses and discoverable endpoints.

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Dependency Analysis

The bi-analysis service depends on bi-common and bi-proto, while bi-common integrates widely used OSS libraries for configuration, logging, database, caching, and messaging.

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Performance Considerations

  • Microservices enable independent scaling and resource allocation per domain
  • OLAP-friendly storage (e.g., StarRocks) supports fast analytical queries
  • Streaming ingestion via Kafka decouples producers and consumers for throughput
  • Centralized logging and metrics improve observability and incident response
  • Configuration via Nacos enables hot-reconfiguration without redeployments

Troubleshooting Guide

Common operational checks:

  • Verify Nacos connectivity and configuration loading for the selected environment
  • Confirm Kratos servers are listening and health endpoints are reachable
  • Review structured logs for error traces and spans
  • Validate database and cache connectivity
  • Ensure Kafka topics and consumer groups are configured correctly

Operational references:

  • Environment-specific configuration loading and service registration
  • Structured logging initialization and shutdown
  • Nacos-based configuration and service registry setup

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Conclusion

The BI Analysis Platform leverages a microservices-first design with Kratos, unified infrastructure via bi-common, and robust configuration management through Nacos. This architecture delivers real-time analytics, AI-powered insights, and multi-tenant scalability essential for enterprise e-commerce analytics. The combination of streaming ingestion, OLAP storage, and conversational AI enables actionable intelligence across diverse business domains.

Appendices

  • Practical use cases:
    • Real-time dashboards for sales and marketing KPIs
    • AI-driven recommendations for product and inventory decisions
    • Tenant-specific analytics and compliance reporting