ShieldCraft AI Implementation Checklist
Project Progressβ
32% Complete Lays the groundwork for a robust, secure, and business-aligned AI system. All key risks, requirements, and architecture are defined before data prep begins. Guiding Question: Before moving to Data Prep, ask: "Do we have clarity on what data is needed to solve the defined problem, and why?" Definition of Done: Business problem articulated, core architecture designed, and initial cost/risk assessments completed.
- Finalize business case, value proposition, and unique differentiators
- User profiles, pain points, value proposition, and ROI articulated
- Define project scope, MVP features, and success metrics
- Clear, business-aligned project objective documented
- Data sources and expected outputs specified
- Baseline infrastructure and cloud usage estimated
- Address ethics, safety, and compliance requirements
- Conduct initial bias audit
- Draft hallucination mitigation strategy
- Obtain legal review for data privacy plan
- Document compliance requirements (GDPR, SOC2, etc.)
- Schedule regular compliance reviews
- Establish Security Architecture Review Board (see Security & Governance)
- Technical, ethical, and operational risks identified with mitigation strategies
- Threat modeling and adversarial testing (e.g., red teaming GenAI outputs)
- Privacy impact assessments and regular compliance reviews (GDPR, SOC2, etc.)
- Set up project structure, version control, and Docusaurus documentation
- Modular system layers, MLOps flow, and security/data governance designed
- Dockerfiles and Compose hardened for security, reproducibility, and best practices
- Noxfile and developer workflow automation in place
- Commit script unified, automating checks, versioning, and progress
- Deliverables: business case summary, MLOps diagram, risk log, cost model, and ADRs
- Production-grade AWS MLOps stack architecture implemented and tested (architecture & dependency map)
- All major AWS stacks (networking, storage, compute, data, security, monitoring) provisioned via CDK
- Pydantic config validation, advanced tagging, and parameterization enforced
- Cross-stack resource sharing and dependency injection established
- Security, compliance, and monitoring integrated (CloudWatch, SNS, Config, IAM boundaries)
- S3 lifecycle, cost controls, and budget alarms implemented
- 294+ automated tests covering happy/unhappy paths, config validation, and outputs
- Comprehensive documentation for stack interactions and outputs (see details)
MSK and Lambda Integration To-Do Listβ
- Ensure Lambda execution role has least-privilege Kafka permissions, scoped to MSK cluster ARN
- Deploy Lambda in private subnets with correct security group(s)
- Confirm security group allows Lambda-to-MSK broker connectivity (TLS port)
- Set up CloudWatch alarms for Lambda errors, throttles, and duration
- Set up CloudWatch alarms for MSK broker health, under-replicated partitions, and storage usage
- Route alarm notifications to the correct email/SNS topic
- Implement and test the end-to-end MSK and Lambda topic creation flow
- Update documentation for MSK and Lambda integration, including troubleshooting steps
Data Preparationβ
Guiding Question: Do we have the right data, in the right format, with clear lineage and privacy controls? Definition of Done: Data pipelines are operational, data is clean and indexed for RAG. Link to data_prep/ for schemas and pipelines.
- Identify and document all required data sources (logs, threat feeds, reports, configs)
- Data ingestion, cleaning, normalization, privacy, and versioning
- Build data ingestion pipelines
- Set up Amazon MSK (Kafka) cluster with topic creation
- Integrate Airbyte for connector-based data integration
- Implement AWS Lambda for event-driven ingestion and pre-processing
- Configure Amazon OpenSearch Ingestion for logs, metrics, and traces
- Build AWS Glue jobs for batch ETL and normalization
- Store raw and processed data in Amazon S3 data lake
- Enforce governance and privacy with AWS Lake Formation
- Add data quality checks (Great Expectations, Deequ)
- Implement data cleaning, normalization, and structuring
- Ensure data privacy (masking, anonymization) and compliance (GDPR, HIPAA, etc.)
- Establish data versioning for reproducibility
- Design and implement data retention policies
- Implement and document data deletion/right-to-be-forgotten workflows (GDPR)
- Modular data flows and schemas for different data sources
- Data lineage and audit trails for all data flows and model decisions
- Define and test disaster recovery, backup, and restore procedures for all critical data and services
- Text chunking strategy defined and implemented for RAG
- Experiment with various chunking sizes and overlaps (e.g., fixed, semantic, recursive)
- Handle metadata preservation during chunking
- Embedding model selection and experimentation for relevant data types
- Evaluate different embedding models (e.g., Bedrock Titan, open-source options)
- Establish benchmarking for embedding quality
- Vector database (or
pgvector
) setup and population - Select appropriate vector store (e.g., Pinecone, Weaviate, pgvector)
- Implement ingestion pipeline for creating and storing embeddings
- Optimize vector indexing for retrieval speed
- Implement re-ranking mechanisms for retrieved documents (e.g., Cohere Rerank, cross-encoders)
AWS Cloud Foundation and Architectureβ
Guiding Question: Is the AWS environment production-grade, modular, secure, and cost-optimized for MLOps and GenAI workloads? Definition of Done: All core AWS infrastructure is provisioned as code, with cross-stack integration, config-driven deployment, and robust security/compliance controls. Architecture is modular, extensible, and supports rapid iteration and rollback.
- Multi-account, multi-environment AWS Organization structure with strict separation of dev, staging, and prod, supporting least-privilege and blast radius reduction.
- Modular AWS CDK v2 stacks for all major AWS services:
- π© Networking (VPC, subnets, security groups, vault secret import)
- π© EventBridge (central event bus, rules, targets)
- π© Step Functions (workflow orchestration, state machines, IAM roles)
- π© S3 (object storage, vault secret import)
- π© Lake Formation (data governance, fine-grained access control)
- π© Glue (ETL, cataloging, analytics)
- π© Lambda (event-driven compute, triggers)
- π© Data Quality (automated validation, Great Expectations/Deequ)
- π© Airbyte (connector-based ingestion, ECS services)
- π© OpenSearch (search, analytics)
- π© Cloud Native Hardening (CloudWatch alarms, Config rules, IAM boundaries)
- π© Attack Simulation (automated security validation, Lambda, alarms)
- π© Secrets Manager (centralized secrets, cross-stack exports)
- π© MSK (Kafka streaming, broker info, roles)
- π© SageMaker (model training, deployment, monitoring)
- π© Budget (cost guardrails, alerts, notifications)
- Advanced cross-stack resource sharing and dependency injection (CfnOutput/Fn.import_value), enabling secure, DRY, and scalable infrastructure composition.
- Pydantic-driven config validation and parameterization, enforcing schema correctness and preventing misconfiguration at deploy time.
- Automated tagging and metadata propagation across all resources for cost allocation, compliance, and auditability.
- Hardened IAM roles, policies, and boundary enforcement, with automated least-privilege checks and centralized secrets management via AWS Secrets Manager.
- AWS Vault integration for secure credential management and developer onboarding.
- Automated S3 lifecycle policies, encryption, and access controls for all data lake buckets.
- End-to-end cost controls and budget alarms, with CloudWatch and SNS integration for real-time alerting.
- Cloud-native hardening stack (GuardDuty, Security Hub, Inspector) with automated findings aggregation and remediation hooks.
- Automated integration tests for all critical AWS resources, covering both happy and unhappy paths, and validating cross-stack outputs.
- Comprehensive documentation for stack interactions, outputs, and architectural decisions, supporting onboarding and audit requirements.
- GitHub Actions CI/CD pipeline for automated build, test, and deployment of all infrastructure code.
- Automated dependency management and patching via Poetry, ensuring reproducible builds and secure supply chain.
- Modular, environment-parameterized deployment scripts and commit automation for rapid iteration and rollback.
- Centralized error handling, smoke tests, and post-deployment validation for infrastructure reliability.
- Secure, reproducible Dockerfiles and Compose files for local and cloud development, with best practices enforced.
- Continuous compliance monitoring (Config, CloudWatch, custom rules) and regular security architecture reviews.
AI Core Development and Experimentationβ
Guiding Question: Are our models accurately solving the problem, and is the GenAI output reliable and safe? Definition of Done: Core AI models demonstrate accuracy, reliability, and safety according to defined metrics. Link to ai_core/ for model code and experiments.
- π₯ Select primary and secondary Foundation Models (FMs) from Amazon Bedrock
- π₯ Define core AI strategy (RAG, fine-tuning, hybrid approach)
- π₯ LangChain integration for orchestration and prompt management
- π₯ Prompt Engineering lifecycle implemented:
- π₯ Prompt versioning and prompt registry
- π₯ Prompt approval workflow
- π₯ Prompt experimentation framework
- π₯ Integration of human-in-the-loop (HITL) for continuous prompt refinement
- π₯ Guardrails and safety mechanisms for GenAI outputs:
- π₯ Establish Responsible AI governance: bias monitoring, model risk management, and audit trails
- π₯ Implement content moderation APIs/filters
- π₯ Define toxicity thresholds and response strategies
- π₯ Establish mechanisms for red-teaming GenAI outputs (e.g., adversarial prompt generation and testing)
- π₯ RAG pipeline prototyping and optimization:
- π₯ Implement efficient retrieval from vector store
- π₯ Context window management for LLMs
- π₯ LLM output parsing and validation (e.g., Pydantic for structured output)
- π₯ Address bias, fairness, and transparency in model outputs
- π₯ Implement explainability for key AI decisions where possible
- π₯ Automated prompt evaluation metrics and frameworks
- π₯ Model loading, inference, and resource optimization
- π₯ Experiment tracking and versioning (MLflow/SageMaker Experiments)
- π₯ Model registry and rollback capabilities (SageMaker Model Registry)
- π₯ Establish baseline metrics for model performance
- π₯ Cost tracking and optimization for LLM inference (per token, per query)
- π₯ LLM-specific evaluation metrics:
- π₯ Hallucination rate (quantified)
- π₯ Factuality score
- π₯ Coherence and fluency metrics
- π₯ Response latency per token
- π₯ Relevance to query
- π₯ Model and Prompt card generation for documentation
- π₯ Implement canary and shadow testing for new models/prompts
Application Layer and Integrationβ
Guiding Question: Is the AI accessible, robust, and seamlessly integrated with existing systems? Definition of Done: API functional, integrated with UI, and handles errors gracefully. Link to application for API code and documentation.
- π₯ Define Core API endpoints for AI services
- π₯ Build production-ready, scalable API (FastAPI, Flask, etc.)
- π₯ Input/output validation and data serialization
- π₯ User Interface (UI) integration for analyst dashboard
- π₯ Implement LangChain Chains and Agents for complex workflows
- π₯ LangChain Memory components for conversational context
- π₯ Robust error handling and graceful fallbacks for API and LLM responses
- π₯ API resilience and rate limiting mechanisms
- π₯ Implement API abuse prevention (WAF, throttling, DDoS protection)
- π₯ Secure prompt handling and sensitive data redaction at the application layer
- π₯ Develop example clients/SDKs for API consumption
- π₯ Implement API Gateway (AWS API Gateway) for secure access
- π₯ Automated API documentation generation (e.g., OpenAPI/Swagger)
Evaluation and Continuous Improvementβ
Guiding Question: How do we continuously measure, learn, and improve the AI's effectiveness and reliability? Definition of Done: Evaluation framework established, feedback loops active, and continuous improvement process in place. Link to evaluation for metrics and dashboards.
- π₯ Automated evaluation metrics and dashboards (e.g., RAG evaluation tools for retrieval relevance, faithfulness, answer correctness)
- π₯ Human-in-the-loop (HITL) feedback mechanisms for all GenAI outputs
- π₯ Implement user feedback loop for feature requests and issues
- π₯ LLM-specific monitoring: toxicity drift, hallucination rates, contextual relevance
- π₯ Real-time alerting for performance degradation or anomalies
- π₯ A/B testing framework for prompts, models, and RAG configurations
- π₯ Usage analytics and adoption tracking
- π₯ Continuous benchmarking and optimization for performance and cost
- π₯ Iterative prompt, model, and data retrieval refinement processes
- π₯ Regular stakeholder feedback sessions and roadmap alignment
MLOps, Deployment and Monitoringβ
Guiding Question: Is the system reliable, scalable, secure, and observable in production? Definition of Done: CI/CD fully automated, system stable in production, and monitoring active. Link to mlops/ for pipeline definitions.
- π₯ Infrastructure as Code (IaC) with AWS CDK for all cloud resources
- π₯ CI/CD pipelines (GitHub Actions) for automated build, test, and deployment
- π© Containerization (Docker)
- π₯ Orchestration (Kubernetes/AWS EKS)
- π© Pre-commit and pre-push hooks for code quality checks
- π© Automated dependency and vulnerability patching
- π₯ Secrets scanning in repositories and CI/CD pipelines
- π₯ Build artifact signing and verification
- π₯ Secure build environment (e.g., ephemeral runners)
- π₯ Deployment approval gates and manual review processes
- π₯ Automated rollback and canary deployment strategies
- π₯ Post-deployment validation checks (smoke tests, integration tests)
- π₯ Continuous monitoring for cost, performance, data/concept drift
- π₯ Implement cloud cost monitoring, alerting, and FinOps best practices (AWS Cost Explorer, budgets, tagging, reporting)
- π₯ Secure authentication, authorization, and configuration management
- π© Secrets management (AWS Secrets Vault)
- π₯ IAM roles and fine-grained access control
- π₯ Schedule regular IAM access reviews and user lifecycle management
- π© Multi-environment support (dev, staging, prod)
- π© Automated artifact management (models, data, embeddings)
- π© Robust error handling in automation scripts
- π₯ Automated smoke and integration tests, triggered after build/deploy
- π₯ Static type checks enforced in CI/CD using Mypy
- π₯ Code coverage tracked and reported via Pytest-cov
- π₯ Automated Jupyter notebook dependency management and validation (via Nox and Nbval)
- π₯ Automated SageMaker training jobs launched via Nox and parameterized config
- π© Streamlined local development (Nox, Docker Compose)
- π₯ Command Line Interface (CLI) tools for common operations
- π₯ Automate SBOM generation and review third-party dependencies for supply chain risk
- π₯ Define release management and versioning policies for all major components
Security and Governance (Overarching)β
Guiding Question: Are we proactively managing risk, compliance, and security at every layer and continuously? Definition of Done: Comprehensive security posture established, audited, and monitored across all layers. Link to security/ for policies and audit reports.
- π₯ Establish Security Architecture Review Board (if not already in place)
- π₯ Conduct regular Security Audits (internal and external)
- π₯ Implement Continuous compliance monitoring (GDPR, SOC2, etc.)
- π₯ Develop a Security Incident Response Plan and corresponding runbooks
- π₯ Implement Centralized audit logging and access reviews
- π₯ Develop SRE runbooks, on-call rotation, and incident management for production support
- π₯ Document and enforce Security Policies and Procedures
- π₯ Proactive identification and mitigation of Technical, Ethical, and Operational risks
- π₯ Leverage AWS security services (Security Hub, GuardDuty, Config) for enterprise posture
- π₯ Ensure data lineage and audit trails are established and maintained for all data flows and model decisions
- π₯ Implement Automated security scanning for code, containers, and dependencies (SAST, DAST, SBOM)
- π₯ Secure authentication, authorization, and secrets management across all services
- π₯ Define and enforce IAM roles and fine-grained access controls
- π₯ Regularly monitor for Infrastructure drift and automated remediation for security configurations
Documentation and Enablementβ
Guiding Question: Is documentation clear, actionable, and up-to-date for all stakeholders? Definition of Done: All docs up-to-date, onboarding tested, and diagrams published. Link to docs-site/ for rendered docs.
- π© Maintain up-to-date Docusaurus documentation for all major components
- π© Automated checklist progress bar update
- π₯ Architecture diagrams and sequence diagrams for all major flows
- π₯ Document onboarding, architecture, and usage for developers and analysts
- π© Add βHow to contributeβ and βGetting startedβ guides
- π₯ Automated onboarding scripts (e.g., one-liner to set up local/dev environment)
- π₯ Pre-built Jupyter notebook templates for common workflows
- π₯ End-to-end usage walkthroughs (from data ingestion to GenAI output)
- π₯ Troubleshooting and FAQ section
- π₯ Regularly update changelog and roadmap
- π₯ Set up customer support/feedback channels and integrate feedback into roadmap
- π₯ Changelog automation and release notes
- π₯ Automated notebook dependency management and validation
- π₯ Automated notebook validation in CI/CD
- π₯ Code quality and consistent style enforced (Ruff, Poetry)
- π₯ Contribution guidelines for prompt engineering and model adapters
- π₯ All automation and deployment workflows parameterized for environments
- π₯ Test coverage thresholds and enforcement
- π₯ End-to-end tests simulating real analyst workflows
- π₯ Fuzz testing for API and prompt inputs