This document outlines the standards and best practices for developing applications using emerging technologies at Bayat, including Artificial Intelligence/Machine Learning (AI/ML), Augmented Reality/Virtual Reality (AR/VR), Internet of Things (IoT), and Edge Computing.
- Introduction
- AI and Machine Learning
- Augmented and Virtual Reality
- Internet of Things
- Edge Computing
- Blockchain Applications
- Quantum Computing Readiness
- Cross-Cutting Concerns
Emerging technologies present unique challenges and opportunities for software development. This document provides guidelines for developing applications that leverage these technologies while maintaining our standards for quality, security, and maintainability.
When considering emerging technologies for a project, evaluate:
- Maturity: The stability and production-readiness of the technology
- Community Support: The size and activity of the developer community
- Vendor Lock-in: The degree of dependency on specific vendors
- Interoperability: The ability to integrate with existing systems
- Skill Requirements: The expertise needed to implement and maintain
- Total Cost of Ownership: Including licensing, infrastructure, and maintenance costs
- Security Implications: Unique security challenges posed by the technology
- Regulatory Compliance: Alignment with relevant regulations
- Clearly define the problem statement and success metrics
- Determine if ML is the appropriate solution
- Identify data requirements and sources
- Consider ethical implications and potential biases
- Define explainability requirements
- Implement proper data governance
- Document data provenance and lineage
- Ensure data quality and representativeness
- Address privacy concerns and compliance requirements
- Implement data versioning
- Follow reproducible research practices
- Document model architecture and hyperparameters
- Implement experiment tracking
- Use version control for code and models
- Conduct regular peer reviews
- Define appropriate evaluation metrics
- Test for biases and fairness
- Evaluate model explainability
- Conduct adversarial testing
- Benchmark against baseline models
- Implement CI/CD for ML models
- Consider containerization for model serving
- Implement model monitoring
- Define model update strategy
- Document deployment architecture
- Monitor model drift and performance degradation
- Implement automated retraining pipelines
- Maintain model documentation
- Conduct regular model reviews
- Plan for model deprecation
- Python-based: TensorFlow, PyTorch, scikit-learn, Keras
- R-based: tidymodels, caret
- Java-based: DL4J, Weka
- Cloud Services: AWS SageMaker, Azure ML, Google AI Platform
- Experiment Tracking: MLflow, Weights & Biases, TensorBoard
- Model Serving: TensorFlow Serving, TorchServe, KFServing
- Pipeline Orchestration: Kubeflow, Airflow, Metaflow
- Feature Stores: Feast, Tecton, Hopsworks
- Implement fairness assessments in the development process
- Ensure transparency in model decisions where appropriate
- Consider the environmental impact of model training
- Respect user privacy and data rights
- Implement appropriate human oversight
- Follow relevant AI ethics frameworks
- Cross-platform: Unity, Unreal Engine
- Native AR: ARKit (iOS), ARCore (Android)
- Native VR: Oculus SDK, SteamVR, Windows Mixed Reality
- Web-based: WebXR, A-Frame, Three.js
- Target hardware specifications and constraints
- Performance requirements (frame rate, latency)
- Input modalities (controllers, hand tracking, eye tracking)
- Spatial mapping and environment understanding
- User comfort and accessibility
- Design for the specific medium (AR vs. VR)
- Consider user comfort and potential motion sickness
- Implement intuitive interactions
- Provide clear user feedback
- Design for varying physical abilities
- Implement level-of-detail (LOD) techniques
- Optimize asset loading and memory usage
- Use appropriate shading techniques
- Implement occlusion culling
- Consider foveated rendering for VR
- Establish 3D asset pipelines
- Define polygon count budgets
- Implement texture atlasing
- Consider procedural content generation
- Document asset requirements
- Test on target devices
- Conduct user experience testing
- Implement performance profiling
- Test in various environments (lighting, space)
- Consider accessibility testing
- Implement proper handling of spatial data
- Consider privacy implications of environment scanning
- Secure communication between AR/VR devices and servers
- Implement appropriate user consent mechanisms
- Consider the physical safety of users
- Define appropriate processing at edge vs. cloud
- Implement data synchronization strategies
- Consider offline operation capabilities
- Design for variable connectivity
- Implement appropriate caching strategies
- Implement device provisioning and authentication
- Design for remote updates and configuration
- Implement device monitoring and health checks
- Consider device lifecycle management
- Document device onboarding and offboarding procedures
- Select appropriate communication protocols (MQTT, CoAP, HTTP)
- Implement message queuing for reliability
- Consider bandwidth and power constraints
- Design for scalability
- Implement appropriate error handling
- Implement secure boot and firmware validation
- Use hardware security modules where appropriate
- Implement proper key management
- Consider physical security of devices
- Implement network segmentation
- Follow IoT security frameworks (OWASP IoT, NIST)
- Implement data filtering at the edge
- Consider time-series data storage
- Implement data retention policies
- Design for high-volume data ingestion
- Consider data sovereignty requirements
- Implement hardware-in-the-loop testing
- Use device simulators for scale testing
- Test in various network conditions
- Conduct field testing
- Implement automated testing for device firmware
- Define edge tiers (near edge, far edge)
- Implement appropriate containerization
- Consider serverless at the edge
- Design for resource constraints
- Implement appropriate service discovery
- Implement data filtering and aggregation
- Design for data locality
- Consider data sovereignty requirements
- Implement appropriate caching strategies
- Design for eventual consistency
- Implement mesh networking where appropriate
- Consider peer-to-peer communication
- Design for variable connectivity
- Implement appropriate service discovery
- Consider network security at the edge
- Use lightweight frameworks and runtimes
- Implement efficient resource usage
- Design for constrained environments
- Consider cross-compilation requirements
- Implement appropriate error handling and recovery
- Implement remote monitoring and management
- Design for zero-touch provisioning
- Implement automated updates
- Consider edge analytics for operational data
- Design for resilience and self-healing
- Determine if blockchain is the appropriate solution
- Consider public vs. private blockchain
- Evaluate consensus mechanisms
- Consider throughput and latency requirements
- Evaluate total cost of ownership
- Select appropriate blockchain platform
- Implement proper smart contract development practices
- Consider gas optimization (for applicable platforms)
- Implement appropriate testing for smart contracts
- Design for upgradability
- Implement secure key management
- Conduct smart contract security audits
- Consider common attack vectors
- Implement appropriate access controls
- Design for regulatory compliance
- Design appropriate on-chain vs. off-chain processing
- Implement proper oracle design
- Consider interoperability with other systems
- Design for appropriate data privacy
- Implement event-driven architecture patterns
- Identify cryptographic vulnerabilities
- Assess data sensitivity and longevity
- Consider "harvest now, decrypt later" threats
- Evaluate supply chain dependencies
- Document quantum vulnerability assessment
- Implement crypto agility
- Consider post-quantum cryptography
- Implement appropriate key sizes
- Design for algorithm replacement
- Monitor NIST and other standards bodies
- Identify potential quantum use cases
- Consider quantum simulation for algorithm development
- Evaluate quantum service providers
- Design proof-of-concept implementations
- Document quantum computing learning resources
- Conduct ethical impact assessments
- Consider societal implications
- Implement appropriate oversight mechanisms
- Design for inclusivity and accessibility
- Consider environmental impact
- Use standard protocols and data formats
- Implement appropriate APIs
- Consider vendor lock-in risks
- Design for future compatibility
- Document integration points
- Identify skill requirements
- Develop training programs
- Consider partnerships with technology providers
- Implement knowledge sharing mechanisms
- Build internal communities of practice
- Identify relevant regulations
- Implement compliance by design
- Consider certification requirements
- Document compliance measures
- Monitor regulatory developments