Slide 18: Technology Lifecycle Examples in Practice
REAL-WORLD TECHNOLOGY LIFECYCLE EXAMPLES (Current snapshot - update as needed):
CONTAINER ORCHESTRATION:
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â ââ Bleeding Edge: WebAssembly-based orchestration, experimental schedulers â
â ââ Leading Edge: K3s, MicroK8s for edge, GitOps patterns (Argo, Flux) â
â ââ MAINSTREAM: Kubernetes, managed Kubernetes services â
â ââ Trending Behind: Docker Swarm, Apache Mesos â
â ââ End of Support: Older, unsupported Kubernetes releases â
â ââ Obsolete: CoreOS Fleet, first-generation container platforms â
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INFRASTRUCTURE AS CODE:
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â ââ Bleeding Edge: Emerging IaC languages, experimental tools â
â ââ Leading Edge: Crossplane, advanced Terraform patterns â
â ââ MAINSTREAM: Terraform, Ansible, CloudFormation â
â ââ Trending Behind: Chef, Puppet for cloud infrastructure â
â ââ End of Support: Custom bash deployment scripts â
â ââ Obsolete: Manual infrastructure provisioning â
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PROGRAMMING LANGUAGES FOR CLOUD-NATIVE:
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â ââ Bleeding Edge: Rust for cloud systems (emerging rapidly) â
â ââ Leading Edge: Go for cloud infrastructure, TypeScript â
â ââ MAINSTREAM: Python, Java, JavaScript/Node.js â
â ââ Trending Behind: Perl, Ruby for new cloud projects â
â ââ End of Support: Deprecated runtimes (e.g., Python 2.x) â
â ââ Obsolete: Legacy languages for cloud-native applications â
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CI/CD PLATFORMS:
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â ââ Bleeding Edge: Next-generation pipeline tools â
â ââ Leading Edge: GitHub Actions, Tekton, Argo Workflows â
â ââ MAINSTREAM: GitLab CI, Jenkins (modern), major cloud CI/CD services â
â ââ Trending Behind: Travis CI, Jenkins (traditional configurations) â
â ââ End of Support: First-generation CI platforms â
â ââ Obsolete: Manual build and deployment processes â
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SERVICE MESH:
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â ââ Bleeding Edge: Ambient mesh, eBPF-based solutions â
â ââ Leading Edge: Cilium, Linkerd â
â ââ MAINSTREAM: Istio â
â ââ Trending Behind: First-generation service mesh implementations â
â ââ End of Support: Custom proxy solutions â
â ââ Obsolete: Manual service-to-service communication management â
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IMPACT EXAMPLE: Choosing Kubernetes (Mainstream) vs Docker Swarm (Trending Behind)
Kubernetes Choice:
- â Management: Standard SDLC, predictable delivery timelines
- â Architecture: Cloud Native patterns fully supported, extensive ecosystem
- â Solutions: Broad ecosystem (Helm, Operators, service mesh options)
- â Development: Large talent pool, extensive training available
- â User Adoption: Familiar to many users, voluntary adoption likely
- â Lifecycle: Multi-year support runway, clear upgrade path
- â Integration: Integrates with modern cloud-native ecosystem
Docker Swarm Choice:
- â Management: Must maintain specialized expertise, harder hiring
- â Architecture: Limited to Swarm-specific patterns, shrinking ecosystem
- â Solutions: Minimal new tooling, migration common
- â Development: Shrinking talent pool, limited training resources
- â User Adoption: Hard to find users with experience, resistance likely
- â Lifecycle: Uncertain future, probable forced migration in a relatively short timeframe
- â Integration: Ecosystem moving away, compatibility concerns