Getfullapp.com Tango < Verified Source >

Simulation environment: 3-node Kubernetes cluster, PostgreSQL, static frontend CDN, 100 concurrent simulated users generating traffic during deployment.

This paper presents the theoretical model, component design, and evaluation of Tango. Section 2 reviews related work. Section 3 defines the Tango synchronization protocol. Section 4 describes implementation architecture. Section 5 presents simulation results. Section 6 discusses limitations and future work. | Tool/Platform | Strengths | Weaknesses (w.r.t. full-stack atomicity) | |----------------|-----------|-------------------------------------------| | Vercel | Excellent frontend + serverless functions | No database migration orchestration | | Heroku | Simplicity | No native multi-service state sync | | ArgoCD | GitOps for Kubernetes | Stateless; assumes external CI for DB changes | | Netlify | Great for JAMstack | Backend services treated as add-ons | Getfullapp.com Tango

Full-stack deployment, orchestration, state reconciliation, CI/CD, Tango protocol, Getfullapp.com 1. Introduction Modern web applications are no longer monolithic; they are distributed ecosystems. A developer may push a React frontend change, a Node.js backend update, and a Prisma database schema migration within minutes. Existing tools (e.g., GitHub Actions, ArgoCD, Vercel) solve parts of this puzzle but lack cross-layer atomicity —the ability to treat a full-stack change as a single transactional unit. Section 3 defines the Tango synchronization protocol

[ T_i = \textid_i, F_i, B_i, D_i, \textstatus_i ] Section 6 discusses limitations and future work

Journal of Software Engineering and Cloud Computing