Full-Stack Web Development for Modern College Curricula: Building Scalable Web Applications with React, Node.js, and Cloud Architecture - Couverture souple

Chu, George

9798174456181: Full-Stack Web Development for Modern College Curricula: Building Scalable Web Applications with React, Node.js, and Cloud Architecture

Couverture souple

ISBN 13 : 9798174456181

Editeur : Independently published, 2026

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3 Neuf

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Understand what happens between a click and a committed result.

A web application is a system of cooperating machines, each with its own state, authority, and limits. This university textbook helps you see those boundaries clearly, explain the mechanisms behind them, and build applications whose behavior you can defend with evidence.

Full-Stack Web Development for Modern College Curricula: Building Scalable Web Applications with React, Node.js, and Cloud Architecture develops one continuous teaching project, Campus Projects, from browser interaction to protected data changes and deployment design. George Chu (Xingxiong Zhu) combines practical implementation with the reasoning that makes it understandable.

Start with the foundations. Follow a request through HTTP, asynchronous JavaScript, runtime validation, and typed contracts. Learn why an address, a version, a request identifier, and an idempotency key solve different problems. Trace promises and bounded concurrency instead of treating asynchronous execution as a mystery.

Make React state explicit. Work through render snapshots, reducers, effects, forms, accessibility, and stale responses. Separate draft state from confirmed state. Understand how browser rendering, server rendering, hydration, and Server Components move work across boundaries without removing the need for clear ownership.

Protect the data that matters. Connect relational keys and constraints to application invariants. Examine conditional updates, transactions, isolation, locks, and competing reservations. Study sessions, object authorization, CSRF defenses, reliable side effects, and the transactional outbox. See why a successful retry must preserve a command's identity and why an old success is not necessarily the current resource state.

Reason about scale. Derive useful models for fan-out latency, cache demand, queueing, concurrency, and fixed-workload speedup. Every model comes with assumptions and limits. Learn to distinguish an illustrative calculation from a benchmark, average latency from tail latency, and a passing local test from evidence about independent database sessions.

Connect architecture to operation. Explore serverless execution, cold starts, container builds, cloud topology, deployment identity, readiness, graceful shutdown, observability, recovery, and service objectives. Selected official documentation and recent serverless research provide context; original diagrams and worked explanations show how to evaluate their implications for your own system.

The course contains 22 lectures, 26 original figures, comparison tables, mathematical models, source-code examples, laboratory tasks, and 88 questions with worked reasoning. Sequence diagrams, state transitions, entity relationships, timelines, distributions, and performance curves reveal different aspects of the same application.

Three graduation-project blueprints extend the course into architecture defense: a campus project workspace, a research artifact registry, and an event booking service. Each blueprint connects users, state, risks, implementation milestones, experiments, and assessment criteria so that a capstone can demonstrate engineering judgment as well as features.

Designed for computer science juniors and seniors, this book assumes basic programming knowledge and introduces the web-specific reasoning as it becomes necessary. It suits a structured course, a supervised laboratory, or focused independent study. The aim is practical confidence grounded in understanding: know what your application promises, identify the component that can enforce it, and choose the evidence that can test it.

Practice explaining each design choice, predicting its failure cases, and testing the result with one experiment.

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