Deploying Full Stack Apps in 2026: Vercel, Netlify, Railway, and Cloud Options

By Irene Holden

Last Updated: January 18th 2026

Late-night developer at a desk with a laptop, many open tabs, printed floor-plan sketches and sticky notes, a coffee cup and lamp - visualizing deployment choices.

Key Takeaways

Treat deployment in 2026 as a three-box decision: host the FRONTEND on an edge/CDN host (Vercel for Next.js, Netlify for Jamstack, Cloudflare Pages for cost-sensitive global traffic), run the BACKEND on a container-focused PaaS (Railway, Render, Fly.io, or DigitalOcean), and put state on a managed DB (MongoDB Atlas or PlanetScale) so you balance latency, long-running jobs, and predictable bills. For concrete budgeting, Vercel Pro is about $20 per user per month, Netlify Pro is roughly $19 per user with about 100GB included while Cloudflare Pages offers free unlimited bandwidth, Railway’s Hobby plan is around $5 with Pro near $20, MongoDB Atlas has a free 512MB tier and Flex from about $9, and PlanetScale starts at $5 with HA tiers near $50 - use AI to scaffold configs but read the fine print to avoid cold starts, cross-region latency, and surprise egress charges.

Late-Night Tabs and One-Click Deploy Buttons

Picture the scene: it’s almost midnight, your browser is a grid of tabs, and you’re comparing thirteen apartments that all look “good enough.” The floor plans blur together, the gray couches all look the same, and the real stress isn’t whether you can click “Apply” - it’s whether you’ll still be happy living there in six months. That’s exactly what modern deployment feels like. Vercel, Netlify, Railway, Render, Fly.io, DigitalOcean, Cloudflare Pages - all promise “deploy in minutes,” and comparison posts like “10 Best Deployment Platforms” make it clear there’s no shortage of buttons you can press to ship code.

The hard part is no longer getting an app online. Platforms auto-detect your framework, infer build commands, and wire up SSL certificates while you grab coffee. A lot of that setup can even be scaffolded by AI now: paste your repo URL into an assistant, and it will happily spit out a Dockerfile, a GitHub Actions workflow, and a suggested hosting platform. On the surface, all those options look as similar as those gray living-room photos - fast, easy, serverless, global, done.

Where things get real is the moment you stop thinking about deployment as a button and start thinking about it as a lease. What happens when traffic spikes like a surprise roommate moving in? Where does the noise from background jobs go, and who pays for the extra “utilities” when your bandwidth, database reads, or function invocations cross some invisible line? Articles that try to help you “pick the right tech stack” for the web, like the Whizzbridge guide to modern web stacks, barely scratch the surface of this; tech stack choice is one decision, but where that stack lives is a separate, equally important one.

Reading the Fine Print Instead of Just Looking at Photos

Every platform has the equivalent of pet fees, parking rules, and “quiet hours” buried in the docs. With serverless frontends, that fine print shows up as cold starts, per-request CPU limits, and bandwidth caps. With container platforms like Railway or Render, it’s memory ceilings, idle-time shutdowns, and usage-based billing that can quietly ramp your bill when you’re not watching. Even “unlimited” plans usually come with soft limits hidden a few clicks deep, the same way “utilities included” apartments still spell out what happens if you run the heater all day with the windows open.

Developers feel this in very practical ways. Your app is humming along in development, but after you push to production you notice background jobs being killed mid-run, WebSocket connections mysteriously dropping, or images loading more slowly once your free CDN quota is gone. An article on where to host your web app put it bluntly: once your project grows past a toy, hosting becomes about understanding how each platform bills CPU, RAM, bandwidth, and storage - not just whether it can run Node or serve React. Those little clauses are the difference between a hobby project that stays comfortably cheap and a side project that quietly starts burning through your runway.

This is also why simply asking “Is Vercel good?” or “Is Railway fine for production?” is like asking “Is downtown good?” without mentioning your budget, commute, or family size. They’re the wrong questions. The right questions start with your lifestyle: how spiky is your traffic, how chatty is your API, how many background workers do you need, and how much uncertainty can you tolerate in your monthly bill?

Your App Is a Floor Plan, Not a Studio

A full stack app isn’t a single room; it’s a small apartment with clearly different spaces. The frontend - the React or Next.js UI - is your living room: that’s what users see, and it benefits from big windows and a fast elevator (a CDN and maybe edge rendering). The backend - the Node/Express APIs, cron jobs, WebSockets - is your kitchen and laundry room: noisy, doing real work, sometimes needing gas lines and higher amperage that a simple studio doesn’t offer. The database is your water and power: mostly invisible, but if it goes out, every other room becomes unlivable.

Where beginners get into trouble is trying to cram all of that into one “room,” or one platform, just because the marketing page said it was full stack. A static-first platform might be a perfect living room but a terrible kitchen once you try to run long-lived background jobs on it. A general-purpose cloud VM might be a flexible house in the suburbs, but without a CDN or managed database, you’re suddenly wiring your own utilities from scratch. Thinking in terms of a floor plan forces you to ask which parts of your app need which amenities - and which “building” is best for each.

This way of thinking is increasingly reflected in professional guidance. Comparisons of full-stack deployment platforms emphasize how often teams mix and match - frontend on one host, backend on another, database on a managed service - because it makes it easier to move one “box” without breaking the whole apartment. Once you start labeling those boxes in your head - FRONTEND, BACKEND, DATABASE - you’re already thinking like someone who can reason about architecture, not just memorize platform names.

AI Will Pack the Boxes, You Still Choose the Building

AI tools today are very good at playing the role of over-enthusiastic moving crew. Tell them you’re building a MERN app, and they’ll generate Dockerfiles, YAML, and even infrastructure templates for popular providers in seconds. They’ll happily connect GitHub, configure automatic deploys, and wire environment variables based on patterns they’ve seen in thousands of open-source projects. That’s useful, and you should absolutely take advantage of it - there’s no prize for typing a GitHub Actions file by hand if a tool can scaffold a solid starting point.

But just like a moving crew won’t read your lease for you, AI won’t tell you when a serverless platform’s execution limits clash with your long-running tasks, or when your database region is too far from your app, adding hundreds of milliseconds of “commute time” to every request. Career guides for full stack developers, including those that stress infrastructure and deployment skills alongside frameworks, repeatedly point out that employers now assume you can use AI for boilerplate. What they ask in interviews is whether you understand why you picked a given platform, how you’ll keep costs from blowing up, and what your plan is when you need to move out.

That’s the shift this guide is aiming for. Instead of memorizing a list of providers, you’ll learn to sketch your app’s floor plan, read the utility clauses, and make deliberate tradeoffs about where each “room” should live. The deploy button will always be there; your value is in knowing which building you’re putting your users - and your future self - in before you click it.

In This Guide

  • Why Deployment Feels Like Apartment Hunting
  • How Full Stack Apps Live in Production
  • How AI Changes Deployment and What Still Matters
  • Frontend Hosting: Vercel, Netlify, Cloudflare Pages
  • Backend Hosting: Railway, Render, Fly.io, DigitalOcean
  • Databases: MongoDB Atlas and PlanetScale
  • Proven Deployment Combinations for Real Apps
  • Deploy a MERN App: A Practical Walkthrough
  • CI/CD with GitHub Actions for Full Stack Apps
  • Cost Planning: Hobby vs Production Setups
  • Avoiding Vendor Lock-In and Organizing Your Repo
  • A Developer’s Checklist for Smart Deployment Decisions
  • Frequently Asked Questions

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How Full Stack Apps Live in Production

From Code to an Actual Place Your App Lives

In development, your app feels like one thing: a repo, a dev server, a couple of terminals. In production, it behaves much more like a small apartment with distinct spaces and different needs. That gap is where a lot of confusion for beginners comes from. Many “best tech stack” guides, like the overview of scalable web stacks from Unified Infotech, focus on picking React, Node, MongoDB or Postgres, but they largely assume you already know where those pieces will physically run and how they’ll talk to each other over the network.

Once you deploy, every part of your stack is suddenly a tenant in someone else’s building. Your JavaScript bundle is sitting on a CDN edge node, your API is running in a container or a serverless function in a specific region, and your database is on a managed cluster with its own resource limits and maintenance windows. Understanding how those “rooms” are laid out is the difference between a full stack app that survives real traffic and one that falls over the moment it leaves localhost.

The Three Boxes: Frontend, Backend, and Database

A practical way to think about production is to imagine three labeled moving boxes: FRONTEND, BACKEND, DATABASE. Each box has different requirements once it’s out in the world. The frontend box (React, Vue, Next.js) mostly needs fast, cached delivery through a CDN and, if you’re doing SSR or edge rendering, short-lived serverless or edge functions. The backend box (Node/Express, Nest, Remix loaders, background workers) needs long-running processes, stable memory, and support for things like cron jobs and WebSockets. The database box (MongoDB, Postgres, MySQL) cares about persistence, IOPS, backups, and predictable latency from wherever your backend is running.

  • Frontend: React/Next.js, static assets, SSR/ISR, edge rendering, CDNs.
  • Backend: Node/Express APIs, background jobs, WebSockets, schedulers.
  • Database: MongoDB Atlas, PlanetScale, managed Postgres, backups and scaling.

Industry skills lists for full stack roles, like Edstellar’s breakdown of developer competencies, now explicitly call out this separation between client, server, and data layers as a core capability rather than a “nice to have.” Employers are no longer impressed that you can stand up a monolithic app; they want you to understand how each layer behaves in production and why you might host them in different places.

Which Building Each Room Belongs In

Once you see your app as three boxes, it becomes much easier to reason about where each box should live. The frontend is usually happiest in a serverless or static “high-rise” like Vercel, Netlify, or Cloudflare Pages, which specialize in CDNs and edge execution. The backend often moves into a container-focused platform such as Railway, Render, Fly.io, or DigitalOcean App Platform, where long-running processes and background workers are first-class citizens. The database almost always ends up on a managed service like MongoDB Atlas or PlanetScale, because running your own database on a raw VM is like trying to manage your own power plant.

Box (Room) Hosting Style Typical Tech Example Platforms
Frontend (UI) Static + serverless/edge React, Next.js, Vue Vercel, Netlify, Cloudflare Pages
Backend (APIs/Jobs) Containers / app platform Node/Express, Nest, workers Railway, Render, Fly.io, DigitalOcean
Database (State) Managed DBaaS MongoDB, Postgres, MySQL MongoDB Atlas, PlanetScale

Comparisons of deployment options, like the overview of platform types on Dev.to’s guide to where to host your web app, increasingly organize the ecosystem along these lines: frontend-focused serverless, backend-focused container PaaS, and managed databases. That’s not an accident; those are the natural boundaries of most real-world apps. Once you know which building each box belongs in, you can swap providers inside a category without rewriting your entire stack.

Why This Mental Model Still Matters in an AI World

AI assistants are very good at wiring the boxes together: they’ll infer build commands, suggest Docker images, add environment variables, and propose CI/CD workflows. What they can’t do is look at your workload and say, “This frontend belongs on a global edge network, this backend needs a container with stable RAM rather than a 10-second function, and this database should sit in the same region as your API to avoid a long commute on every query.” That kind of reasoning lives squarely in your head.

Modern full stack developers are hired for that judgment. When someone asks why you chose Vercel for the UI, Railway for the API, and MongoDB Atlas for persistence, being able to answer in terms of “this is the right building for this room” is what separates you from a code generator. You’re not just deploying an app; you’re laying out a floor plan that your users, your team, and your future features will have to live in for a long time.

How AI Changes Deployment and What Still Matters

What AI Is Actually Good At in Deployment Right Now

Most modern platforms already feel “smart” before you add AI into the mix. Connect a repo to something like Vercel or Netlify and they’ll auto-detect that you’re using Next.js or React, guess your build command, configure a CDN, and set up HTTPS with almost no input. Platform comparisons such as Northflank’s look at Vercel vs Netlify point out how Git-based deploys and framework detection have become table stakes. On top of that, AI assistants now sit beside your editor and CLI, ready to generate Dockerfiles, railway.json configs, and GitHub Actions pipelines that build, test, and deploy your app on every push.

In practice, that means you can paste a repo URL into a chat, say “Deploy this as a full stack app,” and get back a working CI pipeline, infrastructure-as-code snippets, and even environment variable wiring for platforms like Railway, Render, or Cloudflare Pages. You no longer have to memorize every YAML key to get a basic pipeline running, and you don’t need a week of trial-and-error to discover the right command to build a Next.js app. AI is legitimately good at templating the repetitive parts of deployment because those patterns show up over and over in public codebases and docs.

The Decisions AI Still Can’t Make For You

Where AI falls down is everything that looks less like a template and more like a judgment call. You still have to decide whether your backend belongs in short-lived serverless functions or in a long-running container, how close your database needs to be to your API to avoid a painful “commute” on every query, and what kind of pricing model you’re comfortable with when your traffic doubles. An article on the future of frontend from JavaScript in Plain English summed up the cultural shift this way:

“The real question for teams isn’t ‘How do we deploy?’ anymore, it’s ‘Which button actually ships this safely to production?’” - JavaScript in Plain English, Frontend Futures Report

That “which button” problem is about architecture, cost, and risk, not syntax. AI can suggest a serverless-friendly config, but it doesn’t know you’re planning to run 15-minute background jobs. It can happily put your app in one region and your database in another, without understanding that you just added 100-200ms of latency to every request. And it will rarely warn you that a generous-looking free tier hides egress fees that could turn into a second rent payment once you hit real traffic.

Decision Area Typical AI Help What You Still Decide Risk If You Ignore It
Architecture (serverless vs containers) Generate configs for both styles Match workload to runtime limits and cold starts Jobs killed, timeouts, or overpaying for idle capacity
Region & latency Pick a default region Co-locate app and DB, choose edge vs single region Slow UX from “long commute” between services
Cost model & scaling Apply default instance sizes and tiers Forecast traffic, cap spend, choose predictable billing Surprise bills from bandwidth, egress, or overprovisioning
Vendor lock-in Use platform-specific features by default Abstract critical logic, keep boxes (frontend/backend/DB) separable Expensive, painful migrations when pricing or limits change

How Hiring Managers Read Your Deployment Choices

Teams now assume you’ll lean on AI for boilerplate; that isn’t a differentiator. What they listen for in interviews is whether you can explain why you put a Next.js frontend on a serverless platform but broke the backend out into a container PaaS, or why you chose a managed MongoDB over a self-hosted database. They want to hear you talk concretely about cold starts, background jobs, bandwidth, and regional latency instead of repeating marketing copy. That’s the same kind of thinking good engineers use when they decide whether an app belongs in a downtown high-rise with great amenities, a cheaper place in the suburbs, or a mix of both.

The practical takeaway is that you should absolutely let AI write your first draft of a deployment pipeline or configuration, then review it like you would a lease. Ask yourself: Is this runtime compatible with my workload? What happens when traffic triples? How easy will it be to move my frontend, backend, or database to a different provider later? The more you practice answering those questions on real projects, the more you’ll stand out as someone who understands how full stack apps actually live in production, not just how to press the shiny Deploy button.

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Frontend Hosting: Vercel, Netlify, Cloudflare Pages

Three Frontend High-Rises on the Same Street

Walk through the “downtown” of frontend hosting and you see three big high-rises with similar marketing photos: Vercel, Netlify, and Cloudflare Pages. They all promise global CDNs, SSL, and one-click Git-based deploys. Connect a React or Next.js repo and they’ll auto-detect your framework, infer a build command, and ship your static assets and serverless functions without you writing a line of infrastructure code. AI assistants layer on top of that, happily generating vercel.json configs or Netlify build settings for you - but underneath, each building has very different rules about utilities: bandwidth caps, function limits, and pricing once you move beyond the free demo.

Vercel: Luxury High-Rise for Next.js and Dynamic Frontends

Vercel is built around Next.js and edge-first rendering; if your floor plan includes lots of SSR, ISR, or React Server Components, it’s the building with the shortest “commute” between your code and its runtime. According to the official Vercel pricing, the Pro plan sits at roughly $20 per user per month, with additional usage-based credits for things like data transfer and edge functions. That’s why many teams report a “magical” developer experience for previews and rollbacks, but also warn that bandwidth and advanced features (password protection, edge middleware at scale) can turn into noticeable utility bills as traffic grows. For a Next.js-heavy SaaS where rapid iteration and preview deployments matter, this is often the right lobby to walk into - just read the data transfer and function execution clauses like you would the fine print about heating and water in a lease.

Netlify: Jamstack Specialist with Friendly Extras

Netlify leans into the classic Jamstack model: static builds plus serverless functions, with conveniences like built-in forms, authentication, and split testing. Its Pro plan is typically around $19 per user per month and includes about 100GB of bandwidth before overages, which is generous enough for portfolios, marketing sites, and many early-stage products. Independent comparisons - like Netlify’s own guide contrasting itself with Vercel - highlight how its strengths show up when you’re shipping React SPAs, documentation, or blogs that don’t need heavy SSR, and when you want “batteries included” for things like contact forms instead of wiring your own backend endpoint. The tradeoff is that its SSR story is still considered less polished than Vercel’s for highly dynamic Next.js apps, so trying to turn it into a full-blown SSR high-rise can feel like pushing a studio floor plan into a building designed for lofts.

Cloudflare Pages: Edge-First and Ruthlessly Cost-Sensitive

Cloudflare Pages is the cost-conscious tower right next door, plugged directly into Cloudflare’s enormous edge network. The developer platform pricing advertises a free tier with unlimited bandwidth for Pages and Workers, and paid plans starting around $5 per month with Workers requests on the order of $0.30 per million. Just as important: there are no egress fees from Cloudflare’s network, which is a big deal for high-traffic sites that would otherwise pay to move bits out of their provider. The tradeoffs are more opinionated runtimes (Workers have CPU and memory constraints) and a developer experience that feels a bit more like working directly with a CDN and edge runtime than a fully abstracted PaaS. If your frontend is mostly static or can be modeled as lightweight edge functions, and you care a lot about keeping the “utility bill” for bandwidth low, this is often the most economical building on the block.

Choosing Between Them for a Real Project

Once you sketch your frontend as its own labeled box - FRONTEND - picking a building becomes more straightforward. If that box is a Next.js app leaning heavily on SSR and you want seamless previews, Vercel usually wins. If it’s a React SPA or documentation site talking to a separate API, Netlify gives you a gentle learning curve and handy extras. If you expect serious traffic or global audiences and your pages can be mostly static or edge-rendered, Cloudflare Pages turns bandwidth from a scary, unbounded utility into something you barely think about. A simple comparison looks like this: Vercel optimizes for dynamic Next.js DX, Netlify for Jamstack ergonomics, and Cloudflare Pages for edge performance and cost. Your job - AI or no AI - is to match your actual frontend floor plan to the building whose lease terms you understand and can live with over time.

Platform Best Fit Key Strength Main Gotcha
Vercel Next.js apps with heavy SSR/ISR Tight Next.js integration, PR previews Usage-based bandwidth and edge costs can spike
Netlify Static/Jamstack SPAs and content sites Simple DX, built-in forms and identity SSR less mature for large dynamic apps
Cloudflare Pages High-traffic, edge-first static/semistatic apps Unlimited bandwidth on free tier, no egress fees Workers runtime constraints, more manual setup

Backend Hosting: Railway, Render, Fly.io, DigitalOcean

Where Your App’s “Kitchen” Actually Lives

If the frontend is your shiny living room, the backend is the kitchen and utility closet where all the real work happens: cooking requests, running noisy background jobs, keeping long-lived WebSocket connections open. This is exactly where pure frontend hosts start to creak. You can’t reliably run cron jobs, queue workers, or chat servers on platforms designed primarily for static assets and short-lived functions. That’s why most serious full stack apps end up putting their backend box into a different building entirely, on platforms like Railway, Render, Fly.io, or DigitalOcean’s App Platform, which are designed to run full containers or services instead of just serverless functions.

Railway and Render: “Just Run My Container” Platforms

Railway and Render both target the sweet spot where you say, “Here’s my repo, please run it as a service.” Railway auto-detects your stack, builds a container, and bills you on a usage basis, with a Hobby plan around $5/month and a Pro plan around $20/month according to the Railway pricing page. You get long-running Node/Express processes, WebSockets, and background workers without worrying about cold-start-style limits. Reviews on G2 describe Railway as “one of the smoothest developer platforms” and say it “just works” once you’re past the initial learning curve - which usually comes from misconfigured ports or memory. Render offers a similar experience with more explicit per-service pricing: a free tier to get started, then paid services typically beginning near $19/month plus compute, with a common 1 CPU / 2GB RAM instance landing around $25/month. Railway’s risk is surprise usage bills if you don’t watch your resources; Render’s is paying for always-on instances even when traffic is low. One e-commerce startup documented moving backend workloads from Vercel to Railway after hitting roughly 50,000 orders per month, cutting a Vercel bandwidth bill that had climbed to about $2,000/month while keeping their Next.js frontend where it was.

Fly.io: MicroVMs Close to Your Users

Fly.io takes a different angle: instead of a single big kitchen in one building, it gives you small kitchens in many buildings around the world. Your app runs in lightweight microVMs that you can deploy to multiple regions, putting compute physically closer to your users and slashing the “commute time” for each request. The Fly.io pricing is strictly pay-as-you-go for CPU, RAM, disk, and bandwidth, with the option to reserve machines for up to a 40% discount on steady workloads. That makes Fly.io attractive for chat apps, multiplayer experiences, or APIs serving users across continents, where shaving tens of milliseconds off round trips really matters. The tradeoff is extra complexity: you have to think about which regions to deploy to, how to route users to the nearest instance, and what you’ll do about databases when your compute is no longer in one place.

DigitalOcean App Platform: Predictable and “Boring” in a Good Way

DigitalOcean’s App Platform sits a bit closer to traditional cloud, but with more guardrails than raw VMs. You can run containers or simple web services, attach managed databases, and add block storage with transparent pricing lines like $10/month for 100GB of storage. Community comparisons point out that you give up some of the “just push and forget it” experience of platforms like Railway for more explicit control and predictability: you choose droplet sizes, scale vertically, and know exactly what each step will cost. For apps that have moved beyond MVP into steady, revenue-generating territory, that boring predictability is a feature, not a bug. It’s the suburban house with a fixed mortgage instead of the trendy downtown unit with variable utilities.

Platform Hosting Style Typical Use Main Tradeoff
Railway Container PaaS, usage-based Node APIs, workers, WebSockets that “just run” Easy to deploy, but usage spikes can surprise your bill
Render Container PaaS, per-service pricing Monoliths with web + workers + cron Always-on instances cost even during quiet periods
Fly.io Global microVMs Latency-sensitive, multi-region apps More complex networking and data locality decisions
DigitalOcean App Platform App PaaS on classic cloud Stable apps needing predictable monthly costs More ops work than one-click PaaS platforms

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Databases: MongoDB Atlas and PlanetScale

The Part of Your Stack That Feels Like Water and Power

Frontend and backend feel tangible when you deploy: bundles on a CDN, containers running in a region. Your database is more like water and electricity in the walls - mostly invisible until something goes wrong or the bill jumps. In production, that’s why most teams reach for managed database services instead of running their own clusters. You’re paying someone else to worry about backups, failover, security patches, and disk failures, the same way you rely on a utility company rather than maintaining your own generator. Managed platforms like MongoDB Atlas and PlanetScale sit squarely in this category: they turn storage, replication, and scaling into a contract you can reason about, with clear tiers instead of a pile of ad-hoc scripts.

MongoDB Atlas: The Default Utility for MERN

For JavaScript-heavy stacks, MongoDB Atlas is the default power line. It gives you a fully managed MongoDB cluster with backups, metrics, and scaling knobs built in. The current MongoDB Atlas pricing lays out a clear progression: a Free Shared tier with about 512MB of storage for small apps, a Flex plan starting around $9/month for on-demand usage, and dedicated clusters that begin near $57/month and scale up with CPU, RAM, and disk. That means your first MERN project can run for effectively nothing, while still giving you a migration path to serious hardware once you have real traffic. The tradeoffs are mostly around growth: as your data and read/write volume increase, Atlas costs can rise quickly, and if your app runs in a distant region you’ll pay in both latency and cross-region egress.

PlanetScale: Relational Power with Practical Safeguards

PlanetScale approaches the same problem from the SQL side, building on MySQL and now managed Postgres. Its pricing page shows a new $5/month base plan for a single-node Postgres instance and high-availability tiers starting around $50/month for production workloads. In the announcement for the $5 plan, PlanetScale’s team emphasizes that the goal is to give small teams access to “serious” database features - branching, safe schema migrations, and promotion workflows - without enterprise-level spend. As they put it in that launch post:

“We built this plan so developers can start on PlanetScale with the same workflow our largest customers use, without needing a huge budget.” - PlanetScale Engineering Blog

That combination - relational modeling, strong migration tooling, and approachable entry pricing - makes PlanetScale a strong fit when your data is naturally relational (orders, invoices, permissions) and you want to avoid schema chaos. The cost and risk story is different from Atlas: you pay a small but nonzero fee from day one, in exchange for SQL semantics and guardrails that can prevent the kind of production incidents that come from ad-hoc schema changes.

Choosing Between Them for a Real App

Once you’ve labeled your DATABASE box and accepted it deserves its own “utility contract,” the decision between MongoDB Atlas and PlanetScale becomes a question of shape, safety, and future bills. If you’re building a classic MERN app, prefer schemaless JSON documents, and want to follow the dominant beginner tutorial path, Atlas is usually the right first home. If your data is inherently relational and you expect to evolve schemas under load, PlanetScale’s SQL and branching model can save you from painful migrations later. A simple comparison looks like this:

Service Data Model Entry Pricing Best Fit
MongoDB Atlas Document (NoSQL, JSON) Free shared tier (~512MB), Flex from ~$9/mo MERN apps, flexible schemas, fast prototyping
PlanetScale Relational (MySQL/Postgres) Single-node Postgres from ~$5/mo, HA from ~$50/mo Relational data, complex queries, safe migrations

Proven Deployment Combinations for Real Apps

Putting Real Floor Plans Together

Once you stop thinking of “deployment” as a single button and start seeing it as a floor plan with separate rooms, certain combinations show up again and again. Frontend in a serverless high-rise, backend in a container building, database on a managed utility contract - those aren’t random mashups, they’re patterns that have survived real traffic, real outages, and real bills. What you’re doing with these combos is deciding which building each labeled box (FRONTEND, BACKEND, DATABASE) should live in, and how much you’re willing to pay in convenience, complexity, and “commute time” (latency) between them.

Next.js SaaS: Fast Iteration, One Roof for Frontend + Lightweight Backend

A very common pattern for SaaS today is a Next.js app where most of the logic lives in API routes, server actions, and server components. In that scenario, putting both the frontend and the lightweight backend in Vercel makes sense: you get tight Next.js integration, automatic preview deployments, and edge or regional runtimes that sit right next to your UI. Pair that with MongoDB Atlas or PlanetScale for your database and you’ve effectively signed one lease for your living room and kitchen, with a separate, managed utility provider for water and power. This setup shines when your main concerns are rapid iteration, SEO, and developer velocity - one team of five engineers mentioned in the research is comfortably supporting around 300,000 users and about $1.2M in monthly revenue on a Next.js + Vercel stack because the platform lets them focus on product instead of plumbing.

Classic MERN: React SPA in One Building, Node API in Another

When you’re building a classic MERN app - React SPA on the front, Node/Express API on the back, MongoDB for state - it often pays to separate the living room from the kitchen. A typical pattern is React on Netlify or Vercel, talking to an API running on Railway or Render, with MongoDB Atlas as the managed database. That split gives your frontend a CDN-optimized home while your backend gets a container environment that’s better suited for long-running processes, WebSockets, and cron jobs. Indie hackers and small teams repeatedly gravitate to this hybrid because it’s easy to reason about: if your API needs to move (for cost or features), you can pick up that BACKEND box and migrate it without touching the frontend. A step-by-step guide on deploying a full-stack app on Railway and Netlify walks through exactly this pattern: SPA on a frontend host, API on a container PaaS, database on a managed service.

Edge-Heavy and Stable-Product Combos

For apps where latency and bandwidth are the main pain points - say, content-heavy sites or tools with a global audience - a different combo wins: frontend on Cloudflare Pages, dynamic bits in Cloudflare Workers, and an external managed database like PlanetScale or Atlas. Here you’re choosing the building that’s literally closest to your users and that doesn’t meter egress like a surprise water bill, accepting that you’ll do a bit more manual wiring. On the other end of the spectrum, once your product is stable and you care more about predictable monthly spend than maximum DX magic, moving both frontend and backend into DigitalOcean’s App Platform (or Droplets) and pairing it with a managed database gives you a quieter, more suburban setup. You sacrifice some one-click conveniences in exchange for a clearer, fixed-fee picture of your rent and utilities every month.

Scenario Frontend Backend Database
Next.js SaaS, fast iteration Vercel (Next.js + edge/SSR) Vercel API routes / server actions MongoDB Atlas or PlanetScale
Classic MERN (React SPA + API) Netlify or Vercel Railway or Render (Node/Express) MongoDB Atlas
Edge-heavy, high traffic Cloudflare Pages Cloudflare Workers External managed DB (e.g., PlanetScale)
Stable product, predictable bills DigitalOcean App Platform DigitalOcean App Platform / Droplets DigitalOcean Managed DB, Atlas, or PlanetScale

Deploy a MERN App: A Practical Walkthrough

What You’re About to Deploy

This walkthrough takes a very typical floor plan - a MERN app with a React SPA, a Node/Express API, and MongoDB - and shows you how to move each labeled box into its own “room”: frontend on Netlify, backend on Railway, and database on MongoDB Atlas. You’ll see the same pattern that many “free hosting” guides recommend, like the combo of Netlify + Railway + Atlas highlighted in Akash Rajpurohit’s guide to free full-stack deployment services. AI tools can scaffold a lot of the config here, but it’s worth walking through manually once so you truly understand where each piece lives and how they talk to each other.

1. Prepare the Repo and Create a MongoDB Atlas Cluster

Assume a structure like my-mern-app/client for the React SPA (running on port 3000 in dev) and my-mern-app/server for the Node/Express API (port 5000 locally). Before anything else, you need a managed database so your backend has a stable “utility line” to plug into.

  1. Push your project to GitHub with the structure:
    • client/ - React app
    • server/ - Node/Express app
  2. In MongoDB Atlas, create a new cluster using the Free Shared tier (~512MB).
  3. Create a database user and password, and allow network access (start with 0.0.0.0/0 for simplicity, tighten later).
  4. Copy the connection string (e.g. mongodb+srv://…) and add it to server/.env as MONGODB_URI; set PORT=5000 as well.
  5. Update your Express app to read process.env.MONGODB_URI and to listen on process.env.PORT || 5000, then test locally.

2. Deploy the Backend to Railway

Now you’ll move the BACKEND box into a container-focused building that can handle long-running Node processes, WebSockets, and cron jobs without serverless timeouts. Railway is a popular choice here both in paid setups and in the “host your full stack for free” playbooks you’ll see in articles like GeeksforGeeks’ overview of free full-stack hosting options.

  1. Sign up at Railway and choose “New Project → Deploy from GitHub”; select your my-mern-app repo.
  2. Set the service’s root directory to server/ if Railway doesn’t auto-detect it.
  3. Configure the start command (for example npm start or node index.js), making sure your app binds to process.env.PORT.
  4. In Railway’s Variables, add:
    • MONGODB_URI - from Atlas
    • PORT - often 8080 or whatever Railway expects
  5. Trigger a deploy, then test an endpoint like /api/health on the public URL (e.g. https://my-mern-server.up.railway.app).

3. Deploy the Frontend to Netlify and Wire It to the API

With the kitchen running, you can move the FRONTEND box into a CDN-backed high-rise. Netlify will build your React SPA, serve it globally, and inject the backend URL via environment variables so your API calls go to Railway in production instead of localhost.

  1. In your React code, centralize the API base URL:
    • const API_BASE_URL = process.env.REACT_APP_API_BASE_URL;
    • Use ${API_BASE_URL}/api/... for all fetches.
  2. On Netlify, create a new site from Git, select the same repo, and set:
    • Build command: cd client && npm install && npm run build
    • Publish directory: client/build
  3. In Netlify’s environment settings, add REACT_APP_API_BASE_URL set to your Railway URL (e.g. https://my-mern-server.up.railway.app).
  4. Deploy, then open the Netlify URL (e.g. https://my-mern-client.netlify.app) and verify the SPA talks to the live API.

4. Lock In CORS, Secrets, and a Minimal Safety Net

To keep your rooms playing nicely together, finish by tightening CORS, secrets, and a basic CI check. Add CORS middleware on the Express side to allow your Netlify origin (plus http://localhost:3000 for dev), remove any committed .env files from version control, and rely on Railway/Netlify dashboards for secrets. Then add a lightweight GitHub Actions workflow that runs npm test in server/ and client/ on each push to main. AI can draft that YAML for you, but now that you understand how each box is deployed, you’ll be able to review and tweak it confidently instead of treating it as opaque magic.

CI/CD with GitHub Actions for Full Stack Apps

Platform Pipelines vs Owning Your CI/CD

Most hosting platforms already ship with some form of CI/CD. Push to main and Vercel, Netlify, or Railway will happily build and deploy your app without you touching GitHub Actions. That’s great for getting started, but it leaves you dependent on each platform’s knobs and logs. Owning your CI/CD in GitHub Actions gives you one central place to run tests, linters, and builds before any platform sees your code. Deployment comparisons like GetDeploying’s look at DigitalOcean vs Render increasingly frame CI/CD as a given: the interesting differences between platforms assume you already have automated builds and tests wired up. In other words, the deploy button is just the last step; everything that happens before it is your responsibility.

A Simple GitHub Actions Flow for a MERN App

For a MERN app with a server/ (Node/Express) and client/ (React) folder, a single GitHub Actions workflow can cover the basics. Trigger it on every push and pull_request to the main branch, then spin up a temporary MongoDB service using the mongo:6 Docker image on port 27017. Set an environment variable like MONGODB_URI=mongodb://localhost:27017/testdb so your tests use that ephemeral database. In the steps, check out the code, set up Node with actions/setup-node@v4 targeting Node 20, install server dependencies in ./server and run npm test -- --watch=false, then do the same in ./client followed by npm run build. This mirrors the structure described in many full-stack CI examples and gives you a safety net: if tests fail in either box (BACKEND or FRONTEND), the pipeline stops long before any deploy.

Optionally Adding Deploy Steps

Once your build-and-test job is green, you can add an optional deploy job that only runs on refs/heads/main. For example, you might install the Railway CLI, use a RAILWAY_TOKEN stored in GitHub Secrets, and run a command like railway up --service my-mern-server from the server/ directory. The same pattern works with other CLIs (Netlify, Vercel, Fly.io), and it lets you keep the deployment logic in version control instead of clicking buttons in multiple dashboards. A review of modern deployment tools on Cloudester’s web development tools guide calls this kind of automation “non-negotiable” once teams have more than a handful of services.

“As your application surface area grows, having a consistent CI/CD pipeline stops being a luxury and becomes the only sane way to ship changes.” - Cloudester Engineering Team, Web Development Tools Report

Why This Still Matters in an AI-Heavy World

AI can absolutely draft the YAML for you: tell an assistant you need a workflow that runs on pushes to main, starts mongo:6, sets MONGODB_URI, and tests both server/ and client/, and you’ll get a usable file in seconds. But reviewing that file is on you. Does it use the right Node version? Are you accidentally running expensive integration tests on every branch? Is the deploy job correctly gated so broken pull requests don’t overwrite production? Hiring managers don’t care if you memorized every key under jobs; they care whether you can look at a pipeline and explain what happens, when, and why. That understanding lets you treat CI/CD like part of your app’s floor plan instead of a mysterious broom closet someone else controls.

Cost Planning: Hobby vs Production Setups

Thinking in Rents and Utility Bills, Not Just “Free Hosting”

When you first get a MERN or Next.js project online, it feels like finding a friend’s spare room: free, flexible, and good enough. Netlify, Vercel, Railway, Render, and MongoDB Atlas all have generous free tiers, and guides to “deploy full-stack apps for free” aren’t exaggerating - you really can run a small portfolio or side project at essentially zero cost. But just like a too-good-to-be-true apartment, the reality changes once you add roommates (users), turn the heat up (traffic), and start using more water and power (bandwidth and database storage). At that point, knowing how to read the pricing pages becomes as important as knowing how to click the Deploy button.

Most platform pricing is a mix of base rent (plan cost) and utilities (bandwidth, storage, function executions). The trick is understanding what your app looks like at 1× traffic, then imagining it at 10× and 100×. A simple portfolio might never outgrow free tiers; a SaaS with real usage will, and the shape of those utility curves is what separates “cheap and cheerful” setups from bills that suddenly look like a second rent payment. Netlify’s own pricing overview makes this explicit: the Pro plan includes a fixed chunk of bandwidth and build minutes, then metered overages kick in once you cross that line.

Hobby and Portfolio Floor Plan

For hobby projects and portfolios, you’re optimizing for learning and visibility, not hard SLAs. The good news is that the ecosystem is set up to make that almost free. A typical layout looks like this: frontend on a free tier of Netlify or Vercel, backend on Railway’s Hobby plan or Render’s free tier, database on MongoDB Atlas’s shared free cluster, and maybe a cheap domain name if you want something memorable. In practice, you’re paying more for the custom domain than for the hosting.

Component Typical Hobby Choice Typical Monthly Cost Notes
Frontend Netlify / Vercel free tier $0 Bandwidth & build limits apply
Backend Railway Hobby / Render free tier ~$0-$5 Usage-based, fine for light traffic
Database MongoDB Atlas Free Shared $0 ~512MB storage cap
Domain Registrar of choice ~$10/year (<$1/mo) Optional for portfolios

With that setup, you can deploy multiple small apps and barely see a dent in your budget. The main risk is not financial; it’s that you forget you’re on training wheels and assume the same structure will be fine once you start charging users or handling real data volumes.

Production SaaS and “Real” Product Costs

Production is a different lease entirely. Here you’re paying for uptime guarantees, higher limits, and the ability to scale without rewriting everything. A common pattern is Vercel Pro for a Next.js frontend, Railway Pro or paid Render services for the backend, and paid tiers of MongoDB Atlas or PlanetScale for the database, plus basic DNS and domain costs. The shape of the bill changes: base rent plus utilities that grow with your success.

Component Typical Production Choice Example Monthly Baseline Notes
Frontend Vercel Pro ~$20/user/month + usage Bandwidth & advanced features add cost
Backend Railway Pro / Render ~$20-$50+ Depends on instance sizes and number of services
Database MongoDB Atlas Flex / PlanetScale HA ~$9-$50+ Production-grade, scales with storage and traffic
DNS/Domain Registrar + DNS (e.g., Cloudflare) <$1-$5 Small compared to app and DB costs

Real user reviews reflect this tradeoff mindset. On Software Advice, one Vercel customer described it as “incredibly smooth to deploy and preview, but you have to keep an eye on costs as you scale,” highlighting that the same features that make development pleasant can drive up the bill when traffic grows. As those Vercel reviews show, teams that understand this going in are much happier than those who treat production like an extended free trial.

Modeling 1×, 10×, and 100× Traffic

The most practical habit you can build is to treat pricing pages like utility rate sheets. Start by estimating what 1× looks like for you - monthly page views, API calls, database reads/writes, and storage. Then do the math for 10× and 100×, using the provider’s own calculators where possible. For example, if you’re looking at Netlify’s Pro plan, ask yourself when 100GB of included bandwidth will no longer be enough, and what the overage rate will do to your budget. Do the same for database storage and operation limits on Atlas or PlanetScale. AI can’t do this thinking for you because it doesn’t know your business model, margins, or risk tolerance; it can only read the same tables you see.

As a beginner or career-switcher, getting good at this kind of back-of-the-envelope modeling is a quiet superpower. It turns “I deployed my app” into “I deployed my app and I know roughly what it will cost if it actually succeeds.” Employers notice that difference. They know AI can spin up configs, but it takes a human to look at the floor plan, read the lease, and make sure the rent and utilities still make sense when the building fills up.

Avoiding Vendor Lock-In and Organizing Your Repo

Treat Platforms Like Landlords, Not Soulmates

Every hosting platform comes with terms that feel great on move-in day: free tiers, automatic deploys, built-in auth or forms. The lock-in pain shows up later, when you realize half your app depends on platform-specific features and moving out would mean tearing up floors, not just carrying boxes down the stairs. That’s why it helps to think of Vercel, Netlify, Railway, Render, Fly.io, and DigitalOcean as landlords you might outgrow. A comparison of Vercel and Railway on LazyAdmin makes this point indirectly: both are great at getting you live quickly, but they have very different stories once you start caring about costs, long-running processes, or multi-service architectures. Your job is to design your app so changing buildings later doesn’t mean rebuilding your entire life.

Label Your Boxes in the Repo

The easiest way to avoid lock-in is to organize your repo so each “room” is a clearly labeled box: a frontend directory that can be built and served by any static/SSR host, a backend service that runs as a generic Node process or container, and a database layer that hides its provider behind a small abstraction. That might look like a monorepo with /apps/frontend, /apps/api, and /packages/db, or simply separate repos for each piece. The point is that nothing in your React components should know whether it’s on Vercel or Netlify, nothing in your Express routes should assume Railway versus Render, and nothing in your data access code should care if it’s talking to MongoDB Atlas or PlanetScale. All of that should be injected through environment variables and thin adapter modules you control.

Patterns That Reduce Lock-In

A few concrete patterns go a long way toward keeping your options open. For the frontend, treat the API base URL as a single environment variable and avoid sprinkling platform-specific helpers (like proprietary edge middlewares) throughout the UI layer. For the backend, keep business logic in plain functions and confine platform glue (logging, config loading, function handlers) to a small shell so it can be swapped if you ever change runtimes. For the data layer, use a repository or service pattern that exposes simple methods (like getUserById, saveOrder) while hiding the underlying driver; that lets you migrate from Atlas to another Mongo provider or from PlanetScale to a different Postgres host with localized changes instead of a repo-wide search-and-replace.

Area Anti-Lock-In Tactic Benefit Risk If Ignored
Frontend Single API base URL env var, minimal platform APIs Move between Vercel/Netlify/Cloudflare with rebuild only Hard-coded URLs and APIs scattered across components
Backend Business logic in pure modules, thin platform shell Port from functions to containers (or between PaaS) easily Tight coupling to one runtime’s request/response model
Database Repository/data service layer Swap managed DB providers with localized changes ORM/driver calls baked into controllers and routes
Infra Config Keep IaC and YAML in dedicated /infra or /.github See all platform dependencies in one place Hidden coupling in random scripts and dashboards

Where AI Helps and Where It Can Trap You

AI assistants are very good at generating platform-specific configs: a vercel.json that uses edge functions, a Netlify config with custom headers and redirects, a Railway config that wires up build and start commands. That’s useful as a starting point, but if you accept every suggestion blindly, you’ll slowly weave those platform APIs throughout your code. The better approach is to let AI scaffold the rough draft, then refactor: pull environment variables into one place, wrap provider SDKs in your own modules, and keep infrastructure definitions in clearly named directories. That way, if pricing, limits, or features change, you’re moving labeled boxes between buildings - not ripping out walls because your entire app assumed one landlord would be home forever.

A Developer’s Checklist for Smart Deployment Decisions

Before You Choose a Platform

Smart deployment starts long before you touch a pricing page. Treat it like reading a lease: you want to understand the layout, utilities, and exit terms before you sign anything. That means stepping back from “Which platform is best?” and instead asking, “What does my app actually look like in production?” From there, picking a frontend host, backend platform, and managed database becomes a set of concrete decisions instead of guesswork. Skills breakdowns for full stack roles, like the ones highlighted on Edstellar’s full stack skills guide, consistently emphasize this deployment literacy alongside languages and frameworks.

  1. Sketch your floor plan: List what’s static (marketing pages, docs) vs dynamic (dashboards, auth), what needs SSR/edge vs what can be a SPA, and what background jobs or WebSockets you expect.
  2. Label your boxes: Decide clearly what goes in FRONTEND, BACKEND, and DATABASE. If you can’t point to a file or directory for each, reorganize your repo until you can.
  3. Identify constraints: Note any hard requirements: compliance needs, regions (where your users are), expected traffic range, and tolerance for cold starts vs long-running processes.

Choosing Where Each Box Lives

Once your boxes are labeled, you’re deciding where each one should live, not hunting for a magic “full stack” checkbox. This is where you weigh tradeoffs between developer experience, latency, and cost. A comparison like DevPick’s Vercel vs Netlify analysis makes it clear there is no universal winner; the right answer depends on whether you need heavy SSR, mostly static content, or extreme cost sensitivity on bandwidth.

  1. Pick a frontend building: For heavy SSR/Next.js, lean toward a platform optimized for that; for SPAs or docs, a static/Jamstack host is usually enough. Write down why you chose it (DX, SSR, bandwidth), not just the name.
  2. Pick a backend building: If you need long-running jobs, WebSockets, or multiple workers, choose a container/app platform over pure functions. Make sure you know its memory, CPU, and runtime limits.
  3. Pick a database contract: Choose between a document store and relational DB based on your data model, then pick a managed provider. Note starting tier (free, $5, $9, etc.) and what happens when storage or throughput doubles.
“Modern full stack developers aren’t just coders; they’re expected to understand hosting options, deployment strategies, and how their choices affect scalability and cost.” - Edstellar, Full Stack Developer Skills Report

Reading the Fine Print and Planning Exits

With provisional choices in hand, your job shifts to reading the fine print and making sure you can move later if you need to. This is where you protect yourself from surprise utility caps and painful migrations. Think in terms of 1×, 10×, and 100× traffic: what’s the base rent (plan fee), what are the utilities (bandwidth, function invocations, storage), and how hard would it be to move one box without touching the others?

  1. Scan for hard limits: For each provider, note any caps on bandwidth, build minutes, function duration, or connection counts that could affect your workload.
  2. Estimate costs at 10×: Use the pricing tables to roughly compute what your bill looks like if traffic, storage, or requests increase by an order of magnitude.
  3. Define an exit path: Write down how you’d move just the frontend, just the backend, or just the database to a competitor. If the answer is “rewrite everything,” refactor now: centralize env vars, add a data-access layer, and isolate platform-specific code.

Day-to-Day Habits After Launch

The last part of the checklist is what you do once you’re live. At that point, deployment is no longer a one-time event; it’s a routine. You’re watching logs, keeping CI/CD green, and revisiting costs regularly instead of waiting for a painful surprise. This is also where AI is most helpful as an assistant: drafting pipeline changes, suggesting alerts, and helping you refactor configs - while you stay in charge of what gets merged.

  1. Keep CI/CD as a gate: Ensure every change runs tests and builds in a central pipeline before hitting any platform’s auto-deploy.
  2. Monitor latency and errors: Track response times between frontend, backend, and database; if “commute times” grow, reconsider regions or architectures.
  3. Review bills regularly: Once a month, glance at bandwidth, storage, and function usage graphs. Adjust instance sizes, tiers, or even providers before costs become emergencies.

Run this checklist at the start of every new project, and again whenever your traffic or requirements change significantly. Over time, it becomes a habit: you’re not just pressing Deploy, you’re deliberately choosing where your app will live, how it will grow, and how easily you can move when the lease terms stop working for you.

Frequently Asked Questions

Which platform should I choose for deploying a full stack app in 2026?

It depends on the workload: put the frontend (UI/SSR) on a CDN/edge host like Vercel (Vercel Pro ≈ $20/user + usage) or Netlify (Pro ≈ $19/user with ~100GB included), the backend (long-running APIs, WebSockets, cron) on a container PaaS like Railway (Hobby ≈ $5/month, Pro ≈ $20+) or Render (~$25 for 1 CPU/2GB), and the database on a managed DB (MongoDB Atlas free ~512MB or PlanetScale from ≈ $5/mo). Match each “room” (FRONTEND, BACKEND, DATABASE) to the provider that fits its latency, runtime limits, and billing model rather than picking a single vendor by name.

Can I just host my entire MERN app on one provider like Vercel to keep things simple?

You can for small hobby projects, but it’s risky for production because serverless runtimes often have execution limits and usage-based billing that hurt long-running jobs or heavy bandwidth: one team moved backend workloads off Vercel after hitting ~50,000 orders/month when bandwidth costs rose to about $2,000/month. For stable APIs, WebSockets, or cron jobs, a container PaaS (Railway/Render/Fly.io) is generally safer.

How do I avoid surprise bills when my app gets real traffic?

Treat hosting like utilities: estimate 1×/10×/100× traffic using provider rate tables, watch bandwidth and egress (Netlify Pro includes ~100GB, Cloudflare Pages offers free unlimited bandwidth/no egress fees), and set budget alerts or caps in dashboards. Also choose predictable components (e.g., DigitalOcean for steady pricing) or reserve capacity where available to avoid sudden usage spikes.

How much will AI help with deployment, and what still needs human judgment?

AI is great at scaffolding Dockerfiles, CI YAML, and platform configs in seconds, but it can’t judge workload fit: you still must decide serverless vs containers, co-locate your DB for latency, and forecast cost tradeoffs. Hiring managers expect you to explain those architectural choices - not just paste an AI-generated config.

What’s a practical starter combo for going from hobby to a production MERN app?

A common, practical stack is frontend on Netlify/Vercel (or Cloudflare Pages for edge/cost sensitivity), backend on Railway or Render, and a managed DB on MongoDB Atlas (free ~512MB) or PlanetScale (from ~$5/mo); hobby costs can be ~$0-$5/mo while production baselines often run Vercel Pro ~$20/user + backend $20-$50+ and DB tiers from $9-$50+. This combo keeps the FRONTEND/BACKEND/DATABASE boxes separable so you can migrate one piece without rewriting everything.

Related Guides:

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Irene Holden

Operations Manager

Former Microsoft Education and Learning Futures Group team member, Irene now oversees instructors at Nucamp while writing about everything tech - from careers to coding bootcamps.