The complete guide · Web and product development

Web and product builds that perform: the complete guide

Everything we do to build marketing sites and products that are fast, measurable, SEO-ready, and accessible, written out in full. How we scope, how we choose the stack, how we enforce performance budgets, how analytics gets wired in from day one, and how the engagement runs from audit to launch. No fluff, no secrets held back.

A working reference, not a sales brochure. When you want it applied to your site, start with a free audit.

This guide is long because the decisions that determine whether a site performs, ranks, and converts are made early, before any code is written. Most of them are also invisible to the people paying for the build, which is how you end up with a beautiful site that scores 38 on Lighthouse and has no analytics tracking what happens after someone clicks the hero CTA. What follows is how we think about each of those decisions, in the order we make them.

How we scope and estimate

Scoping is a diagnostic exercise, not a sales one. The output of a good scoping process is a document precise enough that the people doing the work cannot misread what is in and what is out, and clear enough that the people paying for it know exactly what they will have at the end of each sprint. Anything vague in a scope is a future dispute waiting to happen.

Build sprint timeline: audit to launch
1 Free Audit Week 1 2 Scope Wk 2 to 3 3 Sprint 1 Wk 4 to 5 4 Sprint 2 Wk 6 to 7 5 QA + Launch Week 8 Lighthousereport Brief + sprintplan agreed Previewdeploy Previewdeploy Tracking QA+ handover
Every sprint ends in a preview deployment you can test and approve. Nothing moves to the next sprint until the previous one is signed off. This prevents the classic end-of-project crunch where half the site is unfinished and all the QA is left to the last week.

We scope in three passes. The first pass is the free technical audit: what exists now, what is wrong with it, and what the constraints are. The second pass is a written brief that covers the deliverables, the acceptance criteria for each, the target performance budgets, the analytics events we will track, and the launch criteria. The third pass is the sprint plan: the work broken into two-week windows, with each window ending in something you can test and approve.

Estimating follows naturally from the brief. If the brief is precise, the estimate is precise. If it is not, we do not guess; we ask the questions that make it precise before any money changes hands. That is how you avoid the classic pattern where a fixed-price project turns into a series of change orders because the original scope was a paragraph of marketing copy.

What goes in a scope document. Deliverables by page type and component, acceptance criteria per deliverable, performance budgets (LCP, CLS, INP targets), analytics events and destinations, third-party integrations, browser and device support, accessibility standard (WCAG 2.1 AA by default), deployment environment, and handover documentation. If it is not in the scope, it is not in the price.

Estimates are in time ranges, not single numbers. We give a best-case and a realistic case, explain what drives the difference, and build the sprint plan from the realistic case. Padding a project with artificial buffer is not honest; telling you a five-week project will take three is not helpful either.

The free technical audit

Every engagement opens with a technical audit of what you already have, because the most expensive thing in web development is building in the wrong direction. The audit answers two questions before any scope is written: what is actually wrong with the current site or build, and what would fixing it be worth?

The audit covers five layers:

  • Lighthouse scores on mobile and desktop. We run multiple runs and take the median, not the best result. Mobile is what matters for Google's Core Web Vitals ranking signal; desktop hides problems mobile exposes. We note the specific resources and scripts driving the failures, not just the scores.
  • Core Web Vitals from real field data. Lighthouse is a lab simulation. Chrome User Experience Report (CrUX) data tells us what real visitors on real connections actually experienced. A site can pass Lighthouse and still fail field CWV thresholds because of third-party scripts, A/B testing tools, or chat widgets that the lab does not load.
  • SEO readiness. We check crawlability and indexation, render strategy (whether the page is server-rendered or client-rendered, and whether Googlebot sees the same thing a user does), structured data coverage and validity, canonical and hreflang correctness, and meta quality. A site built for growth needs to be crawlable and parseable before it launches.
  • Accessibility. An automated scan using axe-core catches roughly 30 to 40 percent of WCAG 2.1 AA violations. We supplement it with a manual check of focus order, keyboard navigation, colour contrast, and form labelling. Accessibility failures are also SEO failures: they affect crawlability, structured data parsing, and user experience signals.
  • Analytics and tracking. We check what is being tracked, whether the tracking is firing correctly, and whether the events match the questions the business actually needs to answer. Most sites we audit are tracking page views and nothing else, which means they know how many people arrived but not what any of them did.

The output is a written report with every finding categorised by impact (critical, high, medium, low), the specific URL or component where it occurs, and the fix. We walk through it on a short call and you keep the report whether or not you engage us.

Choosing the stack

Stack choice is a constraint-matching exercise. The right stack is the one that fits the content model, the team's skills, the performance requirements, and the growth trajectory. It is not the newest framework, not the one the lead developer likes most, and not the one that produces the most impressive demo.

The main decision is whether the site is static, server-rendered, or a full client-side application, and whether a CMS is involved. Here is the practical breakdown:

Approach Best for Trade-offs
Static site (HTML, CSS, minimal JS) Landing pages, low-change marketing sites, documentation Fastest possible load, simplest hosting; not suitable for dynamic content or authenticated features
Static site generator (Eleventy, Hugo, Astro) Content-heavy sites with infrequent updates, blogs, knowledge hubs Excellent performance floor, pairs well with headless CMS; build time grows with content volume
Server-rendered framework (Next.js, Nuxt, SvelteKit) Marketing sites with personalisation, product pages, e-commerce Strong SEO by default, flexible rendering strategies; more infrastructure to manage
Headless CMS plus frontend Sites where non-technical teams publish content frequently Best separation of concerns; adds a dependency and a monthly cost for the CMS platform
Full product (SPA or server-rendered app) Authenticated product features, dashboards, tools with state Most flexibility; highest complexity, longest build, needs careful SEO treatment for public-facing pages

The choice between a static site generator and a server-rendered framework is the one teams get wrong most often. If the site is mostly marketing content with infrequent updates and no personalisation, a static generator will outperform a server-rendered framework every time and cost far less to host and maintain. We recommend a framework when the content is dynamic, the team needs per-user rendering, or the site needs to grow into product features over time.

We make this recommendation in writing as part of the scope, with the reasoning and the trade-offs, so the decision is explicit and documented. We do not push a particular stack because it is what we know best; we push the one that fits the problem.

Performance budgets and Core Web Vitals

A performance budget is a set of constraints agreed in writing before the first line of code is committed. Without one, performance is always sacrificed for features because the cost of adding a third-party script or an unoptimised image is invisible until someone runs Lighthouse and finds a score of 42.

Core Web Vitals threshold bands: good, needs work, poor
LCP (Largest Contentful Paint) Good Needs Poor under 2.5s 2.5 to 4s over 4s INP (Interaction to Next Paint) Good Needs Poor under 200ms 200 to 500ms over 500ms CLS (Cumulative Layout Shift) Good Mid Poor under 0.10 0.1 to 0.25 All three must be in the Good band at p75 of real-user data (CrUX) for Google to classify the page as passing Core Web Vitals. Good Needs work Poor
Google uses Core Web Vitals as a ranking signal. Failing on any one of the three puts a page in the Poor or Needs Work band at p75, which means at least a quarter of real visitors are having a bad experience. We set these as hard pass/fail thresholds in the deployment pipeline, not aspirational targets.

We work to three Core Web Vitals thresholds from Google:

  • Largest Contentful Paint (LCP) below 2.5 seconds. LCP measures how fast the main content element loads. The single biggest LCP killer is the hero image: large, uncompressed, served without a modern format like WebP or AVIF, and loaded without fetchpriority="high". Fixing the hero image alone moves most sites from failing to passing LCP.
  • Cumulative Layout Shift (CLS) below 0.10. CLS measures how much the layout jumps as the page loads. The cause is almost always images without explicit width and height attributes (so the browser does not reserve space), or web fonts loading late and reflowing text. Both are preventable from the first commit.
  • Interaction to Next Paint (INP) below 200 milliseconds. INP measures responsiveness to user input. Long JavaScript tasks on the main thread are the main culprit: large bundles, heavy third-party scripts, and synchronous operations that block the event loop.

Performance budget enforcement. We set Lighthouse CI thresholds in the deployment pipeline so any commit that regresses a Core Web Vitals score blocks the deploy until it is fixed. This prevents the slow degradation that turns a fast site into a slow one over twelve months of feature additions.

Beyond the three Core Web Vitals, we budget total page weight, JavaScript bundle size, number of render-blocking resources, and the number of third-party scripts allowed on performance-critical pages. Each one is written into the scope so everyone working on the project knows the constraint before they propose adding something that would break it.

Third-party scripts deserve special attention. Analytics, chat widgets, A/B testing tools, and marketing pixels are each individually small; collectively they routinely add two to four seconds to load time and introduce layout shifts. We use a facade pattern for non-critical tools: load a lightweight placeholder that only loads the full script when the user interacts with it. The chat widget loads when the user clicks the chat button, not on page load.

An SEO-ready build

An SEO-ready build is not a checklist you apply at the end. It is a set of structural decisions made before any content is written. The biggest mistake teams make is building a site, launching it, and then asking an SEO consultant to fix the problems, at which point fixing them means reworking the underlying architecture rather than adding a meta tag.

Semantic HTML and document structure

Every page needs a single H1, a logical heading hierarchy (H2 for sections, H3 for subsections), landmark elements for navigation, main content, and footer, and descriptive alt text on every image. These are the things Googlebot and screen readers both depend on to understand the page, and they cost nothing to get right the first time.

Render strategy and JavaScript

Googlebot can render JavaScript, but it does so in a second wave that can take days for pages that are not already authoritative. For public-facing pages that need to rank, server-side rendering or static generation is safer than a client-side-only application. If your product is a single-page application, the marketing and landing pages should be statically rendered even if the authenticated product is not.

Structured data

We ship structured data on every page type from day one, using the types that match the content. The rollout follows a standard map:

Schema type Where it goes What it unlocks
Organization Sitewide (usually in the footer or head) Brand knowledge panel, logo in search results
BreadcrumbList Every page with a navigation hierarchy Breadcrumb trail in the search result
WebSite plus SearchAction Homepage Sitelinks search box on branded queries
FAQPage Pages with a genuine FAQ section Expandable FAQ accordion in the result
Article Blog posts and guides Publication date, author, and enhanced indexing
Product Product or pricing pages where applicable Price and availability in the result
SoftwareApplication SaaS product pages Rating and platform data in the result

Every structured data block is validated with Google's Rich Results Test before launch and monitored in Search Console after. Invalid schema is worse than no schema: it produces a manual action warning if Google finds it misleading.

Canonical tags and hreflang

Every page needs a self-referencing canonical tag pointing to its preferred URL. If the site has multiple language or locale versions, every page needs a full set of hreflang annotations, including a self-referencing hreflang and an x-default. Missing or incorrect hreflang is one of the most common and most expensive mistakes on international sites: Google often indexes the wrong language version for each market, which splits the ranking signals and dilutes authority across versions.

Titles and meta descriptions

Titles stay under 60 characters. Meta descriptions stay under 155. Both are written before launch, not auto-generated from the first sentence of body copy. They are the first thing a searcher sees in the result and they determine whether anyone clicks, regardless of ranking position.

Accessibility by default

Accessibility is not a compliance exercise. It is a build quality standard. A site that is inaccessible to keyboard users has broken navigation for power users. A site with low colour contrast fails in sunlight, not just for users with visual impairments. A site without proper ARIA labels is harder for Google to parse, not just harder for screen reader users.

We work to WCAG 2.1 AA on every build. The practices that matter most in a typical marketing site or product build:

  • Focus management. Every interactive element is focusable and has a visible focus indicator. The focus order matches the visual reading order. Modal dialogs trap focus correctly and return it to the trigger when closed.
  • Keyboard navigation. All navigation, forms, and interactive elements are operable by keyboard alone. This means no hover-only interactions, no click handlers that intercept the keyboard, and no custom controls that do not implement the expected ARIA patterns.
  • Colour contrast. Body text at 4.5:1 minimum contrast ratio against the background. Large text (18pt or 14pt bold) at 3:1. We check every colour combination in the design, not just the main text on the main background.
  • Alternative text. Every informative image has descriptive alt text. Decorative images have empty alt attributes (alt="") so screen readers skip them. Icons that are the sole content of a button or link have an accessible label via aria-label or a visually hidden span.
  • Form accessibility. Every form input has a visible label that is programmatically associated with the input, not just visually adjacent. Error messages are announced to screen readers and linked to the relevant input. Required fields are indicated in the label, not just by colour.

Automated testing catches roughly 30 to 40 percent of WCAG violations. The rest require manual testing. We run automated scans on every commit using axe-core, and we do a manual keyboard and screen reader check on each page type before launch.

Analytics and measurement baked in from day one

Analytics is almost always an afterthought in web builds. The site launches, someone adds Google Analytics via a CMS plugin, and three months later the business has no idea what is actually driving conversions because the events were never set up to answer the questions that matter.

System architecture: frontend, API, data, analytics
FRONTEND (static site, SSR, or SPA) API LAYER (REST, GraphQL) ANALYTICS LAYER (GA4, Segment) DATA LAYER (DB, CMS, CRM) DATA WAREHOUSE (reporting) Each layer is independently deployable. Analytics fires from the frontend on user events; the data layer never exposes raw records to the client.
Wiring analytics at build time means every conversion event is instrumented before the first visitor arrives. The analytics layer sits parallel to the API layer so tracking never blocks page load, and the data warehouse receives a clean event stream for reporting.

We set up analytics before the first sprint ends, with events mapped to the business questions, not to what is easy to track. The setup follows a brief written during scoping:

  • Which actions constitute a conversion? Form submissions, CTA clicks, pricing page visits, demo requests, free trial starts. Each gets a named event with consistent parameters so the data is queryable.
  • Which pages drive the most conversion-adjacent behaviour? We instrument the full funnel: where people enter, which pages they visit before converting, and where they drop off. Without this data, optimisation is guesswork.
  • What is the analytics platform? GA4 is the default for most marketing sites. Amplitude, Mixpanel, or Segment are better choices for product analytics where you need per-user event streams. We write the implementation against the platform specified in the scope.

On measurement and privacy. We implement analytics in compliance with GDPR and ePrivacy requirements: consent management before any tracking fires, anonymised IP by default, data retention settings reviewed at launch, and no personally identifiable information in event parameters. Getting this right from the start is far cheaper than retrofitting a compliant consent layer onto a site that has been tracking everything for twelve months.

After launch, we run a tracking QA pass: every event fires on the correct trigger, no duplicate events, no missing events, and the data in the analytics platform matches the expected user behaviour. This takes half a day and prevents months of working from bad data.

Design systems and component reuse

A component system is the difference between a site that stays consistent as it grows and one that develops twelve slightly different button styles across seventeen pages because each was built independently. It is also the difference between a site where a non-technical team can publish new content safely and one where every new page requires an engineer to copy-paste markup and hope they do not break anything.

We build every site with a documented component library. The scope covers which components are needed and what variants each requires. The implementation covers three things:

  • The components themselves, built to the design, with variants, states (hover, focus, disabled, error), and responsive behaviour documented and tested.
  • Design tokens, the source of truth for colour, typography scale, spacing, shadow, and border radius. Tokens live in one place; every component references them. Changing a brand colour means changing one value, not hunting through a stylesheet.
  • Usage documentation, written for the people who will use the system after we hand it over. Which component to use when, what not to do with each one, and how to add a new variant without breaking the existing ones.

For marketing sites, we build the component system in whatever framework is specified in the scope, or in plain HTML and CSS for static sites. For product builds, we default to a headless component pattern where the visual layer is separated from the business logic, so the design system can be updated without touching application code.

CMS and content workflows

The CMS choice is a workflow decision, not a technology decision. The right CMS is the one that lets the people who will actually update the site do so without filing a ticket, breaking the layout, or needing to understand the codebase.

The main options we work with and when we recommend each:

  • Contentful or Sanity for sites where content is structured (there are repeating content types with defined fields), the editorial team is large, and the frontend framework needs to pull content via API. Both have strong developer APIs, good image transformation, and reasonable preview setups.
  • WordPress (headless) for teams that are already inside WordPress, have a large content library, or need the WordPress plugin ecosystem (e-commerce, forms, memberships). Decoupled from the frontend, WordPress becomes a capable content API without its traditional performance cost.
  • Notion or Airtable with a build step for small teams who want to write content in a familiar tool and publish via a scheduled build. Works well for blogs and documentation with low update frequency.
  • No CMS (flat files or code-based content) for sites where the team is technical and content updates are infrequent enough that a git-based workflow is not a burden. Simplest option; least overhead.

CMS migrations deserve their own attention. Moving content from one platform to another is almost always messier than it looks: redirects for URLs that change, content that does not map cleanly to the new schema, images that need re-uploading, and SEO metadata that needs to be preserved. We plan migrations in the scope, build the import scripts before touching the live site, and verify every redirect before launch day.

Integrations and APIs

A modern marketing site or product typically connects to five to fifteen external services by launch: analytics, CRM, email marketing, customer support, payment processing, form handling, and whatever the product itself needs. Each integration is a potential failure point, a performance risk, and a privacy surface. We treat them with the same rigour as the application code.

The integration checklist we run before any third-party service is added:

  • Does this need to be loaded on every page, or only on the pages where it is used?
  • Does it block rendering? If so, can it be deferred or loaded asynchronously?
  • Does it set cookies or collect personal data? If so, it needs to be gated behind consent.
  • What happens to the user experience if this service is down? Is there a graceful fallback?
  • Is the API key scoped to the minimum permissions needed? Is it exposed to the client, and if so, is that safe?

Form handling is a common area where things go wrong. We use a server-side handler or a form service (Formsubmit, Netlify Forms, or a serverless function) rather than exposing an email address or a transactional email API key in the client. Honeypot fields, rate limiting, and reCAPTCHA are standard; the choice between them depends on the volume of submissions and the sensitivity of the data.

For product builds with their own API, we write an API contract before any frontend or backend code is written. The contract covers endpoints, request and response shapes, authentication, error codes, and pagination. Frontend and backend development can then proceed in parallel against the agreed contract, rather than sequentially, which is how you keep sprint velocity up in a product build.

Security basics

Security in a marketing site or product build is not glamorous, but the basics are non-negotiable. The mistakes that cause breaches are almost always the obvious ones: secrets exposed in client-side code, no Content Security Policy, dependencies with known vulnerabilities, and no HTTPS enforcement.

The security checklist we run before launch on every engagement:

  • No secrets in the client bundle. API keys, database connection strings, and service tokens that need to stay private belong in environment variables read at build time or in a server-side function, not in code that ships to the browser.
  • Content Security Policy. A CSP header limits which domains can load scripts, styles, images, and frames on your pages. It is the most effective mitigation against cross-site scripting attacks. We start strict and loosen only what is provably needed.
  • HTTPS everywhere. Every HTTP request is redirected to HTTPS. HSTS headers are set so browsers enforce HTTPS for future visits even without a redirect. Mixed content (an HTTPS page loading HTTP resources) is treated as a launch blocker.
  • Dependency hygiene. We audit the dependency tree before launch and flag packages with known vulnerabilities using npm audit or equivalent. New dependencies are checked for package age before installation; we do not install packages published in the last 24 hours.
  • Input validation. Any data that enters the system from a user (form submissions, URL parameters, API requests) is validated before it is processed. On the server side. Not just in the browser.
  • Rate limiting. API endpoints and form handlers that can be called by unauthenticated users have rate limits to prevent abuse. This is particularly important for contact forms, which are a common vector for spam and credential stuffing.

Hosting and deployment

Hosting is where performance, reliability, and security all come together. The hosting choice should follow from the stack choice: a static site does not need a server; a server-rendered application does. Choosing the wrong hosting for the stack leads to unnecessary complexity and cost.

For static sites and sites built with static site generators, we default to a CDN-first host (Netlify, Vercel, or Cloudflare Pages). Every page is served as a pre-built file from an edge location close to the visitor, with no server round-trip for the initial HTML. Load times that would take two to three seconds from a single-region server drop to under half a second from a CDN edge. The cost difference between a CDN host and a server is often zero for the traffic volumes that startups and scaleups run at.

For server-rendered applications and product builds, we evaluate the infrastructure requirements against the expected traffic and budget. A small product with a few thousand users per month does not need a Kubernetes cluster; it needs a well-configured VPS or a managed platform like Railway or Render with sensible autoscaling settings.

Preview environments

Every deployment pipeline we set up includes preview environments: isolated, publicly accessible deployments of every pull request or branch, with a unique URL that is generated automatically. Preview environments let the whole team (designers, writers, QA, founders) review and approve changes before they merge to main. They also let us catch regressions before they reach the live site, because the preview runs the same build as production.

Deployment pipeline

The deployment pipeline runs on every commit to the main branch: build, lint, unit tests, Lighthouse CI check against the performance budgets, and deploy. If any step fails, the deploy is blocked. This is not optional; it is how you prevent the slow accumulation of technical debt that turns a performant site into a slow one.

Scaling and maintainability

The build that ships at launch is not the build that runs in two years. Scaling a site or product is mostly about the decisions made early: a component system that makes it easy to add pages consistently, a CMS that lets non-technical teams publish without engineering support, a dependency list that does not grow without governance, and a codebase that new engineers can navigate without a three-day orientation.

The practices that most affect maintainability in the long run:

  • Documentation at the component level. Every component has a short comment explaining when to use it, when not to use it, and what the variants are for. This costs twenty minutes per component and saves hours of "what is this component actually for" conversations later.
  • Consistent naming conventions. File names, class names, event names, and API endpoints follow a single convention, documented and enforced via lint rules where possible. Inconsistency in naming is the single biggest source of confusion for engineers joining a project six months after it launched.
  • Dependency pinning and regular audits. Dependencies are pinned to exact versions in the lockfile and reviewed quarterly. New dependencies are proposed with a justification and a review of the alternatives. Sprawling dependency trees are the main source of supply-chain risk and the main reason build times grow over time.
  • Performance budgets enforced in CI. Once set, performance budgets should be enforced automatically, not by someone remembering to run Lighthouse before a deploy. The Lighthouse CI integration means any regression is caught at the code review stage, not six months after launch.

The real cost of technical debt in a web build is not the code that needs to be replaced. It is the time spent working around code that nobody understands but everyone is afraid to touch. The best time to prevent it is during the initial build. The second best time is a focused technical debt sprint, which we can scope separately if the codebase has already accumulated it.

The engagement model

Every engagement follows the same structure: audit, scope, build in sprints, launch, and handover. The structure is the same whether we are building a landing page or a full product; the size of each phase scales with the scope.

The phases in order:

  • Audit (free). Technical review of the existing site or build. Written report plus a short findings call. You keep the report whether or not you engage us.
  • Scoping. Written brief covering deliverables, acceptance criteria, performance budgets, analytics events, integrations, browser and device support, and the sprint plan. Reviewed and approved before any code is written. This is the most valuable hour of the project: a precise scope prevents every class of dispute that follows from a vague one.
  • Design (where required). If you have a design file, we build from it. If you do not, we iterate in the browser with preview deployments. Design iterations are included in scope; new features discovered during design are scoped separately.
  • Build in sprints. Two-week sprints, each ending in a preview deployment you can test and approve. Working software at the end of every sprint: no half-built features, no work that exists only on a local machine.
  • QA and launch. Full cross-device and cross-browser QA, performance verification against the budgets, accessibility audit, analytics tracking QA, and launch. We do not hand over a URL and disappear; we are available for two weeks after launch to fix anything that comes up in the real world that the QA did not catch.
  • Handover. Written documentation of the component system, the CMS setup, the deployment pipeline, the third-party integrations, and the things that need ongoing attention (dependency updates, performance monitoring, analytics review). One session with your team to walk through the handover document.

Because we run growth and SEO work for the same companies we build for, the handover can transition into an ongoing engagement or stay as a one-time project. Either is fine. The site we build is yours, the code is yours, and the documentation is written so you can run it independently.

FAQ

How long does a typical project take? A landing page is typically four to six weeks from scope sign-off to launch, including content, QA, and deployment. A full marketing site is eight to twelve weeks. A product build depends on scope but we structure it in fixed two-week sprints so you see working software at the end of each one.

Do you work with our existing stack? Yes, if the audit tells us the current stack is sound. We recommend a change only when the current one is a genuine constraint on what you need to do, and we explain the reasoning before any work starts.

What does it cost? The audit is free. The build is scoped after the audit because the right scope depends on what we find and what you want to ship. We write the scope and the price into the agreement before any work begins.

Can you handle SEO and growth after the build? Yes. We run SEO, content, and link building for the same companies we build sites for. The build we ship is already SEO-ready; the growth work runs on top of it. There is no handoff to a different agency.

What if we need changes after the project is scoped? Changes that are outside the agreed scope are scoped as a separate item with a separate price, before any work on them starts. We do not absorb unscoped changes silently and then invoice for them at the end.


That is the full method. When you want it applied to your site or your next build, the next step is a free audit: real findings on your real Lighthouse and field data, in about a week, with no obligation.

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