1. What Types of Applications I Build

I primarily work with two modern web application architectures.

React Applications

A React application is usually a good choice when you need a modern interactive frontend that communicates with an existing or separate backend API.

Typical examples include:

• dashboards;
• customer portals;
• internal business applications;
• admin panels;
• SaaS frontends;
• CRM interfaces;
• booking interfaces;
• applications connected to an existing backend;
• interactive business tools.

My preferred architecture for this type of project is a React + Vite Single Page Application.

Next.js Applications

Next.js is usually a better choice when the application needs both frontend and server-side functionality in one modern web platform.

Typical examples include:

• e-commerce applications;
• SaaS products;
• marketplaces;
• customer portals;
• subscription applications;
• websites with dynamic and SEO-sensitive content;
• applications with authentication and database access;
• content-driven platforms;
• applications that require server-side rendering or advanced caching;
• business systems with PostgreSQL data.

Next.js is especially useful when the project benefits from server-side rendering, Server Components, database integration, authentication, caching, and optimized delivery through Vercel.

2. How the Technology Stack Is Selected

I use a tested starter architecture for both React and Next.js projects, but I do not force every client into exactly the same technology stack.

Before development begins, I consider:

• what the application must do;
• whether a backend already exists;
• authentication requirements;
• database requirements;
• SEO requirements;
• expected traffic;
• third-party integrations;
• security requirements;
• expected future growth;
• your existing infrastructure;
• your team's technical preferences;
• maintenance cost;
• vendor costs;
• project budget.

The goal is not to use the largest possible number of technologies.

The goal is to use the smallest reliable stack that solves the business problem well.

3. Recommended React Technology Stack

For a typical modern React application, my preferred starting stack is:

Core

React + Vite + TypeScript

React provides the application UI, Vite provides a fast modern development/build environment, and TypeScript helps catch many programming mistakes before they reach users.

Routing

React Router

Used for application pages, navigation, route protection, and URL-based application state.

User Interface

Chakra UI

Provides accessible, reusable UI components and allows development to move faster without rebuilding basic interface components from scratch.

Authentication

Auth0

Auth0 is my preferred generic authentication provider for React applications when the client does not already have an established identity platform.

Depending on project requirements, it can support:

• email and password login;
• Google login;
• Facebook and other social providers;
• passwordless email;
• phone/SMS authentication;
• multi-factor authentication;
• enterprise Single Sign-On.

If your company already uses another identity provider—such as Microsoft Entra ID, Okta, Firebase, Cognito, Supabase Auth, Clerk, or a corporate SSO solution—I can adapt the application to that system instead of forcing a migration to Auth0.

Server Data

TanStack Query

Handles data received from APIs, including loading states, caching, retries, refreshes, and synchronization.

Client-Side Application State

Zustand

Used only for application state that genuinely needs to be shared between different parts of the frontend.

API Communication

Axios

A shared HTTP client is used for communication with backend APIs and for consistent handling of authentication headers and API errors.

Validation

Zod

Used to validate forms, configuration, API data, and other untrusted input.

Forms

React Hook Form

Used for complex or validation-heavy forms.

Testing

Vitest + React Testing Library

Used for automated unit and component-level testing.

Monitoring

Sentry

Used to detect and investigate production errors when included in the project infrastructure.

CI/CD and Hosting

GitHub Actions + Vercel

Used for automated quality checks and controlled deployments.

4. Recommended Next.js Technology Stack

For a typical full-stack Next.js application, my preferred starting stack is:

Framework

Next.js App Router + React + TypeScript

This provides the frontend, server-side application layer, routing, rendering, caching, and deployment model.

User Interface

Chakra UI

Used for accessible and maintainable UI components.

Database

PostgreSQL hosted through Supabase

PostgreSQL is a mature relational database suitable for most business applications.

Supabase provides managed PostgreSQL together with useful services such as authentication and storage.

Database Access

Prisma

Prisma provides typed database access and controlled database schema migrations.

Authentication

Supabase Auth

Depending on requirements, it can support:

• email and password;
• magic links;
• email OTP;
• phone authentication;
• Google and other social providers;
• multi-factor authentication;
• Single Sign-On where required.

If your organization already has an established identity platform, the project can use that instead.

File Storage

Supabase Storage

Suitable for many common file and image storage requirements.

Advanced Media Management

Cloudinary — optional

Recommended only when the project requires advanced image/video transformations, optimization, media workflows, or Digital Asset Management features.

Client State

Zustand

Used only for small amounts of genuinely client-side shared state.

Validation

Zod

Used for server actions, API boundaries, forms, configuration, and external data.

Forms

React Hook Form — when needed

Useful for complex interactive forms.

Caching and Rendering

Modern Next.js Server Components and Cache Components are used according to the needs of each part of the application.

The application may combine:

• server-rendered content;
• cached content;
• static content;
• request-time content;
• interactive browser components.

The choice is made based on performance, freshness, security, and business requirements rather than applying one rendering mode to the entire application.

Testing

Vitest + React Testing Library

Used as the default automated testing foundation.

Monitoring

Sentry

Used for production error monitoring and diagnostics when configured for the project.

CI/CD and Hosting

GitHub Actions + Vercel

Used for automated checks, Preview deployments, UAT releases, and production delivery.

5. Technologies Are Tools, Not Contractual Restrictions

The stacks above are my recommended starting points.

They are not intended to lock your company into unnecessary technology.

A different solution may be selected when there is a good business or technical reason.

For example:

• your company already uses AWS;
• your team already uses Microsoft Entra ID;
• you have an existing backend;
• you already have a PostgreSQL provider;
• your organization requires a specific monitoring platform;
• an enterprise compliance requirement limits available providers;
• a third-party integration requires a different architecture.

Important architecture decisions are discussed before implementation.

6. The Project Workflow

My preferred delivery process is:

Business request → clarification → approved scope → implementation → automated checks → Preview → review → UAT → approval → production → monitoring

Each step exists for a reason.

It is much cheaper to clarify a requirement before development than to rebuild the wrong feature afterwards.

7. Step 1 — Discovery and Requirements

A project normally begins with a discussion of:

• business goals;
• target users;
• required features;
• important workflows;
• authentication;
• permissions;
• integrations;
• content;
• design;
• reporting;
• performance expectations;
• security requirements;
• launch priorities.

I turn the initial request into a clearer technical and functional specification.

For example, instead of simply receiving:

“We need a customer wishlist.”

I may clarify:

• Who can use it?
• Do users need an account?
• Can a user have one list or multiple lists?
• Should the list work across devices?
• What happens when a product is deleted?
• Is sharing required?
• What is the expected behavior when the user is offline?
• Does the feature need analytics?
• What conditions mean that the feature is accepted?

Development should not begin while important business behavior is still unclear.

8. Step 2 — Acceptance Criteria

For each meaningful feature, I prefer to define simple acceptance criteria.

Acceptance criteria describe what must be true for the feature to be considered complete.

For example:

A logged-in user can save a product to the wishlist.

The saved product appears in the user's wishlist on another device.

One user cannot view another user's private wishlist.

Removing an item updates the wishlist immediately.

This gives both sides the same definition of “done.”

It also reduces misunderstandings during UAT.

9. Step 3 — Scope Approval

Before implementation starts, we agree on:

• what is included;
• what is not included;
• important business rules;
• expected user behavior;
• dependencies;
• acceptance criteria.

This approved scope becomes the reference point during development.

If requirements change later, that is completely normal—but the change should be identified and evaluated rather than silently added to the original task.

10. Step 4 — Implementation

Development normally happens in small, reviewable units instead of one very large delivery.

A feature is developed on its own branch.

During implementation I use:

• reusable starter architecture;
• automated development tools;
• AI-assisted engineering;
• static code analysis;
• automated tests;
• local browser verification;
• independent code review where appropriate.

AI helps accelerate research, implementation, debugging, testing, and review.

It does not make production decisions automatically.

11. Step 5 — Automated Quality Checks

Before a feature is considered ready, the project runs automated checks such as:

• code formatting validation;
• linting;
• TypeScript type checking;
• unit tests;
• component or integration tests;
• production build verification;
• dependency/security checks where configured.

A feature is not considered complete simply because the code “looks correct.”

The application must pass executable checks.

12. Step 6 — Preview Deployment

For user-facing changes, a temporary Preview Deployment can be created automatically.

A Preview is a live URL for a specific feature or pull request.

It allows me—and when useful, you—to see the real application before that change becomes part of the main release.

Preview environments are useful for:

• checking UI changes;
• reviewing a new feature;
• testing responsive layouts;
• validating integrations;
• demonstrating progress;
• collecting early feedback.

A Preview is not the same as production.

It uses non-production configuration and should not contain production secrets or sensitive production data.

13. Step 7 — Review

Important changes are reviewed before release.

Review may include:

• implementation correctness;
• security;
• permissions;
• error handling;
• data integrity;
• performance;
• maintainability;
• accessibility;
• missing test cases;
• compatibility with the agreed requirements.

For higher-risk work I may use an independent second AI engineering system in addition to my own review.

The purpose is not to replace human responsibility. It is to obtain another independent analysis of the change before it reaches production.

14. Step 8 — UAT

UAT means User Acceptance Testing.

This is the stage where you or your designated representative verify the release from a business perspective.

UAT answers:

“Does the application behave the way we agreed?”

This is different from technical testing.

Automated tests may prove that software behaves consistently, but only the client can finally confirm that the business requirement is correct.

A UAT environment is normally stable and production-like, but uses separate non-production configuration.

15. Preview vs UAT vs Production

These environments have different purposes.

Preview

Used for individual features and pull requests.

Typical users:

• developer;
• reviewer;
• sometimes client for early feedback.

Changes may appear frequently.

UAT

Used for a stable candidate release.

Typical users:

• client;
• QA;
• product owner;
• stakeholders.

The scope is intentionally stable while acceptance testing happens.

Production

The live application used by real customers.

Production access and releases are more strictly controlled.

16. Two-Week Agile Sprint Methodology

For active development, I normally recommend a two-week Agile sprint.

A sprint creates a short, predictable delivery cycle instead of an endless stream of unfinished tasks.

Sprint Planning

At the beginning of the sprint we agree on:

• priorities;
• features;
• bug fixes;
• dependencies;
• acceptance criteria;
• expected delivery;
• any important risks.

Not every future idea needs to fit into the current sprint.

Week 1 — Build and Validate

The first week normally focuses on:

• requirement clarification;
• feature implementation;
• early automated testing;
• Preview deployments;
• early code review;
• resolving technical issues.

Completed work gradually moves into the shared development environment.

Week 2 — Complete, Stabilize and Release

The second week normally focuses on:

• completing committed scope;
• integration;
• regression fixes;
• security and performance checks;
• UAT preparation;
• client acceptance;
• release preparation;
• production deployment.

At the end of the sprint we review:

• what was delivered;
• what was not delivered;
• feedback;
• defects;
• new priorities;
• technical maintenance that should enter a future sprint.

17. Release Freeze

For larger projects, new development may continue while you are testing the next release.

In that situation I may create a dedicated release branch.

This creates a frozen release candidate.

“Frozen” does not mean development stops.

It means:

The exact set of features you are currently testing will not unexpectedly change while you perform UAT.

New features can continue separately and enter a later release.

Only approved bug fixes are added to the frozen release.

This makes UAT much more predictable.

18. Testing Options

Every project includes a basic quality foundation.

The exact level of automated testing depends on project risk and budget.

Base Quality Profile

Suitable for many MVPs and standard applications.

Typically includes:

• TypeScript checks;
• linting;
• unit tests where valuable;
• component/integration tests;
• production build verification;
• browser smoke testing;
• Preview/UAT review.

Critical Flow Automation — Optional

For projects where important workflows should be automatically re-tested after future changes, I recommend browser-based End-to-End tests.

Examples include:

• login;
• checkout;
• subscription;
• payments;
• permissions;
• critical forms;
• order processing.

These tests require additional initial implementation and future maintenance.

For this reason they can be included as a separate project quality option rather than automatically increasing the cost of every project.

High-Risk Quality Profile

Recommended for systems where a regression may cause significant financial, security, or operational impact.

This may include stronger automated coverage for:

• authentication;
• authorization;
• payment flows;
• sensitive data;
• critical business workflows;
• negative/failure scenarios.

19. Security Approach

Security is treated as part of development, not as a final checkbox before launch.

Important principles include:

• authentication and authorization are treated separately;
• the browser is never trusted with important business decisions;
• sensitive permissions are checked on the server;
• production secrets are not stored in source code;
• production credentials are separated from development credentials;
• production customer data is not casually copied into development environments;
• third-party access follows the principle of least privilege;
• production changes require stronger controls;
• sensitive logging is minimized;
• important database changes are reviewed before deployment.

For sensitive or regulated applications, additional security requirements can be included in the project scope.

20. Application Monitoring

For production applications I recommend monitoring through a service such as Sentry.

Monitoring helps detect:

• frontend errors;
• server-side errors;
• failed requests;
• unexpected runtime problems;
• release-related regressions.

Monitoring does not guarantee that errors never happen.

Its purpose is to reduce the time between:

problem occurs → problem is detected → root cause is found → fix is released

21. Production Releases

Production deployment is controlled.

A typical release looks like:

approved work → automated checks → UAT acceptance → production approval → deployment → smoke check → monitoring

High-risk changes may include additional steps.

Examples:

• database migration review;
• backup confirmation;
• release checklist;
• additional regression testing;
• explicit production approval.

22. Rollback Strategy

Even carefully tested software can sometimes fail after production deployment.

For applications hosted on Vercel, previous working deployments can normally be kept available.

If a new release introduces a serious application regression, production traffic can be returned to a previous known-good deployment.

This gives us a practical emergency strategy:

detect problem → stop new releases → rollback → verify service → investigate → create proper fix → test → redeploy

Database changes require additional care.

Rolling back application code does not automatically reverse database changes.

For this reason database migrations are designed and released more carefully than normal frontend changes.

23. Change Requests

Software projects naturally evolve.

During development you may discover that you want:

• another workflow;
• a different business rule;
• another integration;
• additional permissions;
• a changed UI;
• a new report;
• additional automation.

That is normal.

However, if a request changes previously approved scope, I treat it as a change request, not automatically as a bug.

The process is:

1. clarify the requested change;
2. determine its impact;
3. update requirements;
4. estimate additional work where necessary;
5. approve the change;
6. implement it in a controlled way.

This protects both the project budget and the delivery schedule.

24. What Counts as a Bug?

A bug normally means:

The implemented behavior does not match the approved requirement or acceptance criteria.

A new behavior that was never part of the approved requirement is usually a change request rather than a defect.

Clear acceptance criteria make this distinction much easier for everyone.

25. What I Need From the Client

Successful software development requires cooperation from both sides.

I normally need the following from the client.

A Decision Maker

There should be a person who can make or confirm business decisions.

This prevents development from stopping because different stakeholders give conflicting instructions.

Business Requirements

You do not need to write technical specifications.

You should be able to explain:

• what problem the application solves;
• who uses it;
• what important workflows exist;
• what success looks like.

I can help convert this into implementation-ready requirements.

Timely Answers

If development uncovers an unclear business rule, I may pause that specific feature and ask for clarification.

Fast answers reduce delays and rework.

UAT Participation

The client should test and accept important releases.

I can verify technical correctness, but I cannot independently decide whether a business workflow matches your real operating process.

Content

Unless content creation is included in the project scope, the client should provide:

• final text;
• product information;
• images;
• company details;
• legal pages;
• policies;
• contact information;
• translations.

Branding and Design Assets

Where applicable, the client should provide:

• logo;
• brand colors;
• fonts;
• design system;
• approved Figma designs;
• image assets.

If UX/UI design is part of my contract, this can of course be handled separately.

Third-Party Provider Access

The client should provide access to required business services through secure invitations or scoped accounts rather than sending passwords through chat.

26. Accounts the Client Should Own

For a production application, I strongly recommend that the client organization owns the production accounts.

Examples include:

• domain registrar;
• Vercel;
• Supabase;
• Auth0;
• Sentry;
• Cloudinary;
• email provider;
• SMS provider;
• payment provider;
• analytics provider;
• GitHub organization where appropriate;
• other business-critical SaaS accounts.

I receive the permissions needed to develop and maintain the project.

This is better for you because:

• your company owns its infrastructure;
• your billing stays under your control;
• handover is easier;
• you are not dependent on my personal accounts;
• access can be revoked or changed later;
• there is a clearer security and audit trail.

27. What the Client Pays For Separately

My development fee covers the software development work defined in the proposal or contract.

Third-party infrastructure and service fees are generally paid by the client directly to those providers.

Depending on the application, this may include:

Hosting and Deployment

For example:

• Vercel paid plan if required.

Database and Backend Services

For example:

• Supabase paid plan;
• database compute/storage;
• backups or Point-in-Time Recovery if required.

Authentication

For example:

• Auth0 paid features;
• enterprise SSO;
• advanced MFA;
• SMS/phone authentication costs.

Domain and DNS

• domain registration;
• renewals;
• premium DNS where required.

Email

• transactional email provider;
• email volume charges.

SMS and Phone Verification

• SMS/OTP provider charges;
• country-specific delivery costs.

Payments

• Stripe or another payment provider's transaction fees.

Media Storage and Processing

For example:

• Cloudinary;
• advanced image/video processing;
• storage and bandwidth.

Monitoring

• Sentry paid plan if the free level is not sufficient.

External APIs

For example:

• maps;
• AI APIs;
• search providers;
• accounting integrations;
• communication services;
• data services.

Business Tools

If required by your organization:

• Jira;
• Figma;
• analytics;
• feature flag services;
• other SaaS subscriptions.

The exact third-party services are agreed before implementation whenever possible.

I do not add paid infrastructure simply because a technology exists.

28. Optional Services That May Increase Development Cost

The following items are normally scoped separately when required:

• extensive automated End-to-End test coverage;
• complex data migration;
• advanced performance optimization;
• enterprise SSO;
• complex role/permission systems;
• advanced media pipelines;
• real-time functionality;
• advanced analytics;
• multi-language support;
• accessibility audits beyond the agreed baseline;
• regulated-industry security/compliance work;
• large third-party integration projects;
• complex DevOps/cloud infrastructure;
• 24/7 support;
• dedicated SLA;
• legacy-system migration;
• custom design system;
• extensive UX/UI design.

This does not mean these services are unavailable.

It simply means their cost and timeline should be visible rather than hidden inside a basic development estimate.

29. Package and Security Maintenance

Web applications depend on third-party software packages.

Those packages continue to evolve after your application launches.

Maintenance may include:

• security updates;
• bug-fix releases;
• supported runtime updates;
• framework updates;
• dependency compatibility checks;
• deprecated package replacement.

I recommend regular maintenance rather than waiting until several years of outdated dependencies make an upgrade expensive and risky.

Small updates can often be handled as routine maintenance.

Major framework upgrades should be planned and tested separately from normal feature development.

30. Post-Launch Maintenance

Production software is rarely truly “finished.”

After launch you may need:

• bug fixes;
• dependency updates;
• security maintenance;
• new features;
• performance improvements;
• monitoring;
• provider changes;
• database maintenance;
• business workflow changes.

I can provide ongoing maintenance under a separate agreement or maintenance plan.

31. Incident Handling

If a production problem occurs, the priority is restoring reliable service.

A typical incident workflow is:

1. confirm the problem;
2. determine its severity;
3. stop risky releases;
4. rollback when appropriate;
5. verify that service is restored;
6. investigate the root cause;
7. prepare a controlled fix;
8. test the fix;
9. redeploy;
10. document useful follow-up actions.

The objective is not to hide problems.

The objective is to detect, contain, fix, and learn from them quickly.

32. Accessibility

I treat basic accessibility as part of good frontend engineering.

This includes practices such as:

• semantic HTML;
• keyboard-friendly interaction;
• visible focus states;
• proper labels;
• understandable form errors;
• accessible dialogs and menus;
• readable UI structure.

If your organization requires a specific formal accessibility target such as WCAG 2.2 AA, that requirement should be included explicitly in the project scope.

33. Performance

Performance decisions are based on measurable user experience rather than guessing.

Depending on the project, I may monitor:

• initial page load;
• JavaScript bundle size;
• image size;
• server response time;
• database response time;
• caching;
• unnecessary network requests;
• Core Web Vitals.

Next.js applications may additionally use server rendering, caching, streaming, and Server Components to reduce unnecessary browser work.

34. Backups and Data Safety

For applications with important business data, backup strategy should be discussed before production.

Depending on the provider and project requirements, this may include:

• automated backups;
• Point-in-Time Recovery;
• data retention rules;
• recovery procedures;
• restore testing.

A backup is useful only if it can actually be restored.

For business-critical systems I recommend that backup and recovery expectations are documented explicitly.

35. What AI-Assisted Development Means for You

I use modern AI engineering tools internally to improve productivity.

They can help with:

• requirement analysis;
• technical research;
• implementation;
• debugging;
• test generation;
• code review;
• documentation;
• repetitive development work.

This can significantly reduce time spent on mechanical tasks.

However, I do not sell “AI-generated websites.”

I sell professional software development.

That means:

• requirements are clarified;
• architecture is controlled;
• code is reviewed;
• tests are executed;
• releases are validated;
• sensitive operations are restricted;
• production remains human-controlled.

You are paying for the result, engineering judgment, delivery process, and responsibility—not for the number of hours spent manually typing code.

36. What AI Is Not Allowed to Control Autonomously

For client projects, AI tools should not independently perform sensitive production actions such as:

• unrestricted production database changes;
• destructive database migrations;
• production secret management;
• changing critical authentication rules;
• changing billing logic;
• bypassing security checks;
• silently expanding approved project scope;
• approving their own high-risk changes;
• automatically merging critical changes into production.

Automation is useful.

Uncontrolled production automation is not.

37. Communication During Development

I prefer communication that is concise and actionable.

Depending on the project, communication may include:

• sprint priorities;
• requirement questions;
• Preview links;
• UAT links;
• release summaries;
• known limitations;
• blockers;
• change requests;
• production incident updates.

I do not expect clients to read Git commits or technical implementation notes.

Important information is translated into business-level communication.

38. What You Receive With a Feature

A meaningful completed feature may include:

• implemented functionality;
• approved acceptance criteria;
• automated verification;
• Preview or UAT version;
• relevant test coverage;
• code review;
• short summary of what changed;
• known limitations where applicable;
• documentation for important architectural decisions;
• release-ready code.

The exact deliverables depend on the project scope.

39. Project Documentation

For maintainable projects I keep important decisions in the repository rather than only in chat history.

Documentation may include:

• project overview;
• architecture;
• important feature specifications;
• acceptance criteria;
• major architecture decisions;
• environment configuration;
• security rules;
• database migration procedures;
• release procedures;
• incident procedures;
• testing strategy.

This helps future development whether the project continues with me, grows into a larger team, or is later transferred to another developer.

40. Project Handover

Your application should not become dependent on one developer forever.

A proper handover may include:

• source code repository;
• deployment configuration;
• environment variable documentation;
• architecture documentation;
• database documentation;
• provider account ownership;
• release instructions;
• important runbooks;
• known limitations;
• access review;
• outstanding maintenance items.

Production accounts should ideally already belong to your organization, which makes the handover much simpler.

41. Definition of Done

A task is not “done” simply because development stopped.

Depending on the agreed project quality profile, a feature is considered complete when:

• agreed requirements are implemented;
• acceptance criteria are satisfied;
• required automated checks pass;
• important errors are resolved;
• the application builds successfully;
• user-facing behavior is verified;
• required review is completed;
• relevant documentation is updated;
• UAT is completed when required;
• production implications are understood.

For database or security-sensitive work, additional checks may apply.

42. What Makes a Project Successful

The best results usually come from five things:

Clear requirements

We agree on what we are building before expensive implementation begins.

Small delivery cycles

You see progress regularly instead of waiting months for one large reveal.

Fast feedback

Questions and UAT feedback are answered quickly.

Controlled scope

Changes are welcome, but their effect on time and cost is visible.

Shared responsibility

I own the engineering process. You own the business decisions and final acceptance.

43. Recommended Project Lifecycle

A complete project typically moves through these stages:

1. Discovery

Understand the business problem.

2. Scope

Define what the first version should include.

3. Architecture

Choose the appropriate React or Next.js solution.

4. Setup

Create repository, environments, CI/CD, monitoring, and required provider integrations.

5. Sprint Development

Build the application in short, reviewable cycles.

6. Preview and Review

Validate features before integration.

7. UAT

The client verifies the release candidate.

8. Production Release

Release approved work safely.

9. Monitoring

Observe the application after launch.

10. Maintenance and Growth

Fix, update, optimize, and add new features as the product evolves.

44. Before We Start — Client Checklist

Before active development begins, it is helpful to have:

• A clear business goal.
• A primary decision maker.
• Initial feature priorities.
• Existing design or branding assets, if available.
• Required content or a plan for producing it.
• Information about existing systems and APIs.
• Authentication requirements.
• Payment requirements, if applicable.
• Required third-party integrations.
• Domain ownership information.
• Required compliance or security constraints.
• A plan for UAT and final approval.
• Client-owned provider accounts created when needed.
• Secure access provided through invitations rather than shared passwords.

Do not worry if you cannot answer every technical question before contacting me.

Part of my role is helping convert your business requirements into a workable technical plan.

45. What You Can Expect From Me

You can expect me to:

• explain technical decisions in understandable language;
• ask questions before implementing unclear requirements;
• recommend technology based on project needs rather than trends;
• keep production infrastructure under appropriate client ownership;
• avoid unnecessary paid services;
• build in small, reviewable increments;
• provide Preview/UAT versions where appropriate;
• validate important changes before production;
• communicate risks and limitations;
• treat security-sensitive actions carefully;
• document important decisions;
• maintain professional responsibility even when AI tools are used internally.

46. What I Expect From You

I ask clients to:

• provide accurate business information;
• make or delegate business decisions;
• respond to important clarification questions;
• provide required content and assets unless separately contracted;
• provide secure access to necessary services;
• participate in UAT;
• review change requests that affect scope;
• pay third-party provider fees associated with their application;
• confirm production releases where required.

A good development process is a partnership.

47. The Goal

My goal is not simply to deliver code.

My goal is to give you a web application that is:

• useful to your business;
• understandable;
• maintainable;
• secure by design;
• testable;
• deployable;
• monitorable;
• ready to evolve as your business changes.

The development process is designed around one principle:

Build quickly where speed is safe, slow down where risk is high, and make every important step visible to the client.