AI Agents in the Real World: Tips for Modern Engineering Teams
When more than half of developers say they use AI tools every day and over 80% are using or planning to use them at work, it’s clear this isn’t a side experiment anymore — it’s the new normal in software delivery.
AI-assisted development is real and useful when paired with clear specs and architecture. Tools like GitHub Copilot, Claude Code, OpenCode accelerate routine coding, code review, unit testing, and e2e testing.
Model Context Protocol (MCP) tools let agents act across different systems we use, including Azure, Atlassian, SonarQube, GitHub, Figma, and others.
Through hands-on use of AI development tools at Reenbit, we’ve learned that the real question is no longer whether to adopt AI-assisted development. The critical question is where it truly adds value, where it breaks down, and how to design workflows so humans remain in control rather than passive observers.
Before we dive into the practical stuff, let’s look at what’s actually happening in the industry.
Metric
Value
84% (up from 76%)
55.8% faster
Value
51%
Value
84% (up from 76%)
Value
31%
Value
55.8% faster
Metric
Value
30%
Why “vibe coding” fails
You’ve probably heard of ‘vibe coding’—the approach where you describe what you want, accept whatever the AI generates, and move on.
It sounds efficient until you realize one critical problem: Code written at the speed of thought tends to age like milk, not wine.
Issue
Stats
AI solutions ‘almost right, but not quite’
66% of developers struggle with this
Debugging AI code takes longer than writing it
45% of developers agree
Security vulnerabilities in AI code
Up to 48%
SQL injection vulnerabilities
40% of AI-generated queries
Missing authentication issues
Top MITRE CWE vulnerability
Issue
AI solutions ‘almost right, but not quite’
Stats
66% of developers struggle with this
Issue
Debugging AI code takes longer than writing it
Stats
45% of developers agree
Issue
Security vulnerabilities in AI code
Stats
Up to 48%
Issue
SQL injection vulnerabilities
Stats
40% of AI-generated queries
Issue
Missing authentication issues
Stats
Top MITRE CWE vulnerability
The code often ‘works just well enough to pass initial tests, but tends to be brittle and poorly organized under the hood.’ Developers who inherit vibe-coded projects typically find inconsistent structure, minimal comments, and ad-hoc logic.
The solution isn’t to slow down — it’s to change who’s holding the steering wheel.
We don’t need more vibe coders; we need architects who can harness the power of AI-assisted coding without being owned by it.
AI agents speed things up, but they don’t replace thinking. An AI agent such as Claude, OpenCode, or GitHub Copilot operates strictly within the instructions it’s given.
If you don’t define the domain, quality constraints, and what “done” looks like, they’ll still produce code — just not the kind you want.
The answer is to spend more time clarifying intent — specs, architecture, and prompts — and less time fighting the keyboard.
Upgrade Your AI Dev Process
OUR AGENTIC TOOLSET IN PRACTICE
We use GitHub Copilot because the pricing is straightforward and it integrates cleanly with VS Code, Visual Studio, and JetBrains/Rider — plus Copilot CLI in any terminal.
But we also collaborate with alternatives like Claude Code and OpenCode, depending on the scenario.
Assistant
Where it shines
Considerations
GitHub Copilot
Best IDE integration (VS Code, JetBrains, Xcode). Multi-model choice (GPT-4.1, Claude, Gemini). Agent Mode for autonomous edits. Native GitHub ecosystem. Terminal mode using Github Copilot CLI
8K token context limits complex refactoring. Rate limits (50–1,500 requests/mo). Pricing: Free/$10/$39/mo; $19–39/user enterprise.
Claude Code
200K token context—handles entire codebases. Superior agentic workflows for migrations. Extended thinking for architecture. Unix pipeline composability. Top SWE-bench scores (80.9%).
Anthropic models only. Strict rate limits. Pricing: $20/$100/$200/mo. Pricing pain point: $20/mo Pro hits limits fast (10–40 prompts/5hr); realistic heavy use requires $100–200/mo Max plans
Open Code
Provider-agnostic: 75+ LLMs including local models. Fully open-source (MIT). Self-hostable for privacy. Pay only for API tokens. Near-identical to Claude Code with same models.
Stability issues with large files. Rapid development = occasional breaks. Vim-like learning curve.
GitHub Copilot
Where it shines: Best IDE integration (VS Code, JetBrains, Xcode). Multi-model choice (GPT-4.1, Claude, Gemini). Agent Mode for autonomous edits. Native GitHub ecosystem. Terminal mode using Github Copilot CLI
Considerations: 8K token context limits complex refactoring. Rate limits (50–1,500 requests/mo). Pricing: Free/$10/$39/mo; $19–39/user enterprise.
Claude Code
Where it shines: 200K token context—handles entire codebases. Superior agentic workflows for migrations. Extended thinking for architecture. Unix pipeline composability. Top SWE-bench scores (80.9%).
Considerations: Anthropic models only. Strict rate limits. Pricing: $20/$100/$200/mo. Pricing pain point: $20/mo Pro hits limits fast (10–40 prompts/5hr); realistic heavy use requires $100–200/mo Max plans
Open Code
Where it shines: Provider-agnostic: 75+ LLMs including local models. Fully open-source (MIT). Self-hostable for privacy. Pay only for API tokens. Near-identical to Claude Code with same models.
Considerations: Stability issues with large files. Rapid development = occasional breaks. Vim-like learning curve.
SPEC-FIRST OVER SPEED-FIRST. METHODOLOGIES THAT MAKE AI DEVELOPMENT WORK
Agents behave very differently when you front‑load context. Instead of “build me a service for X”, you give them:
- System context: What’s the architecture? What patterns are already in use? What are the constraints?
- Requirements clarity: Not “build a login” but “JWT-based auth with refresh tokens, 24h expiry, rate limiting at 5/min”
- Examples and anti-examples: Show what good looks like in your codebase. Show what to avoid.
- Acceptance criteria: How will you know it’s done? What tests should pass?
- Edge cases: What happens when the user does X? What if the service is down?
This is where structured methodologies become essential. Without a framework, “give more context” is just advice. With BMAD Method or SpecKit, it’s a repeatable process that your entire team can follow.
BMAD: Breakthrough Method for Agile AI-Driven Development
BMAD provides a complete framework for orchestrating AI agents across the development lifecycle. It’s not just about prompting—it’s about creating a structured flow from requirements to deployment.
Component
Purpose
How It Helps
Context templates
Pre-defined formats for AI input
Consistent, complete information every time
Role-based personas
Different prompts for architect/dev/QA
Right context for each task type
Checkpoint system
Human review at critical points
Catch issues before they compound
Iterative refinement
Build incrementally with feedback
Smaller, verifiable changes
Context templates
Purpose: Pre-defined formats for AI input
How It Helps: Consistent, complete information every time
Role-based personas
Purpose: Different prompts for architect/dev/QA
How It Helps: Right context for each task type
Checkpoint system
Purpose: Human review at critical points
How It Helps: Catch issues before they compound
Iterative refinement
Purpose: Build incrementally with feedback
How It Helps: Smaller, verifiable changes
SpecKit: Specification-Driven Development
SpecKit is GitHub’s approach to working with AI assistants.
The core insight: when you define clear specifications upfront, AI generates code that actually matches your intent.
Component
Purpose
How It Helps
Spec templates
Standardized feature/API descriptions
Nothing important gets forgotten
Constraint definitions
Explicit boundaries for AI
Prevents unwanted patterns
Example-driven prompts
Show what good looks like
AI mimics your codebase style
Validation criteria
Define success metrics first
Clear definition of done
Spec templates
Purpose: Standardized feature/API descriptions
How It Helps: Nothing important gets forgotten
Constraint definitions
Purpose: Explicit boundaries for AI
How It Helps: Prevents unwanted patterns
Example-driven prompts
Purpose: Show what good looks like
How It Helps: AI mimics your codebase style
Validation criteria
Purpose: Define success metrics first
How It Helps: Clear definition of done
QUALITY GATES FOR AI-GENERATED CODE
AI can write code fast, but fast code isn’t always good code. At Reenbit, we’ve implemented a multi-layered quality gate system specifically designed for AI-assisted development.
The goal: catch AI-induced issues before they reach production.
Our five-layer quality gate system ensures AI-generated code meets the same standards as human-written code.
Tool
What It Catches
When It Runs
1. AI Code Review
GitHub Copilot Code Review
Bugs, performance issues, style violations
On every PR
2. Static Analysis
SonarQube AI Code Assurance
Security vulnerabilities, code smells, complexity
CI pipeline + while generating code using SonarQube for IDE extension
3. Code Coverage
Coverage tools + thresholds
Untested AI-generated paths
CI gated build
4. Unit Testing
AI-assisted test generation
Logic errors, edge cases
CI gated build
5. E2E Testing
Playwright + AI
Integration failures, UI regressions
CI + staging
1. AI Code Review
Tool: GitHub Copilot Code Review
What It Catches: Bugs, performance issues, style violations
When It Runs: On every PR
2. Static Analysis
Tool: SonarQube AI Code Assurance
What It Catches: Security vulnerabilities, code smells, complexity
When It Runs: CI pipeline + while generating code using SonarQube for IDE extension
3. Code Coverage
Tool: Coverage tools + thresholds
What It Catches: Untested AI-generated paths
When It Runs: CI gated build
4. Unit Testing
Tool: AI-assisted test generation
What It Catches: Logic errors, edge cases
When It Runs: CI gated build
5. E2E Testing
Tool: Playwright + AI
What It Catches: Integration failures, UI regressions
When It Runs: CI + staging
MCP TOOLS: CONNECTING AI TO YOUR ECOSYSTEM
AI coding assistants are incredibly powerful, but they’re blind to everything outside your code editor.
They don’t know what ticket you’re working on, what your deployment looks like, what your team decided in last week’s architecture meeting, or what the designer intended.
This context gap leads to code that works in isolation but doesn’t fit the bigger picture.
The Model Context Protocol (MCP) is an open standard that lets AI agents connect to external tools.
Instead of AI only seeing your code, MCP lets it see your entire development context — Jira tickets, Confluence docs, Azure infrastructure, Figma designs.
How MCP Works
The architecture is straightforward:
- MCP Hosts: Applications like Claude Code, Github Copilot, or OpenCode that connect to servers
- MCP Servers: Services that expose tools and resources (Jira, Azure, GitHub, databases)
- Tools: Actions the AI can perform (create ticket, query database, deploy service)
- Resources: Data the AI can read (documentation, schemas, configurations)
The result: when you ask AI to “implement the feature from PROJ-1234,” it can actually pull the ticket details, read the linked design docs, check the existing codebase patterns, and generate code that fits. No more copy-pasting context between tools.
Our MCP Integration Stack at Reenbit
Here’s how we’ve connected our development ecosystem:
MCP Server
What It Enables
Example Queries
Azure MCP
Deployments, ARM templates, AKS, troubleshooting Azure services
“What’s the status of prod deployment?” “Generate ARM template for App Service”
Atlassian MCP
Jira: Tickets, sprints, context
Confluence: Docs generation, KB queries
“What’s the context on PROJ-1234?”
“Find architecture docs for auth module”
SonarQube MCP
Real-time code quality, auto fix Sonar lint, code coverage, security hotspots
“What are the critical issues in this PR?” “Show security hotspots in UserService”
GitHub MCP
PR analysis, Actions, repos
“Summarize changes in PR #42”
“Why did the last workflow fail?”
Figma MCP
Design-to-code translation
“Generate React component from this design”
“What are the design tokens?”
Playwright MCP
Test generation, automation
“Generate E2E test for checkout flow”
“Update selectors for login page”
PostgreSQL MCP
Query DB, understand schema
“Show me the users table schema”
“Write a query for active subscriptions”
Azure MCP
What It Enables: Deployments, ARM templates, AKS, troubleshooting Azure services
Example Queries: “What’s the status of prod deployment?” “Generate ARM template for App Service”
Atlassian MCP
What It Enables: Jira: Tickets, sprints, context Confluence: Docs generation, KB queries
Example Queries: “What’s the context on PROJ-1234?” “Find architecture docs for auth module”
SonarQube MCP
What It Enables: Real-time code quality, auto fix Sonar lint, code coverage, security hotspots
Example Queries: “What are the critical issues in this PR?” “Show security hotspots in UserService”
GitHub MCP
What It Enables: PR analysis, Actions, repos
Example Queries: “Summarize changes in PR #42” “Why did the last workflow fail?”
Figma MCP
What It Enables: Design-to-code translation
Example Queries: “Generate React component from this design” “What are the design tokens?”
Playwright MCP
What It Enables: Test generation, automation
Example Queries: “Generate E2E test for checkout flow” “Update selectors for login page”
PostgreSQL MCP
What It Enables: Query DB, understand schema
Example Queries: “Show me the users table schema” “Write a query for active subscriptions”
FINAL THOUGHTS
AI coding tools aren’t a side experiment anymore. They’re becoming part of how teams actually build software.
But here’s the thing: how much value you get depends on how you use them.
Teams that succeed with AI don’t just install a plugin and hope for magic. They do a few things differently:
- They write clear specs first: AI works best when it knows exactly what you want.
- They use frameworks like BMAD and SpecKit: These give AI the context it needs, every time.
- They check AI code carefully: Quality gates catch mistakes before they become problems.
- They connect AI to their tools: MCP lets AI see your Jira tickets, docs, and infrastructure — not just code.
When you put all this together, something clicks. AI stops being a gimmick and starts being genuinely useful. You set the direction. AI handles the boring stuff. You stay in control.
Our advice? Don’t try to change everything at once. Pick one thing — maybe unit tests, or PR reviews, or deployment scripts — and add AI there first. See what works. Then expand.
AI won’t replace good engineers. But it will make them faster and let them focus on the interesting problems.
Want to explore how AI-assisted development can accelerate your team’s delivery?
Whether you’re just getting started with AI coding tools or looking to scale your existing practices with quality gates, MCP integrations, and structured methodologies – we can help.
Get in touch with Reenbit to discuss your AI development journey!