AGENTIC AI · SDLC · ORCHESTRATION · 2026
AI Orchestrator
Building Agentic SDLC Systems
SDLC = Software Development Lifecycle — every stage from idea → code → test → ship → monitor
What an Orchestrator is and why it's the brain of agentic AI
The 8 core components: Skills, Context, Rules, Memory, Persona & more
How each SDLC phase maps to a specialized AI agent
A complete mind-map connecting every component
Real examples + benefits you can share with your team today
"Engineers of 2026 don't write every line. They conduct orchestras of AI agents."
✍️Mithilesh Singh
Created with Claude
📖 PART 1: UNDERSTAND · Slides 3–14 · What is agentic AI + the
8 components
🎬 PART 2: SEE IT · Slides 15–23 · SDLC phases + real case study
🚀 PART 3: APPLY · Slides 24–27 · Roadmap + tools + your next
step
WHY DOES THIS MATTER — FOR YOU, RIGHT NOW? 2 / 30
Whether you write code, manage products, or design experiences — AI agents are already reshaping your role. Here’s what’s at stake for each of
you.
💻 Developer / Engineer
Your gain: Stop writing boilerplate. AI agents
handle test-writing, PR descriptions, and code
reviews. You focus on architecture and hard
problems.
Risk if you don’t: Teams using AI agents ship 2×
faster. Developers who don’t adapt become the
bottleneck.
️
🗂️Product Manager
Your gain: Requirements go from vague notes
to structured user stories in minutes. Backlogs
get estimated and prioritised automatically
using past data.
Risk if you don’t: PMs who understand agentic
systems will own the roadmap. Those who
don’t will lose influence to engineers who do.
🎨 Designer / UX
Your gain: Spec-writing, component
documentation, and accessibility checks can be
delegated to AI. Design reviews happen
automatically before handoff.
Risk if you don’t: Designers who can describe
agent Personas will shape how AI behaves in
products. It’s a new design surface.
💡 The common thread: AI agents handle the repetitive, time-consuming execution. You own the strategy, judgment, and creative decisions.
⚡ 40-60%
faster release cycles with agentic SDLC
🧠 70%
less context switching for your team
📋 100%
audit trail on every AI decision made
BEFORE WE START — 6 TERMS YOU NEED TO KNOW 3 / 30
This deck uses 6 words repeatedly. Understand these first and everything else will click.
🤖 AI Agent
A software program that can receive a goal, make decisions, and take actions on its own
— without a human directing every step.
💡 Like a new employee who's been briefed on a task and can figure out how to complete it
independently.
🧠 Orchestrator
The 'boss' AI that coordinates multiple specialist agents. It decides who does what, in
what order, and makes sure results connect together.
💡 Like a project manager who assigns tasks to team members, checks the work, and
assembles the final deliverable.
🔄 SDLC
Software Development Lifecycle — the complete journey a software feature takes: Plan
→ Design → Code → Test → Deploy → Monitor.
💡 Like building a house: design blueprints, lay foundations, build walls, inspect, fix issues,
hand over keys.
💬 LLM
Large Language Model — the AI brain (like Claude or GPT) that reads text, understands
meaning, and generates intelligent responses.
💡 Like the reasoning engine inside the agent — it's what makes the agent understand
instructions and decide what to do.
📝 Prompt
The instructions + context you send to an LLM to tell it what to do. The Orchestrator
builds and sends prompts to each agent automatically.
💡 Like a written brief you give to a contractor — the better your brief, the better their work.
⚡ Agentic
Describes AI that acts autonomously across multiple steps toward a goal — not just
answering one question but completing a whole workflow.
💡 'Agentic AI' vs 'chatbot' is like a self-driving car vs Google Maps — one acts, one just gives
directions.
WHAT IS AN AI ORCHESTRATOR? 4 / 30
Think of it like a Film Director. The director doesn't act in every scene — they assign roles, give direction, manage timing, and make
sure the final result meets the vision.
🎬 Without Orchestrator
✗ Each AI agent works in isolation
✗ No shared context between agents
✗ Results don't connect to each other
✗ Human must stitch everything together
✗ Slow, error-prone, inconsistent output
🎯 With Orchestrator
✓ One brain coordinates all specialist agents
✓ Shared context flows between every step
✓ Outputs chain into a coherent result
✓ Human reviews at key checkpoints only
✓ Fast, consistent, goal-directed delivery
📖 Definition:
An AI Orchestrator is the central coordinator that decomposes a high-level goal into sub-tasks, routes each to the right specialist agent, manages shared context
and memory, enforces rules and constraints, and assembles the final output — all while keeping humans informed at critical decision points.
1 It's NOT a chatbot
It runs multi-step, multi-agent workflows
autonomously
2 It's NOT magic
It needs: clear goals, defined skills, context, and
constraints
3 It IS the future
McKinsey Global Institute (2023 estimate): AI-
orchestrated orgs reported 20–40% cost reduction
THE 8 CORE COMPONENTS OF AN AI ORCHESTRATOR 5 / 30
Every reliable Orchestrator is built from the same 8 building blocks. Miss one and the system drifts, hallucinates, or breaks.
️
🛠️
Skills
What the agent can DO — callable tools,
APIs, code runners
🧭
Context
What the agent KNOWS right now — the
live operating picture
📏
Rules
What the agent MUST follow — policies,
formats, boundaries
🧠
Memory
What the agent REMEMBERS — short-
term & long-term store
🎭
Persona
WHO the agent is — role, tone,
expertise, decision style
🔒
Constraints
What the agent CAN'T do — safety limits,
guardrails
📚
Learnings
What the agent IMPROVES from —
feedback loops, corrections
🎯
Goal
What the agent is WORKING TOWARD —
the target objective
COMPONENT 1 — SKILLS (What the Agent Can DO) 6 / 30
A Skill is a callable capability — a tool the agent can invoke to take action in the real world. Without skills, an agent can only talk.
️
🛠️ Types of Skills
⚙ Code Runner Execute Python/JS, run tests, compile
⚙ API Caller Call REST APIs, fetch data, trigger webhooks
⚙ File Manager Read/write files, search docs, parse PDFs
⚙ Browser Tool Open URLs, click, fill forms (Playwright!)
⚙ Data Analyser Query databases, aggregate metrics
⚙ Communicator Send emails, post Slack messages, create tickets
💡 In the Playwright world, the Browser Tool skill IS Playwright — your Playwright
knowledge directly enables agentic browser skills.
️
🗺️ Skills Across SDLC
Planning Doc reader, ticket creator, estimator
Design Diagram generator, spec writer
Coding Code generator, linter, refactorer
Testing Test writer, browser runner, reporter
Deployment Pipeline trigger, infra provisioner
Monitoring Log reader, alert sender, dashboarder
🔍 Real Example: A QA Orchestrator running one complete workflow automatically
📥 Read ticket
Get the task from Jira/GitHub
→
📝 Write tests
Create test scripts automatically
→
▶️Run tests
Execute them in a real browser
→
📊 Read results
Understand what passed or
failed
→
🐛 Log bugs
Record failures in the bug
tracker
→
📧 Alert team
Send a Slack/email summary
COMPONENT 2 — CONTEXT (What the Agent Knows Right Now) 7 / 30
Context is the agent's live operating picture — everything relevant to the current task, injected into the prompt at the moment it
acts.
📋 Task Context
The current goal, acceptance criteria, and user intent. Without this, the agent
optimises for the wrong thing.
️
🏗️ System Context
The codebase, architecture decisions, tech stack, and existing patterns the
agent must respect.
👤 User Context
Who is asking — their role, preferences, prior decisions, and communication
style.
🌍 World Context
External state — current sprint, live environment status, recent deployments,
open incidents.
⚠️Context Window Limit
LLMs have a token limit — you cannot inject everything. The Orchestrator's job is to decide WHAT context matters most for each step. Injecting irrelevant context is as
harmful as injecting none — it confuses the agent and wastes tokens. Good context engineering is a core Orchestrator skill.
COMPONENT 3 — RULES (What the Agent MUST Follow) 8 / 30
Rules are explicit instructions that the agent treats as non-negotiable. They translate your organisation's policies into agent
behaviour.
📏 Categories of Rules
⚡ Output Format
Always return JSON. Never use markdown in API responses.
⚡ Tone & Language
Use plain English. Avoid jargon. Be concise.
⚡ Security
Never log PII. Never expose API keys in output.
⚡ Coding Standards
Follow PEP8. No commented-out code. Tests required.
⚡ Approval Gates
Escalate to human for production changes.
⚡ Scope Limits
Only modify files in /src. Never touch config.
💡 Beginner tip: Start with just 3 rules.
Pick one from each layer: a Security rule, a Coding Standards rule, and a Scope
rule. Add more as you learn what the agent gets wrong.
️
🏛️ Rules Hierarchy
Safety Rules
Absolute — cannot be overridden by any agent
Legal & Compliance
Org-level — set by legal/security teams
Team Standards
Eng-level — code style, review requirements
Task Rules
Goal-level — specific to current job
Agent Preferences
Defaults — overridable with good
reason
🔽 Higher priority More overridable 🔼
COMPONENT 4 — MEMORY (What the Agent Remembers) 9 / 30
Memory is what separates a one-shot chatbot from a true agent. Without memory, every action is taken in isolation — the agent
can't learn or improve.
⚡ In-Context (Short-Term)
The current conversation and task state held in the active prompt window.
📐 Limited by token window (~100K–200K tokens)
🔹 Current ticket details, last 5 messages, current file being edited
⏱ Reset at the end of each task / session
️
🗄️External (Long-Term)
Persisted knowledge stored outside the model in databases, vector stores, or files.
📐 Unlimited — only what you decide to store
🔹 Past bug patterns, team coding preferences, project history, codebase index
⏱ Queried via RAG (Retrieval-Augmented Generation) when relevant
⚙️Procedural (How-To)
Stored workflows, scripts, and patterns the agent can reuse without relearning.
📐 Any size — usually structured files or a knowledge base
🔹 Deployment runbooks, test patterns, on-call playbooks, PR review checklists
⏱ Called when agent needs to repeat a known process reliably
🏢 Organisational (Who/What)
Knowledge about the team, systems, people, tools, and structure of your
organisation.
📐 Usually small and curated
🔹 Service ownership map, on-call rotations, Jira project keys, team conventions
⏱ Referenced when tasks involve routing, escalation, or org-specific decisions
COMPONENT 5 — PERSONA (WHO the Agent Is) 10 / 30
A Persona defines the agent's identity — its role, expertise, communication style, and decision-making approach. It determines HOW
the agent behaves, not just what it does.
🎭 Anatomy of a Persona
Role Senior QA Engineer with 10 years E2E experience
Expertise Playwright, TypeScript, CI/CD pipelines, risk analysis
Tone Direct, precise, technical — no fluff
Goal Ship quality code fast with zero production defects
Decisions Prioritise test coverage over speed; escalate blockers
Avoids Never hardcode waits; never skip assertions on happy path
👥 Real SDLC Agent Personas
️
🗂️Business Analyst
Turns vague stakeholder feedback into precise
acceptance criteria
️
🏗️Solution Architect
Proposes system designs matching team tech
choices
💻 Senior Developer
Writes production-grade code following team
standards
🧪 QA Engineer
Generates and executes Playwright tests, writes bug
reports
🔐 Security Reviewer Scans for vulnerabilities before every merge
🚀 DevOps Engineer
Triggers pipelines, monitors rollouts, handles
rollbacks
💡 A good Persona is the difference between an agent that follows instructions and one that owns outcomes. Without a defined persona, the agent has no stable frame for
making judgment calls — and will drift.
COMPONENT 6 — CONSTRAINTS (What the Agent CAN'T Do) 11 / 30
Constraints are guardrails — hard limits that prevent the agent from taking dangerous, illegal, or irreversible actions. They must be
enforced at the system level, not just asked politely in a prompt.
️
🛡️
Layer 1
Input Guardrails
• Block prompt injection attacks • Validate input format and length
• Reject requests outside defined scope • Sanitise user-provided data before agent sees it
⚙️
Layer 2
Execution Guardrails
• Least-privilege tool access (agent can only use what it needs) • Require human approval before irreversible actions
• Rate limit tool calls to prevent runaway loops • Sandbox code execution away from production systems
✅
Layer 3
Output Guardrails
• Validate output schema before returning to user • Block PII, secrets, or sensitive data in responses
• Check output against business rules (e.g. no negative pricing) • Log all agent decisions for audit trail
"Constraints are not limitations on the agent — they are the source of its trustworthiness."
COMPONENT 7 — LEARNINGS (How the Agent Improves) 12 / 30
Learnings are the feedback loops that make an Orchestrator smarter over time. Without them, every run starts from zero — the
agent never gets better.
1
Agent Acts
Executes a task with current skills & context
2
Outcome Recorded
Success/fail + metrics stored in memory
3
Human Reviews
Team evaluates quality at checkpoints
4
Rules Updated
New constraints or preferences added
5
Context Enriched
Knowledge base grows with each run
6
Agent Re-runs
Next execution benefits from all prior learning
→ →
↓
←
←
↑
📚 What Gets Learned — Real QA Examples
💡 "Tests in checkout module are 3x more likely to fail on Fridays — schedule retries" 💡 "This team prefers getByRole over getByTestId — update locator rule"
💡 "Login API is slow in staging — add 10s timeout for that endpoint only" 💡 "Bug class: missing await before assertions — add pre-check to skill"
COMPONENT 8 — GOAL & PLANNING (What the Agent Works Toward) 13 / 30
The Goal is the north star. Planning is how the Orchestrator breaks it into achievable steps. A vague goal produces vague output —
agents execute ambiguity literally.
🎯 What Makes a Good Goal
Specific ✅ Write Playwright tests for the login page
Measurable ✅ Achieve 90% line coverage on /checkout
Bounded ✅ Only touch files in /tests/auth
Escalatable ✅ Flag blockers to human before proceeding
️
🗂️ Planning Patterns
Sequential Step A → B → C. Simple, auditable. Use for most tasks.
Parallel
A+B run at same time, merge results. Faster for independent
tasks.
Conditional If A passes, do B; else do C. For risk-based routing.
Recursive Agent spawns sub-agents to handle sub-problems.
🙋 Human-in-the-Loop: When to Escalate
🚨 High Risk
Production deployments, database migrations, security
changes
🚨 Ambiguous Intent
Goal is unclear — agent must ask before proceeding
🚨 Conflicting Info
Two sources of truth disagree — human resolves
🚨 Low Confidence
Agent score below threshold — flag for review
🚨 First-Time Task
Novel workflow with no prior precedent in memory
🚨 Audit Required
Compliance-sensitive action needing sign-off
️
⏸️ PAUSE · SELF-CHECK · BEFORE YOU CONTINUE 14 / 30
You’ve seen all 8 components. Rate yourself honestly before Part 2 — no one is checking.
COMPONENT ✅ Got it 🤔 Unsure ❌ Re-read
🎯 Goal — specific, measurable, bounded, escalatable
️
🛠️Skills — callable tools that let the agent act in the world
🧭 Context — the live information injected into each prompt
📏 Rules — non-negotiable instructions the agent must follow
🧠 Memory — short-term, long-term, procedural, and org knowledge
🎭 Persona — role, expertise, tone, and decision style
🔒 Constraints — guardrails enforced at system level, not just prompt
📚 Learnings — feedback loops that make the agent smarter over time
💡 Any ❌ Re-read? Go back to that component’s slide now — slides 6–13. Part 2 builds on all 8. It’s worth 2 minutes.
THE AGENTIC SDLC — HOW IT ALL FITS TOGETHER 15 / 30
In an Agentic SDLC, a central Orchestrator coordinates specialist agents across every phase. Humans own strategy and approvals — AI
owns execution.
🧠 AI ORCHESTRATOR
📋 Plan
Requirements Agent
Backlog Prioritiser
️
🏗️Design
Architecture Agent
Spec Writer
💻 Code
Code Generator
Code Reviewer
🧪 Test
QA Agent
Playwright Runner
🚀 Deploy
Pipeline Agent
Infra Agent
📊 Monitor
Log Analyser
Alert Manager
🔐 Security
SAST Scanner
Dep Checker
📝 Docs
Doc Writer
API Documenter
🔄 Review
PR Reviewer
Standards Enforcer
📣 Release
Release Note Writer
Changelog Agent
↙ ↓ ↓ ↓ ↓ ↘
🔗 Shared Layer (available to all agents): Context Engine · Memory Store · Rules Engine · Skill Registry · Audit Log
AGENTIC SDLC DEEP DIVE — PHASE 1: PLAN & REQUIREMENTS 16 / 30
Traditional planning takes days of meetings. Agentic planning takes hours — agents extract requirements, flag ambiguities, and create
structured backlogs automatically.
1
Ingest Sources
Agent reads: meeting recordings, Slack threads, task tickets, user feedback emails, requirement documents
2
Extract Requirements
AI reads all those sources and pulls out the actual needs — what the software must do (functional) and how well it must do it (non-functional)
3
Detect Ambiguities
Agent flags vague requirements ('make it fast' — how fast?) and generates clarifying questions for the human to answer
4
Create User Stories
Agent writes structured stories in plain English: 'As a [user] I want [goal] so that [benefit]' — the standard format teams use to describe features
5
Estimate & Prioritise
Agent uses past project data (from Memory) to estimate how long each story takes and suggests the order to work on them first
6
Human Review & Approve
🙋 Human checkpoint — the team reviews everything the AI produced, makes edits, and gives the green light before any building starts
AGENTIC SDLC DEEP DIVE — PHASES 3 & 4: CODE + TEST 17 / 30
Code and Test are the highest-ROI phases for agentic AI. Agents write, review, and test code continuously — compressing days into
minutes.
💻 Coding Agent
→ Reads user story
Understands what feature needs to be built, from
the Plan phase
→ Checks codebase
Looks at existing code (Memory) to avoid writing
the same thing twice
→ Applies team style
Writes code in the team's chosen language, naming
style, and patterns
→ Generates code
Produces the actual implementation with
comments explaining what it does
→ Self-checks
Runs automatic code quality checks — catches
obvious mistakes before humans see it
→ Creates PR
Opens a Pull Request — a proposal to add the new
code to the main codebase
→ Human reviews
🙋 Engineer reads the code, approves it, or asks for
changes
🧪 QA Agent (Playwright-powered)
→ Reads code changes Understands what's new since the last test run
→ Checks past failures
Retrieves previous bugs found in this area of the
app
→ Generates tests
Writes Playwright test scripts using the team's
locator rules
→ Runs tests
Executes via the Playwright CLI, captures a pass/fail
HTML report
→ Classifies failures
Decides: real bug in the code vs a flaky test vs an
environment problem
→ Logs bugs
Creates tickets in the bug tracker with screenshots
and trace links attached
→ Stores learnings
Saves the new failure patterns to Memory so future
runs are smarter
📊 Industry data: AI coding agents reduce test-writing time by 40–60% · Bug detection in CI improves by 30% · PR cycle time drops from 2 days to 4 hours
MIND MAP — THE COMPLETE AI ORCHESTRATOR PICTURE 18 / 30
🧠
AI
Orchestrator
🎯 GOAL
What to achieve
🛠️SKILLS
What it can do
🧭 CONTEXT
What it knows now
📏 RULES
Must follow
🧠 MEMORY
What it remembers
🎭 PERSONA
Who it is
🔒 CONSTRAINTS
What it cannot do
📚 LEARNINGS
How it improves
Each component feeds into the Orchestrator. The Orchestrator coordinates all Specialist Agents across every SDLC phase.
📋 Plan 🏗️Design 💻 Code 🧪 Test 🚀 Deploy 📊 Monitor 🔒 Security
4 components on each side feed into the central Orchestrator — which then directs every SDLC phase above
AGENTIC SDLC DEEP DIVE — PHASE 2: DESIGN 19 / 30
️
🏗️ DESIGN PHASE
Turning approved requirements into technical blueprints — before a single line of code is written.
📋 Spec Writer Agent
Reads approved user stories and generates technical specs: data
models, API contracts, and component diagrams.
Input: User stories from Plan phase
Output: Tech spec docs, API contracts
️
🏗️Architecture Agent
Proposes system design options that match the team’s existing tech
stack. Flags trade-offs for human decision.
Input: Tech specs + existing codebase context
Output: Design options with trade-off analysis
👍 Human Checkpoint: Architect approves chosen design before coding begins. No code starts without sign-off.
⚡ Value: Design reviews that took 3 days now take 3 hours. Estimates are directional; your results will vary by team size and tooling.
AGENTIC SDLC DEEP DIVE — PHASE 5: DEPLOY 20 / 30
🚀 DEPLOY PHASE
Getting code from repository to production — reliably, safely, and with a human in the loop for critical changes.
⚙️Pipeline Agent
Triggers CI/CD on merge. Monitors build status. Auto-rolls back if
error rate spikes above threshold.
Skills: CI trigger, build monitor, rollback
☁️Infra Agent
Provisions or scales cloud resources based on traffic patterns.
Applies config changes safely in staging first.
Skills: Cloud API, config management, scaling
⚠️Constraint Critical: Production deployments always require human sign-off. Non-negotiable constraint in the Rules layer.
⚡ Value: Zero-touch deploys for non-prod. Human-in-the-loop for prod every time. Estimates are directional; results vary by environment.
AGENTIC SDLC DEEP DIVE — PHASE 6: MONITOR 21 / 30
📊 MONITOR PHASE
Keeping production healthy 24/7 — detecting anomalies, routing alerts, and feeding patterns back into memory.
🔍 Log Analyser Agent
Continuously reads application logs, detects anomaly patterns, and
surfaces root cause before the on-call engineer even wakes up.
Skills: Log reader, pattern match, root-cause analysis
🔔 Alert Manager Agent
Filters noise from real incidents. Routes alerts with context to the
right team. Drafts incident summaries automatically.
Skills: Alert filter, Slack/email, incident writer
🧠 Feeds back to Learnings: Every incident pattern stored in Memory so future agents recognise and prevent it earlier.
⚡ Value: Mean time to detect drops from ~30 mins to under 2 mins in reported cases. Results are directional estimates.
BENEFITS — WHY AGENTIC SDLC WITH ORCHESTRATION WINS 22 / 30
Real data from organisations that have deployed AI Orchestrators across their SDLC in 2025–2026.
⚡ 40–60%
Faster Release Cycles
AI handles repetitive tasks in parallel. PR cycle time
drops from 2 days to ~4 hours.
💰 20–40%
Cost Reduction
McKinsey Global Institute (2023): AI-orchestrated orgs
see 20-40% operating cost reduction and 12-14pt
EBITDA gains.
🐛 30%
Fewer Production Defects
Continuous agentic testing catches bugs in CI that
humans miss in manual review.
🧪 3x
More Test Coverage
Agents generate test cases for every edge condition, not
just the happy path.
🧠 70%
Reduced Context Switching
Developers focus on architecture and decisions —
agents handle the repetitive execution.
📋 100%
Audit Trail
Every agent action, decision, and tool call is logged —
full traceability for compliance.
⚠️These figures are industry estimates from reported cases (2023–2026). Your results will vary based on team size, tooling, and implementation maturity.
REAL STORY — HOW A 12-PERSON TEAM CUT PR CYCLE TIME FROM 3 DAYS TO 6 HOURS 23 / 30
🏢 The Team: A 12-person SaaS product team (3 devs, 2 QA, 2 designers, 1 PM, 1 DevOps, 3 support). Composite based on real implementations; details anonymised. No
prior AI experience.
😡
THE PAIN
Every pull request took 3 days.
Day 1: Dev writes code, opens PR, waits for QA to
notice it.
Day 2: QA manually writes tests, finds 2 bugs, tells
dev.
Day 3: Dev fixes, re-reviews, merge. Ship.
Result: 4 features per sprint max. Team
exhausted from context-switching. QA felt like a
bottleneck, not a partner.
🧠
WHAT THEY BUILT
Week 1: Defined a QA Agent with these 8
components — Persona (senior QA), Skills (read
PR, write tests, run browser), Rules (use team’s
locator style), Memory (past bug patterns),
Constraints (never merge without human OK),
Goal (zero regressions).
Week 2: Connected it to GitHub. On every new
PR: agent reads diff, writes tests, runs them, posts
results as a PR comment. Human QA reviews the
summary, not each test.
Week 3: Added a Code Review Agent alongside it.
It checks style, flags security issues, suggests
better patterns — all before a human even opens
the PR.
🏆
THE OUTCOME
3 days
↓ down to
6 hours
PR cycle time
✓ 6 features per sprint (was 4)
✓ 40% fewer production bugs
✓ QA freed to focus on exploratory testing
Total setup time: 3 weeks. One person. No prior AI
experience.
💡 The lesson: They didn’t replace the QA team. They gave QA a superpower. The humans still made every final call.
HOW TO START — YOUR 5-STEP ROADMAP 24 / 30
You don't need to replace your entire SDLC tomorrow. Start small, prove value, then expand.
1 Week 1
Pick ONE High-Pain Phase → Identify where your team spends the most repetitive time
→ Good starters: test writing, PR descriptions, or requirements extraction
2 Week 2
Define the 8 Components for that Agent → Write the Persona (who is this agent?)
→ List 3-5 Skills it needs
3 Week 3
Build a Minimal Orchestrator Loop → Goal → Plan → Execute Skill → Check Output → Log
→ Add one Human-in-the-Loop checkpoint
4 Week 4
Measure, Learn, Improve → Track: time saved, defects caught, human approvals needed
→ Feed outcomes back into agent Memory
5 Month 2+
Expand to More Phases → Add the next highest-pain phase
→ Connect agents — output of Plan agent feeds Code agent
TOOLS & PLATFORMS — BUILD YOUR ORCHESTRATOR TODAY 25 / 30
You don't need to build from scratch. These tools provide the Orchestrator infrastructure — pick based on your team's skill level.
💻 Agentic Coding Assistants
Claude Code
CLI agent — best for multi-file coding & Playwright
GitHub Copilot Agent
PR-integrated — lives where your code already lives
Cursor
Editor-embedded — best DX for individual developers
OpenAI o3 / Codex CLI
API-based agent for agentic coding workflows (2025)
🔗 Orchestration Frameworks
LangChain
Most popular Python framework for building agent
chains
AutoGen (Microsoft)
Multi-agent conversation framework — agents talk to
agents
CrewAI
Role-based agents with built-in Persona support
LlamaIndex
Specialises in context/memory management (RAG)
🏢 Enterprise Platforms
Copilot Studio
Microsoft — low-code orchestration, Teams-integrated
WatsonX Orchestrate
IBM — enterprise workflows with governance
Augment Cosmos
Agentic OS — shared context engine for SDLC teams
Replit Agent
Low-code to full-code — idea to deployment
🔑 Key principle: Start with the tool your team already uses daily. Adoption beats capability.
🧭 Quick pick: Just starting out? → Cursor or Claude Code | Team on GitHub? → GitHub Copilot Agent | Multi-agent orchestration? → CrewAI or AutoGen | Enterprise +
governance? → Copilot Studio or WatsonX
GLOSSARY — TERMS USED IN THIS DECK REF
Keep this slide handy. These terms appear throughout the deck — come back here if anything is unclear.
RAG — Retrieval-Augmented Generation. A technique where the
agent searches an external knowledge base and injects relevant info
into its prompt before responding.
CI/CD — Continuous Integration / Continuous Deployment. The
automated pipeline that tests and ships code changes on every
commit.
SAST — Static Application Security Testing. Automated scanning of
source code for vulnerabilities before it runs.
PII — Personally Identifiable Information. Names, emails, phone
numbers, or any data that can identify an individual. Agents must
never expose this.
Vector Store — A database that stores information as numerical
vectors so the agent can find semantically similar content quickly
(used in RAG).
Token — A word-chunk that LLMs process. “Hello world” = 2 tokens.
Models have a token limit (context window) on how much they can
read at once.
Hallucination — When an LLM generates plausible-sounding but
factually wrong output. Rules, Context, and Constraints all help
reduce this.
Prompt Injection — A security attack where malicious instructions
are hidden in data the agent reads, trying to override its original
goal.
COMMON FAILURE MODES — AND HOW THE 8 COMPONENTS PREVENT THEM REF
Your first agent will fail at something. That’s normal. Knowing why helps you fix it fast and build more resilient systems next time.
🔥 Agent ignores your team’s coding standards → Missing: Rules + Persona. Add explicit code-style rules and a senior-dev persona to anchor its behaviour.
⚠️Agent repeats mistakes on every run → Missing: Memory + Learnings. Store failure outcomes and feed them into the next run’s context.
🌀 Agent generates irrelevant or hallucinated output → Missing: Context. Inject the specific task details and system state the agent needs to stay grounded.
🚨 Agent takes a dangerous irreversible action → Missing: Constraints. Add a hard rule: any production action requires human approval. Enforce at system level,
not just in the prompt.
🎯 Agent keeps optimising for the wrong outcome → Missing: Goal. Rewrite as: specific, measurable, bounded, and escalatable. Vague goals produce vague
output.
💡 Every failure mode maps to a missing or misconfigured component. The 8 components exist precisely to prevent these.
QUICK REFERENCE — COMPONENT CHEAT SHEET 26 / 30
Component
GOAL
SKILLS
CONTEXT
RULES
MEMORY
PERSONA
CONSTRAINTS
LEARNINGS
One-Line Definition
What the agent is working toward
What the agent can DO (tools & actions)
What the agent knows right now
What the agent MUST follow
What the agent remembers across time
WHO the agent is (role & tone)
What the agent CAN'T do (guardrails)
How the agent improves over time
If You Skip It…
Agent optimises for the wrong thing
Agent can only talk, never act
Agent hallucinates irrelevant outputs
Agent ignores org policies
Agent repeats same mistakes
Agent drifts on judgment calls
Agent can cause irreversible damage
Agent never gets smarter
The future of software
development is agentic.
You now understand what most engineers, PMs, and designers don’t yet.
That gap is your advantage. Use it this week.
📌 Pick ONE phase where your team loses the most time this week
🔧 Write the 8 components for ONE agent in that phase — just on paper first
💬 Share this deck with one teammate and teach them the component that surprised you most
"The best engineers of 2026 don't write every line of code.
They architect systems of agents that do."
✍️Mithilesh Singh
Created with Claude