Case Studies

Six Deployments. One Pattern.

The technology was deployed. The work wasn't redesigned. Here's what happens when you fix that.

Three different contexts. Same underlying problem. The technology was deployed. The work wasn't redesigned.

The Coding Agent Story

Mid-market fintech

140% More Output. Every Engineer on Higher-Value Work.

The Problem Nobody Named

The licenses were deployed. The training wasn't. More importantly, nobody defined which work the agents should own and which work stays human. Result: 40 engineers using AI inconsistently. Some love it. Some ignore it. Some use it wrong. No standard. No measurement. No ROI.

Task Classification

Boilerplate code generationAgent-owned
35% of dev time
Unit test writingAgent-owned
15% of dev time
Code review (first pass)Agent-owned
10% of dev time
Bug triage and initial diagnosisAgent-owned
10% of dev time
Architecture decisionsHuman-owned
8% of dev time
Complex debuggingHuman-assisted
7% of dev time
Code review (final judgment)Human-owned
5% of dev time
Stakeholder communicationHuman-owned
5% of dev time
Mentoring junior engineersHuman-owned
5% of dev time

70% of engineering time was going to tasks agents can own or significantly assist

Before

40 engineers, all doing everything: boilerplate, tests, reviews, and architecture.

After

Engineers + coding agents. Every engineer focused on architecture, complex debugging, and technical decisions.

New Roles

32Agent Supervisors

Monitor agent output quality, handle escalations, maintain prompt libraries, tune agent behavior

4Senior Engineers

Architecture, complex debugging, final code review, technical decisions

4Tech Leads

Stakeholder communication, roadmap, mentoring, cross-team coordination

Results

+140%
Shipping velocity

More than doubled feature output

-70%
Cost per feature

Agents handle the repetitive work

-35%
Bugs per release

Agent-generated code is more consistent

-60%
Onboard time

Agents handle boilerplate, humans focus on judgment

The Workflow

Before

Engineer gets ticket, writes boilerplate, writes tests, submits PR, waits for review, addresses comments, merges.

After

Engineer gets ticket, describes intent to agent, agent generates code + tests, engineer reviews agent output (2 min vs 2 hours), agent addresses review comments, engineer approves merge.

The human went from doing the work to supervising the work.

The Voice Agent Story

Regional insurance company

Customer Satisfaction from 72% to 89%. Every Human on Complex Work.

The Problem Nobody Named

Leadership evaluated five voice AI vendors. Ran three pilots. All stalled. Why? Because nobody mapped which calls agents should handle, which require humans, and what the handoff protocol looks like. Result: Pilots that handled 10% of calls with 60% accuracy. Not good enough to scale.

Task Classification

Policy status inquiryAgent-owned
22%
Billing questionAgent-owned
18%
Claims status checkAgent-owned
15%
Payment processingAgent-owned
12%
Coverage questionsAgent-assisted
10%
New policy quotesAgent-assisted
8%
Claims filingHuman-owned
7%
ComplaintsHuman-owned
5%
Complex disputesHuman-owned
3%

67% of call volume was routine. Agents could own it entirely

Before

Every rep handling every call type: billing, claims, complaints, disputes.

After

Humans handle the complex calls. Voice agents handle routine inquiries instantly. Every human focused on empathy, judgment, and problem-solving.

New Roles

15Escalation Specialists

Handle complaints, disputes, complex claims: the calls that require empathy, judgment, negotiation

10Agent Supervisors

Monitor voice agent performance, handle live escalations, tune scripts and flows

5Quality Analysts

Review call samples, identify training gaps, maintain knowledge base

5Trainers

Onboard new supervisors, update playbooks, run continuous improvement

Results

-40%
Handle time

Agents handle warm-up, humans get context

89%
Customer satisfaction

Up from 72%. Faster resolution, better handoffs

+28%
First-call resolution

Right calls routed to right people

-65%
Cost per resolution

Routine calls resolved by agents instantly

The Workflow

Before

Customer calls, waits on hold 4 min, explains problem, agent looks up info, reads from script, transfers, customer re-explains, finally resolved. 14 minutes.

After

Customer calls, voice agent answers instantly, resolves billing question in 90 seconds. OR: voice agent detects complaint, gathers context, warm transfers with summary, human resolves with full context. 5 minutes.

The human went from answering phones to solving problems.

The Personal Agent Story

Global professional services firm

10,000 Knowledge Workers, One Agent Each

The Problem Nobody Named

This isn't a deployment problem. The tools are deployed. It's an adoption problem, but deeper than that, it's a work design problem. 10,000 people are each inventing their own way to use AI. No standards. No best practices. No measurement. Some are getting 10x productivity. Most are getting nothing.

Task Classification

Email draftingHigh potential
90 min/day
Meeting prepHigh potential
45 min each, 3x/week
Research and synthesisHigh potential
4 hours/week
Slide deck creationMedium potential
3 hours/week
Data analysisMedium potential
2 hours/week
Status reportingHigh potential
1 hour/week
Document reviewHigh potential
2 hours each, 2x/week
Client communicationMedium potential
60 min/day
SchedulingHigh potential
30 min/day
Knowledge base searchHigh potential
45 min/day

6 hrs/week of productive time recovered per person, across 10,000 people = 60,000 hours/week

Before

10,000 knowledge workers, each inventing their own way to use AI.

After

Three tiers of adoption: 6,000 Basic Users, 3,000 Power Users, 1,000 Agent Builders.

New Roles

6,000Basic Users

Email, scheduling, simple research. 4-hour workshop + prompt library

3,000Power Users

Full workflow integration, custom prompts, multi-step tasks. 2-day bootcamp + ongoing coaching

1,000Agent Builders

Build team-specific agents, maintain knowledge bases, create templates. 2-week certification + community of practice

Results

6hrs/wk
Time recovered per person

60,000 hours/week across the firm

-45%
Email response time

Agent-drafted responses edited by humans

+35%
Meeting prep quality

Partner ratings on prepared briefs

-80%
Research turnaround

From 2 days to 4 hours

The Workflow

Before

Consultant arrives Monday. Spends 2 hours prepping for client meeting. Writes 15 emails from scratch. Searches for a similar project proposal (gives up after 30 minutes). Creates status deck manually. Goes home at 8pm.

After

Consultant arrives Monday. Agent already drafted meeting brief from CRM data and prior decks (reviews in 10 min). Agent drafted email responses overnight (approves/edits 12, rewrites 3). Agent found 3 similar proposals and summarized key approaches. Agent generated status deck from project tracker. Goes home at 6pm.

The human went from doing the work to directing the work.

The Manufacturing AI Workforce Story

Global IT Services (TCS)

28 Labs. 12 Weeks. From ML Basics to Multi-Agent Systems.

The Problem Nobody Named

The manufacturing practice had traditional ML skills, but clients were asking for GenAI, RAG pipelines, and agentic AI. No structured program existed to take engineers from baseline ML through production-ready agentic systems. Internal training was slide decks and theory. Engineers needed hands-on labs with real manufacturing data: defect detection images, maintenance logs, process sensor streams.

Task Classification

ML pipeline development (EDA, feature engineering, model training)Augment
Labs 1-6
NLP for maintenance logs and work ordersAugment
Lab 7
Computer vision for defect detection (CNN/YOLO)Augment
Lab 8
GenAI prompting for SOP Q&A and maintenanceAgent-owned
Labs 9-10
RAG pipeline: chunk, embed, store, retrieveAgent-owned
Labs 11-16
Guardrails and safety for manufacturing copilotsHuman-owned
Lab 13
Agentic workflows: tool calling, LangGraph, CrewAIAgent-owned
Labs 21-25
Enterprise copilot with knowledge + actionsAugment
Labs 26-28
Capstone: end-to-end manufacturing AI solutionHuman-owned
Days 45-48

28 labs covering the full stack from supervised ML to multi-agent manufacturing AI systems

Before

Manufacturing practice engineers with traditional ML skills. Training was PowerPoint. No hands-on experience with GenAI, RAG, or agentic patterns. Couldn't deliver what clients were asking for.

After

Engineers trained hands-on across 28 labs in Azure environments with real manufacturing data. Can build predictive maintenance RAG pipelines, defect detection systems, multi-agent troubleshooting workflows, and enterprise copilots.

New Roles

1AI Agent Builders

Build multi-agent manufacturing workflows using LangGraph, CrewAI, and Copilot Studio with knowledge sources and action flows

1RAG Engineers

Design and optimize RAG pipelines: chunking strategies, vector DBs (Milvus, Pinecone), re-ranking, metadata filters

1Manufacturing AI Specialists

Apply CV (CNN/YOLO) for defect detection, NLP for maintenance logs, and RL for scheduling optimization

Results

28
Labs completed

Hands-on labs with manufacturing data

12 wks
Training duration

ML to multi-agent systems

15+
Tech stack

Azure, LangChain, CrewAI, Copilot Studio, PyTorch, Milvus

9
Use cases

Predictive maintenance, defect detection, SOP Q&A, scheduling

The Workflow

Before

Engineer gets client requirement for a predictive maintenance system. Knows the theory but has never built a RAG pipeline, never used LangGraph, never deployed a manufacturing copilot. Proposes a 6-month research phase.

After

Engineer gets the same requirement. Has built exactly this in Lab 15 (RAG over SOPs), Lab 23 (troubleshooting agent with LangGraph), and Lab 28 (enterprise copilot). Proposes a 6-week delivery with a working prototype in week 2.

The engineer went from researching solutions to building them.

The SaaSOps Automation Story

Data-driven marketing (Epsilon)

3 Agentic Workflows. Two Tracks. Non-Engineers Building AI.

The Problem Nobody Named

The SaaSOps team was handling ticket triage manually, ingesting documents by hand, and answering knowledge base questions one at a time. They had the AI tools (AWS Bedrock, n8n) but nobody had built the workflows. The team wasn't engineers. They were operations people who needed to become builders without learning to code.

Task Classification

Support ticket retrieval from S3Agent-owned
Per ticket batch
Ticket status routing (AI analyzed, completed, unknown)Agent-owned
Per ticket
Email notifications for in-progress and completed ticketsAgent-owned
Per status change
Human-in-the-loop escalation for unknown ticketsHuman-owned
~15% of tickets
PDF ingestion and chunking for knowledge baseAgent-owned
Per document upload
Vector embedding generation (AWS Bedrock Titan)Agent-owned
Per chunk
Pinecone vector storage and indexingAgent-owned
Per document
Conversational Q&A with source citationsAugment
Per query
Prompt engineering for grounded, hallucination-free responsesHuman-owned
System design

3 workflows automated end-to-end: ticket triage, document ingestion, and conversational AI retrieval

Before

Operations team manually triaging tickets, uploading documents by hand, searching knowledge bases with keyword queries. No automation. No AI. Every question answered by a person.

After

Three n8n workflows running: tickets auto-triaged with status-based routing, documents auto-ingested into a RAG pipeline, and a conversational AI interface answering questions with source citations. Humans handle only the unknown tickets that need judgment.

New Roles

1Leads (Builders)

Build n8n workflows from scratch: configure AWS S3 integration, SMTP, Pinecone credentials, design routing logic, and deploy RAG pipelines

1Associates (Operators)

Import pre-built workflows, configure credentials, execute and monitor. Learn the concepts by using what Leads built

Results

3
Workflows built

Ticket triage, RAG ingest, RAG retrieve

8
Prompt techniques

From zero-shot to self-consistency

6
Tools integrated

n8n, AWS S3, Bedrock, Pinecone, Claude, SMTP

2
Builder tracks

Leads build, Associates operate

The Workflow

Before

Support ticket arrives. Someone reads it, decides the status, types an email, sends it. Document needs to be searchable. Someone reads it, writes a summary, files it in a folder. Question comes in. Someone searches the folder, reads the document, writes a response.

After

Support ticket arrives. n8n workflow pulls it from S3, reads the status, routes it: in-progress and completed get auto-emails, unknown tickets get flagged for human review. Document uploaded via form trigger, auto-chunked, embedded via Bedrock, stored in Pinecone. Question comes in, AI agent retrieves relevant chunks, generates a grounded answer with source citations.

The operations team went from answering questions to building the systems that answer them.

The Consultant-to-Builder Story

Big 4 Consulting (EY)

70 Hours. Zero Python to Production AI Agents.

The Problem Nobody Named

Consultants advise Fortune 500 clients on AI transformation, but many of them can't build it themselves. The gap between recommending AI and implementing AI was growing. The firm needed to take consultants from zero coding experience to building production-ready AI agents. Not in months. In weeks. Through a hackathon format that makes learning competitive and practical.

Task Classification

Python fundamentals and development environment setupAugment
3 hours
Programming logic, data structures, control flowAugment
4 hours
Modular programming and OOPAugment
5 hours
Error handling, file I/O, data cleaningAugment
5 hours
Data analysis and visualizationAugment
5 hours
API development and system integrationAgent-owned
6 hours
AI agent architecture and reasoning patternsAgent-owned
7 hours
Structured outputs, context handling, RAG integrationAgent-owned
7 hours
Multi-step task execution, memory, safety guardrailsHuman-owned
10 hours
Production deployment, evaluation, low-code prototypingAugment
6 hours
Applied projects and hackathon exercisesHuman-owned
8 hours

70 hours across two phases: Python foundations (36 hrs) and Agentic AI (34 hrs), hackathon format

Before

Consultants who advise clients on AI strategy but write zero code. Can present slides about AI transformation. Cannot build a prototype, evaluate agent quality, or design a multi-step workflow.

After

Consultants who code in Python, build AI agents, design RAG pipelines, implement safety guardrails, evaluate agent quality with golden datasets, and prototype with low-code tools (EYQ Agent Studio, Copilot, M365 Copilot). They don't just recommend AI. They build it.

New Roles

1AI-Capable Consultants

Build Python applications, design AI agent workflows, integrate APIs, and prototype client solutions hands-on

1Agent Builders

Design multi-step AI agents with memory, context handling, structured outputs, safety guardrails, and production evaluation

1Low-Code Prototypers

Rapid prototyping with EYQ Agent Studio, Microsoft Copilot, M365 Copilot, and Power Platform for client demos

Results

70 hrs
Total training

Python foundations + Agentic AI

21
Modules

10 Python + 11 Agentic AI

8+
Skill tracks

Python, Agentic AI, Copilot, Azure, Power Platform, PySpark, Figma, SAP

Hackathon
Format

Competitive, project-based, hands-on

Lab Infrastructure

Managed Virtual Desktop

Ready-to-use Windows Server VM (up to 16 GB RAM) with nested virtualization for Docker Desktop, preconfigured with Cursor IDE

Stack: Python 3.11+, Node.js LTS, Docker Desktop, Git, uv, pip
AI Tooling: FastAPI, FAISS, ChromaDB, CrewAI, LangGraph, LlamaIndex, Streamlit
Access: Up to 60 hours within a 12-day validity window
Managed Azure Subscription

Ready-to-use Azure subscription preconfigured with Azure OpenAI and related services

Details: Up to $30 in cloud spend, 12 days of access, automatic cleanup at end of session

The Workflow

Before

Client asks: 'Can you build us a prototype of this AI agent?' Consultant says: 'Let me bring in our engineering team and we'll scope a 3-month engagement.' Client goes to a competitor who can demo in a week.

After

Client asks the same question. Consultant opens their laptop, builds a working prototype with Python + LangChain in the meeting, evaluates it against test cases, and deploys a low-code version in Copilot Studio before the call ends. Client signs the SOW.

The consultant went from recommending AI to building it in real time.

How We Know: HITL-Bench

Not opinions. Not vendor demos. Not pilot vibes. Measured data.

We don't just compare agents to humans. We isolate exactly where improvement comes from. HITL-Bench (in partnership with Kalmantic) runs every agent through four modes on the same tasks to decompose where value comes from.

The Four-Mode Protocol

Solo

1 attempt, no feedback

Baseline
Self-Retry

3 attempts, test pass/fail only

Controls for extra compute
Tool-Review

3 rounds, static analysis tools

Controls for structured tool feedback
Reviewed

3 rounds, tools + LLM reviewer

Full feedback loop

Where Improvement Comes From

Extra compute alone~45% of total gain
Structured tool feedback~30% of total gain
Human-like review feedback~25% of total gain

Task Tiering

Tier 1Automate

40%

Agent handles independently

Tier 2Augment

36%

Agent iterates with reviewer

Tier 3Human-owned

24%

Must escalate; proceeding alone is critical failure

Linters + tests get you 60% of the review benefit for free. Human-like feedback adds the remaining 40%. You don't need humans reviewing everything. You need humans reviewing the right things.

The Bottleneck Isn't the AI

It's figuring out who does what now. That's what we solve.