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IntraneuralsAI Engineer

Career Launch Programme

A six-month course in applied AI engineering for people who want to build systems with language models, retrieval, agents and production practice, and be able to explain the decisions behind what they ship.

Applications close · Online and fully live · Small batches

What this programme is

Most introductions to generative AI stop at prompting, demos, or short projects that never leave a notebook. This programme is organised differently. You spend six months learning how contemporary AI applications are engineered: how models are called and constrained, how documents are retrieved and cited, how agents use tools, how systems are evaluated, deployed and kept reliable, and you apply each idea to one individual product that you own from the first weeks through final review.

The contact load is 180 supervised hours, with roughly another 110 hours of independent engineering on your own system. Sessions are online and fully live (not recorded self-paced content), and batches are kept small so review and remediation can stay specific rather than generic.

Duration
6 months
Contact hours
180
Independent build
~110 hours
Weekly load
about 11–13 hours

Explore the programme

Open a section for the detail. Curriculum modules, tooling, domains and assessment criteria sit behind toggles so you can read at the depth you need.

What you leave with

Assessment is organised around artefacts an external reviewer can inspect, not around attendance or a certificate alone. By the end of the programme you should have four things that travel with you into interviews and further work.

  • A live AI product: deployed at a public URL, with a primary user flow that can be exercised by someone outside the cohort.
  • A six-month repository history: commits that show how the system changed as modules were taught, rather than a single late upload.
  • A technical design document: architecture, alternatives considered, evaluation approach and known limitations, written against a published template.
  • A recorded technical walkthrough: about ten minutes explaining the system, the important decisions, and the results.

No two students share the same capstone. You select a problem early, with guidance, and develop it as each engineering topic is introduced.

Who it suits

The programme is intended for pre-final and final-year students, recent graduates, and working professionals who already write Python and want a structured path into AI application engineering. Titles vary by employer (junior AI engineer, GenAI developer, RAG engineer, AI automation developer, and related software roles that touch language-model systems), so the curriculum focuses on the underlying capabilities rather than one job description.

Before joining you should be comfortable with basic Python (loops, functions, files, simple object orientation), Git and GitHub, API fundamentals, and the general shape of a web application. Applicants who are not yet there can prepare through the Python for AI bridge.

Students and recent graduates

A good fit if you want to learn by building and debugging your own work, can sustain effort across six months, and are less interested in theory-only classrooms or predefined dummy projects. It is a poor fit if you mainly want a certificate, expect every solution to be handed down step by step, or cannot commit consistently to labs and independent build time.

Working professionals

If you already work as a developer, tester, support engineer or data engineer and use Python, the programme is structured for a career transition into AI engineering, not only for a first role after college. Live online sessions are scheduled so working professionals can attend. You complete the same individual capstone, code review and portfolio standards as every other participant; the work you present has to be yours.

Python for AI bridge

A short preparatory path for applicants who need to reach the Python level required before the main programme. Duration and schedule depend on your starting point, so these are set individually during the admission conversation rather than fixed for everyone.

Hours and tooling

We publish taught contact hours separately from independent build time. Blending them into one figure hides how much of the programme is actually supervised.

Instructor-led sessions55 hrs
Hands-on labs and mini-builds111 hrs
Capstone engineering and review6 hrs
Interview and portfolio preparation8 hrs
Total contact hours180 hrs
Expected independent build time~110 hrs
Build with: deep, repeated use

Language and model SDKs

  • Python
  • OpenAI SDK
  • Anthropic SDK
  • Gemini API

Frameworks

  • LangChain
  • LangGraph
  • CrewAI
  • LlamaIndex
  • Pydantic AI
  • Haystack

Vector databases

  • ChromaDB
  • FAISS
  • Pinecone
  • Qdrant
  • Weaviate

Protocol and delivery

  • MCP Python SDK
  • MCP Inspector
  • MCP server framework
  • FastAPI
  • Streamlit
  • Gradio
  • Docker
  • GitHub Actions
  • PostgreSQL
Work with: labs and selected project use

Model providers

  • Claude
  • GPT
  • Gemini
  • Grok
  • Llama
  • Mistral
  • Qwen
  • Ollama
  • Hugging Face

Cloud and hosting

  • Render
  • Railway
  • Azure AI
  • AWS
  • AWS Bedrock
  • Google Vertex AI

Data and operations

  • MongoDB
  • LLM tracing tools
  • LLM evaluation tools
Know and compare · software foundation

Frameworks and platforms demonstrated for orientation: AutoGen, OpenAI Agents SDK, Google ADK, and relevant frontier or open-model releases during the batch.

Software foundations taught across the curriculum rather than hidden behind frameworks: Git, GitHub, APIs, HTTP, JSON, Poetry, UV, pip, typing, object-oriented Python, async programming, debugging, Docker, CI/CD, unit and integration testing, and authentication concepts.

Where a technology changes materially during a batch, the teaching team may update the tool while preserving the engineering concept being taught.

Curriculum

Fifteen modules across three phases, for 180 contact hours. Labs and mini-builds make each topic concrete as it is taught. One individual capstone runs through the full six months and is what you are assessed on; there is no separate layer of busywork projects.

Weekly live session days and timings are confirmed for each cohort during the admission conversation and shared before you enrol. See frequently asked questions.

Curriculum at a glance

  1. Python for AI engineering12 hrs
  2. Modern AI landscape10 hrs
  3. Prompt engineering10 hrs
  4. LLM engineering18 hrs
  5. Embeddings and vector databases10 hrs
  6. Retrieval Augmented Generation20 hrs
  7. AI Agents20 hrs
  8. Multi-agent systems8 hrs
  9. Model Context Protocol12 hrs
  10. Deployment and software delivery12 hrs
  11. Evaluation and testing12 hrs
  12. Observability, reliability and operations10 hrs
  13. AI security, copyright and responsible AI12 hrs
  14. Capstone engineering6 hrs
  15. Interview and portfolio8 hrs

Full description, labs and what each module builds toward are below. Open a phase to read it.

Months 1–2 · Foundations 60 hours

Establish the engineering foundation for modern AI systems and select the capstone problem.

Python for AI engineering 12 hrs Builds toward: REST API client

Object-oriented programming, decorators, context managers, typing, async programming, virtual environments, Poetry, UV, pip, packaging, APIs, JSON handling, file handling, error handling and debugging. Assumes basic Python and develops the level needed for AI application work.

Labs: REST API client · AI utility toolkit

Modern AI landscape 10 hrs Builds toward: model benchmark dashboard

How contemporary AI systems are organised: foundation models, transformers, tokenization, embeddings, attention, context limits, model behaviour and failure modes, latency, and selecting models against application requirements rather than brand familiarity.

Labs: compare models on quality, speed and use case · model benchmark dashboard

Prompt engineering 10 hrs Builds toward: prompt library

Prompt design, role and few-shot patterns, chain of thought, ReAct, chaining and templates, versioning, systematic evaluation, optimisation and guardrails, treated as engineering practice, not as improvisation.

Labs: prompt optimisation for a business use case · prompt library

LLM engineering 18 hrs Builds toward: multi-model AI assistant

OpenAI, Anthropic and Gemini SDKs; local models via Ollama and Hugging Face; streaming; function and tool calling; structured output; guardrails; token behaviour; rate limits; and model selection under real constraints.

Labs: AI chat application · multi-model AI assistant

Embeddings and vector databases 10 hrs Builds toward: semantic search engine

Embeddings, similarity search, indexing concepts, metadata and hybrid search, with practical work across ChromaDB, FAISS, Pinecone, Qdrant and Weaviate.

Labs: semantic search engine · AI knowledge search

Months 3–4 · AI Systems 72 hours

How applications retrieve information, use tools, maintain state and connect to external systems.

Retrieval Augmented Generation 20 hrs Builds toward: company knowledge assistant

RAG architecture, ingestion and parsing, chunking, embeddings pipelines, retrieval and reranking, hybrid search, context construction, hallucination reduction, citation, evaluation and optimisation. Built with LangChain, LlamaIndex and Haystack.

Labs: PDF chatbot · RAG pipeline · company knowledge assistant

AI Agents 20 hrs Builds toward: research agent

Agent architecture, planning, reflection, memory and state, tool use, multi-step workflows, human-in-the-loop patterns, evaluation and failure handling. Built with LangGraph, CrewAI and Pydantic AI; AutoGen, the OpenAI Agents SDK and Google ADK are demonstrated for comparison.

Labs: travel agent · research agent · coding agent · AI HR assistant

Multi-agent systems 8 hrs Builds toward: multi-agent research system

Specialised agents, communication, delegation and orchestration, including when a single-agent or conventional software design is the better choice.

Labs: multi-agent research system · AI business consultant

Model Context Protocol 12 hrs Builds toward: enterprise MCP server

MCP architecture: servers, clients, hosts, resources, prompts, tools, transport, authentication and security, with local and remote patterns for files, databases and workflow integration.

Labs: MCP server and client · file and database access · email and calendar workflows · enterprise MCP server

Deployment and software delivery 12 hrs Builds toward: deployed AI SaaS application

FastAPI, application structure, environment configuration, Streamlit and Gradio, Docker, GitHub Actions, CI/CD, cloud deployment (Render, Railway, Azure AI, AWS), and basic authentication patterns. Every capstone must be deployed.

Labs: Dockerised AI API · deploy an AI SaaS application

Months 5–6 · Production Engineering 48 hours

Bring the working system closer to the standard expected of real software, and prepare to present it.

Evaluation and testing 12 hrs Builds toward: evaluation harness

Evaluation datasets, qualitative and quantitative methods, regression testing for retrieval and prompts, measuring change across versions, unit and integration testing.

Labs: evaluation harness

Observability, reliability and operations 10 hrs Builds toward: monitoring and tracing dashboard

Tracing, logging, monitoring, latency, failure modes, model usage and token economics, and debugging production behaviour in LLM applications.

Labs: monitoring and tracing exercise

Capstone engineering 6 hrs Builds toward: reviewed capstone and design document

Structured code and architecture review, evaluation, reliability, testing, security and deployment review, hardening and documentation against the technical design document.

Interview and portfolio 8 hrs Builds toward: portfolio presentation

Resume built from actual technical work, repository presentation, system design for LLM applications, coding and architecture interview practice (RAG, agents, MCP), debugging interviews, mock technical interviews and capstone presentation.

Assessment and published standard

Progress is checked at intervals across the six months rather than deferred to a single end-of-course exam. This is a founding batch, so what we can show externally today is the assessment standard itself (published before enrolment) rather than a gallery of past graduate work.

Checkpoints
  1. Month 1: Foundations check. Python, APIs, data handling and core software skills.
  2. Month 2: Independent build. A small working AI application completed with limited assistance.
  3. Month 4: Engineering assessment. Build a small system from an empty project and debug unfamiliar code. Students who need it enter structured remediation before continuing. Part of this assessment is completed without AI assistance, so underlying engineering skill is visible to both student and instructor.
  4. Month 6: Capstone review. The final application is judged on whether it works, on architecture, code quality, evaluation, reliability, deployment, documentation and technical explanation.
Capstone domains

You choose a domain you can understand deeply and define a specific problem with the teaching team. Ideas may come from your own interests, internship exposure, a family business, a local industry need, or an original proposal. The examples below indicate the expected level of system design; you are not limited to them.

Healthcare: medical knowledge assistant

Works from approved reference material, retrieves and cites evidence, identifies unsupported questions, records feedback and measures retrieval quality. Not designed to diagnose patients independently.

Education: learning assistant

Records performance, identifies weak concepts, retrieves relevant material, adapts subsequent questions and gives teachers evidence of progress.

Human resources: recruitment and resume screening

Extracts candidate evidence, compares it to defined requirements, flags missing information and produces explainable recommendations for human review. Discriminatory automated hiring logic is outside the programme.

Legal: contract analyser

Identifies obligations, dates, unusual clauses, defined terms and risks, linking each extracted point to its source text.

Finance: financial research assistant

Reads statements, filings and approved sources, extracts relevant information, identifies changes and provides evidence-backed analysis with appropriate controls. Not marketed as autonomous financial advice.

Retail and sales: shopping assistant or sales agent

Connected to structured product data, respects constraints, compares options, explains recommendations, handles inventory change and supports lead workflows.

Manufacturing: maintenance assistant

Combines manuals, maintenance history and fault information to surface relevant evidence, guide troubleshooting and evaluate retrieval accuracy.

Digital marketing: campaign generator

Prepares assets, records variations, supports controlled testing, analyses campaign data and produces traceable reports for human approval.

Customer support: helpdesk assistant

Retrieves approved answers, uses authorised tools, escalates when it cannot resolve an issue safely, and records unresolved cases.

Enterprise knowledge: knowledge management and multi-agent automation

Retrieves from distributed organisational documents, respects access rules, cites sources, measures answer quality and coordinates specialised agents across workflows.

Career support

Whether you are seeking a first AI engineering role or moving into the field from another technical job, preparation is integrated into the later part of the programme rather than treated as an afterthought.

Inside the curriculum, the interview and portfolio module (eight hours) covers a resume built from real technical work, repository presentation, system design for LLM applications, coding and architecture interview practice, debugging interviews, mock technical interviews and capstone presentation.

Beyond classroom work, students interact with practising engineers, receive introductions where relevant openings exist, and take part in an employer-facing demo day. Placement support is provided; employment depends on performance, hiring requirements and available opportunities, and cannot be guaranteed. The same preparation applies to internal moves and lateral transitions for working professionals.

For parents, colleges and placement teams

When comparing programmes, the useful question is what a student can show an employer. Graduates of this programme are expected to present individual repositories, live applications, capstone architecture, technical design documents, assessment checkpoints, project demonstrations and mock-interview readiness, all of which can be opened or observed by someone outside Intraneurals.

Discuss a college cohort

Who designs and teaches it
Siddharth T. Janakiraman

Siddharth T. Janakiraman

Co-founder, Intraneurals

Works across intellectual property, technology commercialisation and regulatory practice, advising AI startups and working on AI patents in India and North America, with attention to how systems are built, claimed and protected.

Selvaganesh J

Selvaganesh J

Co-founder and Chief Executive, Intraneurals

Software delivery background including TCS and Capgemini, with experience across large engineering teams. Has trained engineers for several years and now works across applied AI engineering and teaching design.

Together they design the curriculum, the products the teaching draws on, and the methods the programme uses. Core modules are delivered by faculty and practitioners who currently work with AI and software systems. Industry mentors contribute through selected sessions, project reviews, capstone feedback and mock interviews.

Frequently asked questions
Is this self-paced, or are sessions live?

Fully live and online (not recorded self-paced content). Weekly live session days and timings are confirmed for each cohort during the admission conversation, and live sessions are scheduled with working-professional students in mind.

What happens if I miss a live session?

The missed-session policy is confirmed at onboarding along with the session schedule, so it is specific to the cohort you join rather than generic. Ask about it directly in the admission conversation before you confirm your seat.

What if I don't clear a checkpoint?

The Month 4 engineering assessment is the one built for this: students who need it enter structured remediation before continuing, rather than being dropped or carried forward silently. See assessment and published standard for all four checkpoints.

Do I need to have already decided my capstone problem?

No. You select a capstone domain early, with guidance from the teaching team, and develop it as each engineering topic is introduced. See capstone domains for the range of problems past this level of system design.

Is placement guaranteed?

No programme can honestly guarantee employment. Placement support (introductions, an employer-facing demo day, interview preparation) is provided, and outcomes depend on your performance, hiring requirements and available opportunities. See career support.

What if this batch is full or applications have closed?

Join the waitlist via WhatsApp or and you will be contacted for the next cohort.

Admission

Batches are kept small so project supervision stays specific. Admission is straightforward: write to us, talk through fit and timing, and confirm your seat.

  1. Enquire. Write through the website or WhatsApp.
  2. Conversation. A short discussion of your background, goals, available time and possible capstone interests.
  3. Confirmation. Confirm your seat and receive onboarding instructions for the live online cohort.

Next batch . Applications close .

If applications are closed or the cohort is full, join the waitlist via WhatsApp or .

Talk to us

If you want to understand whether this cohort fits your background and schedule, write to admissions. We would rather answer precise questions than ask you to infer everything from a brochure.

Intraneurals Infotech Pvt Ltd Online · fully live sessions
· +91 98409 41910
intraneurals.com
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