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LIVE ONLINE • INSTRUCTOR-LED

MLOps Certification Course Online: Build, Scale and Operate Reliable ML Systems

Learn to take a trained model into a service your team can release, monitor and maintain.

Connected project-based learning — Build five connected projects and one AWS SageMaker capstone across the ML delivery lifecycle — not isolated tool demos.
Multi-CPU and multi-GPU training — Scale training across workers using Ray Train and compare experiments in MLflow.
Live architecture and code reviews — Mentors review your work against engineering criteria and production standards.

Programme at a glance

Duration & format
5 months, live online, instructor-led. Weekday and weekend batches.
Eligibility
Open to beginners and professionals. No prior programming or ML experience required — Python, Git, Docker and Kubernetes foundations are taught from scratch in the programme.
Certificate
MLOps Course Completion Certificate after all assignments and the capstone project.
Portfolio Proof

What Will I Build in This MLOps Course?

Five connected production builds and one AWS SageMaker capstone cover the MLOps lifecycle from event-driven data ingestion and distributed training to governed model release, drift detection, and managed cloud deployment. Each build produces verifiable portfolio evidence and connects to the next.

Event-Driven Data Orchestration and Validation

ML pipelines break when upstream data changes. Without orchestration, validation, and quarantine paths, bad data silently corrupts training and serving.

What is built

An orchestrated, validated ingestion pipeline that separates clean data from rejected records.

Key Deliverables

Orchestrated pipeline definition, validation suite, quarantine logic, and a data-quality runbook.

Portfolio Evidence

Portfolio Output: Orchestration pipeline with validation and quarantine runbook

Workflow:Redpanda/KafkaDagsterPanderaValid / Quarantine
View Engineering Deep-Dive & Review Criteria
Engineering Decisions

Choosing partitioning strategy, setting validation thresholds, and designing the quarantine recovery path.

Failure & Recovery Scenarios

Schema drift from upstream source causing validation failures, or Dagster job failure requiring retry logic.

Mentor Review Checklist

Pipeline correctness, validation coverage, orchestration reliability, and quarantine explanation.

Tools & Role
Redpanda— Streaming ingestion compatible with Kafka APIs
Dagster— Pipeline orchestration with retries and observability
Pandera— Schema validation and data-quality checks
Validated data feeds into the versioning stage for reproducible training.

Reproducible Data and Artifact Versioning

Training results cannot be reproduced when data, code, and environment are not versioned together. Without lineage, teams cannot trace which inputs produced which model.

What is built

A versioned data and code repository with reproducible training runs and visible lineage.

Key Deliverables

Versioned repository, DVC remote configuration, reproduction report, and lineage documentation.

Portfolio Evidence

Portfolio Output: Reproducible repository with versioned data and lineage documentation

Workflow:GitDVCS3 RemoteDagsHubReproduce
View Engineering Deep-Dive & Review Criteria
Engineering Decisions

Choosing DVC remote storage strategy, managing dataset versions, and linking code commits to data versions.

Failure & Recovery Scenarios

Missing dataset version, corrupted remote storage, or inability to reproduce a prior training run.

Mentor Review Checklist

Reproducibility, repository structure, version management, and lineage explanation.

Tools & Role
Git— Code versioning and collaboration
DVC— Dataset versioning and reproducibility
Amazon S3— Remote storage for versioned data
DagsHub— Visible lineage and experiment tracking
Versioned data feeds into the distributed training stage for scalable model development.

Distributed CPU/GPU Training and Experiment Tracking

Training on a single machine is slow and does not reflect production scale. Without distributed training and experiment tracking, teams cannot compare runs or select the best configuration.

What is built

A distributed training job with checkpointing, retries, and tracked experiments across workers.

Key Deliverables

Distributed training script, checkpoint strategy, MLflow experiment comparison, and a scaling note.

Portfolio Evidence

Portfolio Output: Distributed training job with experiment comparison and scaling documentation

Workflow:Ray TrainWorkersCheckpointsMLflowCompare
View Engineering Deep-Dive & Review Criteria
Engineering Decisions

Choosing worker count, batch size distribution, checkpoint frequency, and resource allocation.

Failure & Recovery Scenarios

Worker failure mid-training, GPU memory exhaustion, or checkpoint corruption requiring restart.

Mentor Review Checklist

Training correctness, distribution strategy, checkpoint reliability, and experiment comparison logic.

Tools & Role
Ray Train— Distributed training across multiple CPU and GPU workers
MLflow— Experiment tracking and run comparison
Tracked experiments produce candidate models for evaluation, registry, and release.

Governed Model Registry, Release and Serving

Models are promoted without documented evaluation criteria. Without registry gates, CI/CD, and serving tests, deployments are risky and difficult to reverse.

What is built

An evaluation, release, and serving pipeline with documented promotion criteria and automated gates.

Key Deliverables

Evaluation report, registered model, Docker image, CI/CD workflow, and a release/rollback note.

Portfolio Evidence

Portfolio Output: Model release pipeline with evaluation gates and rollback documentation

Workflow:EvaluateMLflow RegistryFastAPIDockerCI/CD
View Engineering Deep-Dive & Review Criteria
Engineering Decisions

Defining evaluation thresholds, choosing serving framework, and setting CI/CD gates and rollback strategy.

Failure & Recovery Scenarios

A model failing evaluation gates, a CI/CD pipeline blocking a bad release, or an unhealthy rollout requiring rollback.

Mentor Review Checklist

Evaluation logic, promotion criteria, CI/CD correctness, serving health checks, and rollback explanation.

Tools & Role
MLflow Registry— Model versioning and promotion gates
FastAPI— Inference API and health checks
Docker— Container packaging for reproducible runtime
CI/CD— Automated build, test, and deployment gates
Released models are monitored in production for drift and performance degradation.

Drift Detection and Controlled Retraining

Production models degrade silently. Without drift detection, alerting, and a controlled retraining pipeline, teams cannot respond to model performance decline before business impact occurs.

What is built

A drift detection system with alerting and a controlled retraining pipeline that validates challengers before promotion.

Key Deliverables

Drift report, alert rules, retraining pipeline, validation gate, and a response runbook.

Portfolio Evidence

Portfolio Output: Drift detection system with retraining pipeline and response runbook

Workflow:SignalsDrift CheckRetrainValidatePromote / Reject
View Engineering Deep-Dive & Review Criteria
Engineering Decisions

Setting drift thresholds, choosing retraining trigger conditions, and deciding whether to promote, reject, or roll back.

Failure & Recovery Scenarios

Drift alert firing on noise, a challenger model failing validation, or a rollback decision after failed promotion.

Mentor Review Checklist

Drift analysis accuracy, threshold rationale, retraining logic, and response decision documentation.

Tools & Role
Evidently— Data drift detection and report generation
Dagster— Retraining trigger and pipeline orchestration
Ray Train— Challenger model training
MLflow— Challenger validation and promotion tracking
Self-managed patterns translate into managed AWS SageMaker components in the capstone.

AWS SageMaker Deployment Capstone

Self-managed MLOps workflows are complex to operate at scale. Managed cloud services simplify deployment but require understanding of what is actually available and how it maps to your existing pipeline.

What is built

A managed-cloud version of one approved workflow using SageMaker Training Jobs and Serverless Inference, with IAM, logging, and cleanup.

Key Deliverables

SageMaker implementation with Training Jobs and Serverless Inference, IAM configuration, cost analysis, and a comparison note.

Portfolio Evidence

Portfolio Output: SageMaker capstone with Training Jobs, Serverless Inference, and cost analysis

Workflow:Self-managedSageMaker TrainingServerless InferenceComparison
View Engineering Deep-Dive & Review Criteria
Engineering Decisions

Choosing which SageMaker components to use, mapping self-managed steps to managed services, and understanding cost implications.

Failure & Recovery Scenarios

SageMaker resource limits, unexpected costs, or a managed component not matching the self-managed pipeline behaviour.

Mentor Review Checklist

Component mapping correctness, IAM and logging, cost awareness, and comparison between self-managed and managed approaches.

Tools & Role
Amazon S3— Data storage for SageMaker training input
SageMaker Training Jobs— Managed training execution
SageMaker Serverless Inference— Managed model deployment endpoint
IAM— Access control and permissions configuration
The capstone demonstrates the ability to translate self-managed MLOps patterns into managed cloud infrastructure.
Curriculum

MLOps Course Syllabus: Five Phases, 17 Modules

Five phases and 17 modules, with five connected production builds and one AWS SageMaker capstone — from data foundations and versioning to distributed training, governed model release, and drift response. Explore the phase and module details below.

1
MLOps Foundations

Understand MLOps lifecycle and production thinking

2
Python Essentials for MLOps

Automate and collaborate with clean Python

3
Machine Learning Foundations

Build ML foundations for production training

4
Git Essentials

Use Git for reproducible collaboration

Extend lifecycle decisions into system architecture

Bring ML lifecycle experience into designs that also combine model APIs, retrieval, agents and application services. Compare the requirements, failure boundaries and costs of the complete system.

Review the AI System Design syllabus →
Audience Fit

Am I Eligible for This MLOps Course?

Production Gap

ML-specific deployment patterns, model lifecycle, drift detection

Existing Strength

CI/CD, infrastructure, monitoring, release management

Programme Outcome

Own ML deploys, reliability, and rollbacks end-to-end

Prerequisites

No prior programming or MLOps experience is required to join — the programme starts with foundations.

Python, Git, Docker and Kubernetes are taught within the programme.

Previous ML, DevOps or production-engineering employment is not required.

Who Should Choose a Different Starting Point

  • If you want a data-science theory course rather than production ML engineering, an ML foundations course is a reasonable alternative — this programme teaches Python, Git, Docker and Kubernetes foundations from scratch, so no separate preparation course is required.
  • If you want only LLM, RAG, or agent production operations, explore the LLMOps course instead.
  • If you need a formal degree or regulated credential, this is a professional certification, not an academic credential.
  • If you expect guaranteed employment, career support helps you prepare but does not guarantee job placement.

Not ready to decide? The free MLOps roadmap walks the same lifecycle with build tasks and acceptance checks — useful preparation, no enrolment needed.

Learning Operating Model

How Is This MLOps Certification Course Delivered?

Not a video library. Not a bootcamp. A structured production engineering programme.

Learn live. Build systems. Receive review. Demonstrate production capability.

01

Learn in live sessions

Live instructor-led sessions introduce the concepts, workflow and implementation approach for each stage of the lifecycle.

02

Implement between sessions

Guided assignments with real tooling — DVC, MLflow, Docker, Kubernetes — where you build the connected production workflows yourself.

03

Submit for review

Submissions include code, configuration, evaluation results and operational notes that make your decisions reviewable.

04

Mentor assessment

Mentors assess whether a training run can be reproduced, whether validation coverage is adequate, how checkpoint recovery works, why a release should proceed and how a rollback would be executed.

05

Address feedback

You resolve review comments, re-run the affected work and explain your engineering decisions — the same discussion you will face in project presentations and interviews.

Production System

What Is the MLOps Lifecycle? How This Course Covers It

The MLOps lifecycle is a continuous engineering loop that applies operational practices to machine learning. It ensures that data ingestion, model training, release management, serving, and monitoring are repeatable, testable, and maintainable. This course teaches you to build this loop using industry-standard tools like MLflow, DVC, and Kubernetes.

1

Data Quality and Versioning

Validate, version, and document data inputs

PanderaGreat ExpectationsDVC
2

Training and Experiment Tracking

Track parameters, code, metrics, and artifacts

MLflow TrackingPythonOptuna
3

Model Registry and Promotion

Version, promote, and manage model lifecycle

MLflow Model RegistryGitDagsHub
4

Release and Deployment

CI/CD gates, packaging, deployment, and rollback

DockerKubernetesHelm
5

Model Serving

Endpoint, health checks, and serving decisions

FastAPITorchServeTriton
6

Monitoring, Drift and Response

Metrics, drift checks, alerts, and response

PrometheusGrafanaEvidently

Feedback loop: Monitoring signals flow back to investigation, rollback, or retraining — the lifecycle is not purely linear. The course distinguishes between infrastructure monitoring (service health), data drift (input distribution change), model-performance degradation (prediction quality), and training-serving skew (offline/online mismatch).

StageProduction QuestionPracticeLearner Evidence
1. Data Quality and VersioningCan inputs be trusted and traced?Validate, version, and document data inputsValidation result and version reference
2. Training and Experiment TrackingCan runs be compared and reproduced?Track parameters, code, metrics, and artifactsExperiment record with parameters and metrics
3. Model Registry and PromotionWhich model is approved, why, and how can it be reversed?Version, promote, and manage model lifecycleRegistry history and promotion note
4. Release and DeploymentCan changes pass tests and move safely?CI/CD gates, packaging, deployment, and rollbackWorkflow and release record
5. Model ServingCan inference meet interface and operating requirements?Endpoint, health checks, and serving decisionsService contract and test result
6. Monitoring, Drift and ResponseDo system and model signals show a problem?Metrics, drift checks, alerts, and responseDashboard, drift report, and incident note
Certificate

MLOps Certificate and Completion Requirements

The certificate is issued by School of Core AI after you complete the required assignments across the 17 modules and the AWS SageMaker capstone project.

Assignment submissions include implementation work and supporting evidence — code, configuration, evaluation results and operational notes. Mentors review this evidence against the project criteria covered in the teaching section above: reproducibility, validation coverage, checkpoint recovery, release gates and rollback reasoning.

There is no separate exam. Completing the reviewed work is the completion requirement, and the same submissions become the portfolio you present in interviews.

Sample SCAI certificate

School of Core AI
Certificate of Completion
MLOps Certification Course

This certifies that

Learner Name

has successfully completed the MLOps Certification Course including all assignment-based skill alignment requirements and capstone project.

ML Pipeline DesignDocker & KubernetesCI/CD for MLModel ServingMonitoring & Drift DetectionCloud ML Platforms
Certification ID
SCAI-MLOPS
Date
DD / MM / YY
Trainers

Who Teaches and Reviews in This Programme

The profiles below come from the SCAI practitioner team. Mentors lead the live sessions and review submitted work against the programme's engineering criteria.

Trainer profiles are available on the School of Core AI homepage.

Learners in the SCAI community

Working professionals who trained across SCAI programmes. Stories are attributed to their actual course; the community quote below is from an MLOps track learner.

Suel Abbasi

Suel Abbasi

Senior Data Scientist

I joined mainly to go deep into transformers and their variants. The specialization helped me understand LLM systems from the inside out — not just how to use them, but how to reason about and architect them.

GenAI Specialization
Prithvi

Prithvi

Marketer

I come from a marketing background and wanted to build AI products around growth. This course gave me the technical grounding to actually turn those ideas into working products.

GenAI Specialization
Ajit

Ajit

Lead Analytics

I was leading analytics teams and wanted to go deeper into NLP and neural networks. The specialization gave me the depth I was missing — I can now build and deploy AI solutions with real confidence.

GenAI Specialization
Praveen

Praveen

Senior Software Developer

I wanted to learn AI development and agentic AI — how to build and deploy intelligent applications end-to-end. The track gave me hands-on exposure to the full pipeline, from idea to production.

AI Developer
Deepak

Deepak

Senior Cybersecurity

I work in cybersecurity and wanted to upskill with agentic AI to build solutions in my own domain. The course helped me integrate AI into real security workflows — it was directly applicable to what I do.

Agentic AI
Vidula

Vidula

Senior Manager

I joined to learn the AIOps side of things — how ML systems actually run in production. The course gave me a solid grasp of operations, monitoring, and managing AI deployments at scale.

MLOps Specialization
Capstone ProjectsPeer ReviewsCareer SessionsPractice CommunitiesMock Interviews
Batch Details & Pricing

MLOps Course Fee and Batch Details

Five months · Live online · Weekday/weekend batch options

Included in the fee

  • Live instructor-led sessions
  • Graded assignments, the five connected builds and the SageMaker capstone
  • Mentor code and architecture reviews
  • Career preparation: resume, GitHub and mock interviews
  • MLOps Course Completion Certificate

Career preparation is provided; it is not a placement guarantee. Ask the course team about current payment options, schedule confirmation and anything related to capstone cloud usage before enrolling.

Admissions Open
₹60,000
Published programme fee
Call: +91 96914 40998

Joining from Bangalore, Hyderabad or Pune? Explore the city pages for local course-selection guidance and participation details.

Career Outlook

What Roles Does This MLOps Course Prepare You For?

Role-to-Skill Progression

1
MLOps Engineer / ML Platform Engineer

Build and operate the ML platform that other teams use to deploy models

CI/CD for MLMLflow, Docker, KubernetesMonitoring & drift detection
2
ML Engineer (Production)

Take trained models and make them reliable in production environments

Model serving (TorchServe, Triton)Pipeline orchestrationDrift response
3
Data / ML Infrastructure Engineer

Build the data and ML infrastructure that supports training and serving

Data pipelines, DVCCloud platforms (AWS/GCP/Azure)Infrastructure as Code
4
Model Reliability / Model Ops Engineer

Ensure models stay healthy in production with monitoring and incident response

Prometheus, GrafanaIncident handlingDrift detection and alerting

What Placement and Career Support Includes

  • Resume review
  • GitHub/project presentation review
  • Portfolio positioning
  • Mock interviews
  • Interview preparation
  • Job-search guidance
  • Referral connections where available

Career support helps you prepare and present your skills. Interviews, referrals, job offers, and compensation are not guaranteed.

MLOps Career Context

Companies building ML products need engineers who can ship and operate models reliably. The programme prepares evidence for roles across the ML infrastructure and operations space.

  • End-to-end ML lifecycle training
  • Tools & platforms: MLflow, DVC, Docker, K8s, Helm
  • Deployment & monitoring: FastAPI, Prometheus, Grafana
  • Live projects & capstone (production-style)
  • Career support: resume, GitHub, mock interviews
  • Course completion certificate
MLOps Engineer vs ML Engineer — which role fits?
Track Comparison

MLOps vs LLMOps vs AIOps: Which Course Fits Your Goal?

Best for
Engineers who want to ship and operate ML systems reliably
Systems operated
Traditional ML (tabular, image, text)
Core focus
Pipelines, CI/CD, deployment, monitoring, drift
Primary tools
MLflow, DVC, Docker, Kubernetes, Prometheus
Portfolio outcome
Reproducible ML pipeline + monitored deployment
Next action
View MLOps Track

Cloud AI Implementation Tracks

Need a focused cloud implementation? Explore AWS AI Engineering for SageMaker AI, Bedrock and AgentCore, or Microsoft Azure AI Engineering for Azure ML, Foundry and Azure OpenAI.

The complete MLOps Course remains the path for the wider ML lifecycle across data, training, deployment, monitoring and retraining.

Production systems behind the curriculum

The hands-on labs in this course are grounded in real production architectures. These technical references explain the systems you will build — MLflow registries, serving runtimes, monitoring loops, and CI/CD/CT gates — without any sales pressure.

FAQ

MLOps Course Frequently Asked Questions

Quick answers on eligibility, tools, projects, certification, and placement support.

Still deciding?

Book a career call — we will help you assess fit.

A live online programme covering the full ML delivery lifecycle — data validation, versioning, distributed training, experiment tracking, model registry, CI/CD, serving, monitoring, drift detection, and controlled retraining. You complete five connected builds and one AWS SageMaker capstone.

Provider: School of Core AILast reviewed: 14 July 2026Maintained by: SCAI Curriculum Team

Not sure whether MLOps matches your current role?

Book a career call with our team. We will help you assess fit and plan your transition into production ML engineering.