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Career Path
July 2026 Edition·Reviewed July 2026

MLOps Engineer

A research-backed roadmap from foundations to production-grade ML systems — Docker, Kubernetes, MLflow, feature stores, model serving with vLLM, and monitoring in the exact dependency order.

$134K-$193K
US base range
15-34% growth
growth signal
8 stages
Foundations → production
10–14 mo
Full-time timeline

MLOps Engineer salary ranges by market. US: $134K-$193K, source Robert Half 2026 AI/ML Engineer; Europe: EUR 60K-135K, source Robert Half UK 2026 ML and DevOps tables; India: INR 18L-55L, source ERI ML engineer + cloud/data engineering proxies; China: CNY 500K-1.00M, source Robert Half China 2026 data/architecture proxies; Remote: $115K-$230K, source Motion Recruitment 2026 ML salary guide. Salary ranges are shown by market because one global average would mislead learners. Ranges are annual base or fixed cash proxies unless the source states otherwise.

Salary range

Annual base or fixed cash

$134K-$193K
US market/Annual range

Scope

Annual base or fixed cash range. Equity, bonus, tax, benefits, city tier, company tier, and seniority can move the final offer materially.

Market note

MLOps is mapped to AI/ML engineer and DevOps-adjacent production systems pay.

Salary ranges are shown by market because one global average would mislead learners. Ranges are annual base or fixed cash proxies unless the source states otherwise.

View source
01
01

Foundations

2–3 weeks

Software engineering fundamentals, ML literacy, Linux/Bash, GitOps, and cloud basics — the prerequisite layer before any MLOps tooling makes sense.

02
02

Containerisation & Infrastructure

3–4 weeks

Docker, Kubernetes, Helm, and Infrastructure as Code — the foundational layer that everything else in MLOps runs on.

03
03

ML Experiment Tracking & Versioning

2–3 weeks

MLflow, W&B, DVC, and Hydra — the reproducibility infrastructure layer. If your experiments aren't tracked, they didn't happen.

04
04

ML Pipelines & Orchestration

3–4 weeks

Airflow, Prefect, Kubeflow, and cloud-native pipeline platforms — turning one-off training scripts into repeatable, observable, production-grade workflows.

05
05

Feature Stores & Data Management

2–3 weeks

Feast, Tecton, and online/offline store architecture — preventing training-serving skew, the most insidious silent failure in production ML.

06
06

Model Serving & Deployment

3–4 weeks

FastAPI, BentoML, Ray Serve, Triton, and vLLM — building low-latency, high-throughput, production-grade inference systems that scale.

07
07

Monitoring & Observability

2–3 weeks

Evidently AI, NannyML, Prometheus/Grafana for ML, and LLM observability with LangSmith — detecting silent model degradation before it affects business metrics.

08
08

CI/CD for ML & Career

3–4 weeks

GitHub Actions for ML, CML for GitOps model evaluation, ML system design interviews, and the certifications that differentiate MLOps engineers in 2026.

Complete topic index

Full definitions, proof artifacts, LDS resources, and external references for every roadmap topic.

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01

Foundations

2-3 weeks

Linux

core

Foundations: Learn Linux, Git, Python packaging, APIs, and the ML lifecycle.

What it is

Linux is the practical work inside foundations: the concepts, tools, checks, and deliverables a MLOps Engineer uses to turn this stage into real output.

Why it matters

Linux matters for MLOps Engineer because this stage is where a learner turns the role from a title into evidence. Learn Linux, Git, Python packaging, APIs, and the ML lifecycle. A strong learner should be able to explain the tradeoffs, build a small artifact, and connect the result to a business or product decision.

Proof to build

Build a small artifact for this topic: a query, notebook, dashboard, architecture note, evaluation table, or decision memo that shows the input, method, validation, caveat, and recommendation.

Git

core

Foundations: Learn Linux, Git, Python packaging, APIs, and the ML lifecycle.

What it is

Git is the practical work inside foundations: the concepts, tools, checks, and deliverables a MLOps Engineer uses to turn this stage into real output.

Why it matters

Git matters for MLOps Engineer because this stage is where a learner turns the role from a title into evidence. Learn Linux, Git, Python packaging, APIs, and the ML lifecycle. A strong learner should be able to explain the tradeoffs, build a small artifact, and connect the result to a business or product decision.

Proof to build

Build a small artifact for this topic: a query, notebook, dashboard, architecture note, evaluation table, or decision memo that shows the input, method, validation, caveat, and recommendation.

Python

optional

Foundations: Learn Linux, Git, Python packaging, APIs, and the ML lifecycle.

What it is

Python and pandas are the repeatable analysis layer: load data, clean it, reshape it, validate assumptions, automate checks, and package work so another analyst or engineer can rerun it.

Why it matters

SQL answers many warehouse questions, but real career work often needs Python for messy files, healthcare extracts, simulation inputs, forecasting prep, exploratory analysis, and reproducible notebooks.

Proof to build

Build a notebook or script that loads a raw dataset, profiles quality problems, cleans it, validates row counts and nulls, and exports a decision-ready table with clear assumptions.

Portfolio artifact

new

Create proof that this stage is more than passive study.

What it is

A foundations portfolio artifact is a public proof piece for this stage: a small but complete deliverable that shows how a MLOps Engineer frames the problem, chooses tools, validates the result, and explains the tradeoffs.

Why it matters

This is the work product that makes the stage credible. For MLOps Engineer, the artifact should show inputs, assumptions, methods, validation, tradeoffs, and a decision-ready output rather than a tutorial clone.

Proof to build

Publish one foundations artifact with README, inputs, assumptions, method, validation checks, screenshots or outputs, caveats, and a short summary of what the artifact proves for MLOps Engineer readiness.

Interview signal

core

Know how this stage appears in screening, take-homes, and role-specific interviews.

What it is

The interview signal for foundations is your ability to explain the work under pressure: assumptions, tradeoffs, failure modes, implementation choices, and how the output would help a real team decide what to do next.

Why it matters

Hiring teams need to see judgment, not just vocabulary. This topic turns foundations into interview-ready stories, diagrams, live explanations, and examples that map to real MLOps Engineer work.

Proof to build

Prepare a two-minute explanation, one diagram or query/notebook walkthrough, and three follow-up answers for this stage: why this approach, what could fail, and how you would improve it in production.

02

Containers and infrastructure

3-4 weeks

Docker

core

Containers and infrastructure: Package workloads and deploy them reliably across environments.

What it is

Docker is the practical work inside containers and infrastructure: the concepts, tools, checks, and deliverables a MLOps Engineer uses to turn this stage into real output.

Why it matters

Docker matters for MLOps Engineer because this stage is where a learner turns the role from a title into evidence. Package workloads and deploy them reliably across environments. A strong learner should be able to explain the tradeoffs, build a small artifact, and connect the result to a business or product decision.

Proof to build

Build a small artifact for this topic: a query, notebook, dashboard, architecture note, evaluation table, or decision memo that shows the input, method, validation, caveat, and recommendation.

Kubernetes

core

Containers and infrastructure: Package workloads and deploy them reliably across environments.

What it is

Kubernetes is the practical work inside containers and infrastructure: the concepts, tools, checks, and deliverables a MLOps Engineer uses to turn this stage into real output.

Why it matters

Kubernetes matters for MLOps Engineer because this stage is where a learner turns the role from a title into evidence. Package workloads and deploy them reliably across environments. A strong learner should be able to explain the tradeoffs, build a small artifact, and connect the result to a business or product decision.

Proof to build

Build a small artifact for this topic: a query, notebook, dashboard, architecture note, evaluation table, or decision memo that shows the input, method, validation, caveat, and recommendation.

Helm

optional

Containers and infrastructure: Package workloads and deploy them reliably across environments.

What it is

Helm is the practical work inside containers and infrastructure: the concepts, tools, checks, and deliverables a MLOps Engineer uses to turn this stage into real output.

Why it matters

Helm matters for MLOps Engineer because this stage is where a learner turns the role from a title into evidence. Package workloads and deploy them reliably across environments. A strong learner should be able to explain the tradeoffs, build a small artifact, and connect the result to a business or product decision.

Proof to build

Build a small artifact for this topic: a query, notebook, dashboard, architecture note, evaluation table, or decision memo that shows the input, method, validation, caveat, and recommendation.

Portfolio artifact

new

Create proof that this stage is more than passive study.

What it is

A containers and infrastructure portfolio artifact is a public proof piece for this stage: a small but complete deliverable that shows how a MLOps Engineer frames the problem, chooses tools, validates the result, and explains the tradeoffs.

Why it matters

This is the work product that makes the stage credible. For MLOps Engineer, the artifact should show inputs, assumptions, methods, validation, tradeoffs, and a decision-ready output rather than a tutorial clone.

Proof to build

Publish one containers and infrastructure artifact with README, inputs, assumptions, method, validation checks, screenshots or outputs, caveats, and a short summary of what the artifact proves for MLOps Engineer readiness.

Interview signal

core

Know how this stage appears in screening, take-homes, and role-specific interviews.

What it is

The interview signal for containers and infrastructure is your ability to explain the work under pressure: assumptions, tradeoffs, failure modes, implementation choices, and how the output would help a real team decide what to do next.

Why it matters

Hiring teams need to see judgment, not just vocabulary. This topic turns containers and infrastructure into interview-ready stories, diagrams, live explanations, and examples that map to real MLOps Engineer work.

Proof to build

Prepare a two-minute explanation, one diagram or query/notebook walkthrough, and three follow-up answers for this stage: why this approach, what could fail, and how you would improve it in production.

03

Experiment tracking

2-3 weeks

MLflow

core

Experiment tracking: Track datasets, parameters, metrics, models, and artifacts across experiments.

What it is

MLflow is the practical work inside experiment tracking: the concepts, tools, checks, and deliverables a MLOps Engineer uses to turn this stage into real output.

Why it matters

MLflow matters for MLOps Engineer because this stage is where a learner turns the role from a title into evidence. Track datasets, parameters, metrics, models, and artifacts across experiments. A strong learner should be able to explain the tradeoffs, build a small artifact, and connect the result to a business or product decision.

Proof to build

Build a small artifact for this topic: a query, notebook, dashboard, architecture note, evaluation table, or decision memo that shows the input, method, validation, caveat, and recommendation.

W&B

core

Experiment tracking: Track datasets, parameters, metrics, models, and artifacts across experiments.

What it is

W&B is the practical work inside experiment tracking: the concepts, tools, checks, and deliverables a MLOps Engineer uses to turn this stage into real output.

Why it matters

W&B matters for MLOps Engineer because this stage is where a learner turns the role from a title into evidence. Track datasets, parameters, metrics, models, and artifacts across experiments. A strong learner should be able to explain the tradeoffs, build a small artifact, and connect the result to a business or product decision.

Proof to build

Build a small artifact for this topic: a query, notebook, dashboard, architecture note, evaluation table, or decision memo that shows the input, method, validation, caveat, and recommendation.

DVC

optional

Experiment tracking: Track datasets, parameters, metrics, models, and artifacts across experiments.

What it is

DVC is the practical work inside experiment tracking: the concepts, tools, checks, and deliverables a MLOps Engineer uses to turn this stage into real output.

Why it matters

DVC matters for MLOps Engineer because this stage is where a learner turns the role from a title into evidence. Track datasets, parameters, metrics, models, and artifacts across experiments. A strong learner should be able to explain the tradeoffs, build a small artifact, and connect the result to a business or product decision.

Proof to build

Build a small artifact for this topic: a query, notebook, dashboard, architecture note, evaluation table, or decision memo that shows the input, method, validation, caveat, and recommendation.

Portfolio artifact

new

Create proof that this stage is more than passive study.

What it is

A experiment tracking portfolio artifact is a public proof piece for this stage: a small but complete deliverable that shows how a MLOps Engineer frames the problem, chooses tools, validates the result, and explains the tradeoffs.

Why it matters

This is the work product that makes the stage credible. For MLOps Engineer, the artifact should show inputs, assumptions, methods, validation, tradeoffs, and a decision-ready output rather than a tutorial clone.

Proof to build

Publish one experiment tracking artifact with README, inputs, assumptions, method, validation checks, screenshots or outputs, caveats, and a short summary of what the artifact proves for MLOps Engineer readiness.

Interview signal

core

Know how this stage appears in screening, take-homes, and role-specific interviews.

What it is

The interview signal for experiment tracking is your ability to explain the work under pressure: assumptions, tradeoffs, failure modes, implementation choices, and how the output would help a real team decide what to do next.

Why it matters

Hiring teams need to see judgment, not just vocabulary. This topic turns experiment tracking into interview-ready stories, diagrams, live explanations, and examples that map to real MLOps Engineer work.

Proof to build

Prepare a two-minute explanation, one diagram or query/notebook walkthrough, and three follow-up answers for this stage: why this approach, what could fail, and how you would improve it in production.

04

Pipelines and orchestration

3-4 weeks

Airflow

core

Pipelines and orchestration: Automate training, validation, batch inference, and approval gates.

What it is

Airflow is the practical work inside pipelines and orchestration: the concepts, tools, checks, and deliverables a MLOps Engineer uses to turn this stage into real output.

Why it matters

Airflow matters for MLOps Engineer because this stage is where a learner turns the role from a title into evidence. Automate training, validation, batch inference, and approval gates. A strong learner should be able to explain the tradeoffs, build a small artifact, and connect the result to a business or product decision.

Proof to build

Build a small artifact for this topic: a query, notebook, dashboard, architecture note, evaluation table, or decision memo that shows the input, method, validation, caveat, and recommendation.

Kubeflow

core

Pipelines and orchestration: Automate training, validation, batch inference, and approval gates.

What it is

Kubeflow is the practical work inside pipelines and orchestration: the concepts, tools, checks, and deliverables a MLOps Engineer uses to turn this stage into real output.

Why it matters

Kubeflow matters for MLOps Engineer because this stage is where a learner turns the role from a title into evidence. Automate training, validation, batch inference, and approval gates. A strong learner should be able to explain the tradeoffs, build a small artifact, and connect the result to a business or product decision.

Proof to build

Build a small artifact for this topic: a query, notebook, dashboard, architecture note, evaluation table, or decision memo that shows the input, method, validation, caveat, and recommendation.

Dagster

optional

Pipelines and orchestration: Automate training, validation, batch inference, and approval gates.

What it is

Dagster is the practical work inside pipelines and orchestration: the concepts, tools, checks, and deliverables a MLOps Engineer uses to turn this stage into real output.

Why it matters

Dagster matters for MLOps Engineer because this stage is where a learner turns the role from a title into evidence. Automate training, validation, batch inference, and approval gates. A strong learner should be able to explain the tradeoffs, build a small artifact, and connect the result to a business or product decision.

Proof to build

Build a small artifact for this topic: a query, notebook, dashboard, architecture note, evaluation table, or decision memo that shows the input, method, validation, caveat, and recommendation.

Portfolio artifact

new

Create proof that this stage is more than passive study.

What it is

A pipelines and orchestration portfolio artifact is a public proof piece for this stage: a small but complete deliverable that shows how a MLOps Engineer frames the problem, chooses tools, validates the result, and explains the tradeoffs.

Why it matters

This is the work product that makes the stage credible. For MLOps Engineer, the artifact should show inputs, assumptions, methods, validation, tradeoffs, and a decision-ready output rather than a tutorial clone.

Proof to build

Publish one pipelines and orchestration artifact with README, inputs, assumptions, method, validation checks, screenshots or outputs, caveats, and a short summary of what the artifact proves for MLOps Engineer readiness.

Interview signal

core

Know how this stage appears in screening, take-homes, and role-specific interviews.

What it is

The interview signal for pipelines and orchestration is your ability to explain the work under pressure: assumptions, tradeoffs, failure modes, implementation choices, and how the output would help a real team decide what to do next.

Why it matters

Hiring teams need to see judgment, not just vocabulary. This topic turns pipelines and orchestration into interview-ready stories, diagrams, live explanations, and examples that map to real MLOps Engineer work.

Proof to build

Prepare a two-minute explanation, one diagram or query/notebook walkthrough, and three follow-up answers for this stage: why this approach, what could fail, and how you would improve it in production.

05

Feature and data management

2-3 weeks

Feature stores

core

Feature and data management: Keep training and serving features consistent and auditable.

What it is

AI-ready data architecture extends the warehouse into feature pipelines, vector indexes, lakehouse tables, privacy controls, and data products that models can safely consume.

Why it matters

AI teams are constrained by data access, data quality, permissioning, and retrieval quality. The best architecture work makes model-facing data reliable before an ML or LLM team depends on it.

Proof to build

Design an AI data product with source tables, feature or embedding pipeline, access rules, freshness checks, and an evaluation query for retrieval or model input quality.

Data contracts

core

Feature and data management: Keep training and serving features consistent and auditable.

What it is

Data quality work defines expectations for completeness, freshness, validity, uniqueness, consistency, and business-rule compliance.

Why it matters

Every role that uses data depends on this layer. AI systems make the risk worse because bad source data can become automated bad decisions at scale.

Proof to build

Create tests for a small analytics pipeline: schema checks, null thresholds, accepted values, freshness, duplicate keys, and a failure runbook.

Lineage

optional

Feature and data management: Keep training and serving features consistent and auditable.

What it is

Metadata and lineage explain what data exists, who owns it, how it changes, where it flows, and which downstream assets depend on it.

Why it matters

Governance without operational metadata becomes policy theatre. Real users need searchable definitions, lineage for impact analysis, and owners who can fix broken data.

Proof to build

Document a mini data catalog: glossary, table owners, lineage diagram, access level, freshness SLA, and a downstream impact analysis for one schema change.

Portfolio artifact

new

Create proof that this stage is more than passive study.

What it is

A feature and data management portfolio artifact is a public proof piece for this stage: a small but complete deliverable that shows how a MLOps Engineer frames the problem, chooses tools, validates the result, and explains the tradeoffs.

Why it matters

This is the work product that makes the stage credible. For MLOps Engineer, the artifact should show inputs, assumptions, methods, validation, tradeoffs, and a decision-ready output rather than a tutorial clone.

Proof to build

Publish one feature and data management artifact with README, inputs, assumptions, method, validation checks, screenshots or outputs, caveats, and a short summary of what the artifact proves for MLOps Engineer readiness.

Interview signal

core

Know how this stage appears in screening, take-homes, and role-specific interviews.

What it is

The interview signal for feature and data management is your ability to explain the work under pressure: assumptions, tradeoffs, failure modes, implementation choices, and how the output would help a real team decide what to do next.

Why it matters

Hiring teams need to see judgment, not just vocabulary. This topic turns feature and data management into interview-ready stories, diagrams, live explanations, and examples that map to real MLOps Engineer work.

Proof to build

Prepare a two-minute explanation, one diagram or query/notebook walkthrough, and three follow-up answers for this stage: why this approach, what could fail, and how you would improve it in production.

06

Serving and deployment

3-4 weeks

FastAPI

core

Serving and deployment: Deploy models behind APIs, batch jobs, streaming consumers, and inference servers.

What it is

Solution architecture is the shape of the deployed system: application boundary, data access, authentication, APIs, logging, deployment path, security controls, and ownership after launch.

Why it matters

Customer-facing AI engineers are judged by adoption, not prototypes. A clean architecture lets the first pilot become a maintainable deployment instead of a demo that dies when it meets permissions, audit logs, or messy enterprise data.

Proof to build

Draw an architecture diagram for an AI workflow with auth, data sources, retrieval or tools, evals, observability, and rollback. Add the tradeoffs: what you deliberately left out and why.

Triton

core

Serving and deployment: Deploy models behind APIs, batch jobs, streaming consumers, and inference servers.

What it is

Triton is the practical work inside serving and deployment: the concepts, tools, checks, and deliverables a MLOps Engineer uses to turn this stage into real output.

Why it matters

Triton matters for MLOps Engineer because this stage is where a learner turns the role from a title into evidence. Deploy models behind APIs, batch jobs, streaming consumers, and inference servers. A strong learner should be able to explain the tradeoffs, build a small artifact, and connect the result to a business or product decision.

Proof to build

Build a small artifact for this topic: a query, notebook, dashboard, architecture note, evaluation table, or decision memo that shows the input, method, validation, caveat, and recommendation.

vLLM

optional

Serving and deployment: Deploy models behind APIs, batch jobs, streaming consumers, and inference servers.

What it is

vLLM is the practical work inside serving and deployment: the concepts, tools, checks, and deliverables a MLOps Engineer uses to turn this stage into real output.

Why it matters

vLLM matters for MLOps Engineer because this stage is where a learner turns the role from a title into evidence. Deploy models behind APIs, batch jobs, streaming consumers, and inference servers. A strong learner should be able to explain the tradeoffs, build a small artifact, and connect the result to a business or product decision.

Proof to build

Build a small artifact for this topic: a query, notebook, dashboard, architecture note, evaluation table, or decision memo that shows the input, method, validation, caveat, and recommendation.

Portfolio artifact

new

Create proof that this stage is more than passive study.

What it is

A serving and deployment portfolio artifact is a public proof piece for this stage: a small but complete deliverable that shows how a MLOps Engineer frames the problem, chooses tools, validates the result, and explains the tradeoffs.

Why it matters

This is the work product that makes the stage credible. For MLOps Engineer, the artifact should show inputs, assumptions, methods, validation, tradeoffs, and a decision-ready output rather than a tutorial clone.

Proof to build

Publish one serving and deployment artifact with README, inputs, assumptions, method, validation checks, screenshots or outputs, caveats, and a short summary of what the artifact proves for MLOps Engineer readiness.

Interview signal

core

Know how this stage appears in screening, take-homes, and role-specific interviews.

What it is

The interview signal for serving and deployment is your ability to explain the work under pressure: assumptions, tradeoffs, failure modes, implementation choices, and how the output would help a real team decide what to do next.

Why it matters

Hiring teams need to see judgment, not just vocabulary. This topic turns serving and deployment into interview-ready stories, diagrams, live explanations, and examples that map to real MLOps Engineer work.

Proof to build

Prepare a two-minute explanation, one diagram or query/notebook walkthrough, and three follow-up answers for this stage: why this approach, what could fail, and how you would improve it in production.

07

Monitoring

2-3 weeks

Drift

core

Monitoring: Monitor drift, latency, cost, quality, and incidents after deployment.

What it is

Drift is the practical work inside monitoring: the concepts, tools, checks, and deliverables a MLOps Engineer uses to turn this stage into real output.

Why it matters

Drift matters for MLOps Engineer because this stage is where a learner turns the role from a title into evidence. Monitor drift, latency, cost, quality, and incidents after deployment. A strong learner should be able to explain the tradeoffs, build a small artifact, and connect the result to a business or product decision.

Proof to build

Build a small artifact for this topic: a query, notebook, dashboard, architecture note, evaluation table, or decision memo that shows the input, method, validation, caveat, and recommendation.

Observability

core

Monitoring: Monitor drift, latency, cost, quality, and incidents after deployment.

What it is

Data quality work defines expectations for completeness, freshness, validity, uniqueness, consistency, and business-rule compliance.

Why it matters

Every role that uses data depends on this layer. AI systems make the risk worse because bad source data can become automated bad decisions at scale.

Proof to build

Create tests for a small analytics pipeline: schema checks, null thresholds, accepted values, freshness, duplicate keys, and a failure runbook.

Alerts

optional

Monitoring: Monitor drift, latency, cost, quality, and incidents after deployment.

What it is

Alerts is the practical work inside monitoring: the concepts, tools, checks, and deliverables a MLOps Engineer uses to turn this stage into real output.

Why it matters

Alerts matters for MLOps Engineer because this stage is where a learner turns the role from a title into evidence. Monitor drift, latency, cost, quality, and incidents after deployment. A strong learner should be able to explain the tradeoffs, build a small artifact, and connect the result to a business or product decision.

Proof to build

Build a small artifact for this topic: a query, notebook, dashboard, architecture note, evaluation table, or decision memo that shows the input, method, validation, caveat, and recommendation.

Portfolio artifact

new

Create proof that this stage is more than passive study.

What it is

A monitoring portfolio artifact is a public proof piece for this stage: a small but complete deliverable that shows how a MLOps Engineer frames the problem, chooses tools, validates the result, and explains the tradeoffs.

Why it matters

This is the work product that makes the stage credible. For MLOps Engineer, the artifact should show inputs, assumptions, methods, validation, tradeoffs, and a decision-ready output rather than a tutorial clone.

Proof to build

Publish one monitoring artifact with README, inputs, assumptions, method, validation checks, screenshots or outputs, caveats, and a short summary of what the artifact proves for MLOps Engineer readiness.

Interview signal

core

Know how this stage appears in screening, take-homes, and role-specific interviews.

What it is

The interview signal for monitoring is your ability to explain the work under pressure: assumptions, tradeoffs, failure modes, implementation choices, and how the output would help a real team decide what to do next.

Why it matters

Hiring teams need to see judgment, not just vocabulary. This topic turns monitoring into interview-ready stories, diagrams, live explanations, and examples that map to real MLOps Engineer work.

Proof to build

Prepare a two-minute explanation, one diagram or query/notebook walkthrough, and three follow-up answers for this stage: why this approach, what could fail, and how you would improve it in production.

08

CI/CD and career

3-4 weeks

CI/CD

core

CI/CD and career: Build a portfolio that proves you can operate models after launch.

What it is

CI/CD is the practical work inside ci/cd and career: the concepts, tools, checks, and deliverables a MLOps Engineer uses to turn this stage into real output.

Why it matters

CI/CD matters for MLOps Engineer because this stage is where a learner turns the role from a title into evidence. Build a portfolio that proves you can operate models after launch. A strong learner should be able to explain the tradeoffs, build a small artifact, and connect the result to a business or product decision.

Proof to build

Build a small artifact for this topic: a query, notebook, dashboard, architecture note, evaluation table, or decision memo that shows the input, method, validation, caveat, and recommendation.

Runbooks

core

CI/CD and career: Build a portfolio that proves you can operate models after launch.

What it is

Runbooks is the practical work inside ci/cd and career: the concepts, tools, checks, and deliverables a MLOps Engineer uses to turn this stage into real output.

Why it matters

Runbooks matters for MLOps Engineer because this stage is where a learner turns the role from a title into evidence. Build a portfolio that proves you can operate models after launch. A strong learner should be able to explain the tradeoffs, build a small artifact, and connect the result to a business or product decision.

Proof to build

Build a small artifact for this topic: a query, notebook, dashboard, architecture note, evaluation table, or decision memo that shows the input, method, validation, caveat, and recommendation.

Portfolio

optional

CI/CD and career: Build a portfolio that proves you can operate models after launch.

What it is

Portfolio and interview work turns learning into proof: a public artifact, decision memo, reproducible repo, diagram, dashboard, notebook, or interview story.

Why it matters

Hiring teams cannot infer readiness from a list of tools. They need evidence that you can frame a problem, make tradeoffs, validate your result, and explain the business impact.

Proof to build

Publish one role-specific artifact with README, assumptions, dataset notes, validation checks, screenshots, and a short hiring-manager summary of what the work proves.

Portfolio artifact

new

Create proof that this stage is more than passive study.

What it is

A ci/cd and career portfolio artifact is a public proof piece for this stage: a small but complete deliverable that shows how a MLOps Engineer frames the problem, chooses tools, validates the result, and explains the tradeoffs.

Why it matters

This is the work product that makes the stage credible. For MLOps Engineer, the artifact should show inputs, assumptions, methods, validation, tradeoffs, and a decision-ready output rather than a tutorial clone.

Proof to build

Publish one ci/cd and career artifact with README, inputs, assumptions, method, validation checks, screenshots or outputs, caveats, and a short summary of what the artifact proves for MLOps Engineer readiness.

Interview signal

core

Know how this stage appears in screening, take-homes, and role-specific interviews.

What it is

The interview signal for ci/cd and career is your ability to explain the work under pressure: assumptions, tradeoffs, failure modes, implementation choices, and how the output would help a real team decide what to do next.

Why it matters

Hiring teams need to see judgment, not just vocabulary. This topic turns ci/cd and career into interview-ready stories, diagrams, live explanations, and examples that map to real MLOps Engineer work.

Proof to build

Prepare a two-minute explanation, one diagram or query/notebook walkthrough, and three follow-up answers for this stage: why this approach, what could fail, and how you would improve it in production.

Ready to build production ML systems?

Docker and Kubernetes are the foundation — everything else in MLOps runs on top of them.