AIOps Foundation study plan
AIOps Foundation · Give each week a clear focus.
8 weeks · About 6 hours per week
Origins and history of AIOps
Define AIOps in your own words and distinguish it from monitoring, observability, and automation
Trace the evolution from siloed domain monitoring (network, application, infrastructure) through event correlation and ITOA to modern AIOps platforms
Identify the operational pain points (alert storms, tool sprawl, mean-time-to-resolution pressure) that drove AIOps adoption
Map at least five historical milestones or technology shifts to the capability each one enabled
Your checkpoint
A one-page annotated timeline of AIOps evolution with at least eight dated milestones, each linked to the problem it solved
Origins and history of AIOps & Big data and machine learning core technologies
Compare AIOps platform architectures: data ingestion, normalization, correlation, and action layers
Explain how telemetry sources (metrics, logs, traces, events, tickets, CMDB) feed an AIOps pipeline
Describe the role of topology and dependency mapping in reducing noise
Contrast rule-based correlation with statistical and ML-driven correlation
Your checkpoint
A labeled architecture diagram of a reference AIOps pipeline with a 300-word written walkthrough of data flow from source to alert
Big data and machine learning core technologies
Explain why volume, variety, velocity, and veracity matter for operational data and how each affects model choice
Describe storage and streaming patterns (time-series stores, log indexing, message queues) used in AIOps backends
Distinguish structured, semi-structured, and unstructured telemetry and the preprocessing each requires
Summarize data quality risks such as missing data, clock skew, and cardinality explosion
Your checkpoint
A comparison table of at least four telemetry data types with storage pattern, preprocessing step, and quality risk for each
Big data and machine learning core technologies
Distinguish supervised, unsupervised, and reinforcement learning use cases in operations
Explain anomaly detection approaches: statistical baselines, clustering, isolation forests, and time-series forecasting
Describe event correlation and clustering techniques used to group related alerts
Identify where natural language processing applies to log parsing and ticket classification
Your checkpoint
A study sheet matching at least eight AIOps use cases to a specific algorithm family with a one-sentence justification each
Big data and machine learning core technologies & AIOps relationship to MLOps, DevOps, and Site Reliability
Explain model lifecycle concerns in operations: training data drift, retraining cadence, and evaluation
Compare MLOps practices with AIOps practices and identify where they overlap and diverge
Describe how AIOps consumes and supports DevOps feedback loops such as CI/CD and incident response
Outline how SLOs, error budgets, and toil reduction connect Site Reliability Engineering to AIOps
Your checkpoint
A three-column comparison of MLOps, DevOps, and SRE against AIOps covering purpose, primary artifacts, and key metrics
AIOps relationship to MLOps, DevOps, and Site Reliability
Map AIOps capabilities onto the SRE workflow from detection through diagnosis, remediation, and postmortem
Explain how AIOps supports incident management, change correlation, and capacity planning
Describe the cultural prerequisites for AIOps adoption, including trust in automation and human-in-the-loop design
Identify where AIOps can reinforce or undermine existing DevOps and SRE practices
Your checkpoint
An incident narrative of 400 words describing a realistic outage and marking each step where AIOps, DevOps, and SRE practices each contribute
Implementing AIOps: benefits, challenges, and ethics
Enumerate concrete benefits of AIOps with the metric each one should move
Identify implementation challenges: data readiness, tool integration, skills gaps, false positives, and change management
Describe a phased adoption approach from assisted detection to automated remediation
Explain how to measure AIOps success against baseline MTTR, alert volume, and toil hours
Your checkpoint
A benefits-and-challenges matrix of at least ten rows with benefit or challenge, affected metric, and mitigation or measurement approach
Implementing AIOps: benefits, challenges, and ethics & Origins and history of AIOps
Apply ethical frameworks to AIOps scenarios involving automated remediation, employee monitoring, and data retention
Evaluate bias, transparency, accountability, and blast-radius risks in automated operations
Synthesize all four domains into a coherent position on responsible AIOps adoption
Practice timed recall across the full syllabus and close gaps identified in earlier weeks
Your checkpoint
A 500-word ethics position paper on one automated-remediation scenario plus a scored 40-question self-test with a list of weak areas
Milestones
Week 2: Can explain the AIOps pipeline end to end without notes and place any given telemetry source correctly within it
Week 4: Can name the right algorithm family for anomaly detection, alert correlation, and log classification, and justify each choice
Week 6: Can articulate how AIOps, MLOps, DevOps, and SRE differ in purpose and where they reinforce each other
Week 8: Score at least 80 percent on the self-test and hold a defensible written position on automated remediation ethics