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ICS/OT Secure Operations Complete Cybersecurity Course
Rating: 4.2 out of 5(2 ratings)
50 students

ICS/OT Secure Operations Complete Cybersecurity Course

Assess OT risk, segment networks, secure remote access, monitor threats, and plan resilient incident response.
Last updated 10/2026
English
English [Auto],

What you'll learn

  • Explain how ICS, SCADA, DCS, PLCs, RTUs, HMIs, historians, and industrial protocols support and expose operational processes.
  • Analyze OT threats and case-study lessons through safety, reliability, availability, business impact, and attack-path decisions.
  • Design zones, conduits, DMZs, secure remote access, asset visibility, and coordinated physical and cyber controls.
  • Relate IEC 62443, NIST SP 800-82, ISO/IEC 27019, NIS2, and DORA concepts to OT security decisions.
  • Plan OT monitoring, SOC workflows, IDS or SIEM use, safety-first incident response, evidence handling, and recovery.
  • Develop resilience, backup, restore-validation, exercise, and cyber-safety approaches that respect operational constraints.
  • Conduct consequence-driven OT risk, vendor oversight, audit, maturity, and measurable improvement activities.
  • Evaluate IIoT, AI, cloud, quantum, and digital-twin risks when creating a phased OT security roadmap.

Course content

11 sections • 42 lectures • 8h 35m total length
  • Welcome to the OT & Industrial Cybersecurity Masterclass12:17

    Description: Why OT security underpins national resilience; how IT and OT differ in stakeholders, priorities, and safety constraints; course artifacts and assessment.
    Outcomes: Define OT, ICS, SCADA, DCS; distinguish IT vs OT objectives and constraints.

  • Start Here: ICS/OT Cybersecurity Roadmap, Coverage and Support4:12
  • You Will Not Walk Alone: Your Study Plan for Course Success2:23
  • Why OT Security Matters More Than Ever14:23

    Description: From Stuxnet to Triton to Colonial Pipeline: what actually happened, why it spread, and how regulators responded.
    Outcomes: Explain why safety, reliability, and availability dominate in OT; connect incidents to control priorities.

  • Operational Technology Security in Critical Infrastructure 10116:21

    Aim: core concepts, OT vs IT, roles, process safety linkage.

  • Knowledge Check

Requirements

  • Basic familiarity with computer networks, cybersecurity, engineering, or industrial operations is helpful.
  • No previous OT security role is required because the published curriculum introduces core industrial concepts progressively.
  • Bring a real or realistic industrial environment so you can connect architecture, risk, controls, evidence, and operational decisions.
  • Use only authorized labs or organizational change processes when testing controls or proposing changes to operational systems.

Description

This course contains the use of artificial intelligence.

Cyvitrix Learning create and review the curriculum, explanations, examples, and learning design. Human subject matter experts remain responsible for the accuracy, quality, and updates of the educational content.

Secure industrial environments while respecting safety, reliability, availability, engineering constraints, and process continuity. This English ICS/OT cybersecurity course connects industrial architecture with threat analysis, network controls, governance, monitoring, incident response, resilience, risk, audit, and emerging technology.

What you will be able to do

  • Explain how ICS, SCADA, DCS, PLCs, RTUs, HMIs, historians, and industrial protocols support and expose operational processes.

  • Analyze OT threats and case-study lessons through safety, reliability, availability, business impact, and attack-path decisions.

  • Design zones, conduits, DMZs, secure remote access, asset visibility, and coordinated physical and cyber controls.

  • Relate IEC 62443, NIST SP 800-82, ISO/IEC 27019, NIS2, and DORA concepts to OT security decisions.

  • Plan OT monitoring, SOC workflows, IDS or SIEM use, safety-first incident response, evidence handling, and recovery.

  • Develop resilience, backup, restore-validation, exercise, and cyber-safety approaches that respect operational constraints.

  • Conduct consequence-driven OT risk, vendor oversight, audit, maturity, and measurable improvement activities.

  • Evaluate IIoT, AI, cloud, quantum, and digital-twin risks when creating a phased OT security roadmap.

Published curriculum

The reconciled published curriculum contains eleven sections, thirty-nine lectures, and one practice test. It begins with Kickoff & Strategic Context and Welcome to the OT & Industrial Cybersecurity Masterclass.

The displayed learning path covers OT threat cases, ICS architecture, the Purdue Model, industrial protocols, vulnerabilities, segmentation, secure remote access, passive asset discovery, physical security, sector GRC, selected standards and regulations, OT SOC capabilities, safety-first incident response, resilience, backup and recovery, exercises, OT risk, supply-chain oversight, audit, maturity, IIoT, AI, cloud, quantum, and digital twins.

How the learning path develops

Start with the difference between enterprise IT and operational technology, then connect threat consequences with architecture and control decisions. Progress through zones and conduits, remote access, visibility, governance, framework context, detection, response, resilience, audit, and emerging technology. The goal is to explain why a control fits the process, what evidence it should produce, and how it affects safety and uptime.

How to study effectively

  1. Choose one real or realistic facility and list its assets, processes, dependencies, safety constraints, trust boundaries, and owners.

  2. For each lecture, record the threat or failure addressed, the proposed control, expected evidence, operational impact, owner, and residual risk.

  3. Draw a simple architecture showing levels, zones, conduits, remote-access paths, monitoring points, and critical dependencies.

  4. Use the case studies and testing or simulation lecture to explain why one defensive decision is safer and more practical than another.

  5. Use the practice test to identify weak concepts, then revisit the relevant lecture and explain the reasoning in your own words.

  6. Ask a precise question in the course Q&A when an architecture, risk, framework, monitoring, or response decision needs clarification.

Framework and regulatory context

Published lectures reference IEC 62443, NIST SP 800-82, ISO/IEC 27019, NIST CSF, ISO 27001, NIS2, DORA, and related risk methods. The presence of a standard, framework, or regulation in a lecture title or description does not prove complete implementation guidance, complete control mapping, or compliance. Select the applicable publications, roles, editions, jurisdiction, and sector requirements for your environment.

Independent course and safe application

This is independent professional education. It does not grant a certification, guarantee compliance or employment, replace engineering or process-safety review, or authorize changes to live industrial systems. Test controls only in an authorized environment and move changes into operations through approved safety, engineering, security, and change-management processes.

Updates and official sources

Cyvitrix Learning actively reviews and updates this course when verified changes in official standards, framework editions, guidance, regulations, or releases affect its scope. Official publications and competent authorities remain authoritative. Course updates may follow an external change, so always verify the version and requirements that apply to your environment.

The standards, frameworks, regulations, and product names are used for identification. This course is not affiliated with, sponsored by, endorsed by, or approved by NIST, IEC, ISO, the European Union, or any vendor.

Who this course is for:

  • OT engineers, control-system professionals, and plant leaders who need practical cybersecurity foundations.
  • IT and security professionals moving into industrial or critical-infrastructure environments.
  • Security consultants, risk specialists, and auditors supporting energy, utilities, manufacturing, or transportation.
  • Governance and compliance professionals connecting industrial risk with controls, regulations, and audit evidence.
  • Career changers who want to understand how safety, availability, lifecycle, and process continuity shape OT security.