CAP Glacier Fabricant study plan
CAP Glacier Fabricant · Give each week a clear focus.
8 weeks · About 7 hours per week
Automation Fundamentals and Project Justification & Glacier Fabricant Application Context
Define automation fundamentals terminology (control loop, PLC, SCADA, MES, batch vs. continuous) in your own words and map each term to a Glacier Fabricant production scenario
Explain the economic justification chain for an automation project: capex, opex, payback period, ROI, and intangible benefits such as quality and traceability
Describe the Glacier Fabricant application context at a system level, including typical process stages from raw material intake through freezing, forming, and packaging
Identify which stakeholder roles (operations, quality, maintenance, engineering, IT/OT) influence project approval decisions in a frozen-dessert manufacturing environment
Your checkpoint
A one-page glossary plus a labeled block diagram of a Glacier Fabricant production line with at least 12 automation components annotated
Automation Fundamentals and Project Justification & Requirements, Specification, and Design
Construct a business case for a sample automation upgrade, quantifying labor savings, yield improvement, and downtime reduction with stated assumptions
Translate stakeholder needs into verifiable functional requirements using shall-statement syntax with acceptance criteria
Draft a requirements traceability matrix linking each requirement to its source and planned verification method
Distinguish functional, non-functional, and constraint requirements and classify 20 sample requirements accordingly
Your checkpoint
A business case with ROI calculation and a requirements specification containing at least 25 traceable shall-statements
Requirements, Specification, and Design & Implementation, Integration, and Testing
Produce a design specification covering control architecture, I/O list structure, network topology, and HMI screen hierarchy
Select sensors, actuators, and controllers for a freezing-line application and justify each selection against process conditions such as temperature, hygiene, and washdown
Write pseudocode or structured text for a batch sequence with start, hold, and abort states
Define integration interfaces between PLC, SCADA, and MES layers including data tags and handshake signals
Your checkpoint
A design specification package including control narrative, preliminary I/O list of at least 40 points, and sequence pseudocode
Implementation, Integration, and Testing
Build and execute a factory acceptance test (FAT) script with at least 15 test cases covering normal, boundary, and fault conditions
Apply a structured commissioning sequence: loop check, dry commissioning, wet commissioning, and performance verification
Diagnose three representative integration faults (network timeout, tag mismatch, interlock trip) and document root cause and corrective action
Configure version control and change documentation for control code and configuration files
Your checkpoint
A completed FAT protocol with recorded results and a commissioning checklist covering all four stages
Operation, Maintenance, and Continuous Improvement & Safety, Cybersecurity, and Reliability
Define a preventive maintenance schedule for instrumentation and control assets using criticality ranking
Establish KPIs for continuous improvement (OEE, MTBF, MTTR, first-pass yield) and describe how each is calculated from plant data
Conduct a hazard analysis using a recognized method (HAZOP or LOPA) on a freezing or refrigeration subsystem and assign risk rankings
Map safety instrumented functions to required safety integrity levels and identify the difference between process control and safety control
Your checkpoint
A maintenance plan with criticality-ranked asset register plus a hazard analysis worksheet with at least 10 identified hazards and assigned safeguards
Safety, Cybersecurity, and Reliability
Apply defense-in-depth concepts to an OT network, including zone and conduit segmentation aligned with IEC 62443 principles
Identify common OT threat vectors (unauthorized remote access, removable media, flat networks, unpatched legacy systems) and prescribe mitigations
Describe reliability engineering techniques: redundancy, fail-safe design, watchdog timers, and graceful degradation
Outline an incident response and recovery procedure for a control system compromise or failure
Your checkpoint
A cybersecurity and reliability assessment document with network segmentation diagram, risk register, and incident response runbook outline
Glacier Fabricant Application Context & Professional Practice and Ethics
Analyze Glacier Fabricant-specific constraints: hygienic design, CIP/SIP cycles, allergen changeover, cold-chain traceability, and regulatory record retention
Evaluate an ethical dilemma in automation practice (data ownership, safety override pressure, scope creep) using a structured decision framework
Explain professional obligations around competence boundaries, documentation integrity, and escalation of safety concerns
Compare applicable standards and codes and describe how they shape design and validation decisions
Your checkpoint
A written case analysis of an ethical and regulatory scenario with a documented decision rationale and cited standards
Automation Fundamentals and Project Justification & Requirements, Specification, and Design & Implementation, Integration, and Testing & Operation, Maintenance, and Continuous Improvement & Safety, Cybersecurity, and Reliability & Glacier Fabricant Application Context & Professional Practice and Ethics
Synthesize all domains into an end-to-end project narrative from justification through continuous improvement
Complete timed practice sets weighted by domain percentage and score each domain separately
Remediate the two weakest domains by rewriting notes and re-testing on missed concepts
Build a one-page exam-day reference sheet of formulas, standard references, and decision checklists
Your checkpoint
A full-length timed mock exam with a scored domain-by-domain breakdown and a remediation log
Milestones
Week 2: Can produce a defensible business case with quantified ROI and write traceable shall-statements without referring to notes
Week 4: Can design, test, and commission a control sequence end-to-end and explain each commissioning stage from memory
Week 6: Can perform a hazard analysis and propose zone-based network segmentation with mitigations for at least five OT threat vectors
Week 8: Scores at least 80% overall on the timed mock exam with no single domain below 70%