Preparing your Path…
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Path Catalog
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7801 Paths · page 272 / 781
This learning path equips safety engineers with the knowledge and skills to design safety instrumented systems (SIS) for industrial control processes. Starting with foundational concepts of functional safety and risk assessment, it progresses through the determination of Safety Integrity Levels (SIL), reliability engineering, and detailed design of SIS components, concluding with testing, verification, and lifecycle management. The path emphasizes practical application and adherence to international standards such as IEC 61511.
A professional learning path for control engineers to master the validation and verification of control systems, covering standards, methods, and practices for testing, compliance, and documentation.
This learning path equips automation engineers with the skills to program PLCs and DCS for industrial control applications. It covers foundational concepts, programming languages, networking, and system integration, culminating in practical projects.
This advanced professional path equips control engineers with the knowledge to design, implement, and maintain industrial control systems, covering process dynamics, control strategies, SCADA/DCS architectures, and safety systems. It integrates theoretical foundations with practical implementation considerations, culminating in a capstone project.
This learning path equips senior and graduate students with the knowledge and skills to apply control engineering principles to traffic systems. It covers foundational control theory, traffic flow modeling, and progresses through signal control, ramp metering, and network-level control strategies, culminating in a capstone project.
This learning path equips senior and graduate students with the knowledge to design control systems for buildings, covering HVAC, lighting, access, and energy management. It progresses from fundamental control theory and building systems to advanced integrated design and optimization.
This learning path equips senior and graduate students with the knowledge to design and apply control systems for environmental applications, focusing on climate control, water treatment, and monitoring. It covers foundational control theory, sensing and actuation, modeling, and practical implementation, culminating in a capstone project.
This learning path equips senior or graduate students with the ability to apply control engineering principles to biomedical applications, focusing on physiological control, drug delivery, and medical devices. It bridges foundational control theory with physiological modeling and practical implementation, emphasizing model-based design and safety considerations.
This learning path equips senior or graduate students with the knowledge and skills to apply control engineering principles to power systems. It covers the fundamentals of power system operation, the dynamics of generators, and the design of frequency and voltage control strategies for maintaining grid stability.
This learning path equips senior or graduate students with the knowledge and skills to apply control theory to robotic systems. It starts with fundamental concepts in linear control and rigid-body dynamics, progresses through joint control and trajectory tracking, and culminates in advanced topics in force control and hybrid motion-force strategies. The path emphasizes practical application and prepares learners for careers in robotics and automation.