SPCS Training Course

Lesson 1 • Regulatory and Safety Frameworks

Introduces functional safety standards and regulatory expectations for process control. Sets compliance context for all subsequent chapters.

Lesson 2 • Introduction to Process Control

Defines process control and its role in industrial automation. Establishes vocabulary used throughout the course.

Lesson 3 • Sensors and Measurement Fundamentals

Covers sensor types, signal types, and measurement accuracy concepts. Provides the instrumentation foundation for later control topics.

Lesson 4 • Actuators and Final Control Elements

Examines devices that execute control commands in the field. Links actuator behavior to control loop performance.

Lesson 1 • Process Identification Methods

Teaches open-loop and closed-loop tests to characterize process dynamics. Identification results feed directly into tuning calculations.

Lesson 2 • PID Tuning Techniques

Applies Ziegler-Nichols, IMC, and lambda tuning rules to identified processes. Students select methods appropriate to process type.

Lesson 3 • Feedback Control Principles

Explains error signal generation and the feedback correction mechanism. Forms the mathematical core of all subsequent tuning work.

Lesson 4 • PID Controller Configuration

Covers parameter entry, mode selection, and controller output limits. Prepares students to configure real controllers correctly.

Lesson 1 • Program Testing and Documentation

Establishes simulation, online monitoring, and version control practices. Ensures logic is verified before deployment to live systems.

Lesson 2 • Ladder Logic Programming

Teaches contact, coil, and function block elements in ladder diagrams. Ladder logic is the most widely used PLC language in industry.

Lesson 3 • Sequential Function Charts

Covers SFC steps, transitions, and actions for batch and sequential processes. Directly applicable to startup and shutdown sequences.

Lesson 4 • PLC Hardware and Scan Cycle

Describes PLC CPU, I/O modules, and the scan cycle sequence. Grounds software concepts in physical hardware behavior.

Lesson 1 • Ethernet-Based Industrial Protocols

Examines EtherNet/IP, PROFINET, and Modbus TCP for high-speed control networks. Ethernet protocols are increasingly standard in modern plants.

Lesson 2 • OPC Standards and Data Exchange

Explains OPC DA and OPC UA for vendor-neutral data exchange between systems. OPC UA is the preferred standard for modern SCADA integration.

Lesson 3 • Fieldbus and Serial Protocols

Covers HART, Modbus RTU, and PROFIBUS for field device communication. These legacy protocols remain dominant in installed industrial bases.

Lesson 4 • Network Troubleshooting Methods

Applies packet capture, ping, and protocol analyzer tools to diagnose faults. Systematic troubleshooting minimizes process downtime.

Lesson 1 • HMI Screen Design Principles

Applies human factors and situational awareness principles to screen layout. Good design reduces operator error and response time.

Lesson 2 • Alarm Management Configuration

Configures alarm priorities, deadbands, delays, and suppression logic. Connects alarm design to operator workload and safety outcomes.

Lesson 3 • SCADA System Architecture

Maps SCADA server, client, and field communication roles. Provides the structural context for all HMI and data configuration work.

Lesson 4 • Data Historian and Reporting

Sets up process data archiving, retrieval, and report generation. Archived data supports performance analysis and regulatory reporting.

Lesson 1 • Safety Instrumented System Concepts

Defines SIS architecture, safety functions, and the relationship to basic process control. Establishes the independence principle central to SIS design.

Lesson 2 • Alarm System Performance Management

Measures alarm system KPIs and applies rationalization to reduce nuisance alarms. Performance management is an ongoing operational discipline.

Lesson 3 • SIL Determination and Verification

Calculates safety integrity level requirements and verifies SIS designs meet them. Connects risk assessment outputs to hardware selection.

Lesson 4 • Hazard and Risk Assessment

Applies HAZOP and layer of protection analysis to identify and quantify process risks. Risk assessment results drive SIS design requirements.

Lesson 1 • MPC Implementation and Commissioning

Covers plant testing, model identification, and controller commissioning steps. Practical commissioning skills differentiate MPC theory from deployment.

Lesson 2 • Multivariable Process Interactions

Analyzes process interaction using relative gain array and decoupling methods. Understanding interactions is prerequisite to multivariable control design.

Lesson 3 • Real-Time Optimization

Applies steady-state optimization above MPC to maximize economic performance. Optimization targets are passed as set points to the MPC layer.

Lesson 4 • Model Predictive Control Fundamentals

Introduces MPC prediction horizon, control horizon, and constraint handling. MPC is the dominant advanced control technology in process industries.

Lesson 1 • Lifecycle Management and MOC

Applies management of change and asset lifecycle practices to sustain system integrity. MOC prevents unauthorized changes that degrade safety or performance.

Lesson 2 • Project Engineering and Design

Covers functional specifications, I/O lists, and cause-and-effect matrices. Design documents form the contractual and technical basis for system build.

Lesson 3 • Operator Training and Handover

Designs operator training programs and system handover documentation packages. Effective handover ensures operators can run and maintain the system safely.

Lesson 4 • Site Installation and Commissioning

Covers loop checking, site acceptance testing, and pre-startup safety reviews. Commissioning confirms field installation matches design intent.