SCADA, DCS, HMI Training for Chemical Engineers

Industrial Automation & Process Control Training for Chemical Plants

Modern chemical, petrochemical, pharmaceutical, and process industries operate on automated control systems such as SCADA (Supervisory Control and Data Acquisition), DCS (Distributed Control System), and HMI (Human–Machine Interface). Chemical engineers are increasingly expected to understand process control logic, plant automation architecture, and operator interface systems.

This SCADA, DCS, HMI Training for Chemical Engineers is designed to provide practical, plant-oriented knowledge of industrial automation systems from a chemical engineering perspective, enabling participants to work effectively with operations, control, production, and safety teams.

Why This SCADA, DCS, HMI Course Is Required for Chemical Engineers

Industry Gap Faced by Chemical Engineers

Many chemical engineers:

  • Understand process engineering but not automation systems

  • Cannot interpret control logic, alarms, and interlocks

  • Lack exposure to DCS-based plant operations

  • Are unfamiliar with operator panels and control rooms

  • Face difficulty during interviews for plant operations and control roles

At the same time:

  • Chemical plants are becoming highly automated

  • Manual operations are being replaced by DCS/SCADA-based control

  • Employers expect chemical engineers to coordinate with automation teams

  • Process safety heavily depends on proper control system understanding

This course bridges the gap between chemical process knowledge and industrial automation systems.

Who Should Join This Course

This course is suitable for:

Chemical Engineering graduates and postgraduates
Process engineers and production engineers
Plant operations and shift engineers
Pharmaceutical and specialty chemical professionals
Freshers entering chemical industries
Engineers transitioning to operations or control roles
Non-instrumentation professionals working in plants

No prior automation or programming experience is required.

What You Will Learn

After completing this course, participants will be able to:

  • Understand SCADA, DCS, and HMI architecture

  • Read and interpret process control screens

  • Understand process variables, loops, and control strategies

  • Coordinate with instrumentation and automation teams

  • Participate in plant operation, troubleshooting, and optimization

  • Confidently attend interviews for automation-aware chemical engineering roles

Course Curriculum (Chemical-Plant Oriented)

Module 1: Introduction to Industrial Automation in Chemical Plants

  • Role of automation in process industries

  • Automation hierarchy (field to control room)

  • Difference between PLC, SCADA, and DCS

  • Control room overview

Module 2: Process Variables & Instrumentation Basics

  • Pressure, temperature, flow, and level

  • Sensors and transmitters

  • Signal types and ranges

  • Importance of accuracy and reliability

Module 3: Control Loops & Process Control Fundamentals

  • Open-loop and closed-loop control

  • PID control concept (practical understanding)

  • Control loop components

  • Common control strategies in chemical plants

Module 4: Distributed Control System (DCS)

  • DCS architecture and components

  • Controllers, I/O modules, networks

  • DCS role in continuous processes

  • Operator stations and engineering stations

  • Typical DCS applications in chemical plants

Module 5: SCADA Systems

  • SCADA architecture

  • Data acquisition and supervision

  • SCADA vs DCS

  • SCADA applications in utilities and batch processes

  • Communication protocols overview

Module 6: Human–Machine Interface (HMI)

  • HMI design philosophy

  • Process graphics and symbols

  • Alarm display and trends

  • Operator navigation and usability

  • Good HMI practices

Module 7: Alarm Management & Interlocks

  • Types of alarms

  • Alarm priorities and limits

  • Interlocks and permissives

  • Emergency shutdown logic (overview)

  • Process safety relevance

Module 8: Batch & Continuous Process Automation

  • Batch process concepts

  • Recipe-based operations

  • Continuous process control

  • Typical examples from chemical and pharma plants

Module 9: Data Logging, Trending & Reporting

  • Historical data storage

  • Trend analysis for process optimization

  • Production and quality reporting

  • Role of automation data in decision-making

Module 10: Basic Troubleshooting & Operations

  • Control loop performance issues

  • Common field and system faults

  • Operator response during abnormalities

  • Coordination with maintenance teams

Module 11: Automation & Process Safety

  • Role of automation in safety

  • Safety interlocks overview

  • Introduction to SIS and safety layers

  • Compliance and documentation basics

Module 12: Industry Case Studies

  • Automation failures and lessons learned

  • Process upsets and control responses

  • Optimization examples using SCADA/DCS data

Model Projects Included

To make participants interview-ready, the course includes practical, plant-oriented model projects:

Model Project 1: Chemical Process Control Scheme

  • Identification of process variables

  • Control loop selection

  • Control philosophy explanation

Model Project 2: HMI Screen Interpretation

  • Reading process graphics

  • Understanding alarms and trends

  • Operator decision-making

Model Project 3: DCS-Based Process Operation Case Study

  • Startup and shutdown sequence

  • Alarm handling

  • Process deviation analysis

Model Project 4: Process Optimization Using Trend Data

  • Data interpretation

  • Root cause identification

  • Improvement recommendations

Career Opportunities After This Course

Hiring Sectors

Chemical manufacturing plants
Petrochemical complexes
Pharmaceutical industries
Specialty chemical plants
Fertilizer plants
Process automation companies
EPC companies for process plants

Job Roles

Process Engineer – Automation Interface
Plant Operations Engineer
Control Room Engineer
Production Engineer
Process Control Engineer (chemical background)
Automation Coordinator

Training Methodology

  • Chemical-engineer-focused explanations

  • Real plant examples and case studies

  • Practical control room scenarios

  • Simple, non-programming approach

  • Interview and job-oriented teaching

Certification

Certificate in SCADA, DCS & HMI for Chemical Engineers
Issued by Pertecnica Engineering

This certification validates your automation awareness and process control competency in chemical and process industries.

Why Choose Pertecnica Engineering

  • Automation training tailored for chemical engineers

  • Focus on process understanding, not coding

  • Trainers with real plant automation experience

  • Industry-aligned curriculum

  • Strong employability orientation

Same syllabus for the following courses

SCADA DCS HMI Training for Chemical Engineers
Industrial Automation Course for Chemical Engineers
Process Control Training
DCS Training for Chemical Plants
SCADA Course for Process Industries