ICTQual Level 6 Diploma in Chemical Engineering 360 Credits

ICTQual Level 6 Diploma in Chemical Engineering 360 Credits – Three Years

Design, Optimize, and Lead in the Future of Chemical Engineering

The ICTQual Level 6 Diploma in Chemical Engineering 360 Credits – Three Years is a comprehensive and internationally recognized qualification designed to equip learners with advanced knowledge and practical skills in chemical and process engineering. Over three years, this 360-credit program provides a balanced mix of theory, laboratory practice, and industry-relevant projects, preparing graduates for leadership roles in the chemical engineering sector.

This Level 6 Chemical Engineering Diploma 360 Credits covers a wide array of topics, including process design, chemical reaction engineering, thermodynamics, fluid mechanics, materials science, and environmental sustainability. Learners gain hands-on experience in laboratory experiments, process simulation, and real-world industrial projects, ensuring they can effectively apply engineering principles to solve complex challenges in chemical production, pharmaceuticals, energy, and manufacturing industries.

The ICTQual Chemical Engineering Diploma Level 6 emphasizes analytical thinking, problem-solving, and technical decision-making. Students develop expertise in designing and optimizing chemical processes, ensuring safety and regulatory compliance, and implementing sustainable engineering solutions. Advanced modules also explore process automation, industrial equipment, and emerging technologies in chemical engineering, preparing learners to meet the evolving demands of the global industry.

Whether you are a fresh graduate or a professional seeking to enhance your qualifications, this 3-Year Chemical Engineering Diploma 360 Credits offers a clear pathway to a rewarding career. Graduates can pursue roles in process engineering, research and development, plant operations, quality assurance, and project management, as well as further higher education opportunities.

Completing the ICTQual Level 6 Diploma in Chemical Engineering 360 Credits – Three Years ensures learners earn a prestigious international qualification that validates their technical expertise and practical experience, opening doors to global career prospects and leadership opportunities in the chemical engineering sector.

Awarding Body

ICTQual AB

Study Mode

Online

Qualification Level

Level 6

Completion Time

3-Years

Study Units

36 Mandatory Units

Assessments

Qualification Title	ICTQual Level 6 Diploma in Chemical Engineering 360 Credits – Three Years
Level	Level 6
Total Credits	360
Assessment	Pass or fail Internally assessed and verified by centre staff External quality assurance by ICTQual AB verifiers

To enrol in the ICTQual Level 6 Diploma in Chemical Engineering 360 Credits – Three Years ,applicants must meet the following entry criteria:

Minimum Age

Applicants must be 18 years of age or older at the time of registration.

Educational Background

Applicants should hold a Level 5 qualification, diploma, or equivalent in chemical engineering, process engineering, or a related STEM field.
Strong foundation in mathematics, chemistry, physics, and basic engineering principles is highly recommended.
Fresh graduates from science or engineering disciplines may also be eligible.

Work Experience

Prior industry experience is recommended but not mandatory.
Professionals with 6 years or more of verifiable experience in chemical, process, or industrial engineering can apply via the experience-based certification route.
Fresh learners must complete all 36 mandatory assignments throughout the three-year program.

English Language Proficiency

Since the course is delivered in English, learners must demonstrate good English communication skills (reading, writing, and speaking).
Non-native English speakers may be asked to provide evidence of proficiency (e.g., IELTS, TOEFL, or equivalent).

This qualification, theICTQual Level 6 Diploma in Chemical Engineering 360 Credits – Three Years, consists of 36 mandatory units.

Mandatory Units of ICTQual Level 6 Diploma in Chemical Engineering 360 Credits – Three Years

This qualification, the ICTQual Level 6 Diploma in Chemical Engineering 360 Credits – Three Years, consists of 36 mandatory units.

Year 1: Foundation of Chemical Engineering

Introduction to Chemical Engineering
Basic Thermodynamics
Mathematics for Chemical Engineers
Fluid Mechanics
Material and Energy Balances
Introduction to Process Control
Chemistry for Chemical Engineers
Introduction to Reaction Engineering
Engineering Drawing and CAD
Professional Skills Development
Heat and Mass Transfer Fundamentals
Chemical Engineering Principles

Year 2: Advanced Chemical Engineering Concepts

Advanced Thermodynamics
Heat Transfer
Mass Transfer Operations
Chemical Process Design
Industrial Chemistry
Process Systems Engineering
Fluid Dynamics and Flow Systems
Reaction Engineering
Environmental Engineering
Process Control and Automation
Process Modeling and Simulation
Engineering Materials

Year 3: Specialization and Industry Application

Advanced Process Control
Process Safety and Risk Management
Chemical Plant Design
Sustainable Chemical Engineering
Separation Technology
Computational Fluid Dynamics (CFD)
Advanced Materials Science
Process Optimization
Industrial Placement / Internship
Capstone Project
Project Management for Chemical Engineers
Biochemical Engineering

Upon successful completion of the ICTQual Level 6 Diploma in Chemical Engineering 360 Credits – Three Years, learners will be able to:

Year 1: Foundation of Chemical Engineering

Introduction to Chemical Engineering

Understand fundamental concepts and scope of chemical engineering.
Explore roles and career pathways in chemical and process industries.
Develop problem-solving skills for real-world engineering challenges.
Gain familiarity with chemical engineering terminology and principles.
Learn the integration of chemical processes and industrial applications.

Basic Thermodynamics

Understand laws of thermodynamics and their applications in chemical processes.
Analyze energy transformations in chemical systems.
Apply thermodynamic principles to design and optimize processes.
Develop analytical skills for energy efficiency and process evaluation.
Use thermodynamics to solve practical engineering problems.

Mathematics for Chemical Engineers

Apply advanced mathematics to model chemical engineering problems.
Use calculus, algebra, and differential equations in process analysis.
Develop quantitative skills for chemical process calculations.
Support engineering decision-making with precise numerical analysis.
Integrate mathematical modeling in design and simulation tasks.

Fluid Mechanics

Analyze fluid properties, flow behavior, and pressure distribution.
Understand principles of laminar and turbulent flow in pipelines.
Apply fluid mechanics to process equipment and industrial systems.
Develop skills in flow measurement and system design.
Solve practical engineering problems related to liquids and gases.

Material and Energy Balances

Perform mass and energy balance calculations for chemical processes.
Understand conservation laws in process design and analysis.
Apply balances to unit operations and reaction systems.
Develop problem-solving skills for process optimization.
Integrate calculations in real-world chemical engineering scenarios.

Introduction to Process Control

Understand fundamentals of process control and automation.
Learn basic instrumentation and control strategies.
Apply control principles to maintain process stability and efficiency.
Develop skills to troubleshoot and optimize process systems.
Explore the integration of sensors and actuators in chemical plants.

Chemistry for Chemical Engineers

Understand chemical reactions, bonding, and molecular structures.
Apply chemistry concepts to industrial processes and material selection.
Analyze reaction mechanisms and chemical behavior.
Support process design with chemical knowledge.
Gain foundational understanding for advanced engineering modules.

Introduction to Reaction Engineering

Comprehend chemical reaction kinetics and reactor design principles.
Analyze different types of reactors and their applications.
Apply theoretical knowledge to optimize reaction performance.
Develop problem-solving skills in reaction process design.
Integrate reaction engineering principles in industrial scenarios.

Engineering Drawing and CAD

Develop technical drawing skills for chemical engineering designs.
Learn to create accurate 2D and 3D representations using CAD tools.
Visualize process equipment and system layouts.
Apply drawing skills in project design and documentation.
Enhance communication through precise technical illustrations.

Professional Skills Development

Build effective communication, teamwork, and leadership skills.
Understand ethical, safety, and professional standards in engineering.
Develop project planning and time management abilities.
Gain workplace readiness for industrial and corporate environments.
Prepare for professional growth and career advancement in engineering.

Heat and Mass Transfer Fundamentals

Understand principles of conduction, convection, and radiation.
Analyze mass transfer processes in chemical engineering systems.
Apply heat and mass transfer knowledge in unit operations.
Optimize energy and material usage in industrial processes.
Solve engineering problems related to process efficiency.

Chemical Engineering Principles

Integrate knowledge of unit operations, process design, and safety.
Understand chemical plant operations and process optimization.
Apply engineering principles to real-world industrial challenges.
Develop analytical and critical thinking skills.
Prepare for advanced modules in chemical process engineering.

Year 2: Advanced Chemical Engineering Concepts

Advanced Thermodynamics

Apply thermodynamic principles to multi-component systems.
Analyze chemical equilibria and phase behavior.
Optimize processes for energy efficiency and cost-effectiveness.
Solve complex thermodynamic problems in industrial applications.
Integrate advanced theory with practical process design.

Heat Transfer

Analyze heat exchange in chemical and industrial systems.
Design and optimize heat exchangers and thermal equipment.
Apply conduction, convection, and radiation principles to processes.
Develop skills in thermal problem-solving and energy management.
Support industrial operations with efficient heat transfer solutions.

Mass Transfer Operations

Understand absorption, distillation, extraction, and drying processes.
Design and analyze separation systems for chemical plants.
Apply mass transfer principles to process optimization.
Solve practical engineering challenges in material separation.
Integrate lab and simulation studies for process efficiency.

Chemical Process Design

Develop skills to design chemical reactors, plants, and systems.
Apply process simulation and optimization techniques.
Ensure designs meet safety, environmental, and efficiency standards.
Integrate theoretical knowledge with practical applications.
Prepare for project-based and industry-focused assignments.

Industrial Chemistry

Understand chemical processes in industrial production.
Analyze materials, reactions, and product formulation.
Apply industrial chemistry principles in process optimization.
Explore sustainable and efficient chemical manufacturing methods.
Gain knowledge relevant to petrochemical, pharmaceutical, and specialty industries.

Process Systems Engineering

Analyze and optimize integrated chemical process systems.
Understand system interactions, control strategies, and process flow.
Apply modeling techniques for industrial process performance.
Develop problem-solving skills for complex process challenges.
Integrate multiple unit operations into efficient systems.

Fluid Dynamics and Flow Systems

Apply advanced fluid dynamics in chemical process design.
Analyze multiphase flow, turbulence, and pressure drop.
Design pumps, pipelines, and industrial flow systems.
Solve practical engineering problems using simulations and calculations.
Ensure safe and efficient process operations.

Reaction Engineering

Design and analyze chemical reactors for industrial applications.
Study kinetics, thermodynamics, and reactor efficiency.
Optimize reaction conditions for yield, safety, and sustainability.
Apply computational tools to simulate chemical reactions.
Integrate reaction engineering in process design projects.

Environmental Engineering

Analyze environmental impact of chemical processes.
Apply pollution control, waste management, and sustainability strategies.
Ensure compliance with environmental regulations and standards.
Develop sustainable process solutions in industrial operations.
Promote green engineering practices and eco-friendly design.

Process Control and Automation

Implement advanced control strategies for chemical processes.
Use sensors, actuators, and automation tools for process optimization.
Develop skills in SCADA, PLC, and process monitoring systems.
Troubleshoot and maintain automated industrial processes.
Integrate control solutions for safe and efficient plant operations.

Process Modeling and Simulation

Build computational models of chemical processes.
Simulate unit operations, reaction kinetics, and system behavior.
Optimize process performance using simulation results.
Develop predictive tools for industrial applications.
Apply modeling techniques in research, design, and industrial projects.

Engineering Materials

Study properties and applications of metals, polymers, and composites.
Select materials for chemical process equipment and safety.
Analyze material behavior under chemical and thermal stresses.
Integrate materials knowledge in process optimization and design.
Promote durability, efficiency, and sustainability in chemical systems.

Year 3: Specialization and Industry Application

Advanced Process Control

Implement advanced strategies for controlling complex chemical processes.
Optimize production, safety, and energy efficiency.
Apply predictive and adaptive control methods in industry.
Troubleshoot and improve control system performance.
Integrate automation tools with process design.

Process Safety and Risk Management

Identify hazards and assess risks in chemical plants.
Implement safety protocols and emergency response procedures.
Ensure compliance with global safety standards and regulations.
Analyze case studies to develop safety awareness and decision-making.
Promote a culture of safety in industrial environments.

Chemical Plant Design

Design comprehensive chemical production facilities.
Integrate unit operations, utilities, and safety systems.
Apply process simulation, optimization, and cost analysis.
Develop practical skills in plant layout and equipment selection.
Ensure designs meet environmental and regulatory requirements.

Sustainable Chemical Engineering

Implement sustainable practices in chemical process design.
Reduce environmental impact through waste management and energy efficiency.
Integrate renewable energy and green technologies into processes.
Develop solutions for sustainable industrial operations.
Promote ethical and responsible engineering practices.

Separation Technology

Design and analyze separation processes including distillation, absorption, and extraction.
Apply theoretical knowledge to optimize industrial separation systems.
Develop skills in process simulation and laboratory validation.
Ensure efficiency and cost-effectiveness of separation units.
Integrate separation technologies into overall process design.

Computational Fluid Dynamics (CFD)

Apply CFD techniques to simulate fluid flow and heat transfer.
Optimize process equipment and piping systems using computational models.
Analyze multiphase flow, turbulence, and reaction systems.
Solve complex engineering challenges using CFD tools.
Support design and troubleshooting of industrial processes.

Advanced Materials Science

Study cutting-edge materials for chemical and process engineering.
Analyze materials for corrosion resistance, strength, and durability.
Apply knowledge to design high-performance chemical process equipment.
Evaluate materials for environmental and operational sustainability.
Integrate material innovation in industrial applications.

Process Optimization

Optimize chemical processes for efficiency, cost, and safety.
Apply lean engineering and continuous improvement principles.
Use analytical and computational tools for decision-making.
Develop strategies to maximize production and minimize waste.
Integrate optimization techniques in real-world industrial operations.

Industrial Placement / Internship

Gain hands-on experience in chemical and process engineering industries.
Apply theoretical knowledge in practical, real-world scenarios.
Develop professional, technical, and workplace skills.
Build industry networks and career development opportunities.
Integrate academic learning with industrial practice.

Capstone Project

Conduct an independent research or design project in chemical engineering.
Integrate knowledge from all previous modules into a practical solution.
Develop project management, analytical, and presentation skills.
Demonstrate innovation and problem-solving in a professional context.
Prepare a comprehensive report showcasing technical expertise.

Project Management for Chemical Engineers

Apply project planning, scheduling, and resource management techniques.
Use project management tools for chemical engineering projects.
Ensure projects are completed on time, within budget, and to quality standards.
Develop leadership and teamwork skills in industrial projects.
Integrate management principles with technical problem-solving.

Biochemical Engineering

Understand biochemical processes and their industrial applications.
Apply bioprocess design principles in fermentation, bio-reaction, and downstream processing.
Integrate chemical and biological engineering techniques.
Develop skills for pharmaceutical, food, and biotech industries.
Solve practical engineering challenges in biochemical process systems.

The ICTQual Level 6 Diploma in Chemical Engineering 360 Credits – Three Years is designed for learners seeking advanced knowledge, practical skills, and international recognition in chemical and process engineering.

1. Aspiring Chemical Engineers

Ideal for students aiming for careers in chemical process design, production, and R&D.
Learn core concepts in reaction engineering, thermodynamics, and process control.
Gain practical skills in laboratory experiments and industrial simulations.
Develop problem-solving skills for complex chemical engineering challenges.
Prepare for entry-level or advanced roles in pharmaceutical, petrochemical, and industrial sectors.

2. Working Professionals in Chemical and Process Industries

Enhance knowledge in process optimization, automation, and industrial safety.
Gain internationally recognized certification to improve career prospects.
Develop expertise in chemical plant design, CFD, and sustainable engineering.
Learn advanced process control and risk management techniques.
Open pathways to leadership roles in chemical engineering teams.

3. Fresh STEM Graduates

Suitable for learners with backgrounds in chemistry, chemical engineering, or related STEM fields.
Build practical skills in material balances, fluid mechanics, and separation technologies.
Learn advanced computational and simulation tools for chemical processes.
Prepare for global career opportunities in process engineering and industrial operations.
Gain hands-on exposure through internships and capstone projects.

4. Career Changers and Technology Enthusiasts

For individuals from non-chemical backgrounds seeking specialization in process engineering.
Learn foundational and advanced chemical engineering concepts from scratch.
Develop skills in biochemical engineering, industrial chemistry, and sustainability.
Gain exposure to industrial applications, plant operations, and safety protocols.
Open new career pathways in chemical, pharmaceutical, and energy sectors.

5. International Students and Global Learners

Designed for learners seeking an internationally recognized Level 6 chemical engineering qualification.
Access global career opportunities in R&D, process design, and industrial management.
Learn modules aligned with international chemical engineering standards and safety regulations.
Gain skills in sustainable practices, automation, and process optimization.
Prepare for employment in multinational chemical and process companies.

6. Employers and Industry-Sponsored Learners

Upskill employees with advanced knowledge of chemical processes, automation, and plant management.
Develop workforce expertise in safety, risk management, and regulatory compliance.
Ensure staff can apply sustainable and efficient engineering practices.
Promote innovation and operational excellence in chemical plants.
Support professional growth with a globally recognized qualification.

7. Future Innovators and Researchers

For learners aiming to specialize in chemical process R&D, industrial innovation, or biochemical engineering.
Conduct research projects using advanced chemical engineering technologies.
Apply theoretical knowledge in process simulation, plant optimization, and sustainability projects.
Develop analytical, critical thinking, and project management skills.
Prepare for leadership, entrepreneurship, or advanced research roles in chemical engineering.

As an approved centre of ICTQual AB, we provide two distinct certification pathways for learners enrolling in the ICTQual Level 6 Diploma in Chemical Engineering 360 Credits – Three Years. This ensures both experienced professionals and fresh learners can achieve an internationally recognized qualification tailored to their background and career goals.

Route 1: Experienced Professionals

Designed for candidates with 6 years or more of verifiable experience in chemical engineering, process engineering, or related industrial sectors.
Recognizes prior knowledge, practical skills, and professional achievements to meet diploma requirements.
Provides a faster pathway to certification for professionals already working in chemical plants, process design, or R&D roles.
Assessments and validations align with international chemical engineering standards.
Graduates earn the ICTQual Level 6 Diploma in Chemical Engineering 360 Credits – Three Years, enhancing career growth, leadership opportunities, and global recognition.

Route 2: Fresh Candidates / Students

Designed for learners without prior chemical engineering or industry experience.
Candidates must complete all 36 mandatory assignments across the three-year program.
Provides structured training in chemical process design, reaction engineering, process optimization, and plant operations.
Offers practical exposure through laboratory work, simulations, and industry-relevant projects.
Successful learners earn the ICTQual Level 6 Diploma in Chemical Engineering 360 Credits – Three Years, opening pathways to global employment, research roles, and leadership positions.