Bachelor of Engineering (Industrial Design and Process)

Faculty of EDICT (Engineering,Design and ICT)
Programme Title (Arabic) البكالوريوس في الهندسة (التصميم الصناعي والعمليات)
Acronym / Abbreviation* B.Engg(Industrial Design & Process)
Nature Major
Programme Code ENT8025 Programme Duration 4 Year/Cycle Programme Level Level 8
Programme Credits 480 Award Category Bachelors
Effective From 2025/2026 Sem 1 as of ( August 2025 )
Owner School of Engineering
Professional Body
Professional Body Recognition Status Effective From Interim Date Professional Bodies Contact Person Evidence
Employability Skills Yes 19/01/2025        
Advance HE Yes 19/01/2025        
Institution of Engineering Technology Yes 19/01/2025        
Target Groups*
High School Graduates
International Students
People in Employment
Unemployed
Bahrain Polytechnic students from another programme
Qualification Completion Requirements Criteria

Awarded where candidates have met all of the requirements below:

  • Successful completion of, or exemption from, all courses listed in Schedule A;
  • Accumulation of at least 30 credits from courses in Schedule B;
  • Accumulation of at least 15 credits from courses from the National Requirements and National Requirements Arabic group of courses.
  • Accumulation of at least 45 credits from courses from the EDICTE and NEDICTE Elective Groups.
  • Achieve the Bahrain Polytechnic General Qualification Requirements as found in Policy A/AB/004, Naming and Awarding Qualifications.
  • Completion of courses to accumulate a total of 480 credits from any Bahrain Polytechnic Qualification.
  • Completion of 80 days of work experience.

 

Programme Overview*

The Bachelor of Industrial Design and Process Engineering Programme offered at Bahrain Polytechnic placed at NQF level 8. This Qualification also have their own exit qualification which is an Associate Degree in Engineering at NQF level 7 and Diploma degree in Engineering at NQF level 6.

The aim of an industrial design and process engineering education is to equip graduate with the skills and knowledge needed to enhance the efficiency, quality, and productivity of complex systems and processes in a variety of industries. By combining ideas from engineering, mathematics, and social science, the program prepares graduates to assess and enhance operations in the manufacturing, logistics, healthcare, and service sectors. Through a rigorous curriculum that encompasses systems design, operations research, supply chain management, and quality control, students learn to identify inefficiencies and implement innovative solutions that improve process performance and save costs.

Additionally, by emphasizing the value of ergonomics, sustainability, and the human element of engineering, the curriculum fosters a thorough grasp of how systems interact with people and the environment. Graduates become proficient problem solvers who can address practical problems with both quantitative and qualitative methods, ultimately contributing to the creation of safer, more efficient, and more sustainable workplaces.

The curriculum aims to instil in students a leadership, critical thinking, and continuous improvement mindset that will empower them to make positive changes in their communities and organizations, in addition to preparing them for successful careers in this program

This qualification is delivered over a 4-year period consisting of 8 semesters. Students are expected to take 60 credits on average per semester and thus at the completion of their studies they should have accumulated a total of 480 credits. In those 480 credits, there exist 45 credits of Elective courses, 15 credits of National Requirements courses, 30 credits of English courses and the remaining 390 credits are taken from Core and Specialized Engineering Courses. Additionally, the students are required to complete a total of 80 work placement days with a common 1st Year with courses that lay the foundations of Engineering and provide the students with the required knowledge to succeed in their chosen specialization.

The uniqueness of the B.Eng. at Bahrain Polytechnic is the strong commitment of the Institution to deliver this qualification using student-centred learning and more specifically, the Problem-Based Learning (PBL) Methodology. Using this learning methodology, allows us to provide the required theoretical knowledge, practical skills and employability skills to our graduates and thus achieve our mission of producing enterprising and work-ready graduates for the Bahrain Society and Economy. The PBL methodology is implemented through the design of appropriate assignments that motivate the students to provide a solution to an Engineering design and/or analysis problem. Students are required to complete lab experiments, software practical assignments, design projects, controlled assignments such as theory tests and to provide rational justification for their work through the preparation of technical reports, presentations and posters. The theoretical knowledge given to the students is provided through a balanced combination of lectures, tutorials, experimental work, project work and one-to-one supervision with Faculty members.

 
Entry and Selection*

General entry requirements such as secondary school achievements, English and Mathematics are described in the Student Admission Policy A/AB/010. Specific entry requirements for this Programme, beyond those described in the Student Admission Policy are as follows:

Academic :

  •    Passing English and Mathematics selection tests at the required level or equivalent.
  • “Achievement of AP5101 OR AP5102, AP5201, AP5202, AP5307, AP5096 and one of the access courses related to their degree (AP5302, AP5303, AP5304, AP5305, AP5308, AP5309, AP5310) is required for entry into all Polytechnic degree level programmes.
  • Students will need to complete their required Foundation courses within the period of one year.
  • Based on the achieved GPA, which is reviewed regularly by Deans and approved at Academic Council, it will be determined if the student will be eligible for Diploma or Bachelor studies”
  • Bahrain Polytechnic foundation program graduates will be accepted in the Bachelor programs if their GPA is more than 3.
  • Bahrain Polytechnic diploma graduates can progress to the higher qualification (Associate Degree or Bachelor) directly if their GPA is more than 2.75 (more than 75%)
  • Associate Degree graduates of Bahrain Polytechnic can progress to the higher-level qualification.
  • All the above may be accepted in the Bachelor of Engineering programme according to the availability of seats, per academic year. 
  • NB Applicants with relevant work experience and track record in a relevant industry may be considered for direct entry to the degree programme as long as they meet the English requirements for entry.
 
Selection and Criteria and Process*

Where there are more applicants who meet the programme entry criteria than can be accepted, the following shall be used:

Selection Criteria

  • Successful completion of the Foundation Programme at Bahrain Polytechnic and demonstration of a commitment to study.
  • Results from programme entry tests.
  • Work experience and prior educational achievement.

Selection Process

  • Applicants may be required to attend an interview.

Selection Criteria

Example: Priority to those completed Certificate in Academic Preparation, highest scores in entry testing, etc.

 
Major Selection Criteria*

Where the number of applicants exceeds the available places the following criteria for selection apply:

  • First priority to students who have completed all courses in the common first year of the degree.
  • Second priority will be those with highest combined GPAs from EN6914- Mathematics for Engineers-2 and EN6903- Mechanical Fundamentals.
 
Accreditation / External Approval Requirements*

Bachelor of Engineering in industrial Design & Process Engineering program is seeking for potential IET, InstMC UK accreditation.

 
Attendance Requirements*

Attendance requirements are described in the policy Student Attendance A/AB/010.

 
Qualification Overview*

The Industrial Design and Process Engineering qualification is a technically strong qualification that aims to provide for the needs industry nationally, regionally and internationally.  The qualification has a wide base of Industrial design knowledge and skills upon which graduates can build to reflect the wide range of fields and industries that are present locally and regionally. There is emphasis on CAD/CAM, Industrial system Design, Artificial Intelligence in industrial Engineering to suit a wide variety of industries and job roles like petrochemical, aluminum and manufacturing industries.

Students gain advanced theoretical knowledge and specialist practical skills in the areas of Operation research, workshop practice, ThermoFluid's, material science, manufacturing process, safety Engineering, Engineering Project Management, vibration and noise, energy and sustainability, Computer Aided Design, Computer integrated and manufacturing and automation Lab and Production planning and inventory control.  Students are introduced to software packages, CNC train,Python,Matlab and LabView and 3Dimensional modelling software, SolidWorks, is integrated and used extensively throughout the programme. 

 
Qualification Aim*
  • The aim of an industrial design and Process engineering education is to equip graduate with the skills and knowledge needed to enhance the efficiency, quality, and productivity of complex systems and processes in a variety of industries.
  • By combining ideas from engineering, mathematics, and social science, the program prepares graduates to assess and enhance operations in the manufacturing, logistics, healthcare, and service sectors. Through a rigorous curriculum that encompasses systems design, operations research, supply chain management, and quality control, students learn to identify inefficiencies and implement innovative solutions that improve process performance and save costs.
  • Additionally, by emphasizing the value of ergonomics, sustainability, and the human element of engineering, the curriculum fosters a thorough grasp of how systems interact with people and the environment. Graduates become proficient problem solvers who can address practical problems with both quantitative and qualitative methods, ultimately contributing to the creation of safer, more efficient, and more sustainable workplaces.

 

The curriculum aims to instil in students a leadership, critical thinking, and continuous improvement mindset that will empower them to make positive changes in their communities and organizations, in addition to preparing them for successful careers in industrial design engineering.

 
Graduate Pathways and Destination*

During this undergraduate program, students gain foundational knowledge in design principles, Industrial design, Operation research, materials science, manufacturing processes, AI in industrial Engineering,3D Printing and additive manufacturing, aerodynamic industrial design often complemented by hands-on projects and internships. After completing their degree, Graduates can expect to develop careers in the following fields as per the qualification like:

Diploma in Industrial design and Process Engineering graduates’ designation

  • Manufacturing Technician
  • Product Designer
  • User Experience (UX) Designer
  • Design Researcher
  • 3D Modeler
  • CAD Technician
  • Prototype Technician
  • Research and Development Technician
  • Packaging Designer

 

Associate Diploma in Industrial design and Process Engineering graduates’ designation

  • Industrial Designer
  • CAD Technician/Drafter
  • Product Development Assistant
  • Quality Control Inspector
  • Manufacturing Engineer
  • Production Planner
  • Custom Fabricator
  • Tool and Die Maker
  • Product Development Associate
  • Sustainability Specialist

 

Bachelor of Industrial design and Process Engineering graduates’ designation

  • Project planning engineer
  • Project controller / manger
  • Plant engineer
  • Process Improvement Consultant/Engineer
  • Industrial engineer
  • Operations Manager
  • Supply Chain Manager/Analyst
  • Energy efficiency engineer
  • Quality Engineer/Manager (or) Quality Assurance Inspector
  • Innovation and technology manager
  • Technical Field Controller
  • Occupational Health and Safety engineer/manager
  • Industrial goods Sales / Marketing engineer

 

 
Other Information*

Employability Skills Generic Definition:

Communication

Communicate in ways that contribute to productive and harmonious relationships across employees and customers.

Teamwork

Work effectively independently and in collaboration with others.

Problem solving

Think critically and respond appropriately to changing needs within a growing and diversifying economy.

Initiative and enterprise

Apply resourcefulness, innovation, and strategic thinking to a range of workplace situations.

Planning and organization

 Plan and manage their working lives.

Self-management

Demonstrate self-discipline and adaptability and be able to plan and achieve personal and professional goals.

Learning

Understand the need for and engage with continuous learning throughout the lifespan.

Technology

Utilize information technology effectively and ethically in their personal and professional lives.

 

Programme Learning Outcomes

On successful completion of this programme the learner will be able to :

Description
Apply Procedural knowledge of mathematics, science, engineering fundamentals, and industrial engineering specialization to applied engineering procedures, processes and systems
Utilize research literature and solve broadly defined engineering problems reaching substantiated conclusions using analytical tools appropriate to industrial Design and process engineering discipline or specialization.
Demonstrate commitment to professional ethics, responsibilities and norms of industrial Design engineering practice.
Recognize the impact of industrial design engineering solutions in a societal context and demonstrate knowledge of the need for sustainable development.
Demonstrate understanding of the societal, health, safety, legal and cultural issues and the consequent responsibilities relevant to engineering technology practice.
Contribute to the design of solutions for defined industry and engineering technology problems and of systems, components or processes to meet specified needs with appropriate consideration for public health and safety, cultural, societal, and environmental considerations.
Undertake operations and monitor processes in industry according to local, regional and international standards
Apply appropriate techniques, resources, and modern industrial Design engineering tools modelling tools like CAD and simulation software’s to broadly defined engineering activities, with an understanding of their limitations.
Locate relevant data from codes, data bases and literature, identify and conduct experiments based on industrial engineering principles to provide valid conclusions.
Practice as an Industrial design & process engineering technologists professional using 21st century skills.
Apply techniques, skills and modern technologies in industrial design engineering practice to be competitive in the national and global marketplace.
Solve practical problems in specific Industrial design settings using sound analytical, industrial, laboratory, and time-management skills.
Demonstrate an awareness and understanding of management and business practices, such as risk and change management, and understand their limitations.
Continuously improve systems, products, processes, and services with emphasis on quality, productivity, and competitiveness.
Effectively communicate complex engineering concepts to diverse audiences and Work collaboratively in multidisciplinary teams to achieve project goals.

Semester Schedules

Year 1 / Semester 1

Core
Course Code Title
EL6006 English Communication Skills A
EN6000 Electrical Fundamentals
EN6990 Engineering Practice
EN6907 Mathematics for Engineers 1

Year 1 / Semester 2

Core
Course Code Title
EN6010 Engineering Computing Fundamentals
EL6007 English Communication Skills B
EN6914 Mathematics for Engineers 2
EN6903 Mechanical Fundamentals

Year 2 / Semester 1

Core
Course Code Title
EN6904 Engineering Graphics
EN6907 Mathematics for Engineers 1
NR National Requirements
EN6924 Probability and statistics for Engineers
Optional
Course Code Title
NR-Arabic National Requirements- Arabic

Year 2 / Semester 2

Core
Course Code Title
ED7000 Applied Project
EN7926 Computer Aided Design/Computer Aided Manufacturing
EN7908 Manufacturing, Control and Environmental Sustainability
EN6107 Material Science 1
EN7925 Thermofluids

Year 3 / Semester 1

Core
Course Code Title
EN8923 Engineering Project Management
EN7928 Industrial System Design
EN7927 Operation Research

Year 3 / Semester 1 & 2

Elective
Course Code Title
EDICTE EDICT Electives

Year 3 / Semester 2

Core
Course Code Title
EN7853 Engineering Economy and Cost Analysis
EN7929 Industrial Safety Engineering
EN7230 Instrumentation and Automatic Control
EN8925 Quality Control, Assurance and Reliability

Year 4 / Semester 1

Core
Course Code Title
EN8927 3D Printing and Additive Manufacturing
EN8990 Aerodynamics in Industrial Design
EN8926 Artificial Intelligence in Industrial Engineering
EN8908 Manufacturing Processes
EN8913 Project Proposal

Year 4 / Semester 2

Core
Course Code Title
NEDICTE Non-EDICT Electives
EN8914 Co-operative Learning Project
EN8911 Engineering Research Project
EN8928 Production Planning and Inventory Control