beta.pua.edu.eg · web view2019/04/05 · the department of petrochemical engineering – faculty...

البيتروكيماويات هندسة لبرنامج دراسى برنامج Novembeتوصيفr 2016

Form no. (13)

Pharos University in AlexandriaUniversity/ Academy:Faculty of EngineeringFaculty/Institute:Petrochemical EngineeringDepartment :Prof. Dr. H. AbdelmaksoudProgram Coordinator

6/1/2016Date od Program Approval

A-Basic Information:

Petrochemical EngineeringProgram1.

DoubleProgram Type:2.

Petrochemical EngineeringDepartment3.

The Academic Reference Standards (ARS) for the Petrochemical Engineering program approved by NAQAAE in Decree (148) on 28th Dec, 2015.

Adopted Academic standards4.

B-Specialized Information :

1. Program Objectives :

1-1 Vision of the department

The Department of Petrochemical Engineering – Faculty of Engineering - University of Pharos adopts vision to be a pioneer in the field of Petrochemical engineering and its applications also focuses on scientific research to gain access to the latest techniques in the field of Petrochemical engineering to attend scholars and researchers at both the local and regional levels. The department also provides scientific advice to all Institutions working in the field of Petrochemical engineering.

البتروكيماويات - - 1 هندسة قسم الهندسة كلية باإلسكندرية فاروس جامعة

Program Specification for Petrochemical Engineering Program

البتروكيماويات هندسة لبرنامج دراسى برنامج Novemberتوصيف2016

1-2 Mission of the department

Upgrading the level of engineering education in the field of Petrochemical engineering according to national standards and is consistent with international standards and work to expand the horizon of knowledge among students through continuous research and development and technology transfer to serve the needs of the community through the cooperation with the industrial sector and the government. The department seeks to create a climate develops the ability to conduct advanced scientific research and establishes the concept of ethics and sense of belonging to society.

1-3 Aims of the Program

The main objective of the department of Petrochemical engineering at Pharos University in Alexandria is to provide the labor market in Egypt and the Arab world with qualified Petrochemical engineers. The engineers supplied are highly qualified with the knowledge and skills specified internationally in the field. In this regard, it is noted that the national plan published by the ministry of Petroleum indicates that 10 thousands engineers are needed to fulfill the demand of the planned investments. In addition, the department offers training programs for the engineers already employed in the Petrochemical industry in Egypt and the Arab world.

1-4 Attributes of the Graduates of Petrochemical Engineering :

The graduates of the engineering programs should be able to:

1. Apply knowledge of mathematics, science and engineering concepts to the solution of engineering problems.

2. Design a system; component and process to meet the required needs within realistic constraints.

3. Design and conduct experiments as well as analyze and interpret data.4. Identify, formulate and solve fundamental engineering problems.5. Use the techniques, skills, and appropriate engineering tools, necessary for

engineering practice and project management.6. Work effectively within multi-disciplinary teams.7. Communicate effectively. 8. Consider the impacts of engineering solutions on society and environment.9. Demonstrate knowledge of contemporary engineering issues.

2 - - قسم الهندسة كلية باإلسكندرية فاروس هندسةجامعةالبتروكيماويات


10. Display professional and ethical responsibilities; and contextual understanding.

11. Engage in self- and life- long learning.12. Build upon sound foundation in mathematics and other request science13. Utilize and manage resources creatively through effective analysis and

interpretation.14. Recognize the potential and applicability of computer based methods in

chemical engineering design.15. Draw upon a basic knowledge of petrochemical process industries.16. Address the issues of process dynamics and control in plant operation.17. Relate chemical reactions and their characteristics to process industries.18. Design a system; component and process to meet the required needs within

realistic constraints in petrochemical fields.19. Optimize industrial designs and use theories and basics to select their best

locations.20. Plan and execute research work, evaluate outcomes and draw conclusions.21. Engage in safe laboratory practice.22. Apply knowledge and skills to respond to the recent technological changes.23. Assess and control the impact that petrochemical engineering has on

society from an environmental, economic, social and cultural point of view.24. Improve environmental impact and economical implications of production

processes. 25. Recognize the challenging role and responsibilities of the professional

engineer, while abiding by the ethics of the profession.26. Display capability to work competently in the context of a diverse team

within multidisciplinary environment, as an individual member with teamwork fortitude or as an inspiring leader with effective management skills.

27. Recognize the need to take on independent life-long learning and continuous self improvement in the context of scientific and engineering advancement and professional development.

28. Turn raw materials into valuable products.29. Combine elements and create new synthetic substances that are useful on a

daily basis. 30. Use petrochemicals to process our foods, create clothes, fuel cars, heat

homes, and recycle new materials from refuse.



2. Program Intended Learning Outcomes (ILOs)

2-1 Knowledge and Understanding:

On successful completion of the program, graduates from Petrochemical Engineering specialization will show ability to know and understand the:

A1.Concepts and theories of mathematics and sciences, appropriate to the discipline.

A2.Basics of information and communication technology (ICT).

A3.Characteristics of engineering materials related to the discipline.

A4.Principles of design including elements design, process and/or a system related to specific disciplines.

A5.Methodologies of solving engineering problems, data collection and interpretation

A6.Quality assurance systems, codes of practice and standards, health and safety requirements and environmental issues.

A7.Business and management principles relevant to engineering.

A8.Current engineering technologies as related to disciplines.

A9.Topics related to humanitarian interests and moral issues.

A10.Technical language and report writing

A11.Professional ethics and impacts of engineering solutions on society and environment

A12.Contemporary engineering topics.

A13.The fundamentals, basic characteristics and features of organic and inorganic reactions, and their application in chemical process industries including petroleum refining, natural gas processing, petrochemicals industry, electrochemistry, fertilizers and ceramics, etc.

A14.The role of information technology in providing support for petrochemical engineers.

A15. The characteristics of the different states of matter and interfaces between them.



A16. The conventional procedures of chemical analysis and characterization of common

engineering materials and components, with specific reference to crude oil products

and products of various refining and chemical treatment process.

A17. The principles of chemical engineering including chemical reaction equilibrium and

thermodynamics; mass and energy balance; transport processes; separation processes,

mechanical unit operations and process control.

A18. General principles of design techniques specific to particular products and processes

including reactor and vessel design.

A19. Environmental impact of various industries, waste minimization and treatment of

industrial facilities.

A20. Fundamentals and theories of process/equipment control and operation.

A21. Basic principles of specific techniques of distillation towers, reactors, heat exchangers,

pumps, compressors …etc.

A22. The technological properties of key groups of petrochemical industries and petroleum

products.

A23. Basic principles of oil and gas industry.

A24. Fundamentals and process flow diagrams of typical industrial petrochemical plants (case

studies).

A25. Concepts of efficient use of raw materials, energy and water.

A26. Strategies for improvement of current technologies and manufacturing facilities.

2-2 Intellectual Skills :

On Successful completion of the Petrochemical engineering program, graduates must be able to:

B1. Select appropriate mathematical and computer-based methods for modelling and analyzing problems.

B2. Select appropriate solutions for engineering problems based on analytical thinking.

B3. Think in a creative and innovative way in problem solving and design.

B4. Combine, exchange, and assess different ideas, views, and knowledge from a range of sources.



B5. Assess and evaluate the characteristics and performance of components, systems and processes.

B6. Investigate the failure of components, systems, and processes.

B7. Solve engineering problems, often on the basis of limited and possibly contradicting information.

B8. Select and appraise appropriate ICT tools to a variety of engineering problems.

B9. Judge engineering decisions considering balanced costs, benefits, safety, quality, reliability, and environmental impact.

B10. Incorporate economic, societal, environmental dimensions and risk management in design.

B11. Analyze results of numerical models and assess their limitations.

B12. Create systematic and methodic approaches when dealing with new and advancing technology.

B13. Integrate processing steps into a sequence and apply analysis technique such as energy and mass balance.

B14. Summarize and select the appropriate techniques relevant to different industries.

B15. Collect data, draw simplified equipment flow sheets, charts and curves and interpret data derived from laboratory observation.

B16. Use manufacturer’s data sheets and justify the use of particular equipment for well-defined problems involving petrochemical engineering systems.

B17. Select and apply computer based methods for simulating petrochemical engineering systems and design solutions within defined context.

B18. Conceive an explanatory hypothesis and design critical tests to evaluate it.

B19. Synthesize new processes or products through utilization and effective management of available resources.

B20. Analyze design performances as for economics and environment.

B21. Suggest methods to improve basic process and equipment designs.

2-3 Professional and Practical Skills :

On Successful completion of the Petrochemical engineering program, graduates will demonstrate ability to:



C1.Apply knowledge of mathematics, science, information technology, design, business context and engineering practice integrally to solve engineering problems.

C2.Professionally merge the engineering knowledge, understanding, and feedback to improve design, products and/or services.

C3.Create and/or re-design a process, component or system, and carry out specialized engineering designs.

C4.Practice the neatness and aesthetics in design and approach.

C5.Use computational facilities and techniques, measuring instruments, workshops and laboratory equipment to design experiments, collect, analyze and interpret results.

C6.Use a wide range of analytical tools, techniques, equipment, and software packages pertaining to the discipline and develop required computer programs.

C7.Apply numerical modelling methods to engineering problems.

C8.Apply safe systems at work and observe the appropriate steps to manage risks.

C9.Demonstrate basic organizational and project management skills.

C10. Apply quality assurance procedures and follow codes and standards.

C11. Exchange knowledge and skills with engineering community and industry.

C12. Prepare and present technical reports.

C13. Perform complete mass and energy balances for chemical engineering plants.

C14. Apply the principles of chemical equilibrium and process thermodynamics to systems with chemical reactions.

C15. Conduct troubleshooting in chemical engineering plants.

C16. Use chemical engineering IT tools and programming in design.

C17. Determine the characteristics and performance of measurement and control systems.

C18. Employ principles and concepts of transport phenomena in problem solving.

C19. Plan and carry out specialized engineering designs for optimal operation, in petrochemical related fields, of reaction, separation, heat transfer and mixing processes (lab & simulation based) and critically evaluate the outcomes.

C20. Use appropriate codes of practice and industry standards within defined guidelines.

C21. Design and operate processes efficiently to manufacture advanced polymeric materials

C22. Use basic equipment and machinery safely and train other personnel on hands-on knowledge and practices.



2-4 General and Transferable Skills :


D1. Collaborate effectively within multidisciplinary team.

D2. Work in stressful environment and within constraints.

D3. Communicate effectively.

D4. Demonstrate efficient IT capabilities.

D5. Lead and motivate individuals.

D6. Effectively manage tasks, time, and resources.

D7. Search for information and engage in life-long self learning discipline.

D8. Acquire entrepreneurial skills.

D9. Refer to relevant literatures.

3. ACADEMIC REFERENCE STANDARDS (ARS) FOR

P ETROCHEMICAL ENGINEERING PROGRAM.

3-1 Knowledge and Understanding:

On successful completion of the program, graduates from Petrochemical Engineering specialization will show ability to know and understand of:

1.1. Concepts and theories of mathematics and sciences, appropriate to the discipline.

1.2. Basics of information and communication technology (ICT).

1.3. Characteristics of engineering materials related to the discipline.

1.4. Principles of design including elements design, process and/or a system related to specific disciplines.

1.5. Methodologies of solving engineering problems, data collection and interpretation

1.6. Quality assurance systems, codes of practice and standards, health and safety requirements and environmental issues.

1.7. Business and management principles relevant to engineering.



1.8. Current engineering technologies as related to disciplines.

1.9. Topics related to humanitarian interests and moral issues.

1.10. Technical language and report writing

1.11. Professional ethics and impacts of engineering solutions on society and environment

1.12. Contemporary engineering topics.

1.13. The fundamentals, basic characteristics and features of organic and inorganic reactions, and their application in chemical process industries including petroleum refining, natural gas processing, petrochemicals industry, electrochemistry, fertilizers and ceramics, etc.

1.14. The role of information technology in providing support for petrochemical engineers.

1.15. The characteristics of the different states of matter and interfaces between

them.

1.16. The conventional procedures of chemical analysis and characterization of

common engineering materials and components, with specific reference to crude

oil products and products of various refining and chemical treatment process.

1.17. The principles of chemical engineering including chemical reaction

equilibrium and thermodynamics; mass and energy balance; transport processes;

separation processes, mechanical unit operations and process control.

1.18. General principles of design techniques specific to particular products and

processes including reactor and vessel design.

1.19. Environmental impact of various industries, waste minimization and treatment

of industrial facilities.

1.20. Fundamentals and theories of process/equipment control and operation.

1.21. Basic principles of specific techniques of distillation towers, reactors, heat

exchangers, pumps, compressors …etc.

1.22. The technological properties of key groups of petrochemical industries and

petroleum products.

1.23. Basic principles of oil and gas industry.



1.24. Fundamentals and process flow diagrams of typical industrial petrochemical

plants (case studies).

1.25. Concepts of efficient use of raw materials, energy and water.

1.26. Strategies for improvement of current technologies and manufacturing

facilities.

3-2 Intellectual Skills :

On Successful completion of the Petrochemical engineering program, graduates must be able to:

2.1. Select appropriate mathematical and computer-based methods for modelling and analyzing problems.

2.2. Select appropriate solutions for engineering problems based on analytical thinking.

2.3. Think in a creative and innovative way in problem solving and design.

2.4. Combine, exchange, and assess different ideas, views, and knowledge from a range of sources.

2.5. Assess and evaluate the characteristics and performance of components, systems and processes.

2.6. Investigate the failure of components, systems, and processes.

2.7. Solve engineering problems, often on the basis of limited and possibly contradicting information.

2.8. Select and appraise appropriate ICT tools to a variety of engineering problems.

2.9. Judge engineering decisions considering balanced costs, benefits, safety, quality, reliability, and environmental impact.

2.10. Incorporate economic, societal, environmental dimensions and risk management in design.

2.11. Analyze results of numerical models and assess their limitations.

2.12. Create systematic and methodic approaches when dealing with new and advancing technology.

2.13. Integrate processing steps into a sequence and apply analysis technique such as energy and mass balance.



2.14. Summarize and select the appropriate techniques relevant to different industries.

2.15. Collect data, draw simplified equipment flow sheets, charts and curves and interpret data derived from laboratory observation.

2.16. Use manufacturer’s data sheets and justify the use of particular equipment for well-defined problems involving petrochemical engineering systems.

2.17. Select and apply computer based methods for simulating petrochemical engineering systems and design solutions within defined context.

2.18. Conceive an explanatory hypothesis and design critical tests to evaluate it.

2.19. Synthesize new processes or products through utilization and effective management of available resources.

2.20. Analyze design performances as for economics and environment.

2.21. Suggest methods to improve basic process and equipment designs.

3.3 Professional and Practical Skills :


3.1. Apply knowledge of mathematics, science, information technology, design, business context and engineering practice integrally to solve engineering problems.

3.2. Professionally merge the engineering knowledge, understanding, and feedback to improve design, products and/or services.

3.3. Create and/or re-design a process, component or system, and carry out specialized engineering designs.

3.4. Practice the neatness and aesthetics in design and approach.

3.5. Use computational facilities and techniques, measuring instruments, workshops and laboratory equipment to design experiments, collect, analyze and interpret results.

3.6. Use a wide range of analytical tools, techniques, equipment, and software packages pertaining to the discipline and develop required computer programs.

3.7. Apply numerical modelling methods to engineering problems.

3.8. Apply safe systems at work and observe the appropriate steps to manage risks.



3.9. Demonstrate basic organizational and project management skills.

3.10. Apply quality assurance procedures and follow codes and standards.

3.11. Exchange knowledge and skills with engineering community and industry.

3.12. Prepare and present technical reports.

3.13. Perform complete mass and energy balances for chemical engineering plants.

3.14. Apply the principles of chemical equilibrium and process thermodynamics to systems with chemical reactions.

3.15. Conduct troubleshooting in chemical engineering plants.

3.16. Use chemical engineering IT tools and programming in design.

3.17. Determine the characteristics and performance of measurement and control systems.

3.18. Employ principles and concepts of transport phenomena in problem solving.

3.19. Plan and carry out specialized engineering designs for optimal operation, in petrochemical related fields, of reaction, separation, heat transfer and mixing processes (lab & simulation based) and critically evaluate the outcomes.

3.20. Use appropriate codes of practice and industry standards within defined guidelines.

3.21. Design and operate processes efficiently to manufacture advanced polymeric materials

3.22. Use basic equipment and machinery safely and train other personnel on hands-on knowledge and practices.

3.4. General and Transferable Skills :


4.1. Collaborate effectively within multidisciplinary team.

4.2. Work in stressful environment and within constraints.

4.3. Communicate effectively.

4.4. Demonstrate efficient IT capabilities.

4.5. Lead and motivate individuals.

4.6. Effectively manage tasks, time, and resources.



4.7. Search for information and engage in life-long self learning discipline.

4.8. Acquire entrepreneurial skills.

4.9. Refer to relevant literatures.


البتروكيماويات هندسة لبرنامج دراسى برنامج November 2016توصيف

4. Relation between ARS vs Program ILO’s

Petrochemical Engineering Program ILO’S (Knowledge and Understanding)

A1

A2

A3

A4

A5

A6

A7

A8

A9

A10

A11

A12

A13

A14

A15

A16

A17

A18

A19

A20

A21

A22

A23

A24

A25

A26

AR

S IL

O’s

(KN

OW

LE

DG

E &

UN

DE

RST

AN

DIN

G) 1.1.

1.2.

1.3.

1.4.

1.5.

1.6.

1.7.

1.8.

1.9.

1.10.

1.11.

1.12.

1.13.

14 قسم - - الهندسة كلية فاروسباإلسكندرية البتروكيماويات جامعة هندسة


1.14.

1.15.

1.16.

1.17.

1.18.

1.19.

1.20.

1.21.

1.22.

1.23.

1.24.

1.25.

1.26.



Petrochemical Engineering Program ILO’S (Intellectual skills)B

1

B2

B3

B4

B5

B6

B7

B8

B9

B10

B11

B12

B13

B14

B15

B16

B17

B18

B19

B20

B21

AR

S IL

O’s

(IN

TE

LL

EC

TU

AL

SK

ILL

S )

2.1.

2.2.

2.3.

2.4.

2.5.

2.6.

2.7.

2.8.

2.9.

2.10.

2.11.

2.12.

2.13.

2.14.



2.15.

2.16.

2.17.

2.18.

2.19.

2.20.

2.21.



Petrochemical Engineering Program ILO’S (PRACTICAL & PROFESSIONAL SKILLS)C

1

C2

C3

C4

C5

C6

C7

C8

C9

C10

C11

C12

C13

C14

C15

C16

C17

C18

C19

C20

C21

C22

AR

S IL

O’s

(PR

AC

TIC

AL

&

3.1.

3.2.

3.3.

3.4.

3.5.

3.6.

3.7.

3.8.

3.9.

3.10.3.11.



PRO

FESS

ION

AL

SK

ILL

S )3.12.

3.13.

3.14.

3.15.

3.16.

3.17.

3.18.

3.19.

3.20.

3.21.

3.22.


5. Program Contents :

مستويات 5-1 خمسة على موزعة المعتمدة الساعات نظام على يعتمد البرنامج) دراسية) Five Academic Levelsدراسية فصول عشرة 10أو

Academic Semesters.((

هندسة 5-2 تخصص الهندسة كلية من البكالوريوس درجة على للحصول يشترطعن تقل ال دراسية فترة الطالب يقضى أن ً 5البتروكيماويات عددا و سنوات

عن يقل ال الدراسية الفصول , 10من عدد بنجاح الطالب فيها يحقق فصولعن تقل ال المعتمدة الساعات تراكمى 180من بمعدل .2ساعة األقل على

المعتمدة (5-3 الساعات ) : Credit Hoursعدد

Cr 17 ختياريإCr 163إلزامي Cr 180إجمالى

المعتمدة الساعات من التخرج اإلجمالىمتطلباتالجامعة إجبارية متطلبات 1212متطلبات

الكلية متطلباتإجبارية 33متطلبات

39 علوم ( إختيارية متطلبات6إنسانية)

للقسم اإلجبارية 116المتطلبات

129 ( ) للقسم إنسانية علوم اإلجبارية 2المتطلبات

( للقسم ( إنسانية علوم إختيارية 2متطلبات

للتخصص اإلختيارية 9المتطلباتالمعتمدة الساعات من التخرج متطلبات 180إجمالى

على 6 مقسمة البرنامج دراسية محتويات مستويات فصول خمسة عشرة ودراسية :

1 st Year (Semester-1)


CodeCourse Title Credit

TeachingSubject Area

Lecture

Tutorial

Practical

Hum

& Soc

Math &

Basic

Basic E

ngineering

UGE01English language (1)21022

UEC 01Computer skills and programming concepts (1)

21022

BE101Engineering Mathematics (1)33213

BE111Engineering Mechanics (1)33203

BE121Engineering Physics (1)33113

BE141Engineering Drawing &Descriptive Geometry (1)

32403

HU 121History of Engineering & Technology21022

18149821132



1 st Year (Semester-2)



Lecture

Tutorial

Practical

Hum

& Soc

Math &

Basic

Basic E

ngineering

BE102Engineering Mathematics (2)

33213

BE112Engineering Mechanics (2)

22202

BE122Engineering Physics (2)

32123

BE142Engineering Drawing &Descriptive Geometry (2)

32313

BE131General Chemistry22022

ME170Introduction to Manufacturing processes

22022

UGE02English language (2)21022

UEC 02EComputer skills and programming concepts (2)

21022

19167122872



2 nd Year (Semester-3)



Lecture

Tutorial

Practical

Hum

& Soc

Math &

Basic

Basic E

ngineering

BE103Engineering Mathematics (3)

33203

PE217Material Science33023

ME251Fluid Mechanics (1)32213

PE210Organic Chemistry (1)32033

PE214Inorganic and Analytical Chemistry32033

HU113Technical Report Writing and Presentation Skills

22022

1714411296



2 nd Year (Semester-4)



Lecture

Tutorial

Practical

Hum

& Soc

Math &

Basic

Basic E

ngineering

BE 204Engineering Mathematics (4)

33203

PE 231Heat Transfer43224

PE 213Organic Chemistry (2)32033

PE 314Instrumental Analysis32033

PE 315Physical Chemistry33023

HU 141Ethics & human rights22002

1815410297



3 rd Year (Semester-5)



Lecture

Tutorial

Practical

Hum

& Soc

Math &

Basic

Basic E

ngineering

BE 207Numerical analysis using MATLAB

32223

BE 208Applied Probability and Statistics

33203

PE 200Chemical Engineering Thermodynamics (1)

33203

PE 218Mechanics of Materials and Mechanical Design

33203

PE 327Chemical Process Principles

43404

EGE03English language (3)21022

18161222376



3 rd Year (Semester-6)



Lecture

Tutorial

Practical

Hum

& Soc

Math &

Basic

Basic E

ngineering

PE 389Introduction to Environmental Engineering

33003

PE 220Chemical Engineering Thermodynamics (2)

43214

EE 208Fundamentals of Electrical Engineering

33113

PE 324Gas Treatment and Liquefaction

44104

UGA03Arabic language22002

HUHumanities elective (1)

table (2)22002

1817524734



4 th Year (Semester-7)



Lecture

Tutorial

Practical

Hum

& Soc

Math &

Basic

Basic E

ngineering

PE 201Introduction to Petrochemical Industries

33003

EE 212Measurement & Interface33113

PE 313Mass Transfer33203

PE 333Chemical Reaction & Industrial Catalysis

43214

PE 335Polymer Science and Engineering I

33113

HUHumanity Elective course:2 table (2)

22002

18176323346






Lecture

Tutorial

Practical

Hum

& Soc

Math &

Basic

Basic E

ngineering

UC 01Communication skills22002

PE 317Unit Operation43224

PE 320Automatic Process Control

33203

PEPE Elective Course-1 table (1)32203

PE 321Computer Applications22022

PE 362Petroleum Refining & Evaluation of its Products

43214

Total18158521024





TeachingSubject AreaL

ecture

Tutorial

Practical

Hum

& Soc

Math &

Basic

Basic E

ngineering

PE 361Fertilizer Industry33203

PE 368Chemical Plant Design I33203

PE 385Optimization of Chemical Processes33203

PEPE Elective Course-2 (table 1)33003

PE400-1Graduation project I43034

HUDepartment Humanity Elective course-

table (2)22002

18176326343





TeachingSubject AreaL

ecture

Tutorial

Practical

Hum

& Soc

Math &

Basic

Basic E

ngineering

PE 318Industrial Corrosion33013

PE 369Chemical Plant design II33203

PE 390Industrial Equipment and Material Handling33203

PEPE Elective Course-3

table (1)33003

PE 400-2

Graduation Project II43034

HUHumanity Elective course-3 table (2)

22002

1817442124



Table 1: Table of Petrochemical Engineering Required Elective Courses

Table 2: Faculty elective courses

CodeSubjectsCr. Hrs.HU 131Project Management2CrHU 132Accounting and Costs for Engineers2CrHU 133Engineering Statistics2CrHU 134Engineering Economy2CrHU 135Sales, Marketing and Communication Techniques2CrHU 142Legislations and Contracts2CrHU 143Principles of Law2CrHU 144Communications Laws and Rules2CrHU 151Industrial Safety2CrHU 161Environment and Society2CrHU 162Human Computer Interaction2CrHU 163Astronomy and Space Sciences2CrHU 164Research Methods2CrHU 170Risk Management2CrHU141Ethics and human rights2Cr


Code No.Course TitleCrPrerequisites

PE 326Gas storage and Transportation3PE 324

PE 328Water Treatment3ME251

PE 329Industrial Fibers Technology3PE 201

PE 330Energy Conservation3BE122 & PE200

PE 336Polymer Science and Engineering II3PE 335

PE 339Production of Plastics3PE201

PE 350Process Control3PE 320

PE 391Manufacture of Synthetic Rubber3PE 201,PE213

PE 392Pollution Control in Petrochemical Industries

3PE 210

Total9 Cr


الطالب يختارها التي المعتمدة الساعات 6Crمجموع7 ) بإجمالى المعتمدة الساعات ) 180توزيع طبقا بالموضوعات معتمدة ساعة

المرجعية ( القومية األكاديمية )Credits by Topics of NARSللمعايير

SemesterCredit

Subject Area

Hum

& S

oc

Mat

h &

Bas

ic S

cien

ce

1st1821132

2nd192872

3rd17296

4th18297

5th182376

6th184734

7th1823346

8th1821024

9th1826343

10th182124

Program in Cr18020373838181613

Program in per100%11.120.621.121.1108.97.2

NARS in per9-12%20-26%20-23%20-22%9-11%8-10%6-8%



الصيفية .6 العطلة الميدانىخالل : التدريب

) الصيفي التدريب مدة (60تبلغ أو) يوما على ثمانية) 8ستون توزع اسابيعالمرحلة الى الطالب وصول حتى األولى المرحلة من الصيفية العطل

ويستمر. شهرأبريل بداية في عادةً الصيفي للتدريب التسجيل ويبدأ الرابعة. الثاني الدراسي الفصل من مايو شهر لنهاية

لتوفير المجتمعية األطراف لجان و بالكلية األقسام رؤساء مع التنسيق يتملجنة خالل من الهندسية بالمؤسسات للطالب العملى التدريب فرص

باإلتصال تقوم التى للطالب الصيفى العملى وإرسال التدريب التدريب بجهة . طالب بكل الخاصة التقييم أستمارات مع الطلبة

برنامج تنفيذ أثناء األداء تقييم و الطالب متابعة تقارير نماذج إعداد يتمالعملى التدريب برامج مشرفى مع التنسيق يتم و العملى، التدريبالبرنامج تنفيذ فى التدريبية الجهة جدية لمتابعة الهندسية بالمؤسسات

على والتعود الدوام فى الطالب إلتزام مدى متابعة و المعتمد العملى. العمل فى والجدية اإلنضباط

تحديد و التدريبية البرامج فاعلية مدى لقياس للطالب إستبيانات إعداد يتم. معارفه وتعميق ً مهنيا الطالب تهيئة تعوق التى المشاكل

األقسام معامل فى للطالب الداخلى التدريب برامج بإعداد الكلية تقوم كماالعلمية األقسام رؤساء مع بالتنسيق الصيفية اإلجازة خالل المختلفة العلمية

. لجنةو بالكلية المادية اإلمكانيات و الهندسية الورش و المعامل جهـــة لـــــــدى المـحــــددة التــدريب فتــرة يقضي ان الطالب وعلى

قبــل مـــن عليهــا الموافقــة تمت أو لــــه عــينت التــي لجنةالتــدريبللطالب الصيفى العملى بعــد التدريب إال أخرى جهة إلـى اإلنتقــال وعـــدم

و التدريـــب وجهـــة اللجنة كل من رسميـــة موافقـــة علــى الحصول . بقـواعــــد واإللتزام التدريب على المشرف التدريس هيئة عضو إعالم

. بجمع الطالب يقــوم وان التدريــب جهــة لـــدى العمــل وأنظمـــة. الصيفـــي للتدريــب النهائــي التقريـر لكتابــة الالزمة والعناصر المعلومات

المقررات .7 : محتويات

المقررات توصيف استمارات و الالئحة فى وارد هو لما Form( طبقاno.10: Course Specification(



رقم 5-1 أو كودالمقرر:

بالفقرة( ورد لما )5-3طبقا

5-2: المقرر بالفقرة( اسم ورد لما )5-3طبقا

و( المحتويات :5-3 الالئحة مذكورفى هو لما طبقا المحتويات تفاصيل- رقم المقررات توصيف )10إستمارات

بالبرنامج .8 االلتحاق : متطلبات

بالبرنامج 8-1 اإللتحاق للجامعات متطلبات األعلى المجلس لتعليمات طبقا: كاآلتى الجامعة شروط و قواعد و الخاصة

( المصرية، ( المدارس من رياضيات العامة الثانوية اتمام شهادة على الحصول

. المصرية للجامعات المجلساألعلى من بها معترف معادلة شهادة أو

يحددها التى للقواعد بالكلية القبول شروط الخاصة تخضع الجامعات مجلس

. األهلية و

التى للقواعد المصريين غير للطالب بالنسبة بالكلية القبول شروط تخضع

األهلية . و الخاصة الجامعات مجلس و العالى التعليم وزارة تحددها

. الجامعة تضعها التى والشروط والقواعد المتطلبات كافة تحقيق

. الطالب لجميع أساسى شرط للدراسة الكامل التفرغ

كاآلتى 8-2 موزعة األكاديمية الساعات من التخرج : متطلبات

االمعتمدة الساعات من التخرج اإلجمالىمتطلباتالجامعة إجبارية متطلبات 1212متطلبات

الكلية متطلباتإجبارية 33متطلبات

39 علوم ( إختيارية متطلبات6إنسانية)

للقسم اإلجبارية 116129المتطلبات



( ) للقسم إنسانية علوم اإلجبارية 2المتطلبات

( للقسم ( إنسانية علوم إختيارية 2متطلبات

للتخصص اإلختيارية 9المتطلباتالمعتمدة الساعات من التخرج متطلبات 180إجمالى

الصيفي التدريب فترة أداؤه يفيد ما الطالب يقدم أن يوما 60البد.8أو أسابيع

البرنامج .9 إلستكمال المنظمة : القواعد

( الثانى ( و األول الباب للكلية الداخلية الالئحة فى المذكورة للمتطلبات .طبقا

هندسة فى البكالوريوس درجة على الحصول و التخرج متطلبات إلستكمال

عن يقل ال بما الحصول بنجاح الطالب يتم أن يجب ساعة 180البتروكيماويات

. دراسية فصول عشرة على موزعة أكاديمية أعوام خمسة خالل معتمدة

) يساوى أو أعلى تراكمى معدل بمتوسط المتفوقين للطالب إتمام) 3.5يمكن

فصول ( تسعة يوازى بما نصف و أكاديمية أعوام أربعة خالل التخرج متطلبات

دراسية).



بالبرنامج .10 الملتحقين تقييم وقواعد طرق

التقويم طريقةMethod of Assessment

المستهدفة التعليمية المخرجات من تقيسه ماAs Measured by ILOs

تحريرية -1 إمتحاناتWritten Exams

Knowledge and understanding skillsIntellectual skillsProfessional and Practical skills

المعملية -2 اإلختبارات تقييمPractical Lab Assessment

Knowledge and understanding skillsIntellectual skillsProfessional and Practical skillsGeneral skills

3-القصيرة اإلمتحانات

QuizzesKnowledge and understanding skillsIntellectual skillsProfessional and Practical skills



تكليفات تقييمالطالب

Assignment problems solution


الحاسب تطبيقاتاآللى

IT-application labs


المشروعاتالصغيرة

Mini-projects


التخرج 4 مشروع مناقشة(GRADUATION PR




البرنامج .11 تقويم : طرق

بالتقويم العينةالوسيلةالقائم

النهائية -1 الفرقة &QuestionnairesطالبMeetings

Minimum 50% of total number of students

Meeting staff memberالخريجون-2&Questionnaires

10 % of all Graduates

االعمال -3 & QuestionnairesأصحابMeetings

Stack holders

خارجى -4 Reportممتحن for revising final year Exams

One external Examiner

خارجي -5 مراجعخارجي مراجع نموذج

الجامعية للمرحلةنموذج ( )14األولى

One external Reviewer(Professor)

داخلي -6 داخلي مراجع مراجع One internal Reviewerنموذج(Professor)

البرنامج :-منسق

/ المقصود. عبد حامد د أ( البتروكيماويات( هندسة رئيسقسم

الكلية عميد :- إعتماد

. أبوعلى. جابر محمد د أ


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