Objective

The objective of the process engineering program is to train graduates with solid experience in process engineering and capable of designing, implementing and operating chemical, biochemical, pharmaceutical, petrochemical and environmental processes in compliance with national regulations and safety procedures.

To enable graduates to achieve this goal, students must develop and acquire a set of skills designed as the ability to use professional and non-technical knowledge and skills in work situations that have been established in accordance with identified business needs.

The main areas in which graduates can be hired as production or development engineers in multinationals (small, medium or large) and institutions (production, research, quality assurance, trade) are:

  • Chemical area
  • Pharmaceutical area
  • Petrochemical and environmental area
  • Education

The training is done in two cycles: First cycle in preparatory class (two years) followed by a national competition to access the national schools, and a second cycle or specialties (three years), the training consists of 60% theoretical education and 40% practical education.

Learning outcomes of the Process Engineering course


A. Connaissance et compréhension des sciences et du génie des procédés de base

  1. Learning outcomes of the Process Engineering course
  2. Demonstrate an understanding of the sciences (of chemistry, physics, biochemistry, microbiology and biotechnology) that support chemical engineering,
  3. Demonstrate an understanding of basic process engineering, including:

i. Create and read chemical process flow diagrams,

ii. Develop, apply and evaluate material and heat balances in the analysis of chemical or biological processes,

iii. Application of fluid mechanics in flow problems,

iv.. Application of thermodynamics in chemical equilibria and reactions to understand and solve energy problems,

v. Application of heat and mass transfer theory in the analysis of processes, such as heat exchangers and separation processes,

vi. Application of kinetic and reactor analysis to the design and performance evaluation of chemical and biochemical reactors,

vii. Describe and analyze the function of various unit operations found in the processing industries,

viii. Application of control theory in chemical process control and automation,


B. Résolution de problèmes

1. Solve models and apply these solutions to quantitatively solve defined process engineering problems using knowledge of engineering sciences and mathematics,

2. Identify, formulate, analyze and solve engineering problems.


C. Contexte social, environnemental et économique

1. Demonstrate knowledge of industrial health and safety issues and be able to propose and implement technologies and procedures to protect human health and safety,

2. Demonstrate an awareness of the need for environmental protection and the concept of sustainability and be able to suggest and implement technologies and procedures to protect the environment and achieve a sustainable lifestyle,

3. Demonstrate knowledge of typical legal requirements for personnel, processes, plants and products related to health, safety and environment,

4. Calculate and explain the economics of processes, facilities and projects,

5. Demonstrate an appreciation of the need for high ethical and professional standards and how they are applied to the problems faced by engineers


D. Conception technique

1. Perform separation process design (Extraction, Distillation, Filtration….).

2. Carry out the basic design of the processing system components and unit operations.

3. Design a complete process for the synthesis of a product with predefined specifications.


E. Compétences pratiques / transférables

Apply the following skills: Computer software, Communication, Working effectively as an individual, Working effectively in teams and multidisciplinary settings, Project management, Laboratory/experimental skills, Lifelong learning.


F. Travailler en tant qu'ingénieur dans la pratique

Demonstrate knowledge of the application of process engineering skills to a variety of jobs and work environments, Application of process engineering skills in a real work environment.


G. Compétences en recherche

Apply the following research skills: Literature review and knowledge acquisition, to identify the current state of the art in a particular research topic and to find knowledge and techniques useful in the implementation of a research project, Apply technical research statistics in particular, Experimental design and establishment of meaningful correlations, Conduct of experimental/quantitative research, Data analysis and interpretation, Communication of research results and conclusions, Research project management: planning, tasks, time, people and resources


H. Connaissances et compétences supplémentaires

1. Demonstrate an understanding of bio-processing knowledge, ability to deploy engineering methods to analyze and design respective units and systems in this field,

2. Demonstrate an understanding of knowledge in one of the specialized streams of pharmaceutical/food and bioprocessing/supply chain engineering and management, Ability to deploy engineering methods to analyze and design the respective units and systems in these areas,

3. Implement validation procedures and documentation,

4. Demonstrate knowledge of the business skills necessary to successfully market products and services in a market economy.

Curriculum content:

Pedagogical program to obtain the State Engineering Diploma in Process Engineering Option: Process Engineering

SemestersTeaching units (U.E)Material (s)coefficient
Semester 1Fundamental Teaching UnitThermodynamics3
Kinetics2
Quantity of motion transfer3
Programming2
Electrochemistry2
Inorganic chemistry2
Teaching Unit MethodologyDrug Science1
Microbiology2
Transversal Teaching UnitEnglish 11
Semester 2Fundamental Teaching UnitMaterial transfer3
Heat transfer and exchangers3
Applied numerical methods2
Physical chemistry of interfaces2
Electrochemical methods and corrosion2
Teaching Unit MethodologyChromatographic methods2
Spectroscopic methods2
Transversal Teaching UnitEnglish 21
Discovery Teaching UnitInternship 11
SemestersTeaching units (U.E)Material (s)coefficient
Semester 3Fundamental Teaching Unit 1Ideal reactors2
Distillation2
Fundamental Teaching Unit 2Physico-chemical processes for water treatment3
Pharmaceutical Operations3
Fundamental Teaching Unit 3Porous and dispersed media2
Macromolecules2
Teaching Unit Methodology 1Process regulation and control2
Transversal Teaching Unit 1Health and safety1
Semestre 4Fundamental Teaching Unit 1Liquid-liquid extraction2
Absorption2
Adsorption2
Fundamental Teaching Unit 2Multiphase reactors2
Wastewater treatment processes2
Bioprocesses1
Teaching Unit Methodology 1Solid waste1
Galenic pharmacy1
Transversal Teaching Unit 1Air pollution1
Teaching Unit Discovery 1Mini project2
Internship 21
SemestersTeaching units (U.E)Material (s)coefficient
Semestre 5Fundamental Teaching Unit 1Process optimization3
Process modeling2
Fundamental Teaching Unit 2Applied thermodynamics3
Petrochemicals2
Drying and crystallization2
Teaching Unit MethodologyModel planning and validation2
Transversal Teaching UnitStudy methodology and project management1
Organization and management of companies1
Semestre 6End of study project30

Pedagogical program of the complementary training in order to obtain the diploma of Master in Process Engineering

SemestreMaterialHourly volumecoefficient
S 3Introduction to research22H302
S 4Macroscopic balances22H302
S 5Membrane separation techniques22H302
S 6Master’s thesis132H304