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  • Curriculum


The Master's Degree in Chemical Engineering consists of 90 ECTS credits, structured in two teaching semesters of 30 each plus a third semester of 30 credits for carrying out the Master Thesis, which must be defended publicly before a tribunal.

Subject type: OU = Obligatory | OP = Optional 
 

Process Engineering and Product ModuleTypeECTSIndex
Project IOU6.0
Process and productsOU3.0
Functional designOU3.0
Simulation and optimization of processesOU3.0
Fluid dynamicsOU3.0
Industrial safetyOU3.0
Project IIOU3.0
Materials and CorrosionOU3.0
Process Control SystemsOU3.0
Process Control StructuresOU3.0 
Structures and industrial buildingsOU3.0
Electrical technologyOU3.0
Energy and environmentOU3,0
Optional subject 1OP3.0 
Optional subject 2:
- Experience Design
- Nanotechnology
- Biotechnology
- Applied Digital Calculus
- Scaling Processes Change (scale-up)
- Water in Industry

OP


 
3.0

 
 
Management and Optimization of Production and Sustainability ModuleTypeECTS
Project ManagementOU3.0
Innovation and information managementOU3.0
Costs and business economicsOU3.0
Optional subject 1OP3.0 
Optional subject 2:
- Production Management and Operations
- Quality Management
- Maintenance of facilities
- Materials’ Management and Logistics

OP


 
3.0

 
 
Master ThesisTypeECTS
Master Thesis                                        OU30 



The Master's degree enables students to undertake doctoral programs in chemistry and chemical engineering, which has obtained several quality awards as well as the designation of ‘Pathway to Excellence’ (BOE, resolution 6 October 2011 of the General Secretary of Universities of the Ministry of Education).

Research Fields

You will be able to carry out your Master Thesis at IQS or at centers in other countries where IQS has established an agreement. The laboratories of IQS Industrial Engineering department work in the following research fields.

Biotechnology and process control laboratory:

Study of biotechnological processes with microorganisms: obtaining maize transglutaminase in Escherichia coli and Pichia pastoris

Controller adjustment

Application of finite elements to the simulation of complex vascular and neurological environments

Simulation of complex processes by means of object-oriented software

Development of software for computer-assisted teaching

Eco-technology laboratory:

Development of non-contaminant industrial processes

Minimization, recycling and assessment of by-products and chemical industry waste

HTCP (Hi-Tech Chemical Processes) laboratory:

Risk evaluation in industrial processes: quantitative risk analysis

Applications of thermal analysis and calorimetry: non-parametric kinetics of chemical and physical transformations; thermal stability of chemical products and nanomaterials; thermal stability of industrial synthesis processes

Process intensification for fine chemicals and specializations: continuous reactors continuous flow separation techniques based on absorption

Numerical simulation of processes: simulation in stationary and dynamic conditions; computational fluid dynamics (CFD)

Waste assessment, with special emphasis on generating energy from agro-industrial waste