• Fuenlabrada School of Engineering
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Aerospace Engineering in Aerospace Vehicles

This degree qualifies for the profession of Aeronautical Technical Engineer. Order CIN/308/2009

Foliage of knowledge: Engineering and architecture
Responsible Center: Fuenlabrada School of Engineering
Teaching modality and Campus: Face-to-face Fuenlabrada
Credits: 240. Credits year: 60. Duration: 4 years. Implantation: progressive, first year 2017-2018
Academic Calendar    Schedule    Exams   Teaching Guides  Validation table  Faculty

Coordinator:   Prof. Dr. Ms. Marta María Moure Cuadrado

Student attention: 91 488 93 93.     Student Help Box     Suggestions, complaints and congratulations mailbox

Basic Information

What knowledge will I acquire with this Degree?

BASIC TRAINING

1. Knowledge of: linear algebra; geometry; calculation; numerical methods; statistics and optimization; general laws of mechanics, thermodynamics; electromagnetism; general chemistry.

2. Basic knowledge of the use and programming of computers, operating systems, databases and computer programs.

3. Knowledge of graphic representation techniques.

4. Adequate knowledge of the concept of company, institutional and legal framework of the company.

COMMON TO THE AERONAUTICAL BRANCH

1. Appropriate and applied knowledge of the structures before the solicitations in service conditions and limit situations.

2. Appropriate and applied knowledge of the thermodynamic cycles that generate mechanical power and thrust.

3. Adequate and applied knowledge of aerodynamic forces.

4. Appropriate and applied knowledge of technological benefits, techniques for optimizing materials and modifying their properties through treatments.

5. Appropriate and applied knowledge of manufacturing processes.

6. Appropriate and applied knowledge of the principles of continuum mechanics and the techniques for calculating its response.

7. Appropriate and applied knowledge of the concepts and laws that govern the processes of energy transfer, the movement of fluids, the mechanisms of heat transmission and the change of matter and their role in the analysis of the main propulsion systems aerospace.

8. Appropriate and applied knowledge of the fundamental elements of the various types of aircraft.

9. Appropriate and applied knowledge of the fundamentals of the basic principles of flight control and automation.

10. Applied knowledge of materials science and technology; mechanics and thermodynamics; fluid mechanics; aerodynamics and mechanics of flight; aerospace technology; structure theory; economy and production; Projects; environmental impact.

SPECIFIC TECHNOLOGY: AIRCRAFT

1. Appropriate and applied knowledge of fracture mechanics, fatigue and aeroelasticity.

2. Appropriate and applied knowledge of the fundamentals of sustainability, maintainability and operability of aerospace vehicles.

3. Adequate and applied knowledge of the fundamentals of fluid mechanics that describe the flow in all regimes.

4. Appropriate and applied knowledge of the physical phenomena of flight, its qualities and control, aerodynamic and propulsive forces, actions, stability.

5. Appropriate and applied knowledge of aircraft systems and automatic flight control systems of aerospace vehicles.

6. Appropriate and applied knowledge of aeronautical design and project calculation methods; the use of aerodynamic experimentation and of the most significant parameters in the theoretical application; handling of experimental techniques; the simulation; aircraft maintenance and certification systems.

7. Applied knowledge of aerodynamics; mechanics and thermodynamics, flight mechanics, aircraft engineering (fixed wing and rotary wings), structure theory.

Where will I be able to work when I graduate?

The Rey Juan Carlos University, through the implementation of the degree in Aerospace Engineering in Aerospace Vehicles, aims to satisfy a latent demand for professionals from the aeronautical sector in the field of aircraft design and its on-board systems. This demand is specified in the growing importance of aerospace companies in the industrial fabric of the country, in the socio-economic interest and, therefore, in the final demand for studies by students. It is important to note that the increased relevance of Aeronautical Engineering has not only been due to the advances that have occurred in the aeronautical sector, but also to its increasingly transversal nature that affects multiple areas of the current socio-economic reality. . In this way, Aeronautical Engineering today plays an important role in sectors such as the automotive industry, infrastructure management, environmental management, systems planning, or telecommunications. It is important to point out that practically 100% of the current Aeronautical Engineers and Technical Engineers are employed in a period of less than half a year after finishing their studies (source: Official Association of Aeronautical Engineers of Spain). A high percentage of this employment occurs in entities closely linked to the content of the degrees. The number of these graduates employed in Spain is estimated at more than 5.000, who work mainly in the areas of: Teaching, research and development, project development, production, infrastructure management, services, and management and administration. The activity carried out in the indicated sectors generally begins with aspects strongly linked to technology and, in a large number of cases, is subsequently moved to other aspects more related to the technical and organizational management of products, processes and services, and to the commercial aspects. Various studies carried out in the European context for the coming years (ACARE, ECATA,...), indicate a lack of professionals in this field.

Is this Degree official according to the regulations required by the European Higher Education Area?

Yes (final verification report is attached), the implementation of the degree will be done progressively, starting the first year in the academic year 2017-18.
The final verification report turned out FAVORABLE

Favorable report first modification

Favorable report second modification

What subject areas will I address in this grade?

Students who choose to study the Degree in Aerospace Engineering in Aerospace Vehicles will obtain transversal training in the different specialties that classically distinguish this field, that is, aircraft, space vehicles, aeroengines, airports and air navigation. This transversal training aims to offer the student a broad vision of the field of the aerospace industry as a whole. However, special emphasis will be placed on the field of aircraft and space vehicles, which, although closely related to the areas mentioned above, also find clear synergies with other disciplines such as, for example, automatic control, materials science and structures.

Recommended Income Profile

It is considered an entry profile in terms of knowledge, skills and abilities starting from a high school level or vocational training cycle. Specifically, the desirable personal (sensitivities, aptitudes, specific abilities, etc.) and academic characteristics that are considered most appropriate to start the studies of the Degree in Aerospace Engineering in Aerospace Vehicles are the following:

  • Basic knowledge of computers and information technology.
  • Good mathematical foundation, numerical aptitude.
  • Spatial conceptualization.
  • Capacity for abstraction, analysis, synthesis, logical reasoning.
  • Curiosity, imagination, creativity, innovation.
  • Capacity of perception and attention.
  • Sense of organization and method.
  • Attention to detail.
  • Practical sense and spatial vision.
  • Basic skills for oral and written expression and reading comprehension.
  • Basic social skills for teamwork.

Objectives 

Through the offer of the Degree in Aerospace Engineering in Aerospace Vehicles, the Rey Juan Carlos University intends to: satisfy the existing social demand; contribute to the wealth of the country with the training of highly qualified professionals; respond in a balanced way to the demands of the industry (offering specialized training, but at the same time facilitating integration with existing professionals, and maintaining the social prestige granted by a profession with almost a century of history); and contribute to teaching and research excellence.

The studies leading to degrees in the field of aeronautical engineering and, specifically, the Degree in Aerospace Engineering in Aerospace Vehicles at the Rey Juan Carlos University, have as their fundamental objective scientific, technological and socioeconomic training, and preparation for professional practice in the development and application of aeronautical technologies, with special emphasis on the specialty of aircraft. The training provided by these studies pursues the following general objectives:

  1. Design, development and management in the field of aeronautical engineering whose purpose, in accordance with the knowledge acquired as established in section 5 of Order, CIN/308/2009, of February 9, aircraft and their elements , space vehicles and their elements and their design and manufacturing process.
  2. Planning, drafting, direction and management of projects, calculation and manufacturing in the field of aeronautical engineering whose purpose, in accordance with the knowledge acquired as established in section 5, Order, CIN/308/2009, of 9 February, aircraft and their elements, space vehicles and their elements and their design and manufacturing process.
  3. Installation, operation and maintenance in the field of aeronautical engineering whose purpose, in accordance with the knowledge acquired as established in section 5 of Order, CIN/308/2009, of February 9, aircraft and their elements, space vehicles and their elements.
  4. Verification and certification in the field of aeronautical engineering whose purpose, in accordance with the knowledge acquired as established in section 5 of Order, CIN/308/2009, of February 9, aircraft and their elements, space vehicles and their elements.
  5. Ability to carry out activities of projection, technical direction, survey, report writing, opinions, and technical advice on tasks related to aeronautical technical engineering, exercise of functions and genuine aerospace technical positions.
  6. Participation in flight test programs to collect data on take-off distances, climb rates, stall rates, maneuverability and landing capabilities.
  7. Analysis and assessment of the social and environmental impact of technical solutions.
  8. Knowledge, understanding and ability to apply the necessary legislation in the exercise of the profession of Aeronautical Technical Engineer.

Competences 

GENERAL COMPETENCIES

Custom code

Description

CG1

Ability to design, develop and manage aeronautical engineering related to aerospace vehicles, aerospace propulsion systems, aerospace materials, airport infrastructures, air navigation infrastructures and any space management system, traffic and air transport.

CG2

Planning, drafting, directing and managing projects, calculations and manufacturing in the field of aeronautical engineering for aerospace vehicles, aerospace propulsion systems, aerospace materials, airport infrastructures, air navigation infrastructures and any management of space, traffic and air transport.

CG3

Installation, operation and maintenance in the field of aeronautical engineering for aerospace vehicles, aerospace propulsion systems, aerospace materials, airport infrastructures, air navigation infrastructures and any space, traffic and transport management system aerial.

 

CG4

Verification and Certification in the field of aeronautical engineering related to aerospace vehicles, aerospace propulsion systems, aerospace materials, airport infrastructures, air navigation infrastructures and any space, traffic and air transport management system .

CG5

Ability to carry out activities of projection, technical direction, expert opinion, report writing, opinions, and technical advice on tasks related to Aeronautical Technical Engineering, exercise of functions and genuine aerospace technical positions.

CG6

Ability to participate in flight test programs to collect data on takeoff distances, climb rates, stall rates, maneuverability, and landing capabilities.

CG7

Ability to analyze and assess the social and environmental impact of technical solutions.

CG8

Knowledge, understanding and ability to apply the necessary legislation in the exercise of the profession of Aeronautical Technical Engineer.

Custom code

Description

CE1

Ability to solve mathematical problems that may arise in engineering. Ability to apply knowledge of: linear algebra; geometry; differential geometry; differential and integral calculus; differential and partial derivative equations; numerical methods; numerical algorithmic; statistics and optimization.

CE2

Understanding and command of the basic concepts of the general laws of mechanics, thermodynamics, fields and waves and electromagnetism and their application to solve engineering problems.

CE3

Basic knowledge of the use and programming of computers, operating systems, databases and computer programs with application in engineering.

CE4

Ability to understand and apply the principles of basic knowledge of general chemistry, organic and inorganic chemistry and their applications in engineering.

CE5

Capacity for spatial vision and knowledge of graphic representation techniques, both through traditional methods of metric geometry and descriptive geometry, and through computer-aided design applications.

CE6

Adequate knowledge of the concept of company, institutional and legal framework of the company. Business organization and management.

CE7

Understand the behavior of the structures before the solicitations in service conditions and limit situations.

CE8

Understand the thermodynamic cycles that generate mechanical power and thrust.

CE9

Understand the global nature of the air navigation system and the complexity of air traffic.

CE10

Understand how aerodynamic forces determine the dynamics of flight and the role of the different variables involved in the phenomenon of flight.

CE11

Understand the technological benefits, the optimization techniques of the materials and the modification of their properties by means of treatments.

CE12

Understand manufacturing processes.

CE13

Understand the singularity of the infrastructures, buildings and operation of airports.

CE14

Understand the air transport system and coordination with other modes of transport.

CE15

Appropriate knowledge applied to Engineering of: The principles of the mechanics of the continuous medium and the techniques for calculating its response.

CE16

Adequate knowledge applied to Engineering of: The concepts and laws that govern the processes of energy transfer, the movement of fluids, the mechanisms of heat transmission and the change of matter and their role in the analysis of the main systems aerospace propulsion.

CE17

Appropriate knowledge applied to engineering of: The fundamental elements of the various types of aircraft; the functional elements of the air navigation system and the associated electrical and electronic installations; the fundamentals of airport design and construction and its various elements.

CE18

Appropriate knowledge applied to Engineering of: The fundamentals of fluid mechanics; the basic principles of flight control and automation; the main characteristics and physical and mechanical properties of materials.

CE19

Applied knowledge of: materials science and technology; mechanics and thermodynamics; fluid mechanics; aerodynamics and mechanics of flight; air traffic and navigation systems; aerospace technology; structure theory; air Transport; economy and production; Projects; environmental impact.

CE20

Appropriate knowledge applied to Engineering of: Fracture mechanics of the continuous medium and dynamic approaches, structural instability fatigue and aeroelasticity.

CE21

Adequate knowledge applied to Engineering of: The fundamentals of sustainability, maintainability and operability of aerospace vehicles.

CE22

Adequate knowledge applied to Engineering of: The fundamentals of fluid mechanics that describe the flow in all regimes, to determine the distribution of pressures and forces on aircraft.

CE23

Appropriate knowledge applied to Engineering of: The physical phenomena of flight, its qualities and control, aerodynamic and propulsive forces, actions, stability.

CE24

Appropriate knowledge applied to Engineering of: Aircraft systems and automatic flight control systems for aerospace vehicles.

CE25

Adequate knowledge applied to Engineering of: aeronautical design and project calculation methods; the use of aerodynamic experimentation and of the most significant parameters in the theoretical application; the management of experimental techniques, equipment and measuring instruments typical of the discipline; the simulation, design, analysis and interpretation of experimentation and flight operations; aircraft maintenance and certification systems.

CE26

Applied knowledge of: aerodynamics; mechanics and thermodynamics, flight mechanics, aircraft engineering (fixed wing and rotary wings), structure theory.

CE27

Ability to communicate effectively in the foreign language of relevant professional use.

CE28

Knowledge of the scientific-technical language and the fundamentals of the transmission of scientific-technical results for their use in the drafting of professional documents and reports, as well as for their use in making presentations. Ability to use computer tools to search for bibliographic resources or related information in the field of Engineering.

CE29

Ability to adapt and apply in the professional field a significant subset of the skills acquired in the rest of the subjects of this Bachelor's degree.

CE30

Ability to carry out work of a professional nature in which the skills acquired in the degree are synthesized and integrated.

CE31

Development of appropriate extra-curricular skills for the comprehensive training of the graduate, including: searching for and accessing scientific information related to the profession, understanding the concepts of universal accessibility, knowing the techniques that allow the graduate to increase their employability and improve the ability to decision making.

professional qualification

The design of this degree is based on the provisions of Order CIN/308/2009 (of February 9, BOE of February 18, 2009) and qualifies for the profession of Technical Aeronautical Engineer regulated in Order CIN/308/2009. The design of the degree complies with the modules and skills described in said Order, so that students who complete this degree will be able to access the master's degree for the exercise of the regulated profession of Aeronautical Engineer as stated in Order CIN/312/2009 .

Minimum stay requirements 

  • The permanence of the students in the Degree studies will be a maximum of eight years for full-time students. Part-time students may request an extension of up to two more years from the Rector.
  • In Bachelor's degrees lasting more than 240 credits (4 years), the maximum of the previous section will be increased by one more year for every 60 ECTS credits that are added to the 240 ECTS.
  • Students must pass a minimum of two subjects in the first year. Students studying part-time must pass at least one subject in their first academic year.
  • Students who are studying any official Bachelor's degree at the Rey Juan Carlos University may make a maximum of four registrations to pass each of the subjects of the study plan, without counting previous cancellations of the same.

For more information see: Permanence regulations

Minimum number of ECTS credits by type of enrollment and course

Full-time students:

COURSE MINIMUM  MAXIMUM 
1º Course 48 ECTS 78 ECTS
Other courses 48 ECTS 78 ECTS

 

Part-time students:

COURSE MINIMUM  MAXIMUM 
1º Course 24 ECTS 47 ECTS
Other courses 24 ECTS 47 ECTS

 

Access and registration

Log in

Access to the official teachings of Degree will require to be in possession of the bachelor's degree or equivalent and the passing of the test referred to in article 42 of the Organic Law 6/2001, of Universities, modified by Law 4/2007, of April 12, without prejudice to the other access mechanisms provided for by current regulations.

The number of places offered for new admission are:

Fuenlabrada Campus: 55 places (including transfer admission places)

 

Matriculation year

The enrollment process at the Rey Juan Carlos University is done through the Internet. You can carry out the procedures on the computers installed on campus or through any computer with network access. You can check the deadlines at registration , as well as the different requirements and necessary documents.

Training itinerary

ACCESS THE COURSE GUIDES OF THE DEGREE

Formative Itinerary of the Old Plan

FBC: Common Basic Training, they are validated with their counterparts of all grades
FBR: Basic Branch Training, they can be validated with their branch counterparts, taking into account the adequacy between the skills and knowledge acquired.
OB: Compulsory
OP: Optional

COURSE 1

Semester

Subject

Character

Credits

1

Calculation

FBR

6

1

Algebra

FBR

6

1

Physics Applied to Aerospace Engineering

FBR

6

1

Aviation History

FBC

6

1

Company Introduction

FBR

6

2

Electromagnetic fields

FBR

6

2

Extension of Calculus and Differential Equations

FBR

6

2

Graphic expression

FBR

6

2

Chemistry and Thermodynamics

FBR

6

2

aerospace technology

OB

6

TOTAL CREDITS TO TAKE: 60

 

COURSE 2

Semester

Subject

Character

Credits

1

Aerospace Modeling Fundamentals

OB

4.5

1

Systems and Circuits

OB

4.5

1

Materials Science and Technology

OB

4.5

1

Fundamentals of Programming and Computer Science

FBC

6

1

Mechanics Applied to Aerospace Engineering

OB

4.5

Annual

modern language

FBC

6

2

Statistics

FBR

6

2

Signals and Systems

OB

6

2

Fluid mechanics

OB

6

2

Elasticity and Resistance in Aeronautical Structures

OB

6

2

Aerospace Legislation and Regulations

FBC

6

TOTAL CREDITS TO TAKE: 60

 

COURSE 3

Semester

Subject

Character

Credits

1

Subsonic and Supersonic Aerodynamics

OB

6

1

Solid Mechanics and Aeronautical Structures

OB

4.5

1

Aerospace Alloys

OB

4.5

1

Control systems

OB

4.5

1

Propulsion Systems

OB

6

1

Fundamentals of Aerospace Electronics

OB

4.5

2

Vibrations and Aeroelasticity

OB

4.5

2

Flight Mechanics

OB

6

2

Orbital Mechanics

OB

3

2

Aerospace Design and Manufacturing Project

OB

4.5

2

Composite materials

OB

3

2

Optional 1

OP

3

2

Optional 2

OP

6

TOTAL CREDITS TO TAKE: 60

 

COURSE 4

Semester

Subject

Character

Credits

1

Fixed Wing Aircraft

OB

6

1

space vehicles

OB

6

1 Production Systems OB 4.5

1

Optional 3

OP

3

1 Optional 4 OP 4.5

1

Academic Recognition of Credits

OB

6

Annual

Final Degree Project

OB

12

Annual

External Internships

OB

18

TOTAL CREDITS TO TAKE: 60

 

 OPTIONAL

Course  Semester Subject Typology Credits
 3 2 Spatial Structures OP  3
 3 2 Aerospace Systems Programming OP  6
 3 2 Computational Fluid Mechanics OP  6
 4 1 Rotary Wing Aircraft OP  3
 4 1 Missiles and Launch Vehicles OP  3
 4 1 Unmanned Aerial Vehicles OP  4.5
 4 1 Real Time Systems and Aerospace Software OP  4.5

External Internships

The External Practices subject is a curricular subject whose main objective is to promote a comprehensive training of the student through the practical application of the knowledge acquired during the Degree, which facilitates direct contact with the professional activity and the opportunity to join the professional world with a minimum of experience. All practices are designed so that the students who participate in them acquire professional experience in real situations and conditions, applying the knowledge, skills and attitudes that are acquired in the training processes throughout the degree. The internships represent a decisive opportunity for the personal development and professional future of the students.

The internships are aerospace_vehicles_aerospace_engineering activities carried out by the student in companies, institutions and organizations; that is, in centers outside the university premises, which aim to enrich and complement your university education, while providing you with a deeper knowledge about the skills you will need once you have graduated.

The External Practices subject will consist of two phases:

  • Completion of the internship period that offers professional experience related to any of the graduate profiles that are expressed in the Verification Report of the degree.
  • Elaboration of the memory

Documentation:

Degree Training Project

For more information:  External Internship Unit

Social Security contributions for interns starting January 1, 2024

Mobility programs

ERASMUS

The Erasmus program makes it easy for URJC students -both undergraduate and postgraduate- to study one or several semesters at one of the European universities with which the URJC has agreements.

These exchanges traditionally have an economic endowment thanks to the Erasmus Scholarships provided by the EU and the Spanish Ministry of Education.

ERASMUS (intranet)


WORLD

The Munde program manages mobility with universities from countries not included in the Erasmus Program.

The possibility of obtaining a scholarship or economic endowment and its amount depends, in each case, on the agreements with the universities, countries or entities that sign it.

WORLD (intranet)


For more information:

URJC Mobility


SICK

SICUE is a national mobility program for GRADOS university students that allows them to carry out part of their studies at another Spanish university with guarantees of academic recognition, use and adaptation to their curricular profile.

SICUE Mobility

Student support programs

Orientation to future students. The University offers various orientation programs for future students: we carry out visits to high schools and secondary schools, we organize guided visits to the Campuses, we are present in the Classroom and, at the beginning of each course, we carry out welcome days to guide students new students.

academic tutorials. Each teacher carries out, within their teaching planning, academic tutorials on their subject.

Coordinator of the degree. It works to promote coherence and balance between the subjects and the workloads of the students.

mentoring program. The URJC has this program, peer tutoring, in which the students of the last years act as mentors with the first year students.

Students with disabilities. The Support Office for Persons with Disabilities offers guidance and assistance to students with special needs.

Scholarships . The Rey Juan Carlos University manages the main scholarships and annual grants, both its own and from other official bodies: Ministries, Community of Madrid, International Organizations and other entities. It also publishes and disseminates those scholarships and grants of interest to its students and graduates. Throughout the course, students receive information about them through the different communication channels established.

Job placement program. The Rey Juan Carlos University, through the External Internship Unit and the Graduates Office, organizes conferences, workshops and various actions aimed at supporting and guiding students in their job search, to improve their employability and promote job placement . The University has a Job Exchange -a platform available to companies and graduates- where institutions can carry out their selection processes.

Regulation

ACADEMIC CALENDAR

REGISTRATION

*The rates corresponding to double degrees with different degrees of experimentality will be applied as established in the new Decree 43/2022, of June 29, of the Government Council, which establishes the public prices for university studies leading to official degrees and services of an academic nature in the public universities of the Community of Madrid*

TRAINING PROCESS 

REVIEWS AND REVIEWS

Validation, adaptation of studies, recognition of credits and homologation of foreign qualifications

UNIVERSITY DEGREES

VISITING STUDENTS AND FUNCTIONAL DIVERSITY

COEXISTENCE REGIME

SCHOOL INSURANCE

ASSOCIATIONS

Quality guarantee

RUCT link

BOCM Link

Results report

Once the follow-up has been carried out, the quantitative information on the results obtained in the follow-up of said Degree is shown, differentiated by academic year.

General information collection plan

Within the quality assurance system of the Rey Juan Carlos University, the following surveys are planned:

- New students

- Teacher evaluation

- Student satisfaction

- Satisfaction of the graduates

- Labor insertion

- Causes of abandonment

- Career path:

  • Second year after graduation
  • Third year after graduation
  • Fourth year after graduation

- Degree of satisfaction:

  • Faculty with the campus and university
  • Teacher with degree
  • of the evaluators
  • Incoming student mobility program
  • Outgoing Student Mobility Program
  • Administration and services staff with the university

- External internships:

  • Student satisfaction
  • External tutor satisfaction
  • Evaluator satisfaction

Survey results:

Improvement actions

The Quality Assurance System of the Rey Juan Carlos University establishes that the degree's Quality Assurance Commission will annually analyze the information derived from the degree's indicators and prepare a report that will include improvement plans if the results so indicate.

Renewal of accreditation

The renewal of the accreditation represents the culmination of the implementation process of the official Bachelor's and Master's degrees registered in the Register of Universities, Centers and Degrees (RUCT). The renewal of the accreditation of official bachelor's and master's degrees is organized in three phases: self-assessment report, external visit and final assessment.

In the first phase, the university describes and assesses the status of the degree with respect to the established criteria and guidelines. The result is the Self-Assessment Report (IA) that is presented. The second and third phases are carried out by a group of evaluators external to the evaluated title.”

Final report renewal of accreditation   2023