*NEW* Bachelor's Degree in Quantum Technology Engineering with Dual Mention

• Field of study: Electrical engineering, electronic engineering, and telecommunications engineering.
• Dual Mention: It differs from the general programme from the fourth year onwards, when four-monthly and annual subjects are introduced (a total of 48 ECTS). These subjects will be studied under a work-study contract in companies with an agreement.

Exchange programs

The Erasmus programme permits UC3M first degree and post graduate students to spend one or several terms at one of the European universities with which UC3M has special agreements or take up an Erasmus Placement, that is a work placement or internship at an EU company. These exchanges are funded with Erasmus Grants which are provided by the EU and the Spanish Ministry of Education.

The non-european mobility program enables UC3M degree students to study one or several terms in one of the international universities with which the university has special agreements. It also has funding from the Banco Santander and the UC3M.

These places are offered in a public competition and are awarded to students with the best academic record and who have passed the language threshold  (English, French, German etc..) requested by the university of destination.

European Mobility

The list of European universities with mobility agreements will be published soon.

Non-European mobility

The list of non-European universities with a mobility agreement will be published soon.

Entry profile

The recommended entry profile for this Bachelor's Degree is mainly aimed at students coming from the Spanish Baccalaureate, without prejudice to those who may enter through other routes. In particular, it is considered highly appropriate to have studied Science and Technology, or equivalent subjects in other educational systems, as this provides a solid educational foundation that is aligned with the content of the curriculum. This modality includes fundamental subjects such as Mathematics, Physics, Chemistry, Technical Drawing, and Technology and Engineering, which contribute to the development of the knowledge and skills necessary to successfully complete these university studies.

Students from Advanced Vocational Training can also access the Bachelor's Degree, as there is no regulatory preference for specific cycles. However, access from training cycles belonging to the field of Computer Science and Communications is particularly recommended, due to their greater affinity with the content and skills of the Bachelor's Degree, thus facilitating adaptation and academic achievement from the beginning of the studies. 

Graduate profile

The Bachelor’s Degree in Quantum Technologies Engineering combines knowledge from physics, engineering, and computer science to offer applied and interdisciplinary training. The degree aims to train professionals capable of integrating fundamental knowledge and applying it to relevant issues related to the quantum domain:

• Acquire advanced knowledge, demonstrating an understanding of the theoretical and practical aspects, as well as the working methodologies in the field of Quantum Technologies, with a depth that reaches the forefront of current knowledge.
• Apply their knowledge in the field of Quantum Technologies and their problem-solving abilities in complex or specialized professional environments, in order to provide creative and innovative responses through well-developed arguments and procedures grounded in acquired knowledge.
• Possess the ability to gather and interpret data and information on which to base conclusions, including reflection on social, scientific, or ethical issues within the field of Quantum Technologies.
• Be capable of functioning in complex situations that require the development of new solutions, both in academic and professional settings within Quantum Technologies.
• Communicate clearly and precisely with all types of audiences, conveying knowledge, methodologies, ideas, problems, and solutions in the field of Quantum Technologies.
• Identify their own learning needs in the field of Quantum Technologies and in their professional environment, and organize their own learning with a high degree of autonomy in all types of contexts.

1. Knowledge of Titles

K1 - To know the principles and values of democracy and sustainable development, in particular, respect for human rights and fundamental rights, gender equality and non-discrimination, the principles of universal accessibility and climate change.

K2 - To know basic humanistic contents, oral and written expression, following ethical principles and completing a multidisciplinary training profile.

K3 - Understand the fundamental concepts of algebra, calculus, algorithms, probability and statistics, identifying their potential applications for solving problems specific to quantum technologies.

K4 - Understand the basic concepts of the general laws of mechanics, thermodynamics, fields, waves, and electromagnetism, as well as quantum optics.

K5 - Understanding the basic concepts of linear systems and related functions and transforms, electrical circuit theory, electronic circuits, the physical principles of semiconductors, electronic and photonic devices, and materials technology applied to solving problems specific to quantum engineering.

K6 - Knowledge of basic electronic instrumentation, measurement techniques, and commercial simulation programmes for capturing schematics and simulating digital, analogue, or photonic electronic circuits.

K7 - Explain the fundamental principles of the structure and operation of computers, operating systems, networks, the Internet, and data storage and processing systems, as well as computing models, theoretical foundations of programming languages, and algorithmic strategies.

K8 - Understand the fundamental concepts of quantum computing and its applications (including qubits, entanglement, quantum gates and circuits, as well as the main quantum algorithms) and classical and quantum machine learning.

K9 - Understand the basic principles of information and communications in the field of quantum technologies.

K10 - Understand the fundamentals of information security, including the mathematical principles of cryptography, the analysis of security guarantees, and the main classical and post-quantum cryptographic algorithms, functions, and protocols, as well as the impact of quantum computing and technologies on these technologies.

K-OPT1 - Gain an in-depth understanding of advanced technologies in the field of quantum technologies, which constitute the state of the art in the area of study, including emerging trends and recent developments.

2. Skills of Titles

S1 - To plan and organize team work making the right decisions based on available information and gathering data in digital environments.

S2 - To use information interpreting relevant data avoiding plagiarism, and in accordance with the academic and professional conventions of the area of study, being able to assess the reliability and quality of such information.

S3 - Apply knowledge of algebra, calculus and statistics to solve general problems arising in quantum technologies.

S4 - Analyse the interaction between electromagnetic fields and physical systems relevant to quantum engineering.

S5 - Apply knowledge of circuit frequency response and the fundamental principles of wave optics, electromagnetic optics, quantum optics, diffraction, and spectral analysis to the analysis of electronic devices, amplifiers, and photonic devices.

S6 - Apply commercial simulation tools and laboratory equipment to design, characterise and verify digital, analogue or photonic electronic circuits, ensuring compliance with design specifications.

S7 - Apply tools, methodologies, and technologies (algorithms, systems, and protocols) to develop communication solutions that include networks, component models, middleware, and services in the field of quantum technologies.

S8 - Analyse the requirements in terms of algorithms, computational complexity, programming, operating systems, databases, structure, and interconnection of computer systems necessary for solving science and engineering problems, in accordance with the necessary principles of quality, reliability, and security, and within the institutional and legal framework of the business.

S9 - Analyse the performance and limitations of quantum machine learning algorithms compared to their classical counterparts, using quantitative metrics and qualitative analysis.

S10 - Analyse the security and efficiency of communication through classical and quantum channels, including the characterisation and mitigation of errors using quantum correction techniques and information protection based on classical and quantum cryptographic algorithms.

S-OPT1 - Apply analytical and design methodologies to solve advanced problems in the field of the elective subject.

3. Competences of Titles

C1 - To Know and be able to handle interpersonal skills on initiative, responsibility, conflict resolution, negotiation, etc., required in the professional environment.

C2 - Develop an individual project in the field of specific quantum technologies of a professional nature, synthesising and integrating the knowledge, skills and competences acquired during the course, including its defence before a university panel.

C3- Evaluate the mechanisms of propagation and transmission of electromagnetic waves and light, as well as their interaction with matter for the development of emitting and receiving devices.

C4 - Apply knowledge of photonics, optoelectronics, and high-frequency electronics in the design and analysis of fibre optic transmission systems, using modern technologies and techniques.

C5 - Develop quantum circuits and electronic systems, both analogue and digital.

C6 - Applying quantum algorithms to problems in computing, communication, cryptography, and quantum machine learning.

C7 - Raise real problems that can be addressed with quantum machine learning techniques, proposing viable solutions from a computational and algorithmic perspective.

C8 - Specify the fundamental parameters of a quantum communications system, including the advantages and disadvantages of different technological deployment alternatives, considering modulation systems, error correction mechanisms, and security protocols.

C9 - Develop quantum systems networks, services, processes and applications related to the capture, transport, representation, processing, storage, security and presentation of quantum information.

C10 - Determine appropriate security solutions, including classical and quantum cryptographic algorithms and protocols, considering the impact of quantum computing on security, as well as identifying and mitigating the difficulties associated with the transition to new solutions.

C11 - Carry out theoretical and practical exercises in a business environment, facilitating knowledge of working methodologies appropriate to the professional world, comparing and applying the knowledge acquired.

C-OPT1 - Solve engineering problems through a process of analysis, identifying the problem, recognising the specifications, establishing different methods of resolution, selecting the most appropriate one and implementing it correctly.

C-OPT2 - Assess the performance and limitations of different technological approaches, proposing improvements and alternatives.

Career opportinities

Graduates in Quantum Technology Engineering enjoy high employability, which is continuously growing, driven by the rapid development of this emerging field and the increasing demand for specialised professionals. Large technology companies and start-ups in the sector are actively investing in research and development in quantum computing, communications and sensors, requiring engineers with a solid background in quantum technologies, hardware and quantum programming. In addition, these technologies have applications in areas such as cybersecurity, process optimisation, artificial intelligence, metrology, personalised medicine, finance, energy and advanced materials, allowing graduates to integrate into a wide variety of industrial sectors. In this context, graduates can perform the following professional roles, among others:

• Quantum laboratory engineer.
• Engineer in quantum computing, post-quantum cryptography, quantum communications or integrated quantum photonics.
• Quantum software developer.
• Quantum device designer.
• Quantum technology consultant.

External Internships

This is a selection where students of this degree can do their internships:

• INDRA
• ISDEFE
• Teléfonica I+D
• Everis Spain S.L.U.
• Ericsson España S.A.
• Amazon Spain Services S.L.
• Airbus Defence and Space S.A.U.
• Orange Espagne S.A.U.
• Santander Securities Services S.A.U.
• Altran Innovación S.L.
• IS2 Global Telecom Solutions S.L.U.
• ionIDe Telematics S.L.
• Sistemas Avanzados de Tecnología (SATEC)
• Ocaso S.A.
• Indra Sistemas S.A.
• GMS Management Solutions S.L.
• One eSecurity S.L.
• Avatel Telecom S.L.
• Evolutio Cloud Enabler S.A.U.
• Accenture S.L.