Máster Universitario en Ciencia e Tecnoloxías de Información Cuántica

The recommended entry profile is that of university graduates in the field of science (mainly Physics, but also Chemistry, Mathematics, Nanoscience and Nanotechnology and other related degrees) and en

Completion conditions:

Compulsory: 15
Electives: 27
External internships OB 3
Master's final project: 15
Total: 60

La USC, a través del ORE mantiene un sistema de información permanente a través de la web, que se complementa con campañas y acciones informativas específicas de promoción de las convocatorias. Además, cuenta con recursos de apoyo para el estudiantado de acogida, tales como la reserva de plazas en las Residencias Universitarias, o el Programa de Atención a Estudiantes Extracomunitarios (PATEX) del Vicerrectorado con competencias en movilidad, a través del cual voluntarios/as de la USC realizan tareas de acompañamiento dirigidas a la integración en la ciudad y en la Universidad del alumnado de acogida.

En cuanto a estudiantes de acogida, se organiza una sesión de recepción, al inicio de cada cuatrimestre, en la que se les informa y orienta sobre el centro y los estudios, al tiempo que se les pone en contacto con los coordinadores académicos, que actuarán como tutores, y el personal del Centro implicado en su atención.

La Facultad de Físicas de la USC, además de los responsables citados anteriormente, cuenta con la colaboración de varios docentes que actúan como coordinadores académicos, y cuya función es tutelar y asistir en sus decisiones académicas al alumnado propio y de acogida, así como firmar los acuerdos académicos de movilidad que aseguren que la acción se encuadre en los objetivos y competencias del título.

El centro, con el Responsable Académico de Movilidad y de la Comisión de Título, promueve la incorporación de nuevos acuerdos académicos basándose en recomendaciones del personal docente, y vela porque esas acciones sean un complemento a la formación del alumnado del Centro, evaluando anualmente la renovación de cada acuerdo.

La selección de candidatos se lleva a cabo, para cada convocatoria o programa, por una Comisión de Selección, compuesta por las coordinadoras Erasmus y Sicue-Séneca del Centro, la persona responsable de movilidad y la gestora, acorde con los criterios de baremación, previamente definidos.

Access

Poderán acceder ás ensinanzas oficiais de máster:

1. As persoas que estean en posesión dun título universitario oficial español.
2. Aquelas que teñan un título expedido por unha institucion de educación superior do EEES que faculta no país expedidor do título para o acceso a ensinanzas de máster.
3. Os titulados conforme a sistemas educativos alleos ao EEES sen necesidade de homologación dos seus títulos, previa comprobación pola Universidade de que os ditos títulos acreditan un nivel de formación equivalente aos correspondentes títulos universitarios españois e que facultan no país expedidor do título para o acceso a ensinanzas de posgrao.

Admission

Modality: Specific criteria

Access qualifications

- Degree in Physics, Telecommunications Engineering or Computer Science or equivalent (6 points).
- Other Bachelor's Degrees in Engineering or equivalent (up to 4 points).
- Other Bachelor's Degrees in Science and Technology: Chemistry, Mathematics, Nanotechnology, and equivalents... (up to 4 points)

Selection criteria:

-Access qualification: up to 6 points.
-Academic record: up to 2 points
-Other master's degrees in related subjects: up to 1 point.
-Professional or research experience: up to 1 point.

Information updated at each call for enrolment

- Possess and understand knowledge that provides a basis or opportunity for originality in the development and/or application of ideas, often in a research context.

- Students are able to apply their acquired knowledge and problem-solving skills in new or unfamiliar environments within broader (or multidisciplinary) contexts related to their field of study.

- Students are able to integrate knowledge and deal with the complexity of making judgements based on incomplete or limited information, including reflections on the social and ethical responsibilities associated with the application of their knowledge and judgements.

- Students are able to communicate their conclusions and the knowledge and rationale underpinning them to specialist and non-specialist audiences in a clear and unambiguous way.

- students possess the learning skills to enable them to continue studying in a largely self-directed or autonomous way.

- Maintain and extend well-founded theoretical approaches to enable the introduction and exploitation of advanced concepts and developments in the various fields of quantum technologies.
- Be able to handle with ease and rigour the theoretical foundations and techniques of quantum systems: quantum communication, quantum information and quantum computation.
- Search for and select useful information necessary to solve complex problems in the field of quantum technologies, handling bibliographic sources in the field.
- Prepare adequately and with originality written compositions or motivated arguments, write plans, work projects, scientific articles and formulate reasonable working hypotheses.

- Understand the domain, concepts, methods and basic techniques of quantum mechanics: mathematical formalism, postulates, operators, matrices, Bloch sphere, photonic states.
- Knowledge and competence in experimental techniques for the processing of quantum information: interactions, measurements, oscillations, interferences, communication systems, etc.
- Understanding and knowledge of the fundamentals of Quantum Information Theory, as well as the basic aspects of the four types of quantum technologies: computation, communications, metrology, simulation.
- Know and know how to apply the physical theories inherent to the understanding of quantum information processing systems, including quantum thermodynamics as well as advanced aspects of magnetism and quantum mechanics.
- Know and understand the nature of the physical platforms for quantum information processing in solid state systems: superconducting systems, cryoscience and quantum materials, including the study of topological states.
- Know and understand the nature of the physical platforms for processing quantum information in photonic systems: quantum optics, integrated optical systems, opto-atomic systems, detection and measurement systems, semiconductor photonics.
- Acquiring and knowing how to apply the basic principles of quantum computing: analysing, understanding and implementing quantum algorithms, mastering the appropriate computer languages and understanding the quantum circuit paradigm.
- Know the algorithms and strategies of classical computing inspired by quantum computing: tensor networks, matrix product states, etc.
- Know and know how to apply advanced aspects of quantum computing: quantum learning, efficient quantum architecture, mode of operation of quantum accelerators, high-performance computing, rule-based quantum systems and applications to numerical computation.- Know practical application scenarios of quantum computing in problems of scientific, technological and financial interest. Identify domains that exhibit quantum advantage. Know the institutions and companies that are actors in quantum computing, acquiring a prespective of the agenda that is reasonable to expect in the coming years.
- Acquire a solid foundation in quantum information theory as it applies to quantum communications, as well as in the technology of photonic devices used in quantum communications, both terrestrial, aerial and satellite.
- Acquire skills for the design and estimation of resources that enable the development of quantum communication channels and networks and distributed computing. Know the current state of development and implementation of quantum networks, and the plans for their expansion.
- Knowing the strategies of quantum cryptography and their viability and solvency in the context of the quantum internet, quantum blockchain, and secret communications, acquiring a panoramic vision of the actors that will be essential in their deployment.

- Express themselves correctly, both orally and in writing, in the official languages of the Autonomous Community.
- Master the oral and written expression and comprehension of a foreign language.
- Use the basic tools of information and communication technologies (ICT) necessary for the exercise of their profession and for lifelong learning.
- Develop for the exercise of a citizenship that respects democratic culture, human rights and the gender perspective.
- To understand the importance of entrepreneurial culture and to know the means available to entrepreneurs.
- Acquire life skills and healthy habits, routines and lifestyles.
- Develop the ability to work in interdisciplinary or transdisciplinary teams to offer proposals that contribute to sustainable environmental, economic, political and social development.
- Value the importance of research, innovation and technological development in the socio-economic and cultural progress of society.
- Have the ability to manage time and resources: develop plans, prioritise activities, identify critical ones, establish deadlines and meet them.
- Be able to apply knowledge, skills and attitudes to business and professional reality, planning, managing and evaluating projects in the field of quantum technologies.
- Be able to pose, model and solve problems that require the application of artificial intelligence methods, techniques and technologies.