Astronomy and Astrophysics

Astronomy and Astrophysics at Queen Mary University of London is a comprehensive and innovative undergraduate program designed to provide students with a deep understanding of the universe and its fundamental principles. This degree combines core physics disciplines with specialized astronomy and astrophysics modules, enabling students to explore topics such as stellar astrophysics, cosmology, planetary science, and observational techniques. The program is structured to balance theoretical knowledge with practical skills, offering students hands-on experience through state-of-the-art laboratories, astrophysics-related software, and access to observational facilities. Throughout the course, students will develop critical thinking, problem-solving, and data analysis skills essential for careers in research, industry, or further academic study. The program also emphasizes the use of modern technology and computational methods to analyze astronomical data, preparing graduates for the rapidly evolving field of astrophysics. In addition to rigorous academic coursework, students have opportunities to participate in planetary and space science projects, access research seminars, and undertake independent projects under the supervision of experienced faculty. The degree aims to foster a strong foundation in physics while cultivating curiosity about the cosmos, encouraging students to contribute to our understanding of the universe. Graduates of this program have gone on to pursue careers in research institutions, space agencies, data science, education, and more. With its combination of theoretical coursework, practical application, and research exposure, the Astronomy and Astrophysics program at Queen Mary University of London offers an excellent pathway for those passionate about exploring the universe and advancing scientific knowledge.

Cosmology

The aim of cosmology is to unravel the mysteries of the universe as a whole. It addresses such fundamental questions as: why does the universe have its observed structure; how did it develop into its current form; what will happen to it in the future? Specific interests include the origin of the universe, inflationary and superstring cosmology, primordial black holes, the cosmic microwave background, inhomogeneous cosmology, the formation and evolution of large-scale structure, dark matter and gravitational lensing.

Gravitation

Work within the group covers theory, data analysis and experiments. Research areas include space experiments on gravitation, gravitational waves, theories of gravity and tests, relativistic astrophysics, black holes.

Planetary Formation, Astrophysical Fluids, and Accretion Discs

A primary research area is the formation and evolution of planets and planetary systems, especially their interaction with protoplanetary discs. Simulations employing state-of-the-art hydrodynamic, MHD and N-body codes on parallel supercomputers are used to study topical problems in planetary formation and accretion disc theory. Simulations are also employed to study the dynamics and evolution of planetary atmospheres, especially those of terrestrial planets and short-period extrasolar giant planets (hot Jupiters).

Solar and Stellar Physics

The work of the group covers many areas. Stellar physics constrains the ages of different stellar components and hence the evolution the Galaxy itself. Stars are used to calibrate age and distance measurements on the largest cosmological scales. They are the sources of most of the chemical evolution in the universe, elements being created and destroyed by nuclear burning and subsequently ejected into the interstellar medium. They are laboratories to study astrophysical processes such as convection, nucleosynthesis, mass loss and accretion, rotation and magnetic fields. The sun is uniquely valuable because we can study it close up, observing many phenomena that cannot be resolved in more distant stars.

Solar System Bodies and Dynamics

Work covers theory, data analysis, observations and simulations. Research areas include: physical studies of asteroids, comets and Kuiper Belt objects; long-term dynamics and orbital stability of meteoroids, asteroids, comets, natural satellites and planets; chaos in the solar system; resonance passage and tidal evolution; astrometric observations of planetary satellites; Voyager image analysis; planetary ring dynamics; computer algebra in celestial mechanics. The group is also involved in the highly successful NASA/ESA Cassini mission to Saturn and ESA's Rosetta mission.

Space and Solar Plasma Physics

Research areas cover: the structure of collisionless shocks, including the Earth's bow shock and interplanetary shocks; particle acceleration; kinetic waves and associated features; plasma turbulence. Theoretical work includes numerical self-consistent particle simulations and kinetic wave theory. Research areas cover: the structure of collisionless shocks, including the Earth's bow shock and interplanetary shocks; particle acceleration; kinetic waves and associated features; plasma turbulence.

Theoretical work includes numerical self-consistent particle simulations and kinetic wave theory. Solar coronal heating problem; various wave modes in inhomogeneous space plasmas and magnetic reconnection; solar flares; large scale numerical simulations (Vlasov, Particle-in-Cell and Magnetohydrodynamic); theoretical modeling of radio emission from solar flare electrons (Type III solar radio bursts).

Survey Astronomy

Surveys involve both statistical studies of large numbers of objects for astrophysical studies, and samples of rare objects whose properties can be studied in greater detail. They are relevant to the solar system, stars, the interstellar medium, the structure and evolution of our own and other galaxies, large-scale cosmological structure, dark matter and dark energy. Our research programmes use multi-wavelength wide-field imaging surveys at infrared and optical wavelengths. There is a strong involvement in VISTA and various spectroscopic surveys.

Requirements

• A full academic transcript (a record of courses taken and grades achieved)
• Applicants must submit documentation of GRE results obtained during the last five years, showing scores for all sections of the examination
• Evidence of your proficiency in English (for international students)
• Resume / Curriculum Vitae
• Two academic referees to send confidential reference letters to econpgadm@qmul.ac.uk
• A research proposal (1000 words)
• IELTS 7.0

The Astronomy and Astrophysics program at Queen Mary University of London offers a range of financing options to support students throughout their studies. Prospective students can explore various sources of financial assistance, including government-funded schemes, university bursaries, scholarships, and external grants. The UK government provides student loans for domestic students, which cover tuition fees and contribute towards living costs, repayable after graduation based on income levels. Queen Mary University also offers a variety of scholarships specifically aimed at students enrolling in astronomy and related sciences; these include entrance scholarships, merit-based awards, and hardship bursaries designed to assist those demonstrating financial need. International students may also be eligible for certain scholarships and funding opportunities, often provided by external organizations in collaboration with the university. Additionally, students are encouraged to seek part-time work opportunities on or near campus to help finance their studies. The university’s dedicated financial aid office offers comprehensive guidance on available funding sources, application procedures, and deadlines. Students are advised to explore funding options early in the application process to maximize their chances of securing financial support. The university reviews and updates its funding packages annually, ensuring competitive and equitable support for both domestic and international students. Furthermore, some students may qualify for research councils or industry-sponsored scholarships if their coursework involves research components or industry collaboration. Overall, the financing options for the Astronomy and Astrophysics program at Queen Mary University of London are designed to make higher education accessible and affordable, enabling students to focus on their academic and research pursuits without undue financial stress.

The BSc Astronomy and Astrophysics course at Queen Mary University of London offers students a comprehensive foundation in the fundamental concepts of astronomy and astrophysics, preparing them for careers in research, education, or industry related to space sciences. The programme covers a range of topics including the physics of stars, galaxies, and the universe, as well as observational techniques and data analysis methods used in modern astrophysics. Students have the opportunity to develop practical skills through laboratory work, observational projects, and internships, gaining hands-on experience with telescopes and astronomical data sets. The course is designed to provide a blend of theoretical physics and practical application, enabling graduates to understand complex astrophysical phenomena and conduct independent research. The curriculum incorporates modules on classical and quantum physics, computational methods, and statistical analysis, ensuring students are well-equipped for advanced study or careers in scientific research, aerospace industries, or data science. Additionally, the programme emphasizes teamwork, communication skills, and the use of new technologies in space research. The university's facilities include dedicated observatories, laboratories with advanced instrumentation, and access to astronomical databases and software. Students are encouraged to participate in research projects, attend seminars, and engage with international astrophysics communities. The programme typically spans three years for full-time students, with options for study abroad or placement year to enhance practical experience. Graduates of the BSc in Astronomy and Astrophysics are well-prepared for postgraduate study or employment in sectors such as space technology, environmental monitoring, data analysis, and scientific outreach. Queen Mary University of London’s strong links with industry and research institutions provide students with valuable networking opportunities, internships, and collaborative projects that enhance their professional development. Overall, this programme aims to cultivate a deep understanding of the universe and develop skills necessary for innovative research and technological advancements in astronomy and astrophysics.