Our multidisciplinary research addresses the global need for delivering long-term, sustainable performance of existing and new infrastructure systems. We are leaders in modelling and managing the impacts of extreme natural and human hazards, such as earthquakes, climate change, flooding, industrial processes, traffic and crowds. Our application studies range in scale from complete national and regional systems such as national hydrological models, water systems, electricity and transport networks, through individual artefacts such as nuclear facilities, dams, long-span bridges and buildings, down to low-cost water quality monitoring devices. Much of the research includes monitoring of prototypes or modelling at large scale, for example, the dynamics of cable-stayed bridges such as the Second Severn Crossing, analysis of deep excavations, and flood prediction based on real-time radar detection of rainfall.
Our three groups collaborate widely with academic and industrial partners from across the engineering, science and social science disciplines, and from around the world.
Research Areas Earthquake and Geotechnical Engineering
This area encompasses structural engineering, advanced composite materials and geomechanics. Based around BLADE (the £20-million Bristol Laboratories for Advanced Dynamics Engineering) and the Earthquake Engineering Research Centre (EERC), the group focuses on the non-linear performance and reliability of civil engineering infrastructure, with an emphasis on dynamic loading. It develops techniques for numerical analysis, physical testing of infrastructure in the field and laboratory structural and geotechnical material behaviour characterisation and modelling, structural vulnerability and overall non-linear dynamic performance assessment. This group is the largest in the UK with an interest in earthquake engineering.
The Earthquake Engineering Research Centre hosts one of Europe's leading academic experimental research facilities in earthquake engineering and structural dynamics. The Centre has made notable advances in several areas including the mechanisms of wind and pedestrian-induced vibrations, the non-linear dynamics of masonry and other buildings (including strengthening and using advanced composites), and the seismic response of large dams. Research in advanced composites links with the Faculty's Advanced Composites Centre for Innovation and Science (ACCIS) and focuses on large-scale testing and advanced theoretical analysis of hybrid structures comprising any combination of conventional construction materials and novel materials, such as limecrete and fibre reinforced polymers, which have significant sustainability benefits for use in buildings and bridges.
The Geomechanics group has an active interest in solving geotechnical problems using a multi-scale approach which combines laboratory testing, constitutive modelling, physical modelling, field observation and numerical simulation. Recent research focuses on measurements of deformation properties of soils using novel techniques of laboratory geophysics at very small strains for stiffness, dynamic soil-structure interaction and foundations of offshore wind turbines. The group also has a strong interest in the characterisation of treated geomaterials: mixtures of soil with various inclusions like fibres, cement, fly ash and soft tire chips. The Soil Mechanics Laboratory possesses a series of triaxial and a unique set of multiaxial soil test apparatus: True Triaxial Apparatus (independent variation of three principal stresses, rigid boundaries), Cubical Cell (independent variation of three principal stresses, flexible boundaries) and Hollow Cylindrical Torsional Apparatus (independent control of four stress variables).
Water and Environment
This area is based around the Water and Environmental Management Research Centre (WEMRC) and the Water and Health Research Centre (WHRC).
The WEMRC addresses the management of water resource risks including floods and droughts, with emphasis on technologies for measurement and modelling of rainfall events and the consequent river flows and environmental impacts. It provides a focus for the study of water management issues in the UK and overseas from a systems point of view. Key expertise exists within the centre in numerical weather prediction modelling, radar hydrology, real-time flood forecasting systems, distributed hydrological modelling for land use management, hydroinformatics, flood risk management and other aspects of risk and uncertainty.
Systems and Safety
The Safety Systems Research Centre develops novel, holistic approaches for characterising and managing the safe and sustainable performance of complex systems, including human factors. Key areas of work include the safety and vulnerability of embedded software systems, systems thinking, sustainable systems, problem structuring methods, and the vulnerability and resilience of infrastructures.
Key research interests Dr Jitendra Agarwal, Civil engineering systems; structural engineering; structural safety; non-linear dynamics.
Dr Nick Alexander, Structural engineering.
Dr Jacopo Ciambella, Composites.
Dr Adam Crewe, Bridges; earthquake engineering; soil dynamics; steel design.
Professor John Davis, Civil engineering systems.
Dr Andreas Diambra, Soil mechanics; computational geotechnics; soil-structure interaction.
Dr Katsu Goda, Earthquake engineering and structures.
Professor Patrick Godfrey, Systems engineering.
Professor Stephen Gundry, Water and health; enterprise and entrepreneurship; engineering management.
Professor Dawei Han, Hydrology; flood risk management; remote sensing; water resources.
Professor Sally Heslop, Engineering education; environmental systems; sustainability.
Dr Liz Holcombe, Slope stability.
Dr Nicholas Howden, Hydrology; hydrogeology.
Dr Erdin Ibraim, Soil mechanics, granular materials, soil reinforcement, advanced soil laboratory testing, soil-structure interaction.
Dr John Macdonald, Bridges; structural dynamics; wind engineering; human-structure interaction.
Dr John May, Safety systems; reliability of digital systems; organisational safety.
Professor George Mylonakis, Earthquake engineering; computational geomechanics; dynamic soil-structure interaction.
Dr David Nash, Field monitoring; geotechnics.
Dr Miguel Rico-Ramirez, Radar hydrology; hydroinformatics; water resources; flood risk management; remote sensing.
Dr Rafael Rosolem, Hydrometeorology; soilvegetation- atmosphere interactions.
Dr Wendel Sebastian, Advanced composites; bridge repair; nonlinear behaviour of structures.
Professor Colin Taylor, Earthquake engineering; field monitoring; structural dynamics.
Dr Theo Tryfonas, Systems engineering; security penetration testing; digital forensics.
Professor Thorsten Wagener, Hydrologic systems; watershed hydrology.
Dr Mohammed Wanous, Engineering management; engineering education.
Dr Ross Woods, Catchment hydrology.
Dr Michael Yearworth, Engineering systems; modelling and intervention in socio-technical systems.
Universities in the United Kingdom use a centralized system of undergraduate application: University and College Admissions Service (UCAS). It is used by both domestic and international students. Students have to register on the UCAS website before applying to the university. They will find all the necessary information about the application process on this website. Some graduate courses also require registration on this website, but in most cases students have to apply directly to the university. Some universities also accept undergraduate application through Common App (the information about it could be found on universities' websites).
Both undergraduate and graduate students may receive three types of responses from the university. The first one, “unconditional offer” means that you already reached all requirements and may be admitted to the university. The second one, “conditional offer” makes your admission possible if you fulfill some criteria – for example, have good grades on final exams. The third one, “unsuccessful application” means that you, unfortunately, could not be admitted to the university of you choice.
All universities require personal statement, which should include the reasons to study in the UK and the information about personal and professional goals of the student and a transcript, which includes grades received in high school or in the previous university.
Undergraduate applicants may use UCAS system or Common App (for all courses except medicine, dentistry and veterinary sciences). International students may find country-specific admission criteria on the website. For instant, student from Russia with a Certificate of secondary education may be admitted to the Univeristy of Bristol only after foundation/bridging program, while those with International Baccalaureate/A-level degree may apply directly to undergraduate programs.
Graduate students have to use university's website for application. All documents should be uploaded on this website and the admission decision will also be provided on the website.
International students should provide English test results in order to apply to both undergraduate and graduate programs. University of Bristol accept various tests, including IELTS, TOEFL, CAE/CPE and some others. Language requirements may depend on the type of program: they are typically higher for Art&Humanities and lower for Science programs. For instance, the highest IELTS score required (profile A) for undergraduate and graduate programs is 7.5 (7.0 in each section).
MSc and/or upper second-class honours degree or international equivalent.
IMPORTANT NOTE: Since April 2014 the ETS tests (including TOEFL and TOEIC) are no longer accepted for Tier 4 visa applications to the United Kingdom. The university might still accept these tests to admit you to the university, but if you require a Tier 4 visa to enter the UK and begin your degree programme, these tests will not be sufficient to obtain your Visa.
The IELTS test is most widely accepted by universities and is also accepted for Tier 4 visas to the UK- learn more.