The Faculty of Engineering’s world-class facilities bring together our research strengths and enable the integration of engineering ‘theory’ and ‘experiment’. These expertly-run facilities are available to students, internal and external researchers across the engineering disciplines, and international industry. Our researchers and industrial partners benefit considerably from the interdisciplinary environment provided by these facilities, where theory leads to practical application.
This laboratory is about designing and testing advanced control systems and it is primarily used for research and the occasional undergraduate project work. The laboratory has an international reputation in the specific areas of adaptive control, dynamic substructuring, multivariable control, nonlinear control and hydraulic system control. A unique feature of ACTLab is a large modular servohydraulic test system.
An internationally recognised Centre of Excellence in Robotics, BRL’s state-of-the-art laboratory covers an area of over 3,000 square metres, and houses specialist workshops and wet labs, and two flying arenas with multiple 3D motion capture systems. It is a unique collaboration that harnesses the collective strengths of its university partners, and brings together the best expertise from industry and the academic community to spearhead Britain’s efforts to be a world leader in modern advanced robotics.
The Communications lab contains state-of-the-art hardware and measurement facilities for experimental and measurement work, including an anechoic chamber; an analogue (40GHz, two channel) wafer probing facility connected to a 65GHz VNA; a computer cluster; RF and wireless instrumentation; an ultra high bandwidth, real-time oscilloscope and logic analyser; a Medav multi-element wideband channel sounder with full remote MIMO operation; and a MIMO test-bed and channel emulation facility.
The Faculty provides a full range of state-of the-art facilities that house composites-specific equipment for mechanical and high strain rate testing, manufacturing research, visualisation, composite processing and the measurement of process critical properties. In addition to our degree programmes, we also offer composite materials training and consultancy to our industrial partners.
The University hosts Bluecrystal, phase 3 (on-line Q4 2013) comprising approximately 5600 x86 cores, plus 78 GPU cards, resulting in around 210TFlop/s peak performance. This is the UK's most powerful academic computer cluster.
The Faculty has several locally-managed distributed memory parallel computer clusters, with larger simulations run on a University central resource. For High Performance Computing, the University also hosts the UK's most powerful academic computer cluster.
The Dynamics laboratory and the Model Validation Facility (MVF) are part of the Faculty’s advanced dynamic engineering facilities. Both laboratories are equipped with leading cutting-edge measurement and testing technologies to serve a large group of researchers with a focus on many aspects of dynamics, such as composites and nonlinear vibrations of mechanical structures.
This is the largest earthquake engineering facility in the UK and one of the larger facilities in Europe. The main piece of equipment is the six axis shaking table.
We welcome enquiries from industrialists who might wish to use our test facilities and we can offer access to these through a University owned company Bristol Earthquake and Engineering Laboratory Limited ("BEELAB").
The Faculty has a number of electrical and electronic laboratories and newly refurbished facilities to support research and development in electrical energy management. Labs such as the Power Electronics lab, the Electrical lab and the Electric Drives lab are used for undergraduate and postgraduate training in areas such as electric vehicle drive trains, energy harvesting, smart grid components, power electronics and machine design.
The geomechanics and geotechnics laboratories are temperature controlled facilities with equipment for research, project work and class teaching in fundamental geomechanics.
Earth Sciences laboratories facilitate the study of viscous, explosive and granular flows, a cold room (for flows that require a temperature gradient), and facilities for rheology and multiphase materials characterisation, while a number of large flumes (for watery flows)are based at the Hele-Shaw laboratory in Queen's building.
Volcanological research shares long standing interests with Engineering fluid mechanics in gravity currents and bubbly flows, some aspects of these activities are performed in the Hele-Shaw laboratory.
Engineering also have strong links with the School of Maths, who have long held interest in experimental fluid mechanics.
The Hele-Shaw laboratory is a new facility specialising in different areas of fluid mechanics teaching and research. It houses the University's capability in low viscosity liquids and multi-phase interactions between liquid and gas. The space is open-plan to jointly serve the needs of teaching and research across the Faculty.
The High Performance Networks Group (HPNG) has a strong experimental focus in the development of advanced technologies for future high-capacity, flexible and dynamic communication network infrastructures. The group’s facilities are comprised of several different feature rich testbeds, offering a wide variety of capabilities such as transmission capabilities up to 1 Tbit/s per channel, full photonic elastic switching, Carrier Grade Ethernet, IP routers, optical and layer 2 SDN enabled (OpenFlow) switches and transponders complemented by visualisation and Cloud infrastructures. The underlying research network connectivity facilities contain: a national dark fibre network connectivity (NDFIS), 1 and 10 Gbps dedicated wavelength services over the JANET network as well as high speed dedicated connectivity over GEANT and GLIF to many research institutions in the UK, Europe, North and South America, Japan and Asia.
The creep laboratory is a dedicated facility, in a temperature controlled environment, used to support research on understanding the behaviour of metals operating at high temperature, permitting tests on metals at temperatures up to a thousand degrees centigrade.
The metallurgy lab is used to perform forensic analysis of metal, ceramic or composite samples generated during research projects. Frequently this involves microscopic analysis of the samples to determine what is going on and to explain behaviour seen during other tests. Examples include diagnosing the fracture mechanism in carbon-fibre composites and how high temperature deformation changes the structure of power plant steels.
The NCC facilities include but not are not limited to clean rooms, a curing area, a machine shop, materials laboratory and thermal analysis equipment.
The non-destructive testing lab houses facilities to support internationally leading research into ultrasonics and acoustics.
The Centre for NSQI houses the low noise laboratories (LNL) are a suite of purpose-built low vibration research spaces. Designed to the highest standard they are some of the quietest laboratories in the world. Additional radio frequency and temperature stability measures make these laboratories ideally suited for experiments where background interference is a barrier to sensitive research, e.g. we will soon house Bristol NanoESCA Laboratory.
The LNL is open to project applications from across the nanoscience and quantum research communities.
Bristol has excellent facilities for this field of research, including a very well equipped clean room, a focused ion beam etching (FIBE) machine, advanced measurement and experimental kit, state- of-the- art equipment for optical communications testing and measurements, and fundamental research facilities particularly in the Quantum Photonics area.
Our goal in the Centre for Quantum Photonics (CQP) is to explore fundamental aspects of quantum mechanics, as well as work towards future photonic quantum technologies by generating, manipulating and measuring single photons as well as the quantum systems that emit these photons.
CQP and the wider Quantum Engineering Technology (QET) Laboratories span the School of Physics and Department of Electrical and Electronic Engineering. QET Labs is a global centre for research, development and entrepreneurship in the emerging quantum technology industry.
The Relative Motion Robotic (RMR) facility is designed to simulate relative motion and interaction between two bodies. The facility is being used primarily to develop automated air-to-air refuelling techniques. The Advanced Composites Centre for Innovation and Science is also using this facility for manufacturing research with advanced composite materials.
This laboratory is a facility for measuring residual stresses within engineering components. It is a laboratory jointly created by the Solid Mechanics group in the Department of Mechanical Engineering and Veqter Ltd and is used to develop and apply novel research tools to interrogate locked-in stresses in components. Veqter Ltd is a company spun-out from the University of Bristol and undertakes projects for industrial clients. The Solid Mechanics group focuses directly on research. Many of the projects are associated with determining residual stresses in high integrity nuclear welded components. More recently research has been undertaken to measure residual stresses in non-metallic components such as fibre composites for aerospace applications.
Our structures facilities allow for testing a variety of structural forms, from large frames to smaller machines for more standard testing. Our laboratories offer heavy and light test facilities, a 100 tonne capacity frame for pilot testing and a large-scale fatigue testing facility for road bridges. This composite bridge is supported by industry such as the Highways Agency, Network Rail and the Institution of Civil Engineers.
This laboratory exists to undertake innovative, collaborative and interdisciplinary research resulting in world leading technology in the areas of computer vision, image and video communications, content analysis and distributed sensor systems.
One of the best university wind-tunnel laboratories in the country for aerodynamic testing, the lab has a range of wind tunnel facilities and unique measurement equipment. It is used for teaching, research and by industry for testing. In addition to aircraft, this lab has also been used to test buildings, cars, dinosaur heads, and components of space vehicles among other things – even the aerodynamics of Wimbledon No. 1 Court were tested here.
We have excellent workshop facilities that are used by both students and staff. They are also able to get significant components made here on site for projects. Facilities and equipment includes Computer Numerical Control (CNC) machines, lathes, Electro Discharge Machines (EDMs) and rapid prototype machines among others.
Equipment within the Faculty can be reserved using the online booking system.
For further information and how to book, please visit the staff intranet pages.
University of Bristol,
Bristol, BS8 1TH, UK
Tel: +44 (0)117 928 9000