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Postgraduate Courses 2016

Forensic Science - MSc

Canterbury

Overview

This programme is for graduates with a strong grounding in forensic science who wish to advance their knowledge of the field.

It prepares you for a professional role in forensic science within the criminal or civil judicial system, police or forensic practice, or research. You develop command, control and management skills that will enable you to present expert evidential incident reports to the highest standard at court.

You also develop your knowledge and understanding of advanced laboratory analytical methods applied to forensic investigation. This enables you to select the most appropriate analytical techniques for forensic investigation and to use a wide range of advanced analytic apparatus to evidential standards.

This programme helps you to develop an integrated and critical understanding of forensic science to prepare you to undertake a PhD in any associated discipline.

About The School of Physical Sciences

The School offers postgraduate students the opportunity to participate in groundbreaking science in the realms of physics, chemistry, forensics and astronomy. With strong international reputations, our staff provide plausible ideas, well-designed projects, research training and enthusiasm within a stimulating environment. Recent investment in modern laboratory equipment and computational facilities accelerates the research.

The School maintains a focus on progress to ensure each student is able to compete with their peers in their chosen field. We carefully nurture the skills, abilities and motivation of our students which are vital elements in our research activity. We offer higher degree programmes in chemistry and physics (including specialisations in forensics, astronomy and space science) by research. We also offer taught programmes in Forensic Science, studied over one year full-time, and a two-year European-style Master’s in Physics.

Our principal research covers a wide variety of topics within physics, astronomy and chemistry, ranging from specifically theoretical work on surfaces and interfaces, through mainstream experimental condensed matter physics, astrobiology, space science and astrophysics, to applied areas such as biomedical imaging, forensic imaging and space vehicle protection. We scored highly in the most recent Research Assessment Exercise, with 25% of our research ranked as “world-leading” and our Functional Materials Research Group ranked 2nd nationally in the Metallurgy and Materials discipline.

National ratings

In the Research Excellence Framework (REF) 2014, research by the School of Physical Sciences was ranked 7th in the UK for research impact and a demonstration of its importance to industry and the public sector.

An impressive 100% of our physics research and 98% of our chemistry research was judged to be of international quality, with 75% physics and 78% of chemistry research judged world-leading or internationally excellent. The School’s environment was judged to be conducive to supporting the development of research of international excellence.

Course structure

The programme provides a broad and balanced foundation of the science and law that underpins forensic practice and methodology in modern society.

This includes detailed knowledge of the physical techniques and methods of assay, analysis and examination used by forensic scientists, together with the essential chemical and biological knowledge required for understanding forensic evidence and its presentation.

Modules

The following modules are indicative of those offered on this programme. This list is based on the current curriculum and may change year to year in response to new curriculum developments and innovation.  Most programmes will require you to study a combination of compulsory and optional modules. You may also have the option to take modules from other programmes so that you may customise your programme and explore other subject areas that interest you.

PS601 - Fires and Explosions (15 credits)

Physics and chemistry of fires and explosions:

Fire and arson – occurrence and importance. Combustion – definitions. Thermodynamics and enthalpy. Flammability limits, flash point, fire point, ignition temperature. Pyrolysis of wood and plastics. Fuels and accelerants. Propagation and spread of fires. Sampling and laboratory analysis of fire scene residues.

Explosions – definitions. Vapour phase and condensed phase explosions. Detonation and deflagration. High and low explosives. Primary and secondary high explosives. Molecular design of explosives. Survey of important explosives. Stoichiometry, oxygen balance, gas volumes, thermodynamics and enthalpy. Sampling and laboratory analysis of explosives residues. Preventative detection of explosives in contexts such as airports.



Fires:

Fire dynamics. Propagation and spread of fires – flames, fire types, flashover. Fire investigation. Forensic Science Service procedures at the scene. Damage observation and assessment. Fire and smoke patterns. Sources of ignition. Injuries and fatalities. Evidence recovery: sampling and laboratory analysis. Establishing the origin : the seat of the fire. Finding the cause: natural, accidental, negligent or deliberate? Indicators of arson. Evidence procedures. Case studies.



Explosions:

Control of the explosion scene and procedures for recovery of evidence. Damage observation and assessment. The work of the Forensic Explosives Laboratory. Identification of explosives: organics and inorganics. Bulk analysis. Trace analysis of explosives: recovery, extraction and analysis of samples. Physical evidence: detonators. Preventative detection. Precursor identification. Explosives evidence in court: legal definitions and procedures. Terrorism. Case studies.

Credits: 15 credits (7.5 ECTS credits).

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PS637 - DNA Analysis & Interpretation (15 credits)

The module lectures will cover the following topics:



• Historical methods

• DNA sample collection, processing and storage

• DNA theory

• DNA databases and statistical interpretation

• Quality Assurance, management and control

• Legal aspects

• Forensic case studies

• Future trends

Credits: 15 credits (7.5 ECTS credits).

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PS700 - Physical Science Research Planning (15 credits)

Aims:

  • Students will develop a number of skills related to the planning and preparation of a research proposal. Students will learn how to search and retrieve information from a variety of locations (databases, websites, journals, proceedings etc). They will learn how to compile a professionally-produced document such as a grant proposal for funding a research activity in a direction of their own. They will exercise presentation skills of their grant proposal and present critical reviews and referee's reports of the research of others.



    SYLLABUS:

  • Research skills

  • Colloquium attendance

  • Revision of methods of searching the scientific literature (e.g, Web of Science)

  • Introduction to sources of information concerning research funding

  • How the Research Councils work

  • How specific funding bodies (e.g. STFC, FP7) operate

  • Peer review of research proposals

  • Identifying research areas and collaborators

  • Writing an entire case for support

  • Scheduling research programmes

  • Costing research

  • Completing a research proposal form

  • Poster presentation of the research proposal



    Details of the work to be done will be announced by the convenor during the first two weeks of the academic year.

    Credits: 15 credits (7.5 ECTS credits).

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  • PS702 - Contemporary and Advanced Issues in Forensic Science (15 credits)

    This module enables students from a variety of backgrounds (e.g. graduates in Forensic Science, Chemistry, Biochemistry, Forensic Biology etc.) to develop their expertise within selected areas of forensic science. Areas for development (e.g. crime scene analysis, ballistics, drug analysis, face recognition, DNA, etc.) will be identified during an initial meeting of the module convenor with each student.

    Students will then be assigned a supervisor in the appropriate area who will guide them towards appropriate learning resources such as lecture and practical materials within the School’s portfolio of modules, textbooks and research journals, as well as providing tutorial guidance throughout the module. Guidance will be also given in preparing the dissertation and the presentation. Students will be expected to present verbally, and in writing, the background and advances (focussing on the last ten years) in their selected area of expertise.

    Credits: 15 credits (7.5 ECTS credits).

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    PS704 - Major Incident Management (15 credits)

    The module will cover incident management from a tactical/regional and national/ strategic perspective using the four stage model: Identification, preparation, mitigation, and recovery.

    A range of actual and potential incidents will be covered including air accident, marine accident, rail and road incident, terrorist attacks, and industrial and chemical incidents.

    This will be achieved using lectures, critical evaluation of case studies, and real time simulated incident exercises.

    Students will be required to examine all aspects of scene and major incident management, disaster planning and related legislation.

    This will encompass emergency management and planning legislation, damage limitation, evacuation plans, logistical support, inter-agency operation and cooperation, and personnel management.

    Credits: 15 credits (7.5 ECTS credits).

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    PS713 - Substances of Abuse (15 credits)

  • Elements of synthetic organic chemistry and medicinal chemistry which are relevant to substances of abuse.

  • The theoretical chemistry and principles of analysis and identification of several substances that are substances of abuse. The following are indicative:

    o amphetamines and related compounds

    o LSD and related compounds

    o Cannabis and Cannabis products

    o opiate compounds

    o cocaine and related compounds

    o certain controlled pharmaceutical drugs.

    Credits: 15 credits (7.5 ECTS credits).

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  • PS720 - Advanced Forensic Project Laboratory (30 credits)

    The module is designed to give students experience of a range of advanced laboratory methods with wide application in modern Forensic Science. These methods will underpin their Stage 4 Forensic Analysis and Incident Management Presentation (PS717) and research project (PS740) modules.

    The module will be in two sections. In the first section, taught in the Autumn Term, students will receive training in a range of advanced chemical and physical laboratory methods. This section of the module will be assessed by a report written on each experiment. In the second section, beginning towards the end of the Autumn term and continuing throughout the Spring Term, students will select one of the methods for an extended self-directed project. This will evaluate the application of the method in Forensic Science, and will include experimental measurements to establish the detection limit of the method in trace analysis. This section of the module will be assessed by oral presentation and written dissertation.

    Experiments will include such as (NB this is an illustrative list):



  • Gas chromatography – mass spectrometry

    Important example of modern hyphenated analysis techniques. Used in analysis of accelerant and explosive traces at scenes of fires and explosions, also in analysis of drugs of abuse.



  • Atomic absorption spectroscopy

    Used in the analysis of trace metal content. Experiment to compare flame and graphite furnace methods.



  • NMR spectroscopy

    Universally used in analysis of organic substances. Experiment to manipulate FID curves, to explore peak resolution and detect contaminants in samples such as counterfeit medicines.



  • X-ray fluorescence

    Used in analysis of metal artefacts, including bullet casings and forged coins.



  • X-ray diffraction

    Used in analysis of materials with crystalline lattices, including metals and inorganic explosives residues.



  • Electron microscopy

    SEM, TEM and Electron Probe Microanalysis (EPMA) in the analysis of gunshot and explosives residues.



  • Raman spectroscopy

    Used in forensic analysis of ink pigments, street drugs and counterfeit pharmaceuticals.



  • HPLC

    Widely used method of separating and identifying substances in forensic science.



  • UV-visible/fluorescence spectroscopy

    Used in comparison of pigments and paper in questioned documents; also chemical tests for explosives and drugs of abuse.



  • Image processing

    Facial recognition software, signature comparison, and the reconstruction of CCTV images.

    Credits: 30 credits (15 ECTS credits).

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  • PS780 - MSC Research Project (60 credits)

    Students will undertake a project from an available project listing and will work under the guidance of a supervisor. The student will be encouraged to develop some level of research independence within the project remit appropriate of a postgraduate master’s student.



    The project will be assessed on a number of criteria which will include the project work (the amount, quality etc appropriate for the level), effort put in by the student, the preparation of a written report and an oral presentation session. The student’s progress will be assessed mid way through the research project through some form of progress report. This will also involve some degree of forward planning such that the students assess their own project requirements for the following term allowing the student to learn time management and forward planning skills.

    Credits: 60 credits (30 ECTS credits).

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    Assessment

    Assessment is by examination and coursework.

    Programme aims

    This programme aims to:

    • develop your integrated and critically aware understanding of forensic science and to prepare you to undertake a PhD in any associated disciplines
    • prepare you for a professional role in forensic science within the criminal or civil judicial system, police, or forensic practice or research                                  
    • develop your command, control, and management skills in relation to major incidents, and to prepare and present expert evidential incident reports at court to the highest standard
    • develop a clear recognition of the constraints and opportunities of the environment in which professional forensic science is carried out
    • develop a variety of Masters’ level intellectual and transferable skills
    • equip you with the learning skills to keep abreast of developments in the continually evolving field of forensic science and forensic investigation
    • enable you to realise your academic potential.

    Learning outcomes

    Knowledge and understanding

    You gain knowledge and understanding of:

    • advanced theory, concepts, and practice in relation to laboratory analysis and substances of abuse                                    
    • the command, management, logistics, and forensic implications of major and minor incidents such as air or rail accidents and crime scenes. Emergency and disaster planning, theory, practice, legislation, and implementation                     
    • advance laboratory analytic methods and apparatus as applied to general analysis and forensic investigation
    • the forensic application of DNA analysis, fire investigation, explosives and accelerants.

    Intellectual skills

    You develop intellectual skills in:

    • critical thinking, reasoning and reflection
    • the ability to recognise and solve forensic-related problems at an advanced level
    • the ability to select the most appropriate techniques for a given analysis and to use a wide range of advanced analytic apparatus to evidential standards
    • the ability to manage personnel and logistics in demanding and highly fluid environments.

    Subject-specific skills

    You gain subject-specific skills in:

    • the ability to source funding for, plan, and implement research projects
    • the ability to identify, plan for and manage actual and potential threats in a range of environments
    • the ability to prepare and present an incident management report to evidential standards, and to present such reports at court under hostile cross-examination
    • the ability to perform advanced level analysis on a range of apparatus and to document such to evidential standards
    • familiarity and competence to an advanced level in key items of forensic analytic apparatus.

    Transferable skills

    You gain the following transferable skills:

    • personal and interpersonal skills, working as a member of a team and as a team leader.
    • effective research costing and planning
    • skills relevant to a career in forensic science (practice or judiciary) and forensic research
    • the ability to learn effectively for the purpose of continuing your professional development
    • the ability to generate, analyse, interpret and present in a range of environments
    • the ability to manage time and resources within an individual project and as a team manager.

    Careers

    All programmes in the School of Physical Sciences equip you with the tools you need to conduct research, solve problems, communicate effectively and transfer skills to the workplace, which means our graduates are always in high demand. Our links with industry not only provide you with the opportunity to gain work experience during your degree, but also equip you with the general and specialist skills and knowledge needed to succeed in the workplace.

    Typical employment destinations for graduates from the physics programmes include power companies, aerospace, defence, optoelectronics and medical industries. Typical employment destinations for graduates from our forensic science and chemistry programmes include government agencies, consultancies, emergency services, laboratories, research or academia.

    Study support

    Postgraduate resources

    The University has good facilities for modern research in physical sciences. Among the major instrumentation and techniques available on the campus are NMR spectrometers (including solutions at 600 MHz), several infrared and uvvisible spectrometers, a Raman spectrometer, two powder X-ray diffractometers, X-ray fluorescence, atomic absorption in flame and graphite furnace mode, gel-permeation chromatography, gaschromatography, analytical and preparative highperformance liquid chromatography (including GC-MS and HPLC-MS), mass spectrometry (electrospray and MALDI), scanning electron microscopy and EDX, various microscopes (including hot-stage), differential scanning calorimetry and thermal gravimetric analysis, dionex analysis of anions and automated CHN analysis. For planetary science impact studies, there is a two-stage light gas gun.

    Interdisciplinary approach

    Much of the School’s work is interdisciplinary and we have successful collaborative projects with members of the Schools of Biosciences, Computing and Engineering and Digital Arts at Kent, as well as an extensive network of international collaborations.

    National and international links

    The School is a leading partner in the South East Physics Network (SEPnet), a consortium of seven universities in the south-east, acting together to promote physics in the region through national and international channels. The School benefits through the £12.5 million of funding from the Higher Education Funding Council for England (HEFCE), creating new facilities and resources to enable us to expand our research portfolio.

    The School’s research is well supported by contracts and grants and we have numerous collaborations with groups in universities around the world. We have particularly strong links with universities in Germany, France, Italy and the USA. UK links include King’s College, London and St Bartholomew’s Hospital, London. Our industrial partners include British Aerospace, New York Eye and Ear Infirmary, and Ophthalmic Technology Inc, Canada. The universe is explored through collaborations with NASA, ESO and ESA scientists.

    Dynamic publishing culture

    Staff publish regularly and widely in journals, conference proceedings and books. Among others, they have recently contributed to: Nature; Science; Astrophysical Journal; Journal of Polymer Science; Journal of Materials Chemistry; and Applied Optics.

    Global Skills Award

    All students registered for a taught Master's programme are eligible to apply for a place on our Global Skills Award Programme. The programme is designed to broaden your understanding of global issues and current affairs as well as to develop personal skills which will enhance your employability.  

    Entry requirements

    Minimum 2.1 degree in forensic science or a forensic-related subject.

    General entry requirements

    Please also see our general entry requirements.

    English language entry requirements

    For detailed information see our English language requirements web pages. 

    Please note that if you are required to meet an English language condition, we offer a number of pre-sessional courses in English for Academic Purposes through Kent International Pathways.

    Research areas

    Applied Optics Group (AOG)

    Optical sensors

    This activity largely covers research into the fundamental properties of guided wave interferometers, and their application in fields ranging from monitoring bridge structures to diagnostic procedures in medicine.

    Biomedical imaging/Optical coherence tomography (OCT)

    OCT is a relatively new technique which can provide very high-resolution images of tissue, and which has a major application in imaging the human eye. We are investigating different time domain and spectral domain OCT configurations.

    The Group is developing systems in collaboration with a variety of different national and international institutions to extend the OCT capabilities from systems dedicated to eye imaging to systems for endoscopy, imaging skin and tooth caries. Distinctively, the OCT systems developed at Kent can provide both transverse and longitudinal images from the tissue, along with a confocal image, useful in associating the easy to interpret en-face view with the more traditional OCT cross section views.

    The Group also conducts research on coherence gated wavefront sensors and multiple path interferometry, that extend the hardware technology of OCT to imaging with reduced aberrations and to sensing applications of optical time domain reflectometry.

    Forensic Imaging Group (FIG)

    The research of the forensic imaging team is primarily applied, focusing on mathematical and computational techniques and employing a wide variety of image processing and analysis methods for applications in modern forensic science. The Group has attracted approximately £850,000 of research funding in the last five years, from several academic, industrial and commercial organisations in the UK and the US. The Group also collaborates closely with the Forensic Psychology Group of the Open University.

    Current active research projects include:

    • the development of high-quality, fast facial composite systems based on evolutionary algorithms and statistical models of human facial appearance
    • interactive, evolutionary search methods and evolutionary design
    • statistically rigorous ageing of photo-quality images of the human face (for tracing and identifying missing persons)
    • real and pseudo 3D models for modelling and analysis of the human face
    • generating ‘mathematically fair’ virtual line-ups for suspect identification.

    Functional Materials Group (FMG)

    The research in FMG is concerned with synthesis and characterisation of functional materials, as exemplified by materials with useful optical, catalytic, or electronic properties, and with an
    emerging theme in biomaterials. The Group also uses computer modelling studies to augment
    experimental work. The research covers the following main areas:

    Amorphous and nanostructured solids

    Our interest is in inorganic solids (primarily ceramics and glasses) which possess useful functional properties (eg electrical, optical, catalytic) stemming from their composition and/or nanostructures. Our research includes the synthesis of novel materials, the experimental characterisation of their atomic and nano-scale structure and the computer modelling of these structures and associated properties. Understanding these complex materials demands the use of a range of advanced modern characterisation methods. The truly atomic scale probes available to us are X-ray absorption spectroscopy, and X-ray and neutron diffraction. Porosimetry and analogous techniques, such as small angle scattering, allow us to probe length scales approaching microns. Our work relies on access to world-class international facilities such as the ISIS pulsed neutron source at the Rutherford Appleton Laboratory, and the ILL neutron and ESRF synchrotron X-ray sources in Grenoble (France). Advanced computer modelling and simulation methods are increasingly being integrated with the experimental work.

    Soft functional materials

    One of the most exciting areas of contemporary materials research is the design of ‘soft’ functional materials organised at the nanoscale, using organic, organometallic, polymer and inorganic chemistry to investigate the synthesis of such materials. The functionality in these materials comes from one or two properties: (i) the self-assembly of varying constituent molecular or macromolecular sub units; (ii) the incorporation of biologically derived motifs. The materials are being developed as smart adhesive materials for biomaterial applications, self-assembling bioactive, electroactive and drug delivery vehicles and conducting/photoconducting liquid crystalline materials.

    The Group's research incorporates a range of synthetic skills (peptide, ligand, polymer, heterocyclic, organometallic and inorganic synthesis), using fully equipped synthetic laboratories with the associated characterisation techniques (FT-IR, UV-Vis, 1H, 13C and 29Si NMR spectroscopy, polarimetry). The group uses a number of means to examine the organisation of self-assembling materials including DSC, DMTA, polarising optical microscopy, X-ray diffraction, dynamic NMR spectroscopy and electron microscopy.

    Theory and modelling of materials

    The Group’s interest focuses on first principles modelling of rare earth materials, carbon nanotubes and oxides, and classical modelling of ionic solids and glasses. We primarily use first principles simulations to solve problems in condensed matter physics and materials chemistry. In the case of ionic solids, we also use classical modelling to study properties that require computer calculations.

    First principles simulations are predictive and powerful tools, giving access to accurate energies and electronic structures. One strand of our research covers nanostructured materials, surfaces, oxides, carbon and water/ice in situations ranging from vacuum surface science to complex nanostructured battery electrodes.

    The related applications include filled and functionalised nanotubes, electrochromic oxides, and battery materials. Another strand of research covers first principles simulations involving relativistic quantum mechanics. These are needed to accurately model the properties of rare earth materials and relativistic effects in materials, including superconductivity. We also undertake classical modelling to study time-consuming properties, such as diffusion in ionic crystals and medium-range structure of glasses.

    Centre for Astrophysics and Planetary Science (CAPS)

    The group’s research focuses on observational and modelling programmes in star formation, planetary science and early solar system bodies, galactic astronomy and astrobiology. We gain data from the largest telescopes in the world and in space, such as ESO’s Very Large Telescope, the New Technology Telescope, the Spitzer Space Telescope and the Herschel Space Observatory. We also use our in-house facilities which include a two-stage light gas gun for impact studies.

    Staff are involved in a wide range of international collaborative research projects. Areas of particular interest include: star formation, extragalactic astronomy, solar system science and instrumentation development.

    Staff research interests

    Full details of staff research interests can be found on the School's website.

    Dr Donna Arnold: Senior Lecturer in Forensic Science

    Synthesis and characterisation of bulk and nano structured novel multiferroics (materials which exhibit electric and magnetic ordering); enhancement of the ferroelectric and magnetic properties of bismuth ferrite through chemical doping.

    Profile

    Dr Barry Blight: Lecturer in Chemistry / Forensic Science

    The development of chiral porous solids that can transfer chiral information into enantioselective reactivity in catalytic transformations; inorganic photovoltaics (O-PVDs); employing supramolecular polymerisation with new photoactive hydrogen bonding synthons.

    Profile

    Dr George Dobre: Lecturer in Applied Optics

    Optical coherence tomography; optical design; interferometric sensors; fibre optic sensors.

    Profile

    Dr Jingqi Miao: Senior Lecturer in Theoretical Astrophysics

    SPH numerical simulation of collapsing molecular clouds; effect of the UV radiation on the Bright Rim clouds; DSMC modelling of the space particles impacts on spacecraft; structures and formation of proplyds.

    Profile

    Professor Bob Newport: Professor of Materials Physics

    Atomic-scale structure of novel amorphous (noncrystalline) materials of contemporary interest such as nonlinear optical glasses and ‘sol gel’ glasses, which may be catalytically or biologically active.

    Profile

    Dr J. Quintanilla-Tizon: Lecturer/SEPnet Fellow in Condensed Matter Theory

    Quantum condensed matter and materials physics; spontaneous Fermi surface deformations in strongly correlated quantum matter; unconventional pairing in superconductors; complementarity between cold atom and condensed matter experiments; proximity effect in magnetic nanostructures; design of new quantum informationbased neutron scattering and cold atoms probes of strongly correlated quantum matter, and novel topological excitations in frustrated magnets.

    Profile

    Professor Paul Strange: Professor of Physics

    First principles calculation of the properties of condensed matter; the electronic and magnetic properties of rare earth materials, superconductors, carbon and other nanotubes; superatom materials.

    Profile

    Dr Maria Alfredsson: Senior Lecturer in Theoretical Materials

    Quantum-mechanical modelling of clusters, surfaces and solids; inter-atomic potential calculations of defects and grain-boundaries; high pressure and temperature simulations; H-bonding.

    Profile

    Dr Robert E Benfield: Senior Lecturer in Inorganic Chemistry

    The structure and bonding of metal clusters and nanowires; ordered arrays of metal nanowires contained within mesoporous alumina membranes, and nanoparticles of cobalt.

    Profile

    Dr Stefano C G Biagini: Senior Lecturer in Organic Chemistry

    Ring-opening metathesis polymerisations; complex monomer syntheses; block copolymers, selfassembly, properties and applications; nuclear medicine; unnatural amino acid and peptide syntheses; radiolabelling; nanoparticles; surface modifications on silica magnetite.

    Profile

    Professor Mark Burchell: Professor of Space Science

    Hypervelocity impacts, the very violent events typical of solar system impacts, including: impact cratering in ices, intact capture in aerogel, impact disruption of target bodies, oblique incidence impacts, astrobiology (survival of microbial life in impact events); solar system dust using impact ionisation techniques. 

    Profile

    Dr Sam Carr: Lecturer in Physics

    Theoretical condensed matter physics, in particular field theory and non-perturbative techniques applied to strongly correlated quantum many-body systems.

    Profile

    Dr Anna Corrias: Reader in Chemistry

    Preparation and characterisation of various materials: oxide glasses, amorphous alloys, nanocrystalline alloys, and nanocomposites consisting of metal or metal oxide nanoparticles embedded in a silica matrix.

    Profile

    Dr Dirk Froebrich: Senior Lecturer in Astronomy and Astrophysics

    Earliest stages of star and star cluster formation; structure and properties of molecular clouds; structure analysis of star clusters.

    Profile

    Dr Stuart Gibson: Lecturer in Forensic Science

    Digital image processing with forensic applications; computer vision; interactive evolutionary computation (IEC) and cognitive psychology relating to human facial appearance.

    Profile

    Professor Mark Green: Professor of Materials Chemistry; Head of School

    Quantum materials and magnetism: functional material, magnetic materials, superconductors, synthesis, superconducting materials.

    Profile

    Dr Simon Holder: Senior Lecturer in Organic Chemistry

    Synthesis and application of novel polymeric materials; polymerisation of dichlorodiorganosilanes to improve the yields, allowing for the first time the high yield synthesis of a variety of polysilanes at ambient temperatures; synthesis by controlled polymerisations and application of novel copolymers; design and development of novel non-invasive polymer-based optical sensor systems.

    Profile

    Dr S.C. Lowry: Senior Lecturer in Astronomy and Astrophysics

    Comets, asteroids, solar system, spacecraft and remote observation.

    Profile

    Dr Emma McCabe: Lecturer in Chemistry

    Materials chemistry and focus on the synthesis; structural characterisation and physical properties of complex transition metal oxides and mixed anion systems; magnetism in solids; inorganic chemistry synthesis; structural characterisation and crystallography, driven by the structure-property relationship and understanding how changes in the composition and structure can be used to tune the physical properties of materials.

    Profile

    Dr Gavin Mountjoy: Reader in Condensed Matter Physics

    Multi-technique characterisation of oxide glasses (including ‘sol gels’); vibrational spectroscopy of silicate glasses; use of X-ray absorption spectroscopy to characterise nanocrystalline transition metal alloys and oxides, including nanocomposite materials.

    Profile

    Dr M.C. Price: Senior Lecturer in Space Science

    Experimentally based and computer modelling of hypervelocity impacts relevant to the evolution of solar system bodies.

    Profile

    Dr Emma Pugh: Lecturer in Physics

    Experimental condensed matter physics; magnetism, unconventional superconductivity, quantum condensed states; use of low temperature, high pressure and high magnetic field sample environments; use of central facilities including X-ray and neutron scattering centres.

    Profile

    Dr Silvia Ramos: Lecturer in Materials Science

    Strongly correlated quantum matter; atomic and electronic structure; characterisation of materials using microscopic probes available at large facilities such as X-rays, neutrons and muons. Interest in materials with competing electronic order (such as superconductors or magnets) and emergent electronic order at interfaces.

    Profile

    Dr Dean Sayle: Reader in Chemistry

    Using molecular dynamics (MD) simulation to mirror experiment; ‘simulating synthesis’ at the atomistic level to generate models of nanomaterials spanning nanoparticles to mesoporous architectures, which are then interrogated to predict a variety of physical, chemical and mechanical properties and associated phenomenon.

    Profile

    Dr Christopher Shepherd: Lecturer in Forensic Science

    Ballistics with a particular emphasis on the application of modern techniques to interrogate the wounding potential of different projectiles on the human body for forensic applications.

    Profile

    Professor Michael Smith: Professor of Astronomy

    Star formation; molecular clouds; evolution of galaxies; astrophysical simulation; simulation; shock waves; planetary nebulae.

    Profile

    Dr Christopher Solomon: Reader in Physics

    Image processing and reconstruction; facial modelling, encoding and synthesis; facial composites, forensic image analysis.

    Profile

    Professor Adrian Podoleanu: Professor of Biomedical Optics

    Atomic-scale structure of novel amorphous (noncrystalline) materials of contemporary interest such as nonlinear optical glasses and ‘sol gel’ glasses, which may be catalytically or biologically active.

    Profile

    Professor Michael J Went: Professor of Chemistry and Forensic Science

    Chemistry of co-ordinated alkynes; new chelating and macrocyclic ligands with phosphine, thioether and ether donor groups; synthesis of new radiopharmaceuticals; forensic analysis.

    Profile

    Enquire or order a prospectus

    Resources

    Contacts

    Admissions enquiries

    T: +44 (0)1227 827272

    E:information@kent.ac.uk

    Subject enquiries

    T: +44 (0)1227 823759

    F: +44 (0)1227 827558 

    E: spsrecruit@kent.ac.uk

    School website

    Fees

    The 2016/17 annual tuition fees for this programme are:

    Forensic Science - MSc at Canterbury:
    UK/EU Overseas
    Full-time £5430 £15920

    For students continuing on this programme fees will increase year on year by no more than RPI + 3% in each academic year of study except where regulated.* If you are uncertain about your fee status please contact information@kent.ac.uk

    The University of Kent makes every effort to ensure that the information contained in its publicity materials is fair and accurate and to provide educational services as described. However, the courses, services and other matters may be subject to change. Full details of our terms and conditions can be found at: www.kent.ac.uk/termsandconditions.

    *Where fees are regulated (such as by the Department of Business Innovation and Skills or Research Council UK) they will be increased up to the allowable level.

    Publishing Office - © University of Kent

    The University of Kent, Canterbury, Kent, CT2 7NZ, T: +44 (0)1227 764000