GRADUATE RESEARCH & TRAINING HANDBOOK 2018 GRADUATE RESEARCH & TRAINING HANDBOOK 2018
Welcome
IGMM Graduate Research and Training Contacts
Staff Student Liaison Committee/Officer 1 40,000 5.0 0 0
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No promoter activity Housekeeping
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1 GRADUATE RESEARCH & TRAINING HANDBOOK 2018
Welcome In the first instance you will mainly deal with We are delighted to welcome you to your your supervisors, Graduate Convenor or Nick PhD programme at the Institute of Genetics Gilbert (Director of Graduate Research and and Molecular Medicine. On the following Training for the IGMM). You will also have a pages you will find information relating to thesis committee (normally setup abour 10 the different programmes, timetable for weeks into your PhD) which will be made up the first 6 months, and the assessment of your supervisors, an external advisor and a timetable for the next 3 or 4 years. committee Chair. Formal issues (interruption of studies and so on) are dealt with by the As you probably know, we have a mixture Director of Graduate Research and Training of students on campus, some of whom and the College PG Office. are following a four year programme with rotations and others who are starting a Head of School of MGPHS three year PhD in a specific lab. There Professor Sarah Cunningham-Burley are some teaching elements of the four Director of Graduate Research and Training, year taught course that might be of IGMM: Professor Nick Gilbert interest to other students, for example covering different technologies, computer Graduate Convenor, CRUK Edinburgh programming, aspects of clinical reserach Centre: Professor Val Brunton and research ethics - these are shown Graduate Convenor, MRC Human Genetics in a detailed timetable on page 5 - 8. Unit: Professor Nick Gilbert This teaching is only compulsory for the 4-year HGU students, but other students Graduate Convenor, Centre for Genomic & (and postdocs) are welcome to sign up Experimental Medicine: Dr Kathy Evans and attend any sessions that you find Director of PG Studies, College of MVM useful; you might want to discuss your choice with your supervisor(s). We hope Dr Paddy Hadoke that the IGMM Graduate Research and Staff Student Liaison Officer Training environment will provide a useful Dr Martin Reijns framework for your studies. Please feel free to air your views, and to approach us about Graduate Research and Training any issues you have, and help us to make Administrator the IGMM a huge success! Pauline McDonald Graduate Research and Training Assistant Graduate Research and Training Alana Johnson contacts The IGMM is made up of three centres, the MRC Human Genetics Unit (HGU), the Centre for Genomics and Experimental Medicine (CGEM) and the Cancer Research UK Edinburgh Centre (ECRC), each with their own Graduate Convenor. The IGMM falls within the School of Molecular, Genetic and Population Health Sciences (you will need to know this School affiliation when you apply for Transkills courses amongst other things), and the SMGPHS is within the College of Medicine and Veterinary Medicine or CMVM.
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Staff Student Liaison Committee/ Officer At the IGMM we are committed to ensuring a high-quality student experience. To ensure we are able to deliver this, and to “maximise our students’ potential”, we encourage students to communicate their views and suggestions to help influence any required changes to policies and procedures. The IGMM Staff Student Liaison Committee (SSLC) meets biannually to discuss matters of mutual concern of staff and students. The SSLC is composed of student and staff representatives, and we strongly encourage students at any stage of their graduate degree to consider joining the SSLC. In addition, we introduced a Staff Student Liaison Officer (SSLO) in August 2014. Martin Reijns is an senior research scientist in Professor Andrew Jackson’s laboratory in the Disease Mechanisms section of the Human Genetics Unit. Martin has been a Email: [email protected] member of the Jackson lab since 2007. Telephone: 651 8633 In 2014 we setup a mentoring system for Location: MRC Human Genetics Unit PhD students. This “buddying” programme pairs 1st-year students who wish to be involved with friendly and supportive final What to do if things go wrong year students; and aims to help with their integration into the institute, informally If you have a problem with your project answer any questions and queries and/or supervisor, you should first try regarding starting their PhD, and also to to resolve it between yourselves - it is offer support with beginning a new life in important to keep lines of communication Edinburgh. open where possible and not let things degenerate. If there is still a problem, then If you want to know more, or would like to be please seek advice - you should feel free paired up, please get in touch with Martin; to speak to your second supervisor, your also if you are interested in becoming a thesis committee Chair, the Directors of the representative to the SSLC. Graduate School or the PG Convenor for your building. If in the end problems can’t be solved locally, then official complaints can be made to a committee in the PG Office. These conversations will be in confidence and a strategy will be devised to try and address any problems. Additional meetings of thesis committees can be arranged (subject to members’ availability) if the student and/or supervisors feel that this would help.
3 1 40,000 5.0 0 0
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No promoter activity Housekeeping
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Deleted promoter sequence adult Diencephalon, Hippocampus, adult Hippocampus, Ambiguous promoter alignment adult brain, Olfactory Naive r Astrocytes
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MRC Human Genetics Unit 4 year programme • Introduction to programme • Projects available 1 40,000 5.0 0 0
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No promoter activity Housekeeping
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5 GRADUATE RESEARCH & TRAINING HANDBOOK 2018
The first six months The PhD The HGU PhD program is following an After three rotations you will choose a PhD exciting and innovative format. You will project. We will have individual meetings spend the first 6 months on an intensive with you to discuss your choices in the training period leading up to your final event of any clashes. No supervisor will choice of PhD project. This period be able to take on more than one student, comprises taught courses, talks from HGU students must choose projects within individual group leaders about their the HGU, but apart from this you can go work, teaching sessions on a variety to any lab within the available project of topics from technology to clinical section. It is up to you to discuss possible research, journal club sessions which will projects with PIs you are interested in; this give you a chance to hone your analytic is a dynamic process in which you should and presentation skills, and three short be fully engaged. Note that supervisors rotation projects. The detailed timetable are not obliged to take you on, you need can be found in the handbook. to ask whether they are willing, or whether they have other interested students and The choice of rotation projects is up so on. If your research project involves to you (available projects are listed at the use of animals or human participants, the end of this section) and you can work must not commence until the relevant approach any relevant group leader to Home Office project and personal licences discuss the projects. You will see that have been awarded, and appropriate Local there is some time between rotations, Ethical Approval Committee has been giving you a chance to look around granted. We will not be producing PhD and choose a new lab. The only formal project outlines from supervisors. Rather, at constraint is that you must spend time in the PhD 10 week stage (June) you will have 3 different labs. You may find, of course, to produce a short report that outlines the that another student has already been project that you will pursue. This will then accepted and that the PI is only willing be discussed and refined if necessary by to take on one student (as is normally your supervisors (more detailed guidelines expected of PIs). If this happens then are given under Assessment Procedures). try again in the next rotation period; if You will then spend 3 years in the lab, there is a real clash then Nick Gilbert winding up by April of your final year. You will help but do please try and resolve will then have a further 6 months to write up things between yourselves in the first your thesis but remember it is imperative instance. Bear in mind that there is no that you submit your thesis by the final formal requirement for you to choose a university deadline of September of year 4, PhD project in a lab in which you have otherwise you will incur significant financial done a rotation project, the rotations are penalties. just a chance for you to try different labs and projects out. We hope that this novel structure for PhD study will be as exciting for you as it has Many of the group leaders welcome been for us to develop it. We will be asking students coming to their lab meetings for your feedback at several stages of the which is a good way of seeing life in labs course - please feel free to air your views, other than the ones where you are doing and approach us about any issues you rotation projects, but please be sure to have, and help us to make the HGU PhD make contact with the appropriate PI in programme a huge success! advance. Nick Gilbert
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Lab Rotations This abstract should be submitted to the Each student will do three rotation projects IGMM PGSC by emailing: of around seven or eight weeks. Contact [email protected] details and summaries of research interests of eligible supervisors are all given in this Supervisors will be asked for feedback on booklet (note there are some people unable your performance in the lab and we will to take students for rotations, please ask to meet up with you if there are any check), and during the first week you will concerns. Towards the end of each rotation be hearing research talks by these PIs. most sections (Biomedical Genomics, Genome Research, Disease Mechanisms) The choice of rotation projects is up to invite the rotation students from their you - you are responsible for approaching section to do a short talk about your mini- potential supervisors to discuss their project. willingness to take you on and to jointly come up with a plan of work. Remember the project won’t be formally assessed as part of your PhD, so make the most of your time to experience different techniques, and just get a feel for life in different labs. The only formal constraint is that you must spend time in 3 different labs. You may find, of course, that another student has already been accepted and that the PI is only willing to take on one student (as is normally expected of PIs). If this happens then try again in the next rotation period; if there is a real clash then one of us will intervene but do please try and resolve things between yourselves in the first instance. Bear in mind that there is no formal requirement for you to choose a PhD project in a lab in which you have done a rotation project, the rotations are just a chance for you to try labs out. At the end of each rotation you are asked to write a one page abstract about your project, to be handed in by the end of the week after you finish in that lab. This should be in the format used by journals such as those on Biomedcentral, i.e. divided up into brief sections of background, results and conclusions and no longer than one side of A4.
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Chromosome Segregation in the Mouse Germline Primary Supervisor: Dr Ian Adams This PhD project will investigate how mouse germline cells ensure that chromosomes are faithfully segregated in meiosis. Chromosome mis-segregation in the germline can result in the transmission of aneuploidy to the next generation, which in humans causes genetic diseases such as Down syndrome and Klinefelter syndrome. This PhD project will use embryonic stem cells and mouse genetics to investigate Email: [email protected] mechanisms that contribute to faithful Telephone: 651 8562 chromosome segregation in the mouse Location: MRC Human Genetics Unit germline. Centre of Affiliation: MRC Human Genetics Unit
Decoding the precise spatial and temporal dynamics of PAX6 cis- regulatory landscape Primary Supervisor: Professor Wendy Bickmore Aberrations in the function of cis-regulatory elements (CREs) has been identified as a major cause of human diseases. CREs act as primary determinants of precise spatial and temporal regulation of their target genes by serving as docking sites for tissue-specific transcription factors. The PAX6 locus has been a paradigm for Email: [email protected] understanding CRE-mediated control of Telephone: 651 8583 target gene expression, with the regulatory Location: MRC Human Genetics Unit domain extending around 200kbp on both Centre of Affiliation: sides of the transcription start site and MRC Human Genetics Unit harbouring several CREs which together orchestrate the complex expression pattern of PAX6 in the developing eye, brain, neural tube and pancreas. The project will utilize high resolution live imaging in zebrafish transgenics and a serum free embryoid body (SEFB) differentiation system to uncover the precise dynamics of CRE action in this massive regulatory domain.
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A dedicated Nonsense-mediated (NMD) pathway in the endoplasmic reticulum (ER-NMD) Primary Supervisor: Professor Javier F. Caceres NMD selectively degrades mRNAs harboring premature termination codons (PTCs) but also regulates the abundance of a large number of cellular RNAs. Most studies to date have focused on cytoplasmic NMD; however, we have recently uncovered evidence suggesting the existence of an NMD pathway dedicated to Endoplasmic Reticulum (ER)-localized mRNAs. We will define the subcellular localization of NMD for those transcripts that are translated at the ER, and will identify mRNA targets and novel Email: [email protected] components of the ER-NMD pathway. We Telephone: 651 8699 will focus on the physiological role of this novel pathway, as well as on the biological Location: MRC Human Genetics Unit consequences of manipulating its activity. Centre of Affiliation: MRC Human Genetics Unit
Functional genomic interrogation of trans-eQTL regulatory hubs and the role of functional epistasis in the development of large bowel cancer Primary Supervisor: Professor Malcolm Dunlop Colorectal cancer (CRC) is a common fatal cancer. Heritable common genetic variation influencing gene expression in normal large bowel epithelium contributes to CRC risk. We have generated a wealth of human functional and genomic data from blood, Email: [email protected] epithelium and tumour samples. This Telephone: 651 8631 exciting project melds functional genomic Location: MRC Human Genetics Unit analysis of trans-eQTL regulatory hubs with Centre of Affiliation: statistical genetic approaches to identify MRC Human Genetics Unit epistatic mechanisms influencing cancer risk. The candidate will gain computational and quantitative skills, alongside wet-lab expertise in genome editing to interrogate the functional genomic landscape of CRC risk. The ultimate aim is to prevent cancer by defining and exploiting cancer susceptibility pathways.
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Functional Analysis of Eye Field Transcription Factors Using In Vitro Differentiation of Embryonic Stem Cells Primary Supervisor: Professor David FitzPatrick My lab uses in vitro differentiation of mouse embryonic stem cells to create the optic vesicle-like organoids in MRC HGU. We are interested in the gene regulatory networks controlling early eye development. We are using CRISPR Cas9 Email: [email protected] to insert protein tags into the endogenous Telephone: 651 8569 loci of eye field transcription factors that are critical to these networks. These tags allow Location: MRC Human Genetics Unit us to use live cell imaging, FACS sorting Centre of Affiliation: and immunoprecipitation (chromatin MRC Human Genetics Unit and protein-protein) to understand cell behaviour during differentiation project. We can also use them for timed degradation of the protein to observe the effect on the differentiation cascade.
Understanding mitotic chromosome unpackaging Primary Supervisor: Professor Nick Gilbert In mammalian cells DNA is packaged with histone proteins to form chromatin. In every cell cycle chromatin is folded up to form mitotic chromosomes to facilitate chromosome segregation and to separate genetic information into daughter cells. Despite being a fundamental process we do not understand the molecular mechanisms responsible for unpackaging mitotic chromosomes into the interphase Email: [email protected] configuration. To investigate this we will Telephone: 651 8551 use CRISPRi genetic screens in mammalian Location: MRC Human Genetics Unit cells to identify key factors responsible and Centre of Affiliation: will characterise their properties by super- MRC Human Genetics Unit resolution STORM microscopy. We predict many of these factors will also be mutated in cancers, linking together fundamental cellular mechanisms with human disease.
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Chromatin Architecture, Enhancer Structure and Congenital Abnormalities Primary Supervisor: Professor Bob Hill Mutations which affect gene regulation are becoming increasingly recognised as important disease causing variations. A number of mechanisms perturb enhancer activity to generate abnormal phenotypes and we propose to investigate novel regulatory mechanisms that cause disease. Our model system for understanding Email: [email protected] abnormal gene regulation is the sonic Telephone: 651 8621 hedgehog (Shh) gene, a signalling molecule Location: MRC Human Genetics Unit that controls early development, and Centre of Affiliation: requires a genomic region of one million MRC Human Genetics Unit basepairs of DNA to regulate precise gene expression. To further elucidate mechanism, we will use CRISPR/Cas9 to engineer the chromosomal landscape for molecular analysis and to further develop imaging techniques to analyse chromatin structure.
DNA outside the nucleus in autoinflammation and carcinogenesis Primary Supervisor: Professor Andrew Jackson The cGAS-STING pathway senses cytoplasmic DNA to identify and combat microbial pathogens, while strict compartmentalisation of our own DNA in the nucleus prevents autoimmunity. We recently established that our own DNA can activate this pathway after DNA damage, Email: [email protected] when cGAS detects micronuclei. This Telephone: 6518560 has implications for how cells may detect early cancer-inducing events, and for how Location: MRC Human Genetics Unit DNA damage could lead to inflammation Centre of Affiliation: (Mackenzie et. al Nature 2017). This PhD MRC Human Genetics Unit aims to build on these findings, addressing whether this pathway oppose cancer formation in vivo, if there other processes that deliver DNA to the cytoplasm, and why is cGAS not activated during normal mitosis?
11 Kudla lab
Next generation RNA genotype-phenotype mapping.
Genome sequencing has become relatively cheap, and close to a million people have had their genome sequenced. To interpret this massive amount of information, our lab develops efficient methods for measuring and predicting the effects of genetic variation. We synthesize large collections of mutated genes, and develop high-throughput assays to measure the effects of mutations on molecular and cellular phenotypes, such as protein and RNA abundance, protein- GRADUATE RESEARCH & TRAINING HANDBOOKRNA interactions, and fitness (Puchta et al., Science, 2016). W 2018 e use a variety of experimental techniques, including gene synthesis, next-generation sequencing, microarrays, and automated microscopy, and experimental systems including bacteria, yeast, and mammalian cells. Next generation RNA genotype- phenotype mapping Primary Supervisor: Dr Grzegorz Kudla NMD selectively degrades mRNAs harboring premature termination codons (PTCs) but also regulates the abundance of a large number of cellular RNAs. Most studies to date have focused on cytoplasmic NMD; however, we have
recently uncovered evidence suggesting Email: [email protected] the existence of an NMD pathway Telephone: 651 8628 dedicated to Endoplasmic Reticulum (ER)-localized mRNAs. We will define the Location: MRC Human Genetics Unit subcellular localization of NMD for those Centre of Affiliation: transcripts that are translated at the ER, MRC Human Genetics Unit and will identify mRNA targets and novel components of the ER-NMD pathway. We will focus on the physiological role of this novel pathway, as well as on the biological consequences of manipulating its activity.
Protein assembly in human genetic disease and cancer Primary Supervisor: Dr Joe Marsh Despite the huge amount of genome sequence data now available, our ability to predict the consequences of damaging mutations is very limited. One reason for this has been a failure to take into consideration the fact that most proteins can assemble into complexes within the cell. This project will use a variety of computational approaches, including Email: [email protected] uk structural bioinformatics, molecular Telephone: 651 8538 modelling and machine learning, in order Location: MRC Human Genetics Unit to first understand and then predict how Centre of Affiliation: missense mutations can interfere with MRC Human Genetics Unit protein assembly and cause a variety of genetic disorders, and how non-coding variants can contribute to cancer by disrupting protein stoichiometry.
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The Role of DNA methylation in cellular transitions Primary Supervisor: Professor Richard Meehan DNA methylation represents a primary epigenetic mechanism in vertebrate genomes that can repress the regulatory function of DNA sequences associated with promoter/enhancer activity and act as a general silencer of intergenic transposons. New evidence suggests that DNA methylation acquires these roles Email: [email protected] during differentiation of embryonic stem Telephone: 651 8548 cells. We have developed assay systems that allow us to capture when the repressive Location: MRC Human Genetics Unit function of DNA methylation becomes Centre of Affiliation: dominant. The project involves combining MRC Human Genetics Unit expertise in epigenetics in embryos and stem cells with advanced imaging, to reveal context-dependent epigenetic signalling mechanisms in differentiating cells – leading to improved stem cell applications for bioscience and biomedicine.
Decoding mammalian cilial diversity in the brain Primary Supervisor: Dr Pleasantine Mill Cilia are small, ubiquitous, microtubule- based organelles required during development and adult homeostasis. Ciliopathies are a growing spectrum of human syndromes caused by mutations in genes disrupting cilia structure or function. What is particularly puzzling is the pleiotropy of clinical features observed Email: [email protected] in ciliopathy patients, with varying degrees Telephone: 651 8616 of severity among different tissues. This Location: MRC Human Genetics Unit suggests all cilia are not created equal. In Centre of Affiliation: order to better understand the functional MRC Human Genetics Unit and structural diversity of mammalian cilia in different cell types, this project will use genome editing to engineer a mouse where components of a common intraciliary transport system required to build and maintain all cilia types have been genetically tagged. This tag allows exquisitely resolution, both temporally and spatially, providing molecular snapshots of ciliary composition for biochemical, structural and super-resolution imaging studies needed to fully capture the functional diversity of cilia types in vivo. 13 GRADUATE RESEARCH & TRAINING HANDBOOK 2018
Dynamics of transcription factor concentration, chromatin-binding kinetics and cell-to-cell variability during zebrafish Zygotic Genome Activation Primary Supervisor: Dr Dimitrios Papadopoulos During early zebrafish development, maternally deposited mRNAs in the embryo are degraded, while the zygotic genome Email: [email protected] becomes primed for taking genetic Telephone: 651 8648 control of development. The awakening of the zygotic genome is a temporally Location: MRC Human Genetics Unit precise process, controlled by pioneer Centre of Affiliation: transcription factors at the 1024 cell MRC Human Genetics Unit stage. We are interested in understanding how the absolute amount, chromatin- binding kinetics and cell-to-cell variability of transcription factor concentration contribute to the temporal precision of Zygotic Genome Activation (ZGA). For this, we will generate fluorescently- tagged transcription factors and address their dynamic behaviour quantitatively during ZGA by Fluorescence Microscopy Imaging and Fluorescence Correlation Spectroscopy.
ALDH enzymes in melanoma stem cell lineages Primary Supervisor: Dr Liz Patton ALDH enzymes are aldehyde detoxifying enzymes that are expressed in somatic and cancer stem cell lineages. We are using the zebrafish model system to study the role of ALDH enzymes in the melanocyte stem cell and in melanoma stem cell populations in cancer progression, regression and recurrence. The Aim of Email: [email protected] this PhD project is to identify the ALDH Telephone: 651 8536 enyzmes in melanoma stem cells, and use genetics and live-imaging to determine Location: MRC Human Genetics Unit their function and expression patterns in Centre of Affiliation: melanoma progression, and in response to MRC Human Genetics Unit drug treatment. Ultimately, we aim to target these subpopulations and determine the effect on disease outcome.
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Predicting disease risk from the genetic determinants of RNA velocity Primary Supervisor: Professor Chris Ponting This project applies cutting-edge experimental and computational approaches to discover causal links between DNA variants and disease risk. Using single cell RNA-seq, we will measure gene expression change in a time course following calcitriol-stimulation in cells derived from 100 individuals. In parallel, Email: [email protected] we will sequence pooled bulk samples Telephone: 651 8506 using both short (Illumina) and long Location: MRC Human Genetics Unit (Oxford Nanopore) read technologies. This Centre of Affiliation: should allow us to identify the genetic MRC Human Genetics Unit determinants of RNA velocity (the rate of change over time of RNA abundance or splicing). By imputing these velocities into large GWAS cohorts, we will identify genes whose rate of expression change causes altered disease risk.
Identifying rare large-effect variants in isolate populations Quantitative Trait Loci (QTL) This project will use computational approaches to identify rare variants affecting traits at the level of the phenotype and intermediate metabolism (e.g. proteome, metabolome, methylome) in isolate populations from Scotland and Croatia. Our long-term projects in these populations provide a wealth of health-related and other trait data. Using genome–wide SNP data with exome and Email: [email protected] whole-genome sequence data the project [email protected] will identify rare variants with large [email protected] effects that are at enhanced frequency in these populations. With the possibility of Location: MRC Human Genetics Unit/ functional studies of promising variants, Centre for Genomic & Experimental this project offers exceptional students the Medicine opportunity to develop both computational Centre of Affiliation: and laboratory skills at the cutting edge of MRC Human Genetics Unit genomics.
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Using synthetic biology to understand how the epigenome is programmed in cancer Primary Supervisor: Dr Duncan Sproul Epigenetic dysfunction has recently been recognised as a fundamental hallmark of cancer that results in altered DNA methylation levels. It is associated with the repression of tumour suppressor genes such as BRCA1 but we don’t understand how these potential epimutations occur. Email: [email protected] We have recently developed synthetic Telephone: 651 8628 epialleles, manufactured DNA with defined DNA methylation levels. This project will Location: CRUK Edinburgh Centre use these tools to understand how the Centre of Affiliation: cancer epigenome is programmed and CRUK Edinburgh Centre identify the factors responsible for DNA methylation alterations in cancers. The student will become an expert in cutting- edge laboratory techniques including CRISPR genome and epigenome editing and gain experience in bioinformatics.
Chromatin manipulation to enhance genome editing outcomes Primary Supervisor: Dr Andrew Wood Genome editing allows chromosomal DNA sequences to be modified within chromatin of living cells. This project will study how the local chromatin environment surrounding target sites for CRISPR/Cas9 nucleases and base editors contributes to genome editing mechanisms. The aim is to identify strategies to enhance the efficiency of genome editing by manipulating the Email: [email protected] chromatin environment. The candidate will Telephone: 651 8542 gain experience in DNA damage and repair, Location: MRC Human Genetics Unit working with state-of-the-art technologies Centre of Affiliation: for genome manipulation, chromatin MRC Human Genetics Unit biology and next generation sequencing.
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Training Timeline 2018 - 2019
COLLEGE/IGMM INDUCTIONS 2018 September Week Begining 10th September
ROTATION 1 17th September - 16th November
ROTATION 2 November 19th November - 25th January
ROTATION 3 January 2019 28th January - 22nd March
March CHOOSING / START PhD Start 25th March
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GRADUATE RESEARCH & TRAINING HANDBOOK 2018 GRADUATE RESEARCH & TRAINING HANDBOOK 2018
Induction Week
Teaching Timetable 1 40,000 5.0 0 0
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& 1 9)-07)&:);")-&%-#&<$0:)&+0&%&7/$$/0-&4)04$)& 30,000 Matched expression Vagina
6%=)&6%#&+6)/.&,)-07)&:);")-<)#8&?0&/-+).4.)+&+6/:&7%::/=)&%70"-+&0@&Divergent expression Neurons
Diminished promoter activity Epididymis Ovary, adult Ovary, Testis, adult Testis, CD8+ T cells CD8+ T cells CD4+ T Uterus, adult Uterus, - cerebellum Thymus, fetal Thymus, CD19+ B cells CD19+ B
No promoter activity Housekeeping
/[email protected]%+/0->&0".&$%')=)$04:&)@@/&%-#& adult oblongata, lla
Deleted promoter sequence adult Diencephalon, Hippocampus, adult Hippocampus, Ambiguous promoter alignment adult brain, Olfactory Naive r Astrocytes
#)=)$04&6/,65+6.0",64"+&%::%3:&+0&7)%:".)&+6)&)@@)<+:&0@&7"+%+/0-:&0-& Medu Naive c 70$)<"$%.&%-#&<)$$"$%.&46)-0+34):>&:"<6&%:&4.0+)/-&%-#&1(2&%'"-#%-<)>Astrocytes &4.0+)/- 5 1(2&/-+).%<+/0-:>&%-#&@/+-)::&CD"<6+%&)+&%$8>&E&FGHIJ8&A)&":)&%&=%./)+3&0@& )*4)./7)-+%$&+)<6-/;"):>&/-<$"#/-,&,)-)&:3-+6):/:>&-)*+ 5,)-).%+/0-&:);")-& 7/<.0%..%3:>&%-#&%"+07%+)#&7/<.0:<043>&%-#&)*4)./7)-+%$&:3:+)7:&/-<$"#/-,& '%<+)./%>&3)%:+>&%-#&7%77%$/%-&<)$$:8& &
& & & &
17 GRADUATE RESEARCH & TRAINING HANDBOOK 2018
Induction Week
Monday 10th September CMVM Graduate School Welcome Event - MSc students (including MSc by Research) - 10:00-11:00 Anatomy Lecture Theatre, Medical School, Teviot Place, EH8 9AG
CMVM Graduate School Welcome Event - Research students (PhD and pure research masters) - 11:00-12:00 Anatomy Lecture Theatre, Medical School, Teviot Place, EH8 9AG
General Welcome - 14:00-14:15 Nucleus Café, IGMM
Course specific inductions – PG Directors - 14:15-15:00 Nucleus Café, IGMM
Buddy session - 15:00-16:30 Nucleus Café, IGMM
Tuesday 11th September IT familiarisation - Dave Perry & team - 09:00-11:30 Medical Education Centre Computing Lab, Western General Hospital
Postgraduate Research students talk and service fair - 12:00-14:00 McEwan Hall, Edinburgh, EH8 9AG
Imaging Discussion - Harris Morrison - 15:00-15:30 East Seminar Room
Technical Services induction - Stewart Mckay - 16:00-16:30 East Seminar Room
FACS - Elizabeth Freyer - 16:30-17:00 East Seminar Room
18 GRADUATE RESEARCH & TRAINING HANDBOOK 2018
Wednesday 12th September Public Engagement Event - Dee Davison - 09:00-12:00 CRUK Edinburgh Centre - Seminar Room
Librarian - Ruth Jenkins - 14:00-14:30 CRUK Edinburgh Centre - Seminar Room
Good Practice in PhD Research - to be delivered by students - 14:30-16:30 CRUK Edinburgh Centre - Seminar Room
Thursday 13th September HGU Scientific Talks (for HGU 4 year programme students) - 09:15-09:30 - 4 Nick Gilbert - 09:30-09:45 - Malcolm Dunlop - 09:45-10:00 - Chris Ponting - 10:00-10:15 - Richard Meehan - 10:15-10:30 - David Fitzpatrick - 10:30-11:00 - break - 11:00-11:15 - Greg Kudla - 11:15-11:30 - Andrew Wood - 11:30-11:45 - Javier Caceres - 11:45-12:00 - Joe Marsh - 12:00-12:15 - Ian Adams - 12:30-13:30 - Lunch - 13:30-13:45 - Shipra Bhatia - 13:45-14:00 - Duncan Sproul - 14:00-14:15 - Laura Lettice - 14:15-14:30 - Pleasantine Mill - 14:30-14:45 - Dimitrios Papadopoulos - 15:00-15:30 - Break - 15:30-15:45 - Caroline Hayward CRUK Edinburgh Centre - Seminar Room, IGMM
19 GRADUATE RESEARCH & TRAINING HANDBOOK 2018
Friday 14th September Health & Safety induction - 09:30-10:30 East Seminar Room
IAD session - 11:00-11.30 East Seminar Room
Timetable
September 2018
Monday 17th Sequencing – Lee Murphy 10:00 – 11:00 East Seminar Room Prof. Luke Boulter 11:00 – 11:30 East Seminar Room Dimitrios Papadopoulos 11:30 – 12:00 East Seminar Room
Friday 21tst Q Pulse training – Rosie Russell 14:00 – 15:15 session 1 (incl. refreshments/cake) 15:30 – 16:45 session 2
Monday 24th Disease Mechanisms 1 – 09:00 – 12:00 East Seminar Room Toby Hurd Disease Mechanisms 2 – 14:00 – 17:00 East Seminar Room Alex Von Kreigsheim
October 2018
Thursday 4th Quantitative Skills 1 - ENSEMBL 09:00 – 17:00 MEC
Monday 8th Journal Club 1 04:00 – 17:00 East Seminar Room
Tuesday 9th or Quantitative Skills 2 – The Unix 09:30 – 17:00 MEC Wednesday 10th Shell –James Jarvis & IGMM IT - TBC
Thursday 11th Quantitative Skills 3 – 10:00 – 16:00 MEC Understanding Eddie – Steven Thorn / Dave Perry
Monday 15th Biomedical Genomics 1 – 14:00 – 17:00 MEC Colin Semple / Alison Meynert
20 GRADUATE RESEARCH & TRAINING HANDBOOK 2018
Tuesday 16th Biomedical Genomics 2 – 09:00 – 12:00 MEC Katie Nicoll Baines (Lead) & Neil Clark
Biomedical Genomics 3 – 14:00 – 17:00 MEC Martin Taylor
Monday 22nd Disease Mechanisms 3 – 10:00 – 12:00 East Seminar Room Andrew Jackson / David FitzPatrick Journal Club 2 14:00 – 17:00 East Seminar Room
November 2018
Monday 5th Quantitative Skills 4 – R for 09:00 – 17:00 MEC Biologists - Graeme Grimes - TBC
Tuesday 6th Quantitative Skills 5 – Plotting 09:00 – 17:00 MEC and programming with Python – Andy Turner
Thursday 15th Quantitative Skills 6 – UCSC 09:00 – 12:00 MEC Genome Browsers - Phillippe Gautier
Friday 16th Good Research practice and 09:00 – 12:00 East Seminar Room Data Management – Helen Nickerson / Kerry Millar Disease Mechanisms 4 – 14:00 – 17:00 East Seminar Room Genome Editing - Andrew Wood
Monday 19th Interacting with Industry – 09:00 – 12:00 East Seminar Room Andrea Taylor / Emma Mickley / Helen Nickerson Journal Club 3 14:00 – 17:00 East Seminar Room
Monday 26th Genome Regulation 1 – 14:00 – 17:00 East Seminar Room Richard Meehan
21 GRADUATE RESEARCH & TRAINING HANDBOOK 2018
December 2018
Monday 3rd Biomedical Genomics 4 – 09:00 – 12:00 East Seminar Room Chris Haley Imaging – Laura Murphy 14:00 – 17:00 East Seminar Room
Thursday 6th Student Christmas Lectures 14:00 – 17:00 East Seminar Room
Monday 10th Biomedical Genomics 5 – 09:00 – 12:00 East Seminar Room QTL Team – Hayward / Vitart Biomedical Genomics 6 – 14:00 – 17:00 East Seminar Room Malcolm Dunlop / Maria Timfeeva
Monday 17th Translating your Research – 09:00 – 12:00 East Seminar Room Helen Nickerson / Andrea Taylor
Friday 21st Break for Christmas
January 2019
Monday 7th Interdisciplinary Interactions 09:00 – 12:00 East Seminar Room 1 – Davide Marenduzzo / Chris Brackley Journal Club 5 14:00 – 17:00 East Seminar Room
Monday 14th Interdisciplinary Interactions 2 09:00 – 12:00 East Seminar Room – Drug Discovery – Asier Unciti-Broceta Interdisciplinary Interactions 3 14:00 – 17:00 East Seminar Room – Drug Development – Neil Carragher
Monday 21st Genome Regulation 2 – 09:00 – 12:00 East Seminar Room Nick Gilbert Biomedical Genomics 7 – 14:00 – 17: 00 East Seminar Room Susan Farrington
Monday 28th Genome Regulation 3 – 09:00 – 12:00 East Seminar Room Javier Caceres Journal Club 6 14:00 – 17:00 East Seminar Room
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February 2019
Monday 4th Genome Regulation 4 – 09:00 – 12:00 East Seminar Wendy Bickmore Room
Monday 11th The role of the Clinical Scientist 09:00 – 12:00 East Seminar in the NHS – Eddy Maher Room
Journal Club 7 14:00 – 17:00 East Seminar Room
Monday 18th Disease Mechanisms 5 – 09:00 – 12:00 East Seminar Ian Jackson Room Disease Mechanisms 6 – 14:00 – 17:00 East Seminar Pleasantine Mill Room
Monday 25th Case study – Toshiba 09:00 – 12:00 East Seminar visualisation – Ken Sutherland Room – TBC Journal Club 8 14:00 – 17:00 East Seminar Room
March 2019
Monday 4th Protein regulation in health and 09:00 – 12:00 East Seminar disease – Maria Christophorou Room Interdisciplinary Interactions 3 14:00 – 17:00 East Seminar – Molecular Probes – Room Marc Vendrell
Monday 18th Biomedical Data Science – 09:00 – 12:00 East Seminar Catalina Vallejos Room Journal Club 9 14:00 – 17:00 East Seminar Room
Monday 25th HGU 4 year students – Start PhD
23 GRADUATE RESEARCH & TRAINING HANDBOOK 2018
MRC Institute of Genetics & Molecular Medicine
MRC Human Genetics Unit IG