Curriculum vitae - CBS
Transcription
Curriculum vitae - CBS
February 2014 Curriculum vitae Rasmus Wernersson Co-founder of Intomics A/S, Head of Informatics Personal information Rasmus Wernersson Maglebjervej 7 3200 Helsinge Born in August 1974 in Copenhagen. Married to Jette Lundsbøl Wernersson. Father of Carl (born October 2000) and Sven (born January 2004). Danish citizen. Work experience Feb 2013–Present: External Associate Professor at the Institute for Systems Biology, Technical University of Denmark. My main task has been to develop a new course on Systems Biology aimed at Bachelor level students. This includes both designing the course structure, writing most the the teaching materials as well as being the main teacher and course responsible. Aug 2009–Present: Head of Informatics at Intomics A/S and co-founder of the company. Responsible for building and maintaining Intomics’ High Performance Computing system for integrative data analysis, and the development of Intomics’ advanced text-mining facilities. Scientific project leader and advisor on multiple research projects with clients in the pharmaceutical industry. Dec 2006–May 2011: Associate professor at the Center for Biological Sequence Analysis at the Technical University of Denmark. My main focus was on teaching and the development of new courses, teaching materials and implementation of new forms of examination. This included both internal DTU courses, collaboration courses with the University of Copenhagen, and providing continuing education to high-school science teachers. Jan 2002–Nov 2006: Assistant professor at the Center for Biological Sequence Analysis at the Technical University of Denmark. Research: both lab-based research on cell-cycle and bioinformatics research. Dec 1998–Dec 2001: Application and server Programmer at the software house ”Dansk PC Programmering”. Software development in Borland Delphi (Windows platform) and Java (Windows and Linux platforms). 1991–1992: Freelance programmer for the computer game company ”KingSoft” (Aarchen, Germany). 8-bit assembly programming. Education 2005–2006: Education in University Teaching at DTU (”UDtU”). 11/2 year Science of Education program – provides qualifications for teaching at Associate Professor level. 2001–2008: Diploma of Information Technology (IT-D) – with specialization in Software Development, Copenhagen University College of Engineering. 1993–1998: Master of Science (Candidatus scientiarium) in Biology, University of Copenhagen. Thesis project: ”Direct cloning and expression of enzyme-genes from non-cultivatable organisms - experimental work performed at Novo Nordisk A/S (the section later to become Novozymes A/S)”. Experience and competences Introduction My education and work experience covers two main areas of expertise: 1) Experimental Molecular Biology and 2) Computer Science. A major theme in all of my working life has been to use my combined expertise on these subjects to facilitate the collaboration between ”wet-lab biologists” and ”computer people”. I strongly believe in the benefits of not only developing new and interesting algorithms but also keeping the usefulness and accessibility of the tools for the intended users (often biologists) in mind. Several of my most cited publications (e.g. RevTrans1 and OligoWiz2 ), are on tools that were created to address a specific biology oriented problem. A very important aspect of facilitating the optimal outcome of projects involving both experimentally generated data and advanced computational analysis is that of communication. For example: in order to implement new algorithms to solve a particular research problem, it is vital that the bioinformatician understand the biological context of the question and the limitation of the data. However, this goes both ways and often the situation will be the reverse: - that the experimentalist is not aware of the full possibilities and strengths of the data analysis. I see communication as being one of my core competences, and the role as a communicator has been central to both my academic and industrial career. In my role as Head of Informatics at Intomics A/S I am often brought into scientific projects as an advisor on coordinating the experimental data generation with the data analysis strategy. A major part of this is interviewing the experimental experts to get an in-depth understanding of the overall biological questions being asked, and based on this making sure that the data analysis strategy will not only support this, but will be further enhanced by bringing in even more advanced methods. A good example of this could be to add in a network biology point of view, where biological context of known entities (e.g. biomarkers/drug targets) are investigated through analysis of protein-protein interaction networks or supported by pathway analysis. 1 2 R. Wernersson and A. G. Pedersen, Nucleic Acids Research, 2003 R. Wernersson, A. S. Junker, and H. B. Nielsen, Nature Protocols, 2007 Figure 1: Cyclebase.org. Providing easy access to integrative cell cycle analysis. Academic research The driving force behind my research has been the interface between experimental biology and bioinformatics. In many cases my (experimental) work in one topic such a alternative splicing and cell cycle regulation in Yeast has uncovered an unmeet need for bioinformatics tools, which has then been implemented as side-projects. Furthermore, I have in several cases come into on-going projects, as a problem-solver with a critical view on the data quality from a biologist point of view, and a pragmatic approach on how to address the data analysis issues from a programmers point of view. Experimental work One of the topics I would like to highlight here is my experimental work on the Yeast cell cycle. I was responsible for establishing and optimizing an experimental system for cell cycle research in Saccharomyces cerevisiae at our department at DTU. The institute had a well establish fermentation platform with 2L bioreactors which allowed fine-grained control of growth conditions, including temperature. We therefore decided to base our system on one of the thermo-sensitive cell cycle mutants previously described (CDC15-2)1 , which allowed arrest-and-release synchronization experiments to be conducted. To allow better control over growth conditions, and to allow for experiments with labeled amino-acids to be performed, the fermentation protocol was optimized for synthetic minimal medium. The verified and optimized protocol is described in our main publication on weakly expressed cell cycle regulated genes2 and in the protocol collection for the DIAMONDS cell cycle project3 . During the project it became evident that the different cell cycle experiments described in the literature (our own and others) were difficult to access and analyze for people not experts in bioinformatics, and that a lot could be gained from analyzing all the available data together. To address this need we created the Cyclebase.org4,5 online database, which I think of as a prime example of combining very high quality bioinformatics analyses with a very intuitive and easy to use interface aimed at biologists (Figure 1). Applied Bioinformatics Another topic common to my research is the field of Applied Bioinformatics – the building of high quality bioinformatics tools. The OligoWiz package for design of probes for DNA microarrays6,7 was initially created to make it easy to design special purpose arrays for our own use (e.g. splice-detecting arrays), but quickly turned out to be quite popular to a much wider audience (see Figure 2). This has led to the continued development of the software for 1 2 3 4 5 6 7 The CDC15-2 strain in a W303 background was kindly donated by Dr. Bruce Futcher, one of the leading experts in the field U de Licthenberg, R Wernersson et al, Yeast, 2005 http://www.sbcellcycle.org/Deliverables/synchronization scer2.pdf N G Gauthier, M E Larsen, R Wernersson et al. Nucleic Acids Research, 2006 N G Gauthier, L J Jensen, R Wernersson et al. Nucleic Acids Research, 2008 H B Nielsen, R Wernersson, S Knudsen. Nucleic Acids Research, 2003 R Wernersson, H B Nielsen. Nucleic Acids Research, 2005 almost a decade, improved algorithms for probe design1 , probe normalization2 and a number of review publications including a book chapter3 and a paper in Nature Protocols4 . Figure 2: OligoWiz 2.0. Screenshot from the OligoWiz 2.0 graphical user interface. Genomics Several of my publications have a large genomics component, ranging from software for extraction of genetic annotation5 over genome-wide studies of RNA splicing6,7 to my involvement in the Danish-Chinese pig genome sequencing project. In the pig genome sequencing project, I coordinated and performed a large part of the evolution-based analysis together with Mikkel Heide Schierup from the University of Århus8 . 1 2 3 4 5 6 7 8 A Eklund, P Friis, R Wernersson et al. Nucleic Acids Research, 2010 G M Bruun, R Wernersson et al. Nucleic Acids Research, 2007 R Wernersson Springer Protocols / Humana Press, 2009 R Wernersson et al. Nature Protocols, 2007 R Wernersson, Nuclecic Acids Research, 2005 H Nielsen and R Wernersson, BMC Genomics, 2006 K Wang, R Wernersson, S Brunak, Bioinformatics, 2011 R Wernersson, M H Schierup et al. BMC Genomics, 2005 Industry experience In 2009 Intomics A/S was founded as a spin-off company from the Technical University of Denmark, by a group of researchers, myself included, within the fields of Bioinformatics and Systems Biology. Establishing a High Performance Computing facility As the Head of Informatics at Intomics is has been my responsibility to manage all the aspects of building up and maintaining a High Performance Computing (HPC) infrastructure. This includes decisions on configuration and scaling of the system and network, installation and monitoring of hardware in a rack-based environment, maintainance of a large local installation of bioinformatics relevant databases (e.g. UniProt, PubMed, Ensembl), writing and porting bioinformatics software and coordinating the efforts of our entire development team to construct a well organized Systems Biology / Bioinformatics platform. I have played a major role in the development of Intomics’ advanced text mining pipeline, which is a key component in many of our projects. Summary of core IT competences: Programming languages: Assembly (expert), C, Basic, Java (expert), ML, Pascal, Python (expert), Perl, R, Shell scripting Programming paradigms: Object oriented programming and design, Agile software development, Model-View-Controller, Client-Server User interface design and implementation - e.g. Java GUIs and web UI. Databases: MySQL, Oracle Algorithm development and optimization Linux system administration Network administration Project leader and scientific advisor As mentioned earlier, my other line of responsibilities at Intomics is as a scientific advisor and project leader. I have experience in managing all parts of the project work-flow: Pre-project negotiations with the client (identify the core biological questions, suggest a data analysis plan and negotiate the contract details) Project leading though-out the project (including the continued evaluation of progress and data quality and based on this to suggest adjustments to the strategy) Post-project evaluation and followup (including communication of the results to a larger audience, for example through internal seminars, or in cases where more publicity is wanted, through conference presentations1,2 ) 1 2 R. Wernersson (Intomics A/S) and J. Larsen (H. Lundbeck A/S), The Brain Atlas project - large scale data analysis on depression., 2nd Intomics Symposium on ”Data mining in drug discovery”, Scion-DTU, November 2011. R. Wernersson (Intomics A/S) and J. Larsen (H. Lundbeck A/S), Biomarkers and Data Integration - Building blocks for understanding disease biology., 13th Annual Drug Discovery & Development Leaders Summit, Zurich, June 2012. Data analysis in drug discovery Discovery Preclinical development Phase I Phase II Phase III Market Target discovery Biomarker discovery and optimisation Knowledge discovery Data mining projects Figure 3: Scope of projects from data to biology I have been involved in contract research projects for a number of pharmaceutical companies including Merck Serono, Shire, Leo Pharma, AstraZeneca and H. Lundbeck. Most of this work has been related to the pre-clinical part of drug development. Notice, however, that Intomics also do knowledge management projects that spans most aspects of clinical research (Figure 3), and from this I have a solid understanding of the entire drug development process. Teaching at DTU Teaching Bioinformatics to a wider audience is a subject that is near and dear to me, and is in many aspect a natural continuation of my commitment as a communicator. Throughout my academic career I have spend a very large amount of time and effort to pursue this goal, and even after co-founding Intomics A/S and shifting to a job in the industry, I have continued to teach at the University in my spare time (first as a guest lecturer and later as a formally affiliated External Associate Professor). See Table 1 for a condensed overview of my main teaching activities. Teaching and course development One of my main efforts has been that as the organizer and main teacher of the ”flagship” course: 27611: Introduction to Bioinformatics. This is a bachelor-level course, for which I was responsible for a major reconstruction that helped turn it into one of the institute’s most popular courses with more than 80 students each year. One of the main thoughts that went into the transformation of the course, was to realize that for most students bioinformatics would be a tool subject rather than a research topic, much in the same vein as mathematics and statistics are for most students. We therefore decided to postpone the more advanced subjects to later courses. Since the intended audience was ”bio” oriented students, we also decided to re-write all parts of the course that had previously required UNIX command-line tools. This also had the added benefit that we could redesign the course to rely only on public available databases (e.g. GenBank and UniProt), and tools (E.g. BLAST and PyMol) that the students could later use for all kinds of ”everyday use” (for example finding a DNA sequence for primer-design). As part of this initiative practically ALL of the computer exercises was rewritten from scratch and put up as an online resource. During this process we also came up with a novel way to teach the statistics behind the ”BLAST” algorithm - this is summarized in the peer-reviewed pedagogical publication ”Dice & DNA”1 (Figure 4). Online teaching materials and differential teaching Having all teaching material online at our own website allowed for easy experimenting with new types of materials. Since the course had been retooled for a broader audience of students, there was a need to give the ”top 10% students” access to more advanced topics, in order to keep up the interest. We solved this by recording small video lectures that high-lighted some of the inner details of the tools (e.g. the dynamic programming algorithm for pairwise alignments of DNA/protein), and linking them into the online course plan - clearly marking them as ”Advanced topics”. Likewise, we also experimented with linking in background materials on topics that the students were expected to know beforehand, but where some may need a reminder. This also had the added benefit to reduce the amount of ”reminder” slides in our presentations. 1 R Wernersson, BioScience Education e-journal, 2007 d c b a 2002 & 2003 Assisting teacher Initiator and main teacher Teacher and course-responsible Assisting teacher (entire course) Main teacher and course-responsibled Assisting teacher (entire course) Teacher Teacher Main teacher and course-responsible Main teacher and course-responsiblea Main teacher and course-responsibleb Together with A. G. Pedersenc Guest lecturer Guest lecturer Main teacher and course-responsible Guest lecturer Table 1: Teaching at the Technical University of Denmark (DTU) 2002-2013 Introduction to Bioinformatics Internal seminars on technical subjects within Bioinformatics Introduction to Bioinformatik Molecular Evolution 2004 Introduction to Bioinformatics Molecular Evolution DNA Microarray Analysis Biological Sequence Analysis (PhD course) 2005, 2006, 2007 & 2008 Introduction to Bioinformatics Introduction to Bioinformatics - Turbo Version Bioinformatics for Human Biologists Continued education course for high-school science teachers 2009, 2010 & 2011 Introduction to Bioinformatics Introduction to Bioinformatics - Turbo Version 2012 Introduction to Systems Biology (held twice in 2013) Introduction to Bioinformatics A special condensed version of the 27611 course taught in English. The course was establish, designed and implemented by me in order to address a need to offer a course similar to the 26711 course aimed at Master level students. In cooperation with the University of Copenhagen - course designed, organized and implemented by me. Course established, designed, implemented and taught by Anders Gorm Pedersen and me in collaboration. I organized and implemented a major reconstruction of the course in 2006-2007 27011 ”TechTalks” 27611 27615 27611 27615 27612 27803 27611 27622 27655 ”GymLærer” 27611 27622 27040 27611 2013 Figure 4: Dice & DNA: rethinking the way to teach a difficult subject The ”Systems Biology Teaching Wiki” Since the use of online materials had been so successful in the 27611 course, Anders Gorm Pedersen1 and I took the initiative to set up a Wiki2 for teaching materials at the department – this is the system that later morphed into the institute-wide ”Systems Biology Teaching Wiki”3 that is now used to a great extend across multiple courses. 27611 as a pioneer in online exams Having completed the transformation of the course in 2007, it became evident that a traditional 4-hour pen-and-paper exam would feel oddly out of place. I wanted to introduce a type of exam where the students could actually use the online tools and databases they had learned about during the course, to solve real biological questions for the exam. In collaboration with the Exam Office we got the permission to be the very first course at DTU to experiment with the implementation of a 100% online exam with full internet access, provided that we handled all technical issues ourselves. Great care was taken into preparing exam questions that would challenge the students, make full use of the internet access and minimize the risk of cheating. Following the successful implementation in 20074 the experiences from 27611 have been used 1 2 3 4 Professor (Docent) at the Center for Biological Sequence Analysis at DTU I was the original system administrator for the Wiki and 27611 was ”ported” to the wiki system as the very first course. http://wiki.bio.dtu.dk/teaching R. Wernersson, Forsøg med ny online eksamensform i ”Introduktion til Bioinformatik”, DTU Avisen, 2007. in the design of online exams for other courses. The interest for online exams turned out to go beyond DTU and our experiences was presented at the Seminar on Assessment and Exams in Education at ITU in 20101 . Establishing new courses During my time a DTU I have been involved in establishing a number of new courses (see Table 1) – most recently course 27040: ”Introduction to Systems Biology” in 2013. This includes all steps from putting together the curriculum, negotiating the establishment of the course with the Study Board, organizing everything from teaching, practical details and exams, to coordinating the efforts between internal and external resources (e.g. the ”Bioinformatics for Human Biologists” course which was a joint effort between DTU and the Faculty of Health at the University of Copenhagen). I was also involved in the process of the establishment of the new joint education between University of Copenhagen and DTU: ”IT and Health”, where my responsibility was to coordinate the Bioinformatics course2 . Teaching Bioinformatics to high-school teachers and pupils At DTU there has been a number of initiatives to reach out and teach science to a broader audience. As part of this I have had a lecture on Molecular Evolution (”DNA in Time and Space”) which I have taught to high-school pupils for a number of years when they came to visit DTU as part of the ”DTU Explore” initiative. Furthermore, together with Anders Gorm Pedersen, I designed, implemented and taught DTU’s contribution to the continuing education of high-school science teachers (”Efteruddannelseskursus: Bioinformatik Til Gymnasiet”). For this effort both Anders and I were awarded a bonus from the institute for commitment beyond expectation. The course is still on-going and more than 150 teachers has been through this up-qualification course. 1 2 R Wernersson and A G Pedersen, Presenting our experiences from implementing an online exam with open internet access for the ”Introduction to Bioinformatics” course at DTU., Seminar on Assessment and Exams in Education, IT-University of Denmark, October 2010. The actual implementation of the course was performed by Thomas Nordahl Petersen, as I was at that point (co)-responsible for 3 other courses. Scientific achievements Invited and contributed talks 13th Annual Drug Discovery & Development Leaders Summit, Zurich, June 2012. Biomarkers and Data Integration - Building blocks for understanding disease biology. Presenters: Rasmus Wernersson (Intomics) and Jennifer Larsen (H. Lundbeck). 2nd Intomics Symposium on ”Data mining in drug discovery”, Scion-DTU, November 2011. The Brain Atlas project - large scale data analysis on depression. Presenters: Rasmus Wernersson (Intomics) and Jennifer Larsen (H. Lundbeck). Seminar on Assessment and Exams in Education, IT-University of Denmark, October 2010. Presenting our experiences from implementing an online exam with open internet access for the ”Introduction to Bioinformatics” course at DTU. Danish Center for Scientific Computing - User Conference, DTU, April 2008. Future Trends and Challenges within the Bioinformatics use of Scientific Computing. ISMB 2005, Detroit, June 2005. Advanced Micro-array Probe Design Using OligoWiz 2.0 Pig Genome Sequencing Consortium Yearly Meeting, Copenhagen, May 2005 Developments in the Pig Genome Data-warehouse, Aspects of the BMC paper, and (pig) oligo design 2nd YSBN workshop, Copenhagen, May 14-16, 2004 Presenting the Systems Biology work at the Center for Biological Sequence Analysis Pig Genome Sequencing Consortium Yearly Meeting, Copenhagen, March 2004 The CBS data-warehouse and preliminary scientific results ISMB 2003, Brisbane, June 2003 OligoWiz: A powerful, flexible yet easy-to-use tool for designing oligonucleotides for DNA microarrays (Software demo) Publications, February 2014 Three most cited papers 2441 citations: ”Title: RevTrans: multiple alignment of coding DNA from aligned amino acid sequences ”. R. Wernersson and A. G. Pedersen. 2003 184 citations: ”Pigs in sequence space: A 0.66 X coverage pig genome survey based on shotgun sequencing ”. R. Wernersson, M. H. Schierup et al. 2005 131 citations: ”Design of oligonucleotides for microarrays and perspectives for design of multi-transcriptome arrays”. H. Nielsen, R. Wernersson and S. Knudsen. 2003 2011 PHUSER (Primer Help for USER): a novel tool for USER fusion primer design Lars Rønn Olsen, Niels Bjørn Hansen, Mads Tvillinggaard Bonde, Hans Jasper Genee, Dorte Koefoed Holm, Simon Carlsen, Bjarne Gram Hansen, Kiran Raosaheb Patil, Uffe Hasbro Mortensen, and Rasmus Wernersson Nucleic Acids Research, 2011, 39 - Web Server issue, W61-W67 The strength of intron donor splice sites in human genes displays a bell-shaped pattern Kai Wang, Rasmus Wernersson, and Søren Brunak Bioinformatics, 2011, Bioinformatics vol. 27(22), 3079-3084 2010 Cyclebase.org: version 2.0, an updated comprehensive, multi-species repository of cell cycle experiments and derived analysis results Nicholas Gauthier, Lars Juhl Jensen, Rasmus Wernersson, Søren Brunak, and Thomas Skøt Jensen Nucleic Acids Research, 2010, Vol. 38, Database issue, D699-D702 Optimization of the BLASTN substitution matrix for prediction of nonspecific DNA microarray hybridization Aron Eklund, Pia Friis, Rasmus Wernersson, and Zoltan Szallasi Nucleic Acids Research, 2010, Vol. 38, issue 4, e27 1 Google Scholar statistics. 2009 InterMap3D: predicting and visualizing co-evolving protein residues Rodrigo Gouveia-Oliveira, Francisco S. Roque, Rasmus Wernersson, Thomas Sicheritz-Ponten, Peter W. Sackett, Anne Mølgaard and Anders G. Pedersen Bioinformatics, 2009, Bioinformatics vol. 25(15), 1963-1965 Book chapter: ”Probe design for expression arrays using OligoWiz” Rasmus Wernersson In DNA Arrays for Biomedical Research: Methods and Protocols, Vol 529; Martin Dufva (Editor), Springer Protocols / Humana Press, 2009. 2008 Cyclebase.org — a comprehensive multi-organism online database of cell cycle experiments Nicholas Paul Gauthier, Malene Erup Larsen, Rasmus Wernersson, Ulrik de Lichtenberg, Lars Juhl Jensen, Søren Brunak, and Thomas Skøt Jensen Nucleic Acids Research, 2008, Vol. 36, Database issue, D854-D859 2007 Forsøg med ny online eksamensform i ”Introduktion til Bioinformatik”1 Rasmus Wernersson DTU Avisen, November 2007. (An extended version of this article can be downloaded from my personal website: www.cbs.dtu.dk/∼raz). Probe Selection for DNA Microarrays using OligoWiz Rasmus Wernersson, Agnieszka S. Juncker and Henrik Bjørn Nielsen Nature Protocols, 2 , 2677 - 2691 (2007) Dice & DNA Rasmus Wernersson BioScience Education e-journal, 10-5, 2007 Thermodynamic probe intensity correction for oligonucleotide microarrays Georg M. Bruun, Rasmus Wernersson, Agnieszka S. Juncker, Hanni Willenbrock and Henrik Bjørn Nielsen Nucleic Acids Research, Vol. 35, No. 7 e48, 2007 1 English summary: short article to the internal DTU newspaper detailing my experience with the new online exam, I have introduced to the ”Introduction to Bioinformatics” course. Porcine transcriptome analysis based on 97 non-normalized cDNA libraries and assembly of 1,021,891 ESTs Jan Gorodkin, Susanna Cirera, Jakob Hedegaard, Michael J Gilchrist, Frank Panitz, Claus B Jorgensen, Karsten Scheibye-Knudsen, Troels Arvin, Steen Lumholdt, Milena Sawera, Trine Green, Bente J Nielsen, Jakob H Havgaard, Carina Rosenkilde, Jun Wang, Heng Li, Ruiqiang Li, Bin Liu, Songnian Hu, Wei Dong, Wei Li, Jun Yu, Jiang Wang, Hans-Henrik Stærfeldt, Rasmus Wernersson, Lone B Madsen, Bo Thomsen, Henrik Hornshoj, Zhan Bujie, Xuegang Wang, Xuefei Wang, Lars Bolund, Søren Brunak, Huanming Yang, Christian Bendixen and Merete Fredholm Genome Biology, 8:R45, 2007 SNP mining porcine ESTs with MAVIANT, a novel tool for SNP evaluation and annotation Frank Panitz, Henrik Stengaard, Henrik Hornshøj, Jan Gorodkin, Jakob Hedegaard, Susanna Cirera, Bo Thomsen, Lone B. Madsen, Anette Høj, Rikke K. Vingborg, Bujie Zahn, Xuegang Wang, Xuefei Wang, Rasmus Wernersson, Claus B. Jørgensen, Karsten Scheibye-Knudsen, Troels Arvin, Steen Lumholdt, Milena Sawera, Trine Green, Bente J. Nielsen, Jakob H. Havgaard, Søren Brunak, Merete Fredholm and Christian Bendixen Bioinformatics, 23(13), i387-i391, 2007 2006 An overabundance of phase 0 introns immediately after the start codon in eukaryotic genes Henrik Nielsen and Rasmus Wernersson BMC Genomics, 7, 256, 2006 Virtual Ribosome — a comprehensive DNA translation tool with support for integration of sequence feature annotation Rasmus Wernersson Nucleic Acids Research, 34 - Web Server issue, p. W385–W388, 2006 FeatureMap3D: a tool to map protein features and sequence conservation onto homologous structures in the PDB Rasmus Wernersson, Kristoffer Rapacki, Hans-Henrik Stærfeldt, Peter Wad Sackett and Anne Mølgaard Nucleic Acids Research, 34 - Web Server issue, p. W84–W88, 2006 State-of-the-art in Saccharomyces cerevisiae synchronization protocols Søren Brunak, Rasmus Wernersson, Thomas Skøt Jensen & Ulrik de Lichtenberg DIAMONDS (EU project: LSHG-CT-2004-512143), Deliverable 1-D1.1, 2006. http://www.sbcellcycle.org/Deliverables/synchronization scer2.pdf 2005 New weakly expressed cell cycle-regulated genes in yeast Ulrik de Lichtenberg‡, Rasmus Wernersson‡, Thomas Skøt Jensen‡, Henrik Bjørn Nielsen, Anders Fausbøll, Peer Schmidt, Flemming Bryde Hansen, Steen Knudsen and Søren Brunak Yeast, 22, p. 1191–1201, 2005 ‡ = Equal contributors OligoWiz 2.0 — integrating sequence feature annotation into the design of microarray probes Rasmus Wernersson and Henrik Bjørn Nielsen Nucleic Acids Research, 33 - Webserver Issue, p. W611–W615, 2005 FeatureExtract — extraction of sequence annotation made easy Rasmus Wernersson Nucleic Acids Research, 33 - Webserver Issue, p. W567–W569, 2005 Pigs in sequence space: A 0.66X coverage pig genome survey based on shotgun sequencing Rasmus Wernersson‡, Mikkel H Schierup‡, Frank G Jørgensen, Jan Gorodkin, Frank Panitz, Hans-Henrik Stærfeldt, Ole F Christensen, Thomas Mailund, Henrik Hornshøj, Ami Klein, Jun Wang, Bin Liu, Songnian Hu, Wei Dong, Wei Li, Gane K-S Wong, Jun Yu, Jian Wang, Christian Bendixen, Merete Fredholm, Søren Brunak, Huanming Yang and Lars Bolund BMC Genomics, 6, 70, 2005 ‡ = Equal contributors 2003 RevTrans: Multiple alignment of coding DNA from aligned amino acid sequences Rasmus Wernersson and Anders Gorm Pedersen Nucleic Acids Research, 31 - Webserver Issue, p. 3537–3539, 2003 Design of oligonucleotides for microarrays and perspectives for design of multitranscriptome arrays Henrik Bjørn Nielsen, Rasmus Wernersson and Steen Knudsen Nucleic Acids Research, 31 - Webserver Issue, p. 3491–3496, 2003 Scientific web-servers CycleBase.org (team work) URL: http://www.cyclebase.org Abstract: ”Cyclebase is centralized, standardized resource for researchers to inspect and download cell-cycle datasets. Results of our state-of-the-art analyses of individual experiments as well as combined datasets are also included.” FeatureExtract (solo work) URL: http://www.cbs.dtu.dk/services/FeatureExtract/ Abstract: ”The FeatureExtract server extracts sequence and feature annotation, such as intron/exon structure, from GenBank entries and other GenBank format files.” FeatureMap3D (with Anne Mølgaard) URL: http://www.cbs.dtu.dk/services/FeatureMap3D/ Abstract: ”FeatureMap3D combines protein sequence-based information with structural data from the Protein Data Bank (PDB).” InterMap3D (team work) URL: http://www.cbs.dtu.dk/services/InterMap3D/ Abstract: ”InterMap3D predicts interacting protein residues by identifying co-evolving pairs of aminoacids from an alignment of protein sequences.” OligoWiz 2.0 (with Henrik Bjørn Nielsen) URL: http://www.cbs.dtu.dk/services/OligoWiz2/ Abstract: ”OligoWiz 2.0 is a powerful tool for microarray probe design that allows for integration of sequence annotation such as exon/intron structure, UTR regions, TSS, etc.” PHUSER (team work) URL: http://www.cbs.dtu.dk/services/PHUSER/ Abstract: ”PHUSER offers quick and easy design of PCR optimized primers for USER fusion of custom DNA fragments.” RevTrans (with Anders Gorm Pedersen) URL: http://www.cbs.dtu.dk/services/RevTrans/ Abstract: ”RevTrans takes a set of DNA sequences, virtually translates them, aligns the peptide sequences, and uses this as a scaffold for constructing the corresponding DNA multiple alignment.” Virtual Ribosome (solo work) URL: http://www.cbs.dtu.dk/services/VirtualRibosome/ Abstract: ”The Virtual Ribosome is a comprehensive tool for translating DNA sequences to the corresponding peptide sequences.”