Timeline of DNA sequencing

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This is a timeline of DNA sequencing, focusing on scientific developments. Major discoveries concerning DNA are exposed as background information.

Period Key developments
1930s-1940s Molecular biology originates.[1]
1950s-1960s Period of extraordinary development in molecular biology, which becomes institutionalized. The structure of DNA is uncovered by James Watson and Francis Crick. Frederick Sanger plays a seminal role in the creation of influential DNA sequencing techniques in the 1950s and 1960s.[2][1]
1970s First-generation sequencing technologies merge, including the Maxam-Gilbert method, and the [[wikipedia:Sanger sequencing|Sanger method.[3] Molecular biology goes genomic.[1]
1980s-1990s After the development of sequencing techniques, efforts are focused in sequencing the human genome, giving rise to the Human Genome Project. Scientists start sequencing DNA using capillary sequencers.[1][4]
2000s Second generation of DNA sequencing and RNA sequencing launches.[5]

Full timeline

Year/period Type of event Event Location
1869-1871 Scientific development Swiss physician Friedrich Miescher first discovers and isolates Deoxyribonucleic acid (DNA). In 1871 Miescher publishes paper identifying the presence of nuclein (now known as DNA) and associated proteins, in the cell nucleus.[7] Germany (Tübingen)
1882 Scientific development German biochemist Albrecht Kossel differentiates ARN and DNA.[8]
1902 Scientific development American geneticist Walter Sutton publishes paper showing that chromosomes occur in distinct pairs, which segregate at meiosis.[9] United States
1902 Scientific development German biologist Theodor Boveri, working independently from Walter Sutton, recognizes that the behavior of Mendel’s particles during the production of gametes in peas precisely parallels the behavior of chromosomes at meiosis, suggesting that chromosomes could be shown to bear the material of heredity. This would further give rise to the so called Boveri–Sutton chromosome theory, which is recognized as a fundamental unifying theory of genetics which identifies chromosomes as the carriers of genetic material.[10] Germany
1906 Scientific development German biochemist Albrecht Kossel describes the four bases in nucleic acids (denine, cytosine, guanine, thymine). In 1910 Kossel would be awarded a Nobel Prize in Physiology or Medicine for that work.[8]
1944 Scientific development Canadian-American researchers Oswald Avery and Colin Munro MacLeod, along with American geneticist Maclyn McCarty, working on experiments on pneumococcal bacteria, establish that DNA could transform the properties of cells. As a result, a number of researchers would begin investigating the structure of DNA, hoping that this would reveal how the molecule works.[11]
1950 Discovery Austro-Hungarian biochemist Erwin Chargaff discovers that concentrations of thymine and adenine, and cytosine and guanine, are always found in equal amounts in samples of DNA. This suggests that A always pairs with T and C always pairs with G in a proportion that would later become known as Chargaff's ratio, an important clue for solving the structure of DNA. [12]
1952 Scientific development American bacteriologist Alfred Hershey and American geneticist Martha Chase conduct a series of experiments (today known as Hershey–Chase experiment) to demonstrate that DNA, rather than protein, carries our genetic information.[13]
1952 Scientific development R. Markham and J. D. Smith publish paper reporting that the hydrolysis of RNA proceeds via a cyclic phosphate intermediate, which is then further hydrolysed to produce a nucleoside 2'-monophosphate or 3'-monophosphate.[14]
1953 Scientific development American biologist James Watson and English physicist Francis Crick discover The double helix when solving the three-dimensional structure of DNA, working from crystallographic data produced by Rosalind Franklin and Maurice Wilkins.[15][16] Watson and Crick show that DNA has two strands made up of chemical sub-units known as nucleotides. These two strands arrange around each other, linked together by hydrogen bonds, in a spiral configuration called a double helix.[11]
1955 Scientific development (non-human genome) British biochemist Frederick Sanger completes the sequence of all the amino acids in the hormone insulin, a small protein secreted by the pancreas. For this achievement, Sanger would be awarded a Nobel Prize in Chemistry in 1958.[17]
1958 Scientific development English physicist Francis Crick publishes theory which argues that the arrangement of nucleotides in DNA determines the sequence of amino acids in proteins which in turn helps determine the function of a protein.[11]
1959 Scientific development (non-human genome) American molecular biologist Robert Sinsheimer reports the genome of bacteriophage Phi X 174 becoming the first DNA molecule purified to homogeneity.[15]
1961-1966 Scientific development American biochemist Marshall Warren Nirenberg, working at the National Institute of Arthritic and Metabolic Diseases, discover the first "triplet" —a sequence of three bases of DNA that codes for one of the twenty amino acids that serve as the building blocks of proteins. By 1966, Nirenberg has deciphered over sixty triplets. Nirenberg's experimental system would be used, confirmed and extended by Indian-American biochemist Har Gobind Khorana, who, along with Nirenberg and Robert W. Holley, was be awarded the 1968 Nobel Prize in Physiology or Medicine "for their interpretation of the genetic code and its function in protein synthesis."[18]
1965 Scientific development (non-human genome) Escherichia coli alanine transfer RNA becomes the first nucleic acid molecule to be sequenced by American biochemist Robert W. Holley and colleagues.[15][16]
1967 Scientific development U.E. Loening demonstrates that gels made from polymerized acrylamide and bisacrylamide ('polyacrylamide gels') have sufficient resolving power to separate high-molecular-weight pieces of RNA.[14]
1968 Scientific development Chinese-American biologist Ray Wu and Dale Kaiser publish the first successful DNA sequence achieved, detailing the sticky ends of the lambda phage. [19][15] [20]
1972 Scientific development American microbbiologist Hamilton O. Smith, at Johns Hopkins University School of Medicine, purifies the first site-specific "Type II" restriction enzyme, known as Hind II. Restriction enzymes would enable scientists to identify base sequences and, in combination with other tools, to manipulate DNA —and genes by the way— as never before. Hamilton Smith is awarded the Nobel Prize in physiology or medicine in 1978.[21] United States
1972 Technology launch Using the 2-D fractionation method developed by Frederick Sanger, Belgian molecular biologist Walter Fiers' laboratory produces the first complete protein-coding gene sequence, that of the coat protein of bacteriophage MS2.[16]
1973 Scientific development American molecular biologists Walter Gilbert and Allan Maxam publish first report of a nucleotide sequence with the lenght of 24 basepairs, using a method later known as wandering-spot analysis.[22][23][24]
1975 Technology launch Frederick Sanger introduces his ‘plus and minus’ method for DNA sequencing. This transition technique would prove to be critical, leading to the modern generation of methods that would completely dominate sequencing over the next 30 years.[15][25]
1976 Scientific development (non-human genome) Walter Fiers and coworkers at the University of Ghent identify and publish the sequence of the first complete genome of Bacteriophage MS2.[24]
1976-1977 Technology launch Walter Gilbert and Allan Maxam introduce their second method of DNA sequencing using chemical processes to terminate DNA strands. This method would be known as Maxam–Gilbert sequencing.[15][23]
1977 Technology launch Frederick Sanger develops his "chain-termination" or dideoxy technique, which allows the use of chemical analogues of the deoxyribonucleotides (dNTPs) that are the monomers of DNA strands. This technique is considered a major breakthrough, having altered the progress of DNA sequencing.[16] In 1980 Fred Sanger would be awarded his second Nobel Prize for Chemistry (this one along with Wally Gilbert and Paul Berg), for pioneering DNA sequencing methods.[17]
1981 Scientific development (non-human genome) The genome of the cauliflower mosaic virus is first to be sequenced by shotgun sequencing.[26]
1983 Technology launch American biochemist Kary Mullis develops the Polymerase chain reaction (PCR), a technique used in molecular biology to rapidly amplify DNA. The technique would prove revolutionary, and Mullis would be awarded the 1993 Nobel Prize in Chemistry. [27] United States
1984 Technology launch American molecular geneticist Charles Cantor and David C. Schwartz develop the pulsed field gel electrophoresis (PFGE) technique, which uses short pulses from perpendicular electrical fields to separate large pieces of DNA.[14][28]
1985 Technology launch British geneticist Alec Jeffreys develops a method for DNA profiling. A DNA profile is produced by counting the number of short repeating sequences of DNA sequence found at ten specific regions of the genome.[29]
1986 Technology launch Applied Biosystems Incorporated (API) markets the first automated DNA sequencer.[30]
1990 Program launch The Human Genome Project is launched, with aims at sequencing all 3 billion letters of a human genome in 15 years.[31]
1990 Organization GATC Biotech is established as company specializing in DNA and RNA sequencing.[32] Germany (Konstanz)
1992 Technology launch The first "sequencing factory" is established.[15]
1993 Organization The Sanger Centre (today [[wikipedia:Wellcome Trust Sanger Institute|Wellcome Trust Sanger Institute) near Cambridge is opened by Frederick Sanger.[33] United Kingdom (Hinxton)
1995 Scientific development (non-human genome) The first complete cellular genome sequences, from bacterium haemophilus influenzae by Craig Venter and Nobel laureate Hamilton O. Smith at the Institute of Genomic Research, appears. This would mark the first use of whole-genome shotgun sequencing, eliminating need of mapping efforts.[15]
1996 Scientific development Pål Nyrén and Mostafa Ronaghi, working at the Royal Institute of Technology, publish their Pyrosequencing method, based on sequencing by synthesis.[34] By 1998, pyrosequencing is introduced as first generation sequencing approach.[22] Sweden (Stockholm)
1996 Scientific development (non-human genome) An international effort of hundreds of researchers completes sequencing the genome of the budding yeast Saccharomyces cerevisiae, the first completely sequenced from a eukaryote.[35]
1996 Policy “Bermuda Principles” is formulated for Human Genome Project free data access.[36]
1997 Organization Macrogen is established as a public biotechnology company, specializing in DNA sequencing and bioinformatic analysis.[37] South Korea (Seoul)
1998 Scientific development (non-human genome) British biologist John Sulston and American biologist Bob Waterston publish the genome of the nematode worm, caenorhabditis elegans.[38]
1998 Organization American biotechnologist Craig Venter founds Celera Genomics Corporation for sequencing the human genome.[39]
1999 Scientific development The sequence of the euchromatic portion of human chromosome 22 is published. It is the first human chromosome to be sequenced as part of the Human Genome Project.[40]
1999 Organization Beijing Genomics Institute is founded. It is one of the world's genome sequencing centers.[41] China (Shenzhen)
2000 Scientific development (non-human genome) The full genome sequence of the model organism drosophila melanogaster (fruit fly) is completed by collaboration between the private company Celera Corporation and the public Berkeley Drosophila Genome Project (BDGP) based in California.[42]
2000 Technology launch University of California, Santa Cruz (UCSC) launches the UCSC Genome Browser, a graphical viewer for genomic data.[43]
2000 Technology launch Lynx Therapeutics releases Massively parallel signature sequencing (MPSS), a method that incorporates a parallelized, adapter/ligation-mediated, bead-based sequencing technology.
2000 Organization 454 Life Sciences is founded as a biotechnology company specializing in sequencing of genetic samples. Acquired by Hoffmann-La Roche in 2007, it would be shut down in 2013 when its technology becomes noncompetitive.[44][45] United States (Branford, Connecticut)
2001 Scientific development The first draft of the human genome sequence is released.[46]
2001 Sequencing an entire genome is calculated to cost approximately US$ 100,000,000.[34]
2002 Scientific development (non-human genome) The International Mouse Genome Sequencing Consortium completes full genome sequence of The mouse (the first in a mammal). The mouse genome is found to be 14 per cent smaller than the human genome, but over 95 per cent similar.[47]
2002 Organization Integromics is founded as a bioinformatics company. It provides products aimed at gene expression, sequencing and proteomics markets.[48] Spain (Granada)
2002 Program launch The International HapMap Project is launched to create a public database of human sequence variation.[49]
2002 Scientific development (non-human genome) The genome of the parasite plasmodium falciparum, which causes malaria in humans, is published.[50]
2003 Technology launch American geneticist George M. Church, working at Harvard Medical School, vedelops Polony sequencing, multiplex sequencing technique that can be used to “read” millions of immobilized DNA sequences in parallel.[51] United States
2003 Scientific development Completion of the Human Genome Project is achieved. Aproximately 25,000 genes are identified. The human genome is sequenced to 99.99 per cent accuracy, 2 years ahead of schedule.[52][53]
2003 Program launch The ENCODE (Encyclopedia of DNA Elements) project is launched by the National Human Genome Research Institute and aims at identifying and characterizing all the genes in the human genome.[54]
2004 Organization Pacific Biosciences, a company that develops and manufactures systems for gene sequencing, is founded.[55] United States (Menlo Park, California)
2005 Technology launch The total amount of sequence in the databases passes the 100 Gb mark.[15]
2005 Organization Oxford Nanopore Technologies, a company which develops nanopore sequencing products, is founded.[56] United Kingdom
2006 Technology launch American company Illumina next generation sequencing is on the market, after launching new Genoma Analizer (GA).[57] United States
2006 Organization Complete Genomics is founded as a life sciences company, specializing in DNA sequencing platform for human genome sequencing and analysis.[58] In 2013 Complete Genomics would be acquired by Beijing Genomics Institute.[59] United States (Mountain View, California)
2007 Technology launch Applied Biosystems releases new range of commercialized sequencers that implement a technology called Sequencing by Oligonucleotide Ligation Detection (SOLiD).[60]
2007 Technology launch A new DNA sequencing technology is introduced that increases DNA sequencing output 70 fold, in one year. This breakthrough would lead to the launch of the 1000 Genes Project in 2008.[61]
2007 Organization California-based company GenapSys starts selling sequencers.[62] United States
2008 Program launch The 1000 Genomes Project, an international research effort to establish by far the most detailed catalogue of human genetic variation, is launched. The project would finalize in 2012.[63]
2009 Technology launch Pacific Biosciences introduces Single Molecule Real Time (SMRT) DNA Sequencing technique. It is based on the observation of the performance of polymerase during DNA synthesis.[64]
2009 Scientific development Researchers complete the sequence of the first cancer genomes from a lung tumour and a [[wikipedia:melanoma|melanoma.[65]
2010 Program launch Wellcome Trust Sanger Institute launches UK10K project, which aims at studying a total of 10,000 human genomes in the United Kingdom, then compare the genomes of 4,000 healthy people with those of 6,000 people living with a disease of suspected genetic cause.[66]
2010 Scientific development Nature magazine publishes the Neanderthal genome.[67]
2010 Technology launch American multinational Thermo Fisher Scientific launches the first lower-cost, nonoptical system which performs sequencing by synthesis, but with unlabeled nucleotides on a semiconductor chip. The full sequence is read by sequentially adding bases and tracking reactions across millions of microwells.[62] United States
2011 Technology launch Three major new sequencing platforms are released: Ion Torrent’s Personal Genome Machine (PGM), Pacific Biosciences’ RS and the Illumina MiSeq.[68]
2012 Scientific development ENCODE study publishes 30 research papers describing the active regions of the human genome including confirmation that the human genome contains 20,687 protein-coding genes.[54][69]
2013 Policy The United States Supreme Court rules that naturally occurring DNA cannot be patented, stating: "A naturally occurring DNA segment is a product of nature and not patent eligible merely because it has been isolated."[70] United States
2013 Scientific development (non-human genome) The Zebrafish genome sequence is completed.[71]
2014 Technology launch American company Illumina launches its HiSeq X Ten system, consisting of 10 ultra-high-throughput sequencers, each capable of generating up to 1.8 terabases of data in less than three days, with a sequencing capability of about 18,000 human genomes per year.[62] United States
2014 Organization Genomics England is set up as company by the United Kingdom Department of Health to run the 100,000 Genomes Project.[72] United Kingdom
2014 The average cost for a whole genome sequencing is less than US$ 10,000.[34]


  1. 1.0 1.1 1.2 1.3 "Molecular Biology". stanford.edu. Retrieved 1 April 2017. 
  2. "Sequencing the worm". yourgenome.org. Retrieved 1 April 2017. 
  3. "DNA sequencing". britannica.com. Retrieved 1 April 2017. 
  4. "What is capillary sequencing?". yourgenome.org. Retrieved 1 April 2017. 
  5. Biotechnology (Ulrich Kück, Nicole Frankenberg-Dinkel ed.). Retrieved 1 April 2017. 
  6. 6.0 6.1 6.2 6.3 6.4 6.5 6.6 6.7 Cantor, Charles R.; Smith, Cassandra L. Genomics: The Science and Technology Behind the Human Genome Project. Retrieved 3 April 2017. 
  7. "Friedrich Miescher and the discovery of DNA". sciencedirect.com. Retrieved 29 March 2017. 
  8. 8.0 8.1 Vasudevan, D M; Sreekumari, S; Vaidyanathan, Kannan. Textbook of Biochemistry for Medical Students. Retrieved 29 March 2017. 
  9. "100 Years Ago: Walter Sutton and the Chromosome Theory of Heredity". genetics.org. Retrieved 29 March 2017. 
  10. "Historical development of the chromosome theory". An Introduction to Genetic Analysis. 7th edition. Retrieved 29 March 2017. 
  11. 11.0 11.1 11.2 "The path to sequencing nucleic acids". whatisbiotechnology.org. Retrieved 29 March 2017. 
  12. "Chargaff's Ratio". hhmi.org. Retrieved 29 March 2017. 
  13. Saluz, Jost, H. DNA Methylation: Molecular Biology and Biological Significance. Retrieved 29 March 2017. 
  14. 14.0 14.1 14.2 "Milestones of DNA technologies". Nature. doi:10.1038/nrg2250. Retrieved 28 March 2017. 
  15. 15.0 15.1 15.2 15.3 15.4 15.5 15.6 15.7 15.8 Hutchison, Clyde A. "DNA sequencing: bench to bedside and beyond". PMC 2094077Freely accessible. doi:10.1093/nar/gkm688. Retrieved 28 March 2017. 
  16. 16.0 16.1 16.2 16.3 Heather, James M; Chain, Benjamin. "The sequence of sequencers: The history of sequencing DNA". sciencedirect.com. Retrieved 28 March 2017. 
  17. 17.0 17.1 Roberts, Michael; Reiss, Michael Jonathan; Monger, Grace. Advanced Biology. Retrieved 29 March 2017. 
  18. "Marshall Nirenberg (1927-) cracks the genetic code". genomenewsnetwork.org. Retrieved 30 March 2017. 
  19. Sanger, Fred. "The early days of DNA sequences". doi:10.1038/85389. Retrieved 30 March 2017. 
  20. "Ray Wu". whatisbiotechnology.org. Retrieved 30 March 2017. 
  21. "Hamilton O. Smith (1931-) discovers the first site-specific restriction enzyme". genomenewsnetwork.org. Retrieved 30 March 2017. 
  22. 22.0 22.1 Books on Google Play Synthetic Biology and Metabolic Engineering in Plants and Microbes Part B: Metabolism in Plants. Retrieved 30 March 2017. 
  23. 23.0 23.1 "Maxam-Gilbert". snipcademy.com. Retrieved 30 March 2017. 
  24. 24.0 24.1 Schiller, Jon. Genome Mapping: To Determine Disease Susceptibility. Retrieved 30 March 2017. 
  25. Chan, EY. "Advances in sequencing technology.". doi:10.1016/j.mrfmmm.2005.01.004. Retrieved 28 March 2017. 
  26. Gardner, Richard C.; Howarth, Alan J.; Hahn, Peter; Brown-Luedi, Marianne; Shepherd, Robert J.; Messing, Joachim (1981-06-25). "The complete nucleotide sequence of an infectious clone of cauliflower mosaic virus by M13mp7 shotgun sequencing". Nucleic Acids Research. 9 (12): 2871–2888. ISSN 0305-1048. PMC 326899Freely accessible. PMID 6269062. doi:10.1093/nar/9.12.2871. Retrieved 30 March 2017. 
  27. Clark, David P. Molecular Biology. Retrieved 30 March 2017. 
  28. "Pulsed Field Gel Electrophoresis". bio-rad.com. Retrieved 28 March 2017. 
  29. "The history of genetic fingerprinting". University of Leicester. Retrieved 30 March 2017. 
  30. "Leroy Hood (1938-) develops the automated sequencer". genomenewsnetwork.org. Retrieved 30 March 2017. 
  31. Chial, Heidi. "DNA Sequencing Technologies Key to the Human Genome Project". nature.com. Retrieved 30 March 2017. 
  32. "GATC Biotech DNA Sequencing". nucleics.com. Retrieved 4 April 2017. 
  33. Wenkart, Michael. 50 scientific discoveries that changed the world. Retrieved 31 March 2017. 
  34. 34.0 34.1 34.2 Biomarker Validation: Technological, Clinical and Commercial Aspects (Harald Seitz, Sarah Schumacher ed.). Retrieved 31 March 2017. 
  35. "The Reference Genome Sequence of Saccharomyces cerevisiae: Then and Now". doi:10.1534/g3.113.008995. Retrieved 31 March 2017. 
  36. Powledge, Tabitha M. "Revisiting Bermuda". doi:10.1186/gb-spotlight-20030311-01. Retrieved 31 March 2017. 
  37. "Box 2. Macrogen–a flagship for Korean biotechnology ventures". nature.com. Retrieved 4 April 2017. 
  38. "A Transparent Window into Biology: A Primer on Caenorhabditis elegans". Genetics. Retrieved 31 March 2017. 
  39. Müller-Wille, Staffan; Rheinberger, Hans-Jörg. A Cultural History of Heredity. Retrieved 30 March 2017. 
  40. Pevsner, Jonathan. Bioinformatics and Functional Genomics. Retrieved 31 March 2017. 
  41. "How Beijing Genomics Institute became the world's largest gene sequencer". foundingfuel.com. Retrieved 4 April 2017. 
  42. Adams, Jill U. "Complex Genomes: Shotgun Sequencing". nature.com. Retrieved 31 March 2017. 
  43. Kuhn, Robert M.; Haussler, David; Kent, W. James. "The UCSC genome browser and associated tools". doi:10.1093/bib/bbs038. Retrieved 31 March 2017. 
  44. "Roche to close 454 Life Sciences as it reduces gene sequencing focus". fiercebiotech.com. Retrieved 4 April 2017. 
  45. Patrick, Kristin L. "454 Life Sciences: Illuminating the future of genome sequencing and personalized medicine". PMC 2347365Freely accessible. Retrieved 4 April 2017. 
  46. Reuter, Jason A.; Spacek, Damek; Snyder, Michael P. "High-Throughput Sequencing Technologies". doi:10.1016/j.molcel.2015.05.004. Retrieved 31 March 2017. 
  47. Sharma, Vinay. Text Book of Bioinformatics. Retrieved 31 March 2017. 
  48. "Integromics S.L.". life-sciences-spain.com. Retrieved 4 April 2017. 
  49. Genome Mapping and Genomics in Human and Non-Human Primates (Ravindranath Duggirala, Laura Almasy, Sarah Williams-Blangero, Solomon F.D. Paul, Chittaranjan Kole ed.). Retrieved 31 March 2017. 
  50. Advances in Malaria Research (Deepak Gaur, Virander S. Chauhan, Chetan E. Chitnis ed.). Retrieved 31 March 2017. 
  51. "Polony Sequencing". snipcademy.com. Retrieved 1 April 2017. 
  52. Essentials of Medical Genetics for Health Professionals. Retrieved 31 March 2017. 
  53. Renaissance of Sickle Cell Disease Research in the Genome Era (Betty S Pace ed.). Retrieved 31 March 2017. 
  54. 54.0 54.1 Bouchard, Claude. Molecular and Cellular Regulation of Adaptation to Exercise. Retrieved 31 March 2017. 
  55. "Pacific Biosciences' $600 Million Decoder Ring". bloomberg.com. Retrieved 1 April 2017. 
  56. "Oxford Nanopore Technologies". crunchbase.com. Retrieved 1 April 2017. 
  57. Tag-based Next Generation Sequencing (Matthias Harbers, Guenter Kahl, Günter Kahl ed.). Retrieved 31 March 2017. 
  58. "Complete Genomics Sequences 14 Genomes". technologyreview.com. Retrieved 4 April 2017. 
  59. "The Gene Factory". newyorker.com. Retrieved 4 April 2017. 
  60. El-Metwally, Sara; Ouda, Osama M.; Helmy, Mohamed. Next Generation Sequencing Technologies and Challenges in Sequence Assembly. Retrieved 31 March 2017. 
  61. "History of Genomics". news-medical.net. Retrieved 31 March 2017. 
  62. 62.0 62.1 62.2 "Next-Gen Sequencing Is A Numbers Game". acs.org. Retrieved 4 April 2017. 
  63. Hillert, Dieter. The Nature of Language: Evolution, Paradigms and Circuits. Retrieved 31 March 2017. 
  64. Masoudi-Nejad, Ali; Narimani, Zahra; Hosseinkhan, Nazanin. Next Generation Sequencing and Sequence Assembly: Methodologies and Algorithms. Retrieved 1 April 2017. 
  65. "The Louis-Jeantet Prize 2013: Michael Stratton, Peter Hegemann and Georg Nagel". doi:10.1002/emmm.201202394. Retrieved 1 April 2017. 
  66. "How is the completed human genome sequence being used?". yourgenome.org. Retrieved 31 March 2017. 
  67. "Ancient DNA reveals secrets of human history". nature.com. Retrieved 29 March 2017. 
  68. "A tale of three next generation sequencing platforms: comparison of Ion Torrent, Pacific Biosciences and Illumina MiSeq sequencers". BMC Genomics. doi:10.1186/1471-2164-13-341. Retrieved 1 April 2017. 
  69. "ENCODE: the rough guide to the human genome". Discover Magazine. Retrieved 31 March 2017. 
  70. "Natural DNA Cannot Be Patented, Supreme Court Rules". npr.org. Retrieved 29 March 2017. 
  71. The Zebrafish: Genetics, Genomics, and Transcriptomics. Retrieved 29 March 2017. 
  72. "Genomics England". wellcomegenomecampus.org. Retrieved 4 April 2017.