Genetics in data: Difference between revisions
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| style="width: 5%; text-align: center;"| 1970-80|| style="width: 25%;"| John M. Bishop, Harold E. Varmus || style="width: 70%;"| Study of the relationship of retroviruses to the development of malignant tumors, discovery of the first human oncogene "c-src"; '''1989 Nobel Prize'''' ([[Oncoviruses]], [[(Proto)oncogenes]]) | | style="width: 5%; text-align: center;"| 1970-80|| style="width: 25%;"| John M. Bishop, Harold E. Varmus || style="width: 70%;"| Study of the relationship of retroviruses to the development of malignant tumors, discovery of the first human oncogene "c-src"; '''1989 Nobel Prize'''' ([[Oncoviruses]], [[(Proto)oncogenes]]) | ||
|- | |- | ||
| style="width: 5%; text-align: center;"| 1975|| style="width: 25%;"| Edwin Mellor Southern|| style="width: 70%;"| | | style="width: 5%; text-align: center;"| 1975|| style="width: 25%;"| Edwin Mellor Southern|| style="width: 70%;"| Developed the [[DNA]] hybridization method in gel electrophoresis to identify a specific DNA sequence ([[DNA hybridization]], [[Southern blot]]) | ||
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| style="width: 5%; text-align: center;"| 1975|| style="width: 25%;"|John Foxton Ross Kerr|| style="width: 70%;"| | | style="width: 5%; text-align: center;"| 1975|| style="width: 25%;"|John Foxton Ross Kerr|| style="width: 70%;"| He first described apoptosis – the genetically programmed death of cells; '''Nobel Prize 2002''' - Sydney Brenner, H. Robert Horvitz, John E. Sulston - was awarded for the discoveries of genetic regulation of organ development and apoptosis ([[Embryonic development]], [[Aging of the organism]]) | ||
|- | |- | ||
| style="width: 5%; text-align: center;"| 1975-77|| style="width: 25%;"| Frederick Sanger, Walter Gilbert, Paul Berg|| style="width: 70%;"| | | style="width: 5%; text-align: center;"| 1975-77|| style="width: 25%;"| Frederick Sanger, Walter Gilbert, Paul Berg|| style="width: 70%;"| They developed DNA sequencing techniques; '''1980 Nobel Prize''' ([[DNA]]; [[Sequencing]]); Frederick Sanger won '''already one Nobel Prize in 1958'''' for determining the polypeptide chain of insulin ([[Genetics of "Civilization" Diseases]]) | ||
|- | |- | ||
| style="width: 5%; text-align: center;"| 1976|| style="width: 25%;"|Harald zur Hausen|| style="width: 70%;"| | | style="width: 5%; text-align: center;"| 1976|| style="width: 25%;"|Harald zur Hausen|| style="width: 70%;"| Discovery of the papillomavirus, which is the cause of cervical cancer; '''Nobel Prize 2008'''' ([[Viral Carcinogenesis]]) | ||
|- | |- | ||
| style="width: 5%; text-align: center;"| 1977|| style="width: 25%;"| Richard John Roberts, Phillip Allen Sharp|| style="width: 70%;"| | | style="width: 5%; text-align: center;"| 1977|| style="width: 25%;"| Richard John Roberts, Phillip Allen Sharp|| style="width: 70%;"| They independently discovered the division of genes of eukaryotic cells into sections (introns and exons) and the cutting of introns from mRNA (gene-splicing); '''1993 Nobel Prize'''' ([[Gene Structure]], [[Post-Transcriptional Modifications]]) | ||
|- | |- | ||
| style="width: 5%; text-align: center;"| 1982|| style="width: 25%;"| Stanley B. Prusiner|| style="width: 70%;"| | | style="width: 5%; text-align: center;"| 1982|| style="width: 25%;"| Stanley B. Prusiner|| style="width: 70%;"| He formulated a theory about a new causative agent of infectious diseases of the nervous system; discovery of prions; '''1997 Nobel Prize'''' ([[Prions]]) | ||
|- | |- | ||
| style="width: 5%; text-align: center;"| 1983|| style="width: 25%;"|Francoise Barréová-Sinoussiová, Luc Montagnier|| style="width: 70%;"| | | style="width: 5%; text-align: center;"| 1983|| style="width: 25%;"|Francoise Barréová-Sinoussiová, Luc Montagnier|| style="width: 70%;"| Discovery of HIV (Human Immunodeficiency Virus); '''Nobel Prize 2008'''' – ([[Immunodeficiency]], [[AIDS]]) | ||
|- | |- | ||
| style="width: 5%; text-align: center;"| 1984|| style="width: 25%;"|Elizabeth Blackburnová, Carol Whidney Greiderová, Jack William Szostak|| style="width: 70%;"| | | style="width: 5%; text-align: center;"| 1984|| style="width: 25%;"|Elizabeth Blackburnová, Carol Whidney Greiderová, Jack William Szostak|| style="width: 70%;"| Discovery of telomeres (protection of the ends of linear chromosomes) and the enzyme telomerase; '''Nobel Prize 2009'''' - ([[Telomeres and telomerase]]) | ||
|- | |- | ||
| style="width: 5%; text-align: center;"| 1985|| style="width: 25%;"| Kary Banks Mullis s kolegy|| style="width: 70%;"| | | style="width: 5%; text-align: center;"| 1985|| style="width: 25%;"| Kary Banks Mullis s kolegy|| style="width: 70%;"| He developed the PCR (Polymerase Chain Reaction) method, which makes it possible to multiply a selected section of hereditary information even from a single DNA molecule; '''Nobel Prize 1993''' - ([[DNA]], [[Polymerase Chain Reaction]]) | ||
|- | |- | ||
| style="width: 5%; text-align: center;"| 1988-2001|| style="width: 25%;"| Projekt HUGO|| style="width: 70%;"| | | style="width: 5%; text-align: center;"| 1988-2001|| style="width: 25%;"| Projekt HUGO|| style="width: 70%;"| Human Genome Sequencing; The International Human Genome Project Consortium and the American private company Celera Genomics - "rough" reading of the genome ([[DNA]], [[Genome Mapping]]) | ||
|- | |- | ||
| style="width: 5%; text-align: center;"| 1989|| style="width: 25%;"|Mario Renato Capecchi, Martin Evans, Oliver Smithies|| style="width: 70%;"| | | style="width: 5%; text-align: center;"| 1989|| style="width: 25%;"|Mario Renato Capecchi, Martin Evans, Oliver Smithies|| style="width: 70%;"| Study of embryonic development – mouse embryonic stem cells, knockout mice; '''Nobel Prize 2007''' - ([[Stem cells]], [[Knockout mouse]], [[Mus musculus]]) | ||
|- | |- | ||
| style="width: 5%; text-align: center;"| 1990|| style="width: 25%;"| Stephen F. Altshul, Gish W., David J. Lipmann, Miller W., Eugene Wilson Meyers|| style="width: 70%;"| | | style="width: 5%; text-align: center;"| 1990|| style="width: 25%;"| Stephen F. Altshul, Gish W., David J. Lipmann, Miller W., Eugene Wilson Meyers|| style="width: 70%;"| They created the BLAST (Basic Local Alignment Search Tool) algorithm for calculating sequence similarity and then searching for genes and proteins based on mutual homology ([[in silico – computer models]]) | ||
|- | |- | ||
| style="width: 5%; text-align: center;"| 1990|| style="width: 25%;"| William French Anderson|| style="width: 70%;"| | | style="width: 5%; text-align: center;"| 1990|| style="width: 25%;"| William French Anderson|| style="width: 70%;"| The first performed gene therapy on a 4-year-old child suffering from immunodeficiency ([[SCID]] – Severe Combined Immunodeficiency); the treatment result was partial. 2001 Alan Fisher cured SCID ([[Immunodeficiency]]) with gene therapy | ||
|- | |- | ||
| style="width: 5%; text-align: center;"| 1996|| style="width: 25%;"| ovce Dolly|| style="width: 70%;"| | | style="width: 5%; text-align: center;"| 1996|| style="width: 25%;"| ovce Dolly|| style="width: 70%;"| First cloning of a mammal from a single body cell ([[Stem cells]]) | ||
|- | |- | ||
| style="width: 5%; text-align: center;"| 1998|| style="width: 25%;"| Andrew Z. Fire, Craig C. Mello|| style="width: 70%;"| | | style="width: 5%; text-align: center;"| 1998|| style="width: 25%;"| Andrew Z. Fire, Craig C. Mello|| style="width: 70%;"| Discovery of RNA interference – a system of controlling the activity of some (specific) genes; '''Nobel Prize 2006''' ([[Transcription]], [[RNA interference]]) | ||
|- | |- | ||
| style="width: 5%; text-align: center;"| 2012|| style="width: 25%;"| Jennifer A. Doudna, E. Charpentier|| style="width: 70%;"| | | style="width: 5%; text-align: center;"| 2012|| style="width: 25%;"| Jennifer A. Doudna, E. Charpentier|| style="width: 70%;"| Targeted genome editing using CRISPR/Cas9; '''Nobel Prize 2020''' | ||
|} | |} | ||
== | == Gallery of personalities == | ||
<gallery caption="Významné osobnosti historie genetiky" heights="150"> | <gallery caption="Významné osobnosti historie genetiky" heights="150"> | ||
Image:Gregor Mendel.png|Johann Gregor Mendel (1822–1884) | Image:Gregor Mendel.png|Johann Gregor Mendel (1822–1884) | ||
Image:Walther flemming.gif|Walther Flemming (1843–1905) | Image:Walther flemming.gif|Walther Flemming (1843–1905) | ||
Image:LandsteinerWS.jpg|Karl Landsteiner (1868–1943) | |||
Image:Thomas Hunt Morgan.jpg|Thomas Hunt Morgan (1866–1945) | |||
Image:Oswald T. Avery portrait 1937.jpg|Oswald Theodore Avery (1877–1955) | |||
Image:Barbara McClintock (1902-1992).jpg|Barbara McClintock (1902–1992) | |||
Image:Francis Crick.png|Francis Harry Compton Crick (1916–2004) | |||
Image:James Watson.jpg|James Dewey Watson (1928) | |||
</gallery> | </gallery> | ||
<noinclude> | <noinclude> |
Latest revision as of 16:08, 4 February 2023
Období objevu | Osobnost(i) | Objev |
---|---|---|
1865 | Johan Gregor Mendel | Laws of inheritance (Mendel's laws of inheritance) |
1869 | Paul Langerhans | He discovered and described the islets of Langerhans in the pancreas (Diabetes mellitus type I a II) |
1869 | Friedrich Miescher | He isolated DNA for the first time; isolated it in small quantities from white blood cells; was not analyzed further |
1879 | Walther Flemming | Chromosomes in mitosis (Chromosome, Mitosis) |
1892 | Dmitri Ivanowski (Дми́трий Ивано́вский) | The term virus (Virus) |
1908 | Godfrey Harold Hardy a Wilhelm Weinberg | Basic law of population genetics (Hardy-Weinberg equilibrium) |
1909 | Karl Landsteiner | Blood group system AB0 – classification of people into blood groups A, B, AB, 0; 1930 Nobel Prize |
1909 | Thomas Hunt Morgan | Linear arrangement of genes on chromosomes, linkage of genes, phase coupling and repulsion; 1933 Nobel Prize (Gene linkage) |
1910 | Albert Kossel | Cytology - research on proteins and nucleic acids; 1910 Nobel Prize |
1911 | Peyton Rous | Discovery of a virus with oncogenic potential - domestic chicken sarcomas; 1966 Nobel Prize |
1920 | Frederick Banting a John J. R. Macleod | Isolation of an active substance from the pancreas for the treatment of diabetes; 1923 Nobel Prize (Multifactorial inheritance, Autoimmune disease) |
od 1930 | George D. Snell | Discovery of genetic factors that determine the possibility of tissue transplantation, the histocompatibility complex (H-2) of the mouse; 1980 Nobel Prize (Major histocompatibility complex, Transplant laws) |
od 1931 | William Bateson, Reginald Crundall Punnett | Linkage of genes, crossing-over, recombination; (Gene linkage) |
1937-45 | George Wells Beadle, Edward Lawrie Tatum | Biochemical and genetic studies on the microorganism Neurospora - determining the ability of genes to regulate certain chemical reactions; 1958 Nobel Prize' (Cell Signaling) |
1944 | Oswald Avery, Colin MacLeod, Maclyn McCarty | Basic genetic information is stored in DNA |
1940-50 | Barbara McClintock | The genetic map of maize, the role of centromeres and telomeres and the subsequent discovery of genetic transposition - mobile DNA sequences (transpososomes); 1983 Nobel Prize (Transposomes, Centromere, Telomeres) |
1940-60 | Peter Brian Medawar, Frank (Macfarlane) Burnet | Transplantation – discovery of acquired immunological tolerance; 1960 Nobel Prize (Transplant laws, Immunological tolerance) |
1950 a 1970-80 | Edward B. Lewis; Christiane Nusslein-Volhard a Eric F. Wieschaus | Developmental genetics; first Drosophila melanogaster - discovery of the principle of co-linearity (localization of sets of genes on chromosomes is related to the arrangement of body segments). Furthermore, this principle is confirmed for all multicellular animals; 1995 Nobel Prize' (Embryonic Development, Drosophila melanogaster) |
1950-61 | Francois Jacob, André Lwoff, Jacques Monod | Control and regulation of metabolic pathway enzyme expression by feedback with the DNA sequence (for example, ``E. coli/lactose); 1965 Nobel Prize' (Single-cell models, Prokaryotes) |
1950-59 | Stanley Cohen, Rita Levi-Montalcini | Isolation of nerve growth factor (NGF), which led to the discovery of epidermal growth factor; 1986 Nobel Prize' (Cell Signaling, (Proto)oncogenes) |
1953 | James D. Watson, Francis H. C. Crick, Maurice H. Frederics | Determining the structure of DNA; 1962 Nobel Prize |
1956 | Joe Hin Tjio a Albert Levan | Determining the exact number of chromosomes in human somatic cells (Human karyotype) |
1956 | Robert W. Holley, Har. G. Khorana, Marshall W. Nirenberg | Role of RNA in protein synthesis, genetic code and its role in protein biosynthesis; 1968 Nobel Prize' (mRNA, Translation) |
1957 | Arthur Kornberg | While studying the bacterium Escherichia coli, he discovered DNA polymerase; Severo Ochoa and Arthur Kornberg for the discovery of the mechanism of RNA and DNA biosynthesis ' 1959 Nobel Prize |
1958 | Tuneko Okazaki, Reiji Okazaki | Semiconservative replication process, Okazaki fragments |
1958-69 | Earl W. Sutherland, Jr. | Isolation of the hitherto unknown cyclic adenosine monophosphate (cAMP), clarification of its role in the metabolism of some hormones; 1971 Nobel Prize' (Cell Signaling) |
1959 | Jérôme JL Marie Lejeune | Chromosomal basis of Down syndrome - trisomy of chromosome 21 (Down syndrome) |
1960-65 | Baruj Benacerraf, Jean Dausset | Discovery of MHC and characterization of the genes of the major histocompatibility complex (MHC) of humans and subsequently other vertebrates; 1980 Nobel Prize' (HLA) |
od 1960 | Alfred Goodman Gilman, Martin Rodbell | Discovery of G-proteins and elucidation of their role in cell signaling; 1994 Nobel Prize' (Cell Signaling) |
od 1961 | Leonard Hayflick a P. Moorhead | They described a limitation in the number of cell cycles in ``in vitro cultured fibroblasts - the so-called replicative aging (senescence) (Replicative senescence) |
1962 | Werner Aber, Daniel Nathans, Hamilton O. Smith | Discovery of restriction endonucleases; 1978 Nobel Prize' (Restriction fragment length polymorphism) |
1970 | David Baltimore, Renato Dulbecco, Howard M. Temin | Oncovirology – interaction of retroviruses with the genetic material of the cell, reverse transcription; 1975 Nobel Prize' (Viral carcinogenesis) |
1970-71 | Leland Harrison Hartwell, Richard Timothy Hunt, Paul Maxime Nurse | During the study of the cell cycle of yeast (Saccharomyces cerevisiae), genes regulating the cell cycle were discovered; discovery of homologous genes in humans (cyclins and cyclin-dependent protein kinases) (Cell cycle, (Proto)oncogenes) |
1970-80 | Susumu Tonegawa | Analysis of DNA of the B cells (experiments on mice), discovery of the genetic principle of antibody diversity; 1987 Nobel Prize' (Gene Control of Antibody Formation) |
1970-80 | John M. Bishop, Harold E. Varmus | Study of the relationship of retroviruses to the development of malignant tumors, discovery of the first human oncogene "c-src"; 1989 Nobel Prize' (Oncoviruses, (Proto)oncogenes) |
1975 | Edwin Mellor Southern | Developed the DNA hybridization method in gel electrophoresis to identify a specific DNA sequence (DNA hybridization, Southern blot) |
1975 | John Foxton Ross Kerr | He first described apoptosis – the genetically programmed death of cells; Nobel Prize 2002 - Sydney Brenner, H. Robert Horvitz, John E. Sulston - was awarded for the discoveries of genetic regulation of organ development and apoptosis (Embryonic development, Aging of the organism) |
1975-77 | Frederick Sanger, Walter Gilbert, Paul Berg | They developed DNA sequencing techniques; 1980 Nobel Prize (DNA; Sequencing); Frederick Sanger won already one Nobel Prize in 1958' for determining the polypeptide chain of insulin (Genetics of "Civilization" Diseases) |
1976 | Harald zur Hausen | Discovery of the papillomavirus, which is the cause of cervical cancer; Nobel Prize 2008' (Viral Carcinogenesis) |
1977 | Richard John Roberts, Phillip Allen Sharp | They independently discovered the division of genes of eukaryotic cells into sections (introns and exons) and the cutting of introns from mRNA (gene-splicing); 1993 Nobel Prize' (Gene Structure, Post-Transcriptional Modifications) |
1982 | Stanley B. Prusiner | He formulated a theory about a new causative agent of infectious diseases of the nervous system; discovery of prions; 1997 Nobel Prize' (Prions) |
1983 | Francoise Barréová-Sinoussiová, Luc Montagnier | Discovery of HIV (Human Immunodeficiency Virus); Nobel Prize 2008' – (Immunodeficiency, AIDS) |
1984 | Elizabeth Blackburnová, Carol Whidney Greiderová, Jack William Szostak | Discovery of telomeres (protection of the ends of linear chromosomes) and the enzyme telomerase; Nobel Prize 2009' - (Telomeres and telomerase) |
1985 | Kary Banks Mullis s kolegy | He developed the PCR (Polymerase Chain Reaction) method, which makes it possible to multiply a selected section of hereditary information even from a single DNA molecule; Nobel Prize 1993 - (DNA, Polymerase Chain Reaction) |
1988-2001 | Projekt HUGO | Human Genome Sequencing; The International Human Genome Project Consortium and the American private company Celera Genomics - "rough" reading of the genome (DNA, Genome Mapping) |
1989 | Mario Renato Capecchi, Martin Evans, Oliver Smithies | Study of embryonic development – mouse embryonic stem cells, knockout mice; Nobel Prize 2007 - (Stem cells, Knockout mouse, Mus musculus) |
1990 | Stephen F. Altshul, Gish W., David J. Lipmann, Miller W., Eugene Wilson Meyers | They created the BLAST (Basic Local Alignment Search Tool) algorithm for calculating sequence similarity and then searching for genes and proteins based on mutual homology (in silico – computer models) |
1990 | William French Anderson | The first performed gene therapy on a 4-year-old child suffering from immunodeficiency (SCID – Severe Combined Immunodeficiency); the treatment result was partial. 2001 Alan Fisher cured SCID (Immunodeficiency) with gene therapy |
1996 | ovce Dolly | First cloning of a mammal from a single body cell (Stem cells) |
1998 | Andrew Z. Fire, Craig C. Mello | Discovery of RNA interference – a system of controlling the activity of some (specific) genes; Nobel Prize 2006 (Transcription, RNA interference) |
2012 | Jennifer A. Doudna, E. Charpentier | Targeted genome editing using CRISPR/Cas9; Nobel Prize 2020 |
Gallery of personalities[edit | edit source]
- Významné osobnosti historie genetiky