DNA/Timelines: Difference between revisions

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:'''1866''': [[Gregor Mendel]] identifies inheritance "factors" in pea plants.
:'''1866''': [[Gregor Mendel]] identifies inheritance "factors" in pea plants.
:'''1869''': [[Friedrich Miescher]] isolates “nuclein” (DNA) from infected wounds.
:'''1869''': [[Friedrich Miescher]] isolates “nuclein” (DNA) from infected wounds.
:'''1900''': [[Karl Correns]], [[Hugo de Vries]] and [[Erich von Tschermak]] independently rediscover Medel's laws.
:'''1900''': [[Karl Correns]], [[Hugo de Vries]] and [[Erich von Tschermak]] independently rediscover Mendel's laws.
:'''1910''': [[Thomas Hunt Morgan]] Proposed a theory of sex-linked inheritance for the first mutation discovered in the fruit fly, Drosophila, white eye.  
:'''1910''': [[Thomas Hunt Morgan]] Proposed a theory of sex-linked inheritance for the first mutation discovered in the fruit fly, [[Drosophila]], white eye.  
:'''1913''': Morgan and [[Alfred Sturtevant]] at Columbia University Propose the gene theory, including the principle of linkage leading to the first genetic map.  
:'''1913''': Morgan and [[Alfred Sturtevant]] at Columbia University Propose the gene theory, including the principle of linkage leading to the first genetic map.  
:'''1927''': [[Hermann J. Muller]] Used x-rays to cause artificial gene mutations in Drosophila.
:'''1927''': [[Hermann J. Muller]] Used x-rays to cause artificial gene mutations in Drosophila.
:'''1928''': [[Frederick Griffith]] demonstrates a "transforming factor" that can transmit the ability of bacteria to cause pneumonia in mice.
:'''1928''': [[Frederick Griffith]] demonstrates a "transforming factor" that can transmit the ability of [[bacteria]] to cause [[pneumonia]] in mice.
:'''1929''': [[Phoebus Levene]] describes building blocks of DNA, including four types of base A,C, T, and G.
:'''1929''': [[Phoebus Levene]] describes building blocks of DNA, including four types of base A,C, T, and G.
:'''1931''': [[Harriet B. Creighton]] and [[Barbara McClintock]] Demonstrated the cytological proof for crossing-over in maize.
:'''1931''': [[Harriet B. Creighton]] and [[Barbara McClintock]] Demonstrated the cytological proof for crossing-over in [[maize]].
:'''1941''': [[George Beadle]] [[Edward Tatum]] prove that a gene can produce its effect by regulating particular enzymes.
:'''1941''': [[George Beadle]] [[Edward Tatum]] prove that a gene can produce its effect by regulating particular enzymes.
:'''1944''': [[Oswald Avery]], [[Colin MacLeod]], and [[Maclyn McCarty]] purified the transforming factor proposed in Griffith's experiment and show it is not protein, but DNA.
:'''1944''': [[Oswald Avery]], [[Colin MacLeod]], and [[Maclyn McCarty]] purified the transforming factor proposed in Griffith's experiment and show it is not protein, but DNA.
:'''Late 1940s''': Barbara McClintock developed the hypothesis of transposable elements.
:'''Late 1940s''': Barbara McClintock developed the hypothesis of [[transposable element]]s.
:'''1950''': [[Alfred Hershey]] and [[Martha Chase]] use bacteriophage to confirm DNA is the molecule of heredity.  
:'''1950''': [[Alfred Hershey]] and [[Martha Chase]] use [[bacteriophage]] to confirm DNA is the molecule of heredity.  
:'''1950''': [[Erwin Chargaff]] discovered a one-to-one ratio of A:T and G:C in DNA samples from a variety of organisms.
:'''1950''': [[Erwin Chargaff]] discovered a one-to-one ratio of A:T and G:C in DNA samples from a variety of organisms.
:'''1951''': [[Rosalind Franklin]] Obtained a high quality X-ray diffraction photograph to reveal more detail of the repeating structure of DNA.
:'''1951''': [[Rosalind Franklin]] Obtained a high quality [[X-ray diffraction]] photograph to reveal more detail of the repeating structure of DNA.
:'''1953''': [[Francis Crick]] and [[James Watson]] deduce the three-dimensional structure of the DNA molecule using a combination of experimental data and model building.
:'''1953''': [[Francis Crick]] and [[James Watson]] deduce the three-dimensional structure of the DNA molecule using a combination of experimental data and model building.
:'''1958''': [[Arthur Kornberg]] purified a DNA polymerase from bacteria, and used it to synthesis DNA in a test tube.
:'''1958''': [[Arthur Kornberg]] purified a [[DNA polymerase]] from bacteria, and used it to synthesis DNA in a test tube.
:'''1958''': [[Matthew Meselson]] and [[Franklin Stahl]] demonstrate that DNA replicates by a semi-conservative mechanism.
:'''1958''': [[Matthew Meselson]] and [[Franklin Stahl]] demonstrate that DNA replicates by a semi-conservative mechanism.
:'''1966''': [[Marshall Nirenberg]] and [[Gobind Khorana]] crack the genetic code linking the DNA sequence of nucleotides to the protein sequence of amino acid residues.
:'''1966''': [[Marshall Nirenberg]] and [[Gobind Khorana]] crack the [[genetic code]] linking the DNA sequence of nucleotides to the protein sequence of amino acid residues.
:'''1967''': Discovery of DNA ligase
:'''1967''': Discovery of [[DNA ligase]].
:'''1969''': FISH  
:'''1969''': FISH  
:'''1970''': [[Howard Temin]] discovers the of activity of reverse transcriptase.
:'''1970''': [[Howard Temin]] discovers the of activity of [[reverse transcriptase]].
:'''1970''': [[Hamilton Smith]] and [[Kent Wilcox]] isolate the first [[restriction enzyme, HindII, that cuts DNA at a very specific nucleotide sequence. Over the next few years, several more restriction enzymes will be isolated.
:'''1970''': [[Hamilton Smith]] and [[Kent Wilcox]] isolate the first [[restriction enzyme]], HindII, that cuts DNA at a very specific nucleotide sequence. Over the next few years, several more restriction enzymes will be isolated.
:'''1972''': [[Paul Berg]] creates the first recombinant DNA molecules, using restriction enzymes. This technology will be the beginning of the biotechnology industry.
:'''1972''': [[Paul Berg]] creates the first recombinant DNA molecules, using restriction enzymes. This technology will be the beginning of the biotechnology industry.
:'''1973''': [[Annie Chang]] and [[Stanley Cohen]] Showed that a recombinant DNA molecule can be maintained and replicated in E. coli.
:'''1973''': [[Annie Chang]] and [[Stanley Cohen]] Showed that a recombinant DNA molecule can be maintained and replicated in E. coli.
:'''1973''': [[Joseph Sambrook]] refined [[DNA electrophoresis (first described in 1953) by using agarose gel and staining with ethidium bromide.
:'''1973''': [[Joseph Sambrook]] refined [[DNA electrophoresis (first described in 1953) by using agarose gel and staining with [[ethidium bromide]].
:'''1975''': An International meeting at [[Asilomar, California]] provided guidelines regulating recombinant DNA experimentation.
:'''1975''': An International meeting at [[Asilomar, California]] provided guidelines regulating recombinant DNA experimentation.
:'''1975''': [[Ed Southern]] develops the [[Southern blot]] for DNA. This name inspires similar blotting techniques for  RNA ([[northern blot]]) and protein ([[western blot]]). (Milestone 6)
:'''1975''': [[Ed Southern]] develops the [[Southern blot]] for DNA. This name inspires similar blotting techniques for  RNA ([[northern blot]]) and protein ([[western blot]]). (Milestone 6)
:'''1976''': [[Herbert Boyer]] cofounds Genentech, the first firm founded in the United States to apply recombinant DNA technology
:'''1976''': [[Herbert Boyer]] cofounds [[Genentech]], the first firm founded in the United States to apply recombinant DNA technology
:'''1977''': [[Frederick Sanger]], [[Allan Maxam]], and [[Walter Gilbert]] developed the chain termination (dideoxy) method for sequencing DNA.
:'''1977''': [[Frederick Sanger]], [[Allan Maxam]], and [[Walter Gilbert]] developed the chain termination (dideoxy) method for sequencing DNA.
:'''1978''': Somatostatin, which regulates human growth hormones, is the first human protein made using recombinant technology.
:'''1978''': [[Somatostatin]], which regulates [[human growth hormone]]s, is the first human protein made using recombinant technology.
:'''1980''': [[Mark Skolnick]], [[Ray White]], [[David Botstein]], and [[Ronald Davis]] create RFLP marker map of human genome.
:'''1980''': [[Mark Skolnick]], [[Ray White]], [[David Botstein]], and [[Ronald Davis]] create [[RFLP marker]] map of [[human genome]].
:'''1981''': Three independent research teams announced the discovery of human oncogenes (cancer genes).
:'''1981''': Three independent research teams announced the discovery of human [[oncogene]]s (cancer genes).
:'''1983''': [[James Gusella]] demonstrate that the Huntington's disease gene is on chromosome 4.
:'''1983''': [[James Gusella]] demonstrate that the [[Huntington's disease]] gene is on chromosome 4.
:'''1985''': [[Kary B. Mullis]] publishes a paper describing the polymerase chain reaction (PCR) a technique to amplify specific DNA sequences from minutes quantities of starting material.
:'''1985''': [[Kary B. Mullis]] publishes a paper describing the [[polymerase chain reaction]] (PCR) a technique to amplify specific DNA sequences from minutes quantities of starting material.
:'''1985''': [[Alec Jeffreys]] devises a technique that uses DNA polymorphisms to distinguish between different individuals. He later coined the term DNA fingerprinting and this is now impotant for many paternity, immigration, and murder cases.  
:'''1985''': [[Alec Jeffreys]] devises a technique that uses DNA polymorphisms to distinguish between different individuals. He later coined the term [[DNA fingerprinting]] and this is now impotant for many paternity, immigration, and murder cases.  
:'''1986''': [[Leroy Hood]] and Lloyd Smith]] automate DNA sequencing with the goal of sequencing whole genomes.  
:'''1986''': [[Leroy Hood]] and [[Lloyd Smith]] automate DNA sequencing with the goal of sequencing whole genomes.  
:'''1987''': US DOE officially begins human genome project.
:'''1987''': US DOE officially begins [[human genome project]].
:'''1990''': [[BLAST algorithm]] developed to align DNA sequences and is the key to comparative genomics.
:'''1990''': [[BLAST algorithm]] developed to align DNA sequences and is the key to comparative genomics.
:'''1990''': The first occurance of gene replacement therapy to repair a defective ADA gene in a four year old girls T-cells.
:'''1990''': The first occurance of gene replacement therapy to repair a defective ADA gene in a four year old girls T-cells.
:'''1993''': FlavrSavr tomatoes are the first genetically modified organisms to be marketed. They were engineered to ripen more slowly for longer shelf life.  
:'''1993''': FlavrSavr tomatoes are the first genetically modified organisms to be marketed. They were engineered to ripen more slowly for longer shelf life.  
:'''1995''': [[Patrick Brown]] and Stanford University colleagues invent DNA microarray technology.
:'''1995''': [[Patrick Brown]] and Stanford University colleagues invent [[DNA microarray]] technology.
:'''1995''': Researchers at The Institute for Genomic Research publish first genome sequence of free-living organism: ''[[Haemophilus influenzae]]''.
:'''1995''': Researchers at The Institute for Genomic Research publish first genome sequence of free-living organism: ''[[Haemophilus influenzae]]''.
:'''1998''': NIH begins SNP project to reveal human genetic variation.
:'''1998''': NIH begins SNP project to reveal human genetic variation.

Revision as of 22:49, 30 March 2008

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A timeline (or several) relating to DNA.
1866: Gregor Mendel identifies inheritance "factors" in pea plants.
1869: Friedrich Miescher isolates “nuclein” (DNA) from infected wounds.
1900: Karl Correns, Hugo de Vries and Erich von Tschermak independently rediscover Mendel's laws.
1910: Thomas Hunt Morgan Proposed a theory of sex-linked inheritance for the first mutation discovered in the fruit fly, Drosophila, white eye.
1913: Morgan and Alfred Sturtevant at Columbia University Propose the gene theory, including the principle of linkage leading to the first genetic map.
1927: Hermann J. Muller Used x-rays to cause artificial gene mutations in Drosophila.
1928: Frederick Griffith demonstrates a "transforming factor" that can transmit the ability of bacteria to cause pneumonia in mice.
1929: Phoebus Levene describes building blocks of DNA, including four types of base A,C, T, and G.
1931: Harriet B. Creighton and Barbara McClintock Demonstrated the cytological proof for crossing-over in maize.
1941: George Beadle Edward Tatum prove that a gene can produce its effect by regulating particular enzymes.
1944: Oswald Avery, Colin MacLeod, and Maclyn McCarty purified the transforming factor proposed in Griffith's experiment and show it is not protein, but DNA.
Late 1940s: Barbara McClintock developed the hypothesis of transposable elements.
1950: Alfred Hershey and Martha Chase use bacteriophage to confirm DNA is the molecule of heredity.
1950: Erwin Chargaff discovered a one-to-one ratio of A:T and G:C in DNA samples from a variety of organisms.
1951: Rosalind Franklin Obtained a high quality X-ray diffraction photograph to reveal more detail of the repeating structure of DNA.
1953: Francis Crick and James Watson deduce the three-dimensional structure of the DNA molecule using a combination of experimental data and model building.
1958: Arthur Kornberg purified a DNA polymerase from bacteria, and used it to synthesis DNA in a test tube.
1958: Matthew Meselson and Franklin Stahl demonstrate that DNA replicates by a semi-conservative mechanism.
1966: Marshall Nirenberg and Gobind Khorana crack the genetic code linking the DNA sequence of nucleotides to the protein sequence of amino acid residues.
1967: Discovery of DNA ligase.
1969: FISH
1970: Howard Temin discovers the of activity of reverse transcriptase.
1970: Hamilton Smith and Kent Wilcox isolate the first restriction enzyme, HindII, that cuts DNA at a very specific nucleotide sequence. Over the next few years, several more restriction enzymes will be isolated.
1972: Paul Berg creates the first recombinant DNA molecules, using restriction enzymes. This technology will be the beginning of the biotechnology industry.
1973: Annie Chang and Stanley Cohen Showed that a recombinant DNA molecule can be maintained and replicated in E. coli.
1973: Joseph Sambrook refined [[DNA electrophoresis (first described in 1953) by using agarose gel and staining with ethidium bromide.
1975: An International meeting at Asilomar, California provided guidelines regulating recombinant DNA experimentation.
1975: Ed Southern develops the Southern blot for DNA. This name inspires similar blotting techniques for RNA (northern blot) and protein (western blot). (Milestone 6)
1976: Herbert Boyer cofounds Genentech, the first firm founded in the United States to apply recombinant DNA technology
1977: Frederick Sanger, Allan Maxam, and Walter Gilbert developed the chain termination (dideoxy) method for sequencing DNA.
1978: Somatostatin, which regulates human growth hormones, is the first human protein made using recombinant technology.
1980: Mark Skolnick, Ray White, David Botstein, and Ronald Davis create RFLP marker map of human genome.
1981: Three independent research teams announced the discovery of human oncogenes (cancer genes).
1983: James Gusella demonstrate that the Huntington's disease gene is on chromosome 4.
1985: Kary B. Mullis publishes a paper describing the polymerase chain reaction (PCR) a technique to amplify specific DNA sequences from minutes quantities of starting material.
1985: Alec Jeffreys devises a technique that uses DNA polymorphisms to distinguish between different individuals. He later coined the term DNA fingerprinting and this is now impotant for many paternity, immigration, and murder cases.
1986: Leroy Hood and Lloyd Smith automate DNA sequencing with the goal of sequencing whole genomes.
1987: US DOE officially begins human genome project.
1990: BLAST algorithm developed to align DNA sequences and is the key to comparative genomics.
1990: The first occurance of gene replacement therapy to repair a defective ADA gene in a four year old girls T-cells.
1993: FlavrSavr tomatoes are the first genetically modified organisms to be marketed. They were engineered to ripen more slowly for longer shelf life.
1995: Patrick Brown and Stanford University colleagues invent DNA microarray technology.
1995: Researchers at The Institute for Genomic Research publish first genome sequence of free-living organism: Haemophilus influenzae.
1998: NIH begins SNP project to reveal human genetic variation.
1999: First human chromosome sequence published.
2000: Fruit fly genome sequenced using Celera’s whole-genome shotgun method.
2001: Science and Nature publish annotations and analyses of human genome.
2005: HapMap published giving a huge resource of SNP's and information relating to human variation.