Forensic Serology and DNA Analysis Time Line
384 |
Sen-en-Roku, treatise on mixing blood of parties in a paternity dispute. |
1663 |
Hume II, used bloodstains to corroborate a crime or supply additional evidence. |
1247 |
R. Hooke first to describe cells [Ref. 6, p. 22]. |
1800 |
Karl Friedrich Burdach, coins term "Biology", study of human morphology, physiology and psychology [Ref. 6, p. 22]. |
1828 |
French Royal Academy of Medicine show record of French experts working on blood stain detection [Ref. 22, p. 22]. |
1840 |
Quetelet, Belgian statistician, considered the father of modern statistics, stated no two human being were exactly the same size [Ref. 12, p. 41]. |
1850ca |
Teichman Test, forms hematin crystals, when suspect area dissolved in sodium chloride and acetic acid [Ref. 29, p. 23]. |
1862 |
Van Deen's, Day's or "Antozone" test, blood, in presence of peroxide, turned guaiacum blue [Ref. 7, p. 18]. |
1863 |
Schönbein (Ger.) found enzyme in hemoglobin which causes foaming upon reaction with hydrogen peroxide. Very sensitive technique to confirm the presence of blood even when it had been washed away [Ref. 29, p. 23].
Gregor Mendel discovers hereditary traits, later called "genes" [Ref. 6, p. 22]. |
1864 |
Ernst Felix Emmanuel Hioppe-Seyler crystallizes the hemoglobin protein [Ref. 6, p. 22]. |
1866 |
Ernst Heinrich Häckel theorizes that hereditary information transmitted by nucleus of the cell [Ref. 6, p. 22]. |
1871 |
Miescher isolates "nuclein" from white blood cells, later known as nucleic acid or DNA [Ref. 6, p. 22]. |
1878 |
Carl de Laval invents the first centrifuge [Ref. 6, p. 22]. |
1900 |
Landsteiner blood differences between persons, the four blood groups [Ref. 2, p. 11], first human polymorphism [Ref. 7, p. 21].
Merck, benzidine-hydrogen peroxide test, identify peroxidase in blood cells [Ref. 4, p. 12].
DeVries, Correns and Tschermak-Seysenegg verify Mendel's principles, beginning of modern genetics [Ref. 6, p. 22]. |
1901 |
Dr. Paul Uhlenhuth, Precipitin Test, protein used to distinguish human from animal blood [Ref. 2, p. 11]. |
1900ca |
O. and R. Adler, benzidine test, coloring the solution blue in the presence of trace amounts of blood [Ref. 29, p. 23]. |
1912 |
Takayama test, identification of pyridine-hemochromogen crystals, common pre-screening tests for blood [Ref. 7, p. 19]. |
1916 |
Lattes, first reported criminal case where blood groups were differentiated [Ref. 7, p. 22]. |
1925 |
Theodor Svedberg invents the ultracentrifuge [Ref. 6, p. 22].
80% of human population secrete their blood groups through their body fluids [Ref. 1, p. 364]. |
1927 |
Landsteiner and Levine discover MN system for distinguishing blood samples (second human polymorphism) [Ref. 7, p. 22]. |
1928 |
Cuboni, A and B agglutinogens present in blood and other body fluids, saliva, tears, nasal discharge, urine, semen [Ref. 12, p. 234]. |
1929 |
Hooker and Boyd, blood groups cannot confirm paternity of a father, but can establish innocence [Ref. 12, p. 238]. |
1930 |
Frank Holzer, absorption-inhibition for Landsteiner's ABO typing system, based on the blood absorption of antiserum [Ref. 4, p. 105]. |
1931 |
Pierre Medinger, leuco malachite test for blood, most sensitive and specific at the time [Ref. 12, p. 226]. |
1935 |
Alexander Weiner, forensic use of absorption-inhibition test to identify blood groups on dried blood [Ref. 7, p. 22]. |
1937 |
Walter Specht, chemiluminescence by reagent luminol, glows in dark when in contact with latent blood evidence [Ref. 29, p. 84]. |
1938 |
"The term 'molecular biology' is coined" [Ref. 6, p. 22]. |
1940 |
Landsteiner and Weiner identify the Rh blood group system (human polymorphism) [Ref. 7, p. 23]. |
1944 |
Avery, MacLeod and McCarty, study bacterial transformation [Ref. 6, p. 22], show DNA is primary source of genetic [Ref. 7, p. 33]. |
1949 |
Barr and Bertram, distinguish cell nuclei of male and female body cells [Ref. 1, p. 368]. |
1952 |
Hershey and Chase bacteriophage research show DNA alone carries all genetic information [Ref. 6, p. 22]. |
1953 |
Watson and Crick describe the molecular structure of DNA [Ref. 6, p. 22]. |
1956 |
Arthur Kornberg discovers polymerase I, leads to a better explanation of DNA replication [Ref. 6, p. 22]. |
1971 |
Culliford refined the 1965 introduction of electrophoretic separation of Isoenzymes and proteins to forensic biology in The Examination and Typing of Bloodstains in the Crime Laboratory [Ref. 6, p. 24]. |
1975 |
E. M. Southern transfers DNA to a solid support (Southern Blot) for analysis of genetic markers or DNA probes in forensic biology [Ref. 7, p. 37]. |
1978 |
Wraxall and Storolow, Bloodstain Analysis System (BAS) or the "multisystem" method, simultaneous identification of different markers (PGM, EsD, GloI, ACP1, AK, ADA, Gc and Hp, using one of three separate electrophoretic protocols [Ref. 7, p. 25-26]. |
1980 |
Variable number tandem repeat (VNTR), by Wyman and White, type of RFLP (see 1985) used in forensic DNA analysis [Ref. 7, p. 8]. |
1983 |
Kerry Mullis, creates the polymerase chain reaction (PCR), method for cloning DNA fragments [Ref. 6, p. 24]. |
1984 |
Dr. Alec Jeffreys, FRS, Lister Institute of Leicester University, England, discovers within the DNA molecule a sequence of information that when visualized on x-ray film is non-repeating between individuals [Ref. 1, p. 139-140]. Cellmark Diagnostics acquired the rights [Ref. 1, p. 139-140] and it is believed that they coined the phrase, 'DNA Fingerprinting'. |
1985 |
Botstein, White, Skolnick, and Davis develop Restrictive Fragment Length Polymorphism (RFLP), first DNA test on forensic evidence [Ref. 7, p. 39]. |
1987 |
Robert Mellas first person convicted due to DNA Fingerprinting [Ref. 1, p. 333].
E.T. Blake, application of PCR to typing DQ alleles for genetic testing of forensic evidence [Ref. 7, p. 43].
Jeffreys, DNA profiling to identify Colin Pitchfork, murderer of two girls and also exonerates an innocent suspect.
New York v. Castro, first challenge to DNA analysis of forensic evidence. Court accepted science of RFLP but excluded test results due to lack of precise methodologies, leading to SWGDAM and validated SOPs [Ref. 7, p. 49]. |
1991 |
Jeffreys develops Digital DNA Profiling, between 50 and 70 figures replacing the ambiguous 'bar-code' profile [Ref. 1, p. 142].
British Home Office sets up a national DNA database based on collected blood samples [Ref. 1, p. 402]. |
1996 |
Nat. Res. Coun., The Evaluation of Forensic DNA Evidence, initiates consensus on DNA genetic testing by VNTR markers [Ref. 7, p. 40-41]. |
References
| [1]. |
Lane, Brian, The Encyclopedia of Forensic Science, Headline Book Publishing PLC, 1992.
|
| [2]. |
Richardson, J. R., Modern Scientific Evidence, The W. H. Anderson Company, USA 1961.
|
| [4]. |
Hall, J. C., Inside the Crime Lab, Prentice-Hall Inc., 1974.
|
| [6]. |
Das, R. C., "Landmark Discoveries in Biotechnology," American Biotechnology Laboratory, March 2001, p. 22.
|
| [7]. |
Gerber, S.M. and Saferstein, R., Eds., More Chemistry and Crime: From Marsh Arsenic Test to DNA Profile, American Chemical Society, Wash., D.C., 1997.
|
| [12]. |
Söderman, H. and O'Connell, J. J., Modern Criminal Investigation, Funk & Wagnalls Co., 1935.
|
| [22]. |
Kind, S. and Overman, M., Science Against Crime, Doubleday & Co., 1972.
|
| [29]. |
Thorwald, J., Crime and Science, Harcourt, Brace and World, 1966.
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