1961: Usefulness of Cheiloscopy in Criminalistic Identification.
Hungary becomes the first country in Europe to carry out research on the subject of lip prints. The examination started after lip traces had been found on a glass door at the scene of a murder. It was established later that the murderer pushed the door open with his head because his hands were covered in blood, leaving a trace of the red part of his lips on the glass. In the process of examination of the lip traces, their usefulness for criminalistic identification was proven.
1964: Mass Spectral Analysis
C. Djerassi’s group publishes dozens of articles describing the mass spectral analysis of natural products, including tropane alkaloids and cannabinoids
1963 – 1968: Identified the polymorphic nature of ….
- 1963: D.A. Hopkinson and colleagues first identified the polymorphic nature of erythrocyte acid phosphatase (EAP).
- 1964: N. Spencer and colleagues first identified the polymorphic nature of red cell phosphoglucomutase (PGM).
- 1966: R. A. Fildes and H. Harris first identified the polymorphic nature of red cell adenylate cyclase (AK).
- 1968: Spencer and colleagues first identified the polymorphic nature of red cell adenosine deaminase (ADA).
1966: Haptoglobin typing in bloodstains.
- Brian J. Culliford and Brian Wraxall developed the immunoelectrophoretic technique for haptoglobin typing in bloodstains.
- Culliford initiated the development of gel-based methods to test for isoenzymes in dried bloodstains in1967. He is also instrumental in developing and disseminating methods for testing proteins and isoenzymes in blood and other body fluids and secretions.
1967: First national crime system
FBI established the National Crime Information Center, a computerized national filing system on wanted people, stolen vehicles, weapons, etc.
1967: Methods for testing proteins and isoenzymes
Culliford of the British Metropolitan Police Laboratory initiated the development of gel-based methods to test for isoenzymes in dried bloodstains. He was also instrumental in developing and disseminating methods for testing proteins and isoenzymes in both blood and other body fluids and secretions.
1968: Polymorphism of ADA
Spencer and colleagues first identified the polymorphic nature of red cell adenosine deaminase (ADA).
1971: Disseminating reliable protocols for typing polymorphic proteins and enzymes
Culliford published The Examination and Typing of Bloodstains in the Crime Laboratory, generally accepted as responsible for disseminating reliable protocols for typing polymorphic protein and enzyme markers to the US and worldwide.
1972: Physical Anthropology Section
The American Academy of Forensic Sciences establishes the Physical Anthropology Section.
1973: Computerized Fingerprint files
Canada’s Royal Canadian Mounted Police (RCMP) finished computerizing their fingerprint files.
1974: Advances in GSR Detection
J. E. Wessel, P. F. Jones, Q. Y. Kwan, R. S. Nesbitt, and E. J. Rattin at Aerospace Corporation in the US developed advanced technology to detect gunshot residue, link a suspect to a crime scene, and show how close that suspect was to the gun. The technology uses scanning electron microscopy with electron dispersive X-rays (SEMEDX).
1975: First fingerprint reader installed at the FBI
In 1975, the FBI funded the development of fingerprint scanners for automated classifiers and minutiae extraction technology, which led to the development of a prototype reader. This early reader used capacitive techniques to collect the fingerprint minutiae. At that time, only the individual’s biographical data, fingerprint classification data, and minutiae were stored because the cost of storage for the digital images of the fingerprints was prohibitive.
1975: The Federal Rules of Evidence are enacted
The Federal Rules of Evidence, initially promulgated by the U.S. Supreme Court, were enacted as a congressional statute. They are based on the relevancy standard in which scientific evidence that is deemed more prejudicial than probative may not be admitted.
1976: First evaluated GC-MS for forensic purposes in UK
J. A. Zoro and K. Hadley publish a review of the use of MS in forensic laboratories in the UK; includes Pyrolysis-MS (Py-MS)of polymers and GC-MS of drugs and ignitable liquids
1977: FBI institutes the Automated Fingerprint Identification System (AFIS) and Superglue fuming for latent fingerprint
- A limited computerized scanning mechanism was first used to develop a database in forensic science by the FBI’s Automated Fingerprint Identification System (AFIS).
- In Japan, investigators accidentally discover that superglue develops latent fingerprints. Fuseo Matsumur, a trace evidence examiner at the Saga Prefectural Crime Laboratory of the National Police Agency of Japan, notices his own fingerprints developing on microscope slides while mounting hairs from a taxi driver murder case. He relates the information to co-worker Masato Soba, a latent print examiner. Soba would be the first to develop latent prints intentionally by “Superglue” fuming later that year.
1977: FTIR was adapted for use in the forensics
Fourier transform infrared (FTIR) spectroscopy is a powerful analytical tool for identifying chemical constituents and elucidating compound structures in various forms in real-world samples according to the vibrational modes of their molecular functional groups.
1978: development of “psychological profiling” techniques
Britain’s Yorkshire Ripper case highlights the value of computers in investigating serial killings and leads to the development of “psychological profiling” techniques in the following decade.
1979: Auto fingerprint system first used
Royal Canadian Mounted Police implemented the first automatic fingerprint identification system.
1979: Bite mark evidence in Conviction
1979: Bite mark evidence is a key in convicting serial killer Theodore “Ted” Bundy.
1981: Establishment of Body Farm
William Bass establishes the Body Farm at the University of Tennessee in Knoxville. Bill Bass had been head of the Department of Anthropology for ten years when he built the Anthropology Research Facility, more popular as the Body Farm, with his graduate students. Bass’s work revolutionized forensic science, particularly for determining the time since a person’s death, and inspired several television dramas.
1983: The polymerase chain reaction (PCR)
PCR was conceived by Kerry Mullis while working at Cetus Corporation. However, the first paper on the technique was not published until 1985.
1984: DNA technique for unique ID
Professor Alec Jefferies discovered that each human being has unique DNA, except in the case of identical twins, and he developed the first DNA profiling test. It involved the detection of a multilocus RFLP pattern. He published his findings in Nature in 1985.
1984: PACE passed
Police and Criminal Evidence Act (PACE) passed. This piece of legislation governs the handling of suspects and prisoners.
1986: PCR explicitly for Forensics and First use of DNA testing in US court
- The human genetics group at Cetus Corporation, led by Henry Erlich, developed the PCR technique for several clinical and forensic applications. This resulted in the development of the first commercial PCR typing kit specifically for forensic use, HLA DQα (DQA1), about two years later.
- In People v. Pestinikas, Edward Blake first used PCR-based DNA testing (HLA DQα) to confirm different autopsy samples to be from the same person. A civil court accepted the evidence. This was also the first use of any DNA testing in the United States.
1987: DNA Profiling is used to catch Criminals and in courts
- In England, Colin Pitchfork became the first criminal identified by using DNA in a double homicide of two young girls in the England Midlands. Significantly, DNA was first used to exonerate an innocent suspect in the same investigation.
- DNA profiling is introduced for the first time in a U.S. criminal court. Lifecodes performed the same DNA profiling techniques (RFLP) in the conviction of Tommy Lee Andrews for a series of sexual assaults three months later in Florida, US. The first United States use of DNA for a conviction.
- Also, in the UK, Robert MELIAS is convicted of rape. He becomes the first person to be convicted of a crime based on DNA evidence.
- New York v. CASTRO is the first case in which the admissibility of DNA is seriously challenged. It sets in motion a string of events that culminate in a call for certification, accreditation, standardization, and quality control guidelines for both DNA laboratories and the general forensic community.
1988: A Novel procedure for analyzing drugs in whole blood by EMIT
Lewellen, McCurdy, Horton, and Asselin, Leslie, and McKinley publish milestone papers introducing a novel procedure for analyzing drugs in whole blood by homogeneous enzyme immunoassay (EMIT).
1989: DNA evidence Standards and convictions secured and overturned based on DNA evidence
- In the USA, Gary DOTSON becomes the first person to have a conviction overturned on the basis of DNA evidence. DOTSON has served eight years of a 25-50 year sentence for rape.
- The Federal Government and several States and Territories begin developing regulatory standards for DNA collection and handling procedures.
- Australia’s first court case involving DNA evidence. In an ACT court, Desmond APPLEBEE is convicted of three counts of sexual assault (when the results were in, he changed his mind)
- Police secured the conviction of George KAUFMAN, who raped sixteen women over a four-year period in Melbourne’s southeastern suburbs. Confronted with DNA evidence, KAUFMAN confesses.
- K. Kasai and colleagues publish the first paper suggesting the D1S80 locus (pMCT118) for forensic DNA analysis.
1990: The CODIS Project and IBIS started
- The Combined DNA Index System (CODIS) began in 1990 as a pilot project with 12 state and local forensic laboratories.
- Walsh Automation Inc. launched the development of an automated imaging system called the Integrated Ballistics Identification System, or IBIS, to compare the marks left on fired bullets, cartridge cases, and shell casings.
1990: Commercially available forensic DNA typing System
K. Kasai and colleagues published the first paper suggesting the D1S80 locus (pMCT118) for forensic DNA analysis. D1S80 was subsequently developed by Cetus (later Roche Molecular Systems) corporation as a commercially available forensic DNA typing system.