Summary
At least 815 meioses were studied in theHinfI polymorphisms of DNA minisatellite loci D1S7, D2S44, D7S21, D7S22, and D12S11 in order to collect data on respective mutation rates. At locus D7S21 (probe MS31) a striking difference between the paternal and maternal mutation rate was observed (1.5% versus 0.2%). This study also describes, how to deal biostatistically with paternal mutations in parentage testing. Possible implications of mutations are illustrated by the description of 2 cases. Case 1 reports an “exclusion” of mother and father with probe MS1. Case 2 describes 2 paternal “exclusions” with probes MS31 and G3. The statistical likelihood for a paternal “exclusion” with 2 of the 5 probes is 0.13%. By omitting probe MS1, this frequency can be reduced to 0.02%. Nevertheless, the second case clearly shows, that informative blood group markers cannot be replaced by DNA polymorphisms.
Zusammenfassung
815-2004 Meiosen wurden in den HinfI-Polymorphismen der DNA-Loci D1S7, D2S44, D7S22 und D12S11 untersucht, um Daten über Mutationsfrequenzen zu gewinnen. Getrennt nach paternalen und maternalen Meiosen wurden die in Tabelle 1 dargestellten Mutationsraten beobachtet. Am DNA-Locus D7S21 (Sonde MS31) wurde ein signifikanter Unterschied zwischen paterneller und materneller Mutationsrate festgestellt (1,5% im Vergleich zu 0,2%). Die Arbeit beschreibt weiterhin, wie biostatistisch mit (paternellen) Mutationen im Vaterschaftsgutachten umgegangen werden muß. Die Bedeutung von Mutationen illustrieren 2 Falldarstellungen: Der 1. Fall beschreibt einen “Eltern-Kind-Ausschluß” mit Sonde MS1. Der 2. Fall berichtet von 2 paternellen “Ausschlußkonstellationen” mit den Sonden MS31 und G3.
Similar content being viewed by others
References
Alper CA, Klemperer MR, Rosen F (1969) Inherited deficiency of the third component of human complement (C'3). J Clin Invest 48: 553
Balazs I, Baird M, Clyne M, Meade E (1989) Human population genetic studies of five hypervariable DNA loci. Am J Hum Genet 44:182–190
Beckers TH, Logherr JJ van, Dunsford I (1955) A second example of the weak antigen A, occurring in the offspring of group 0 parents. Vox Sang 5:145
Bender K, Kasulke D, Mayerovà A, Hummel K, Weidinger S, Epplen JT, Wienker IF (1991) New mutation versus exclusion at the alpha- l-antitrypsin locus: a multifaceted approach in a problematical paternity case. Hum Hered 41:1–11
Bertrams J, Mauff G (1986) A silent allele of properdin factor B polymorphism (Bf*QO) in five family members. In: Brinkmann B, Henningsen K (eds) Advances in forensic haemogenetics 1. Springer, Berlin Heidelberg, pp 93–96
Brinkmann B, Hoppe HH, Sachs H-W, Weber W, Heide KG (1974) Über das Vorkommen des stummen Allels P in 10 deutschen Familien. Z Rechtsmed 75:25–32
Brinkmann B, Rand S, Wiegand P (1991) Population and family data of RFLP's using selected single- and multi-locus systems. Int J Leg Med 104:81–86
Bundesgesundheitsamt (1990) Neufassung der Richtlinien des BGA für die Erstellung von Blutgruppengutachten. Bundesgesundheitsblatt 33(6):264–268
Chown B, Lewis M, Kaita H (1965) The Duffy blood group system in Caucasians: evidence for a new allele. Am J Hum Genet 17:384
Cook PJL, Robson EB, Buckton KE, Jacobs PA, Polani PE (1974) Segregation of genetic markers in families with chromosome polymorphisms and structural rearrangements involving chromosome 1. Ann Hum Genet 37:261
Crome W (1935) Über Blutgruppenfragen: Mutter M, Kind N. Dtsch Z Ges Gerichtl Med 24:267
Dodd BE, Lincoln PJ, Insley J (1983) An apparent exclusion of maternity disclosed by tests for Rh and PGM1. 10. Internationaler Kongreß der Gesellschaft für Forensische Blutgruppenkunde, München, 11.–15.10., pp 131–134
Dykes DD, Polesky HF (1988) Incidence of the PLG*Q0 allele in human populations. In: Mayr WR (ed) Advances in forensic haemogenetics 2. Springer, Berlin Heidelberg, pp 261–266
Eggermann T, Nöthen M, Erdmann J, Eiben B, Ahlert D, Propping P, Schwanitz G (1991) Parental origin of the extra chromosome in trisomy 18 determined using short sequence repeat DNA polymorphisms. Abstract 4. Tagung der Gesellschaft für Humangenetik, p 269
Espinheira RM, Geada H, Mendonça M, Reys L (1988) “Silent” alleles in paternity testing. In: Mayr WR (ed) Advances in forensic haemogenetics 2. Springer, Berlin Heidelberg, pp 254–258
Fiedler H, Pettenkofer H (1968) Ein „neuer” Phänotyp im Isoenzymsystem der Phosphoglucomutasen des Menschen (PGM10). Blut 18:33
Fimmers R, Henke L, Henke J, Baur MP (1992) How to deal with mutations in DNA testing? In: Rittner C, Schneider PM (eds) Advances in forensic haemogenetics 4. Springer, Berlin Heidelberg, pp 285–287
Francis BJ, Hatcher DE (1966) MN blood types: The S-s-U+ and the Ml phenotypes. Vox Sang 11:213
Gianetti M, Stadler E, Rittner C, Lomas C, Tippett P (1983) A rare Rh haplotype producing Cw and c, and D and e in a German family. Vox Sang 44:319–321
Habibi B, Andre J, Fouillade MT, Lopez M, Salmon C (1976) An unusual Rh phenotype indicating heterogeneity of the Cw antigen. Vox Sang 31: 103–108
Haselhorst G, Lauer A (1930) Über eine Blutgruppenkombination Mutter AB und Kind 0. Zeitschrift für Konstitutionslehre 15:205
Heiken A, fnGiles CM (1967) Evidence of mutation within the Rhesus blood group system. Nature 213:699
Henke J, Baur MP, Hoffmann K, Henke L (1991) Zur Anwendung aussagekräftiger Single Locus DNA-Polymorphismen in komplizierten defizienten Abstammungsbegutachtungen. Ärztl Lab 37:175–179
Henke J, Schweitzer H, Cleef S, Epplen JT, Baur MP (1988) Aberrant MN bloodgroup inheritance in a German family: a ‘silent’ allele? Forensic Sci Int 39:279–285
Henke L, Cleef S, Zakrzewska M, Henke J (1991) Population genetic data determined for five different single locus minisatellite probes. In: Berg T, Jeffreys AJ, Wolff R, Dolf G (eds) DNA fingerprinting: approaches and applications. Birkhäuser Verlag, Basel
Henke L, Paas H, Hoffmann K, Henke J (1990) Zum Einsatz von DNA-Polymorphismen in der Abstammungsbegutachtung. Z Rechtsmed 103:235–248
Henningsen K (1958) A family study involving a new rare Rh chromosome (d-- or ---). VIIth Congress of the International Society of Blood Transfusion, Rome. Karger, Basel, p 667
Herbich J, Fisher RA, Hopkinson DA (1970) Atypical segregation of human red cell acid phosphatase phenotypes: evidence for a rare silent allele p°. Ann Hum Genet 34:145
Hoppe HH, Goedde HG, Agarwal DP, Benkmann HG, Hirth L, Janssen W (1978) A silent gene (C3-) producing partial deficiency of the third component of human complement. Hum Hered 28:141
Ishimori T, Hasekura H (1967) A Japanese with no detectable Rh blood group antigens due to silent Rh alleles or deleted chromosomes. Transfusion 7:84
Issitt PD (1985) Applied blood group serology, 3rd edn. Montgomery Scientific Publications, Miami
Jeffreys AJ, Royle NJ, Wilson V, Wong Z (1988) Spontaneous mutation rates to new length alleles at tandem repetitive hypervariable loci in human DNA. Nature 332:278–281
Jungwirth J (1967) Problematische Rhesusausschlüsse. Dtsch Z Ges Gerichtl Med 59:164
Kaita H, Lewis M, Chown B, Gard E (1959) A further example of the Kell blood group phenotype K-, k-, Kp(a-b-). Nature 183:1586
Krauland W, Smerling M (1970) Reinerbigkeitsausschlüsse SS/ss. Ärztl Lab 16:98
Levine P, Celano MJ, Falkowski F, Chambers J, Hunter OB, English CT (1964) A second example of ---/--- blood, or Rhnull. Nature 204:892
Lewis M, Kaita H, Chown B (1972) The Duffy blood group system in Caucasians. Vox Sang 23:523
Madsen G, Heists H (1968) A Korean family showing inheritance of A and B on the same chromosome. Vox Sang 14:211
Matsunaga E (1962) An inert allele Hp° at the Hp locus. Jpn J Hum Genet 7:133
Mauff G, Rittner C (1982) Joint report on C3, Bf and C6 reference typings. IV. Int Workshop for the Genetics of Complement, Boston
Metaxas MN, Metaxas-Buehler M (1977) Genetik des MNSsBlutgruppensystems. 7. Internationaler Kongreß der Gesellschaft für Forensische Blutgruppenkunde, Hamburg, pp 103–118
Polesky HF, Souhrada JM, Dykes DD (1983) The frequency of “null” genes calculated from trios in disputed parentage cases. 10. Internationaler Kongreß der Gesellschaft für Forensische Blutgruppenkunde, München, pp 161–166
Prokop O, Rackwitz A (1968) Beweis für die Existenz eines neuen Gc-Gens, aufgedeckt durch eine anscheinend inkompatible Mutter-Kind-Paarung. Dtsch Z Ges Gerichtl Med 62:261
Puschel K, Krüger A, Sbder-Bräunlich R (1988) Further evidence of a silent Tf allele. In: Mayr WR (ed) Advances in forensic haemogenetics 2. Springer, Berlin Heidelberg, pp 259–260
Rasmuson M, Heiken A (1966) Frequency of occurrence of the human Rh complexes D(c)(e), d(c)(e), D--, and ---. Nature 212:1377–1379
Ritter H (1991) Die humangenetische Abstammungsbegutachtung. Familienrichterzeitung 6:646–649
Rittner C, Schneider PM, Rittner G (1992) Zum Beitrag des DNA-Gutachtens in Fällen mit verstorbenem Putativvater. Der Amtsvormund 65(2):105–114
Sachs HW, Reuter W, Tippett P, Gavin J (1978) A Rh gene complex producing both Cw and c antigen. Vox Sang 35:272–274
Schleyer F, Spielmann W, Oepen I (1973) Kombination von Rh Deletionstyp und stummem Fy-Gen. Beitr Gerichtl Med 30:389
Smerling M (1971) Su in der weißen Bevölkerung. Bericht über Familienuntersuchungen. Beitr gerichtl Med 28:237
Smerling M (1976) Zur Serologie und Genetik des DuffySystems. Z Rechtsmed 78:121–135
Smith JC, Anwar R, Riley J, Jenner D, Markham AF, Jeffreys AJ (1990) Highly polymorphic minisatellite sequences: allele frequencies and mutation rates for five locus specific probes in a Caucasian population. J Forensic Sci Soc 30:19–32
Sorgo G, Piso C (1972) Das System Duffy: Genfrequenzen und Familienuntersuchungen. Blut 24:89–93
Speiser P, Pausch V (1977) GPT° in drei Generationen. Ärztl Lab 23:487–490
Spielmann W, Schilling L, Teixidor D (1968) Genfrequenzen und Vererbung im Duffy-System. Hum Genet 6:200–206
Tippett P (1977) Some recent observations in the Rh, Lutheran and Kell blood group systems. 7. Internationaler Kongreß der Gesellschaft für Forensische Blutgruppenkunde, Hamburg, pp 89–102
Trube-Becker E, Henke J (1981)Großmutter/Mutter/KindInkompatibilität aufgrund des Rhesus-Genkomplexes (C)D(e). Z Morphol Anthropol 72(2):205–212
Vogel F, Rathenberg R (1975) Spontaneous mutation in man. Adv Hum Genet 5:223–318
Weber W (1988) Nachweis des “stummen” Gens PGP° am Phosphoglycolat-Phosphatase-Locus. In: Mayr WR (ed) Advances in forensic haemogenetics 2. Springer, Berlin Heidelberg, pp 250–253
Weissmann J, Oepen I, Hilgermann R (1979) Ein seltener Phänotyp: GPT 0. Ärztl Lab 25:229–231
Weissmann J, Swart J, Pribilla O (1982) Das Duffy-System: Genfrequenzen und Familienuntersuchungen in SchleswigHolstein. Ärztl Lab 28:225–228
Wendt nGG, Kirchberg G, Rube M, Ritter H (1971) Problematischer Mutter-Kind-Ausschluß mit PGMI. Humangenetik 11:171
Wenk RE, Houtz TD, Brooks M, Bard K (1983) Unexpressed HLA haplotype and erroneous maternal exclusion. 10. Internationaler Kongreß der Gesellschaft für Forensische Blutgruppenkunde, München, pp 35–40
Wetterling G (1988) Discrepancy between gene and protein products within the PGMI system shown by improved resolution on immobiline gels. In: Mayr WR (ed) Advances in forensic haemogenetics 2. Springer, Berlin Heidelberg, pp 97–101
Wolff RK, Nakamura Y, White R (1988) Molecular characterization of a spontaneously generated new allele at a VNTR locus: no exchange of flanking DNA sequence. Genomics 3:347–351
Yokoyama M, Mermod LE, Stegmaier A (1967) Further examples of Jk (a- b-) blood in Hawaii. Vox Sang 12:15
Author information
Authors and Affiliations
Rights and permissions
About this article
Cite this article
Henkel, J., Fimmers, R., Baur, M.P. et al. DNA-minisatellite mutations: Recent investigations concerning distribution and impact on parentage testing. Int J Leg Med 105, 217–222 (1993). https://doi.org/10.1007/BF01642797
Received:
Revised:
Issue Date:
DOI: https://doi.org/10.1007/BF01642797