United States Patent (19) 11 Patent Number: 5,824,479 Smida Et Al
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O USOO5824479A United States Patent (19) 11 Patent Number: 5,824,479 Smida et al. 45) Date of Patent: Oct. 20, 1998 54 INTER-LINE-PCR Chemical Abstract, vol. 120, 1994, p. 326. Abstract No. 20:976646, 75 Inventors: Jan Smida, Freising; Stefan Leibhard, Chemical Abstract, vol. 118, 1993, p. 562, Abstract No. Oberschleissheim; Ludwig Hieber, 118:56972r. Kirchheim; F. Eckardt-Schupp, Frothingham et al. A PCR-Based Method of Identifying Pfaffenhofen, all of Germany Species-Specific Repeated DNAs, BioTechniques, vol. 13. No. 2, 1992, pp. 210, 212. 213. 73) Assignee: Forschungszentrum fur, Umwelt und Furano et al., Amplification of the Ancient Murine Lx Family Gesundheit GmbH. Oberschleissheim, of Long Interspersed Repeated DNA Occurred During the Germany Murine Radiation, J. Mol. Evol., vol. 38 (1994), pp. 18-27. Pascale et al. The Evolution of Long Interspersed Repeated (21) Appl. No.: 646,809 DNA (L1, LINE 1) as Revealed by the Analysis of an Ancient Rodent Ll DNA Family, J. Mol. Evol. (1993), vol. 36 ppi (22 Filed: May 21, 1996 9-20. 30 Foreign Application Priority Data Gong et al., COMMUNICATION Identification of Region Specific Cosmid Clones by Hybrodization with Pooled May 22, 1995 DEI Germany ........................ 19518769.5 Alu-LINE Polymerase Chain Reaction Products of Yeast (51) int. Cl. ................... C12Q 1/68; C12P 19/34; Artificial Chromosone Clones, Methods in Mol. and Cell. CO7H 21/04 Biol. (1994), 4:269-272. (52) U.S. Cl. ........................... 435/6; 536/24.3: 536/22.1; Laten and Morris. SIRE-1, a long interspersed repetitive 435/91.2 DNA element from soybean with weak sequence similarity to (58) Field of Search .................................. 536/22.1, 24.3; retrotransposons: initial characterzation and partial 435/91.2, 6 sequence, Gene, vol. 134 (1993). pp. 153-159. (List continued on next page.) 56) References Cited Primary Examiner-Kenneth R. Horlick PUBLICATIONS Assistant Examiner-Joyce Tung Versalovic et al. Genomic Fingerprinting of Bacteria Using Attorney, Agent, or Firm-Lowe. Price. LeBlanc & Becker Repetitive Sequence-Based Polymerase Chain Reaction, 57 ABSTRACT 1994, vol. 5, pp. 25-40. Versalovic et al. DNA Fingerprintin of Pathogenic Bacteria The invention discloses novel oligonucleotides, which can by Fluorophore-Enhanced repetitive Sequence-Based Poly be employed as primers in a polymerase chain reaction. merase Chain Reactopm, 1995. Arch Pathol. LabMed vol. Further a method for performing an IL-PCR using these 119. pp. 23-29. oligonucleotides is disclosed. The oligonucleotides are suit Pascale et al. Amplification of an ancestral mammalian L1 able for the identification and taxonomic characterization of family of long interspersed repeated DNA occurred just prokaryotic and eukaryotic microorganisms at the level of before the murine radiation, Proc. Natl. Acad. Sci., vol. 87. genus, species, and strain as well as for the identification and Dec. 1990, pp. 9481-9485. construction of transformation and tumour markers, Chemical Abstract, vol. 115, 1991, p. 296, Abstract No. respectively, for the application in medical cancer diagnos 15:272590V. tics. Chemical Abstract, vol. 117. 1992, p. 156, Abstract No. 17:246.184n. 24 Claims, 16 Drawing Sheets fEff TROPHORESC PCR - / / / / / / / 77 77,777 frzzzz y - 4/. ^^' ' ' -- A. ARBITRARY PCR -b - - - 1 5,824,479 Page 2 OTHER PUBLICATIONS Richard et al., Integration of A Vector Containing A Repeti Amariglio et al., identity of rearranged LINE/c-MYC junc tive LINE-1 Element in the Human Genome, Molecular and tion sequences specific for the canine transmissible venereal Cellular Biology, Oct. 1994, pp. 6689-6695. tumor; Proc. Natl. Acad. Sci. (USA), vol. 88. Sep.1991, pp. Hattori et al., Ll Family of repetitive DNA sequences in 836-8139. primates may be derived from a sequence encoding a reverse Sambrook et al., Molecular Cloning: A Laboratory Manual transriptase-related protein, Nature vol. 321. Jun. 1986. pp. Second Edition, Cold Spring Harbor Laboratory Press, New 625-628. York, 1989, pp. 2.72. E.3. E.4. Simmler et al., Adaptation of the Interspersed Repetitive Mathias et al., Reverse Transcriptase Encoded by a Human Sequence Polymerase Chain Reaction to the Isolation of Transposable Element, Science vol. 254, Dec. 1991, pp. Mouse DNA Probes form. Somatic Cell Hybrids on a Ham 1808-1810. ster Background, Genomics 10, (1991). PP. 770-778. Nelson et al. Alu polymerase chain reaction. A method for Katzir et al., “Retroposon” insertion into the cellular onco rapid isolation of human-specific sequences from complex gene c-myc in canine transmissible venereal tumor, Proc. DNA sources, Proc. Natl. Acad. Sci. (USA) Sep. 1989, vol. Natl. Acad. Sci. (USA), vol. 82, Feb. 1985, pp. 1054-1058. 86, pp. 6686-6690. Ledbetter et al., Rapid Isolation of DNA Probes within Miki et al., Disruption of the APC Gene by a Retrotrans Specific Chromosome Regions by Interspersed Repetive posal insertion of L1 Sequence in a Colon Cancer, Cancer Sequence Polymerase Chain Reaction, Genomics 6 (1990), Res. 52, Feb. 1992, pp. 643-645. pp. 475-481. J.R. Miller, Use of Porcine interspersed repeat sequences in Zietkiewic. Genome Fingerprinting by Simple Sequence PCR-mediated genotyping, Mammalian Genome 5, (1994), Repeat (SSR)-Anchored Polymerase Chain Reaction Ampli pp. 629-632. fication, Genomics 20 (1994), pp. 176-183. Munroe et al., IRE-Bubble PCR: A Rapid Method for Servomaa and Rytomaa, UV light and ionizing radiations Efficient and Representative Amplification of Human cause programmed death of rat chloroleukaemia cells by Genomic DNA Sequences from Compler Sources, Genomics inducing retropositions of a mobile DNA element (L1Rn), 19 (1994), pp. 506-514. Int. J. Radiat. Biol. 1990, vol. 57. No. 2, pp. 331-343. U.S. Pate 5,824,479 I?iZZZZZE U.S. Patent Oct. 20, 1998 Sheet 3 of 16 5.824,479 N H - - - a - H - W U.S. Patent Oct. 20, 1998 Sheet 4 of 16 5,824,479 PRIMER GF GAAGGGTCTTTGCCAAACTC ALIGNMENT 529 O 55 OO 3310 5. Rot GATGGATCACTACCGAATAC K18 GAAGGGTCTTTGCCAAACTC KS9 GAAGGGTCTTTGCCAAACTC J11 GAAGGGTCTTTGCCAAACTC J4s8 AAAGGATCACGCCAAACTC3:53. PRIMER GR = GF INVERTED, COMPLEMENTED GAGTTTCGCAAAG ACCCTTC FIG.4 U.S. Patent Oct. 20, 1998 Sheet 5 of 16 5.824,479 ?aeº970997 9 - H - - - MOO|| 7000 lll!Jd}}}}> U.S. Patent Oct. 20, 1998 Sheet 6 of 16 5,824,479 PRIMER GF CCAGTCTATCTCCATCCAC ALIGNMENT 4640 4650 5 J11 HamlC PRIMER GR = GF INVERTED, COMPLEMENTED GTGCATGGAGATAGACATCG FIG.6 U.S. Patent Oct. 20, 1998 Sheet 7 of 16 5,824,479 FG.7 U.S. Patent Oct. 20, 1998 Sheet 8 of 16 5,824,479 FG .8A FG U.S. Patent Oct. 20, 1998 Sheet 9 of 16 5,824,479 FG.9 U.S. Patent Oct. 20, 1998 Sheet 10 of 16 5,824,479 U.S. Patent Oct. 20, 1998 Sheet 11 of 16 5,824,479 FG 11 U.S. Patent Oct. 20, 1998 Sheet 12 of 16 5,824,479 F.G. 12 U.S. Patent Oct. 20, 1998 Sheet 13 of 16 5,824,479 F.G. 13 U.S. Patent Oct. 20, 1998 Sheet 14 of 16 5,824,479 F.G. 14 U.S. Patent Oct. 20, 1998 Sheet 15 of 16 5,824,479 FIG 15 U.S. Patent Oct. 20, 1998 Sheet 16 of 16 5,824,479 5.824,479 1 2 NTER-LINE-PCR The object of the invention is also met, in that said oligonucleotide sequences are shortened by one or more The present invention relates to new oligonucleotide nucleotides at the 3'-terminus and/or the 5'-terminus. sequences, a method for performing an Inter LINE PCR However, the shortened sequences should comprise at using oligonucleotides having said sequences and the use of least 15 nucleotides. The shortening preferable is carried out the oligonucleotides as a primer for Inter LINE PCR, at the 5'-terminus, however, shortenings at the 3'-terminus especially for the discrimination of DNA of the members of are also possible. The shortening may occur at the the prokarya, archaea or eukarya or genetically altered 3'-terminus or 5'-terminus or both ends. organisms thereof. In a further embodiment of the invention the 5'-terminus By the polymerase chain reaction (PCR) one defined of the oligonucleotide sequences is modified. The modifi DNA fragment may be amplified from a complex DNA 10 cations of the oligonucleotide sequences of the present mixture using flanking complementary oligonucleotides, invention may be selected from any modification known in Socalled primers. As a prerequisite the sequence to be the prior art. Preferred modifications comprise the linking of amplified must be known. In contrast, when primers of short the oligonucleotides at the 5'-terminus with amino acids, random sequences are used in PCR, a number of unknown digoxigenin, biotin and further additional nucleotides. Pref DNA segments may be amplified from genomic DNA. Then 15 erably these further additional nucleotides create one or the different amplified DNA fragments may be gel electro more recognition sites for restriction endonucleases. phoresed and are available for further analysis. This tech The invention also comprises such oligonucleotide nique increasingly used recently has been referred to as sequences exhibiting homology to the above seven oligo arbitrary PCR (AP-PCR) (overview Tab. 1). The informa nucleotide sequences, which at 280%. Preferably the tional content of such a PCR application may be increased homology is 290%, especially preferred 295%, and in a substantially, when primer sequences derived from repeti particular embodiment 297%. tive DNA elements wide spread in the genome are used As stated above, the oligonucleotides of the present instead of randomly selected primer sequences (Nelson et invention may be modified in various manners. Preferably, al., 1989; Ledbetter & Nelson, 1991; Munroe et al., 1994; the modifications should be performed in that the proportion 25 of the guanine and cytidine nucleotides remaining in the Zietkiewicz et al., 1994). oligonucleotides is 50%-5%.