The Ig kappa L chain allelic groups among the Ig kappa haplotypes and Ig kappa crossover populations suggest a gene order. 1988

L A D'Hoostelaere, and K Huppi, and B Mock, and C Mallett, and M Potter
Laboratory of Genetics, National Cancer Institute, Bethesda, MD 20892.

The Ig kappa complex locus of inbred mice found on chromosome 6 contains one constant (C kappa), five joining (J kappa), and 100 to 300 variable (V kappa) exons and spans an estimated 500 to 2000 kbp of DNA. The V kappa exons are organized into groups of highly homologous coding regions (approximately 300 bp) separated by approximately 10 kbp of intervening sequence. A group contains from 1 to 30 or more exons (exon refers to uninterrupted coding region DNA which is capable of encoding all or part of V kappa gene) that can be detected with specific DNA probes in conjunction with restriction endonuclease fragments (REF) from genomic DNA. Thirteen DNA probes specific for different V kappa exon groups and one DNA probe specific for J kappa and C kappa exons were used in conjunction with 55 inbred strains in an attempt to detect RFLP that could be used to establish Ig kappa allelic groups and Ig kappa haplotypes. Each probe detected two to four different REF patterns (allelic groups) among the panel of inbred mice examined. Size estimates of the REF were made, and each probe detected 4.2 to 107.7 kbp of DNA, including faint REF, 675.6 to 723.6 kbp of DNA could be detected within a single haplotype. Based on these allelic groups, seven haplotypes were identified among the 55 inbred strains of mice. No subline differences were detected, and the distribution of allelic groups implied common ancestry among many of the inbred strains examined. The DNA probes were also used in conjunction with recombinant inbred, congenic strains and backcross populations of mice. By using the analysis of known Ig kappa r populations, and assuming a common ancestry among the inbred strains, a gene order was predicted: Centromere-Hd-(Ig kappa-V11, Ig kappa-V24, Ig kappa-V9-26)-(Ig kappa-V1, Ig kappa-V9)-(Ig kappa-V4, Ig kappa-V8, Ig kappa-V10, Ig kappa-V12, 13, Ig kappa-V19)-(Ig kappa-V28, Rn7s-6)-Ig kappa-V23-(Ig kappa-V21, Ig kappa-J, Ig kappa-C)-(Ly2, Ly3)-wa-1.

UI MeSH Term Description Entries
D007145 Immunoglobulin kappa-Chains One of the types of light chains of the immunoglobulins with a molecular weight of approximately 22 kDa. Ig kappa Chains,Immunoglobulins, kappa-Chain,kappa-Immunoglobulin Light Chains,Immunoglobulin kappa-Chain,kappa-Chain Immunoglobulins,kappa-Immunoglobulin Light Chain,kappa-Immunoglobulin Subgroup VK-12,kappa-Immunoglobulin Subgroup VK-21,Chains, Ig kappa,Immunoglobulin kappa Chain,Immunoglobulin kappa Chains,Immunoglobulins, kappa Chain,Light Chain, kappa-Immunoglobulin,Light Chains, kappa-Immunoglobulin,kappa Chain Immunoglobulins,kappa Chains, Ig,kappa Immunoglobulin Light Chain,kappa Immunoglobulin Light Chains,kappa Immunoglobulin Subgroup VK 12,kappa Immunoglobulin Subgroup VK 21,kappa-Chain, Immunoglobulin,kappa-Chains, Immunoglobulin
D008805 Mice, Inbred A An inbred strain of mouse that is widely used in IMMUNOLOGY studies and cancer research. Mouse, Inbred A,Inbred A Mice,Inbred A Mouse
D008807 Mice, Inbred BALB C An inbred strain of mouse that is widely used in IMMUNOLOGY studies and cancer research. BALB C Mice, Inbred,BALB C Mouse, Inbred,Inbred BALB C Mice,Inbred BALB C Mouse,Mice, BALB C,Mouse, BALB C,Mouse, Inbred BALB C,BALB C Mice,BALB C Mouse
D008808 Mice, Inbred CBA An inbred strain of mouse that is widely used in BIOMEDICAL RESEARCH. Mice, CBA,Mouse, CBA,Mouse, Inbred CBA,CBA Mice,CBA Mice, Inbred,CBA Mouse,CBA Mouse, Inbred,Inbred CBA Mice,Inbred CBA Mouse
D008809 Mice, Inbred C3H An inbred strain of mouse that is used as a general purpose strain in a wide variety of RESEARCH areas including CANCER; INFECTIOUS DISEASES; sensorineural, and cardiovascular biology research. Mice, C3H,Mouse, C3H,Mouse, Inbred C3H,C3H Mice,C3H Mice, Inbred,C3H Mouse,C3H Mouse, Inbred,Inbred C3H Mice,Inbred C3H Mouse
D008810 Mice, Inbred C57BL One of the first INBRED MOUSE STRAINS to be sequenced. This strain is commonly used as genetic background for transgenic mouse models. Refractory to many tumors, this strain is also preferred model for studying role of genetic variations in development of diseases. Mice, C57BL,Mouse, C57BL,Mouse, Inbred C57BL,C57BL Mice,C57BL Mice, Inbred,C57BL Mouse,C57BL Mouse, Inbred,Inbred C57BL Mice,Inbred C57BL Mouse
D008811 Mice, Inbred DBA An inbred strain of mouse. Specific substrains are used in a variety of areas of BIOMEDICAL RESEARCH such as DBA/1J, which is used as a model for RHEUMATOID ARTHRITIS. Mice, DBA,Mouse, DBA,Mouse, Inbred DBA,DBA Mice,DBA Mice, Inbred,DBA Mouse,DBA Mouse, Inbred,Inbred DBA Mice,Inbred DBA Mouse
D008814 Mice, Inbred NZB An inbred strain of mouse that is widely used as a model for AUTOIMMUNE DISEASES such as SYSTEMIC LUPUS ERYTHEMATOSUS. Mice, NZB,Mouse, Inbred NZB,Mouse, NZB,Inbred NZB Mice,Inbred NZB Mouse,NZB Mice,NZB Mice, Inbred,NZB Mouse,NZB Mouse, Inbred
D009693 Nucleic Acid Hybridization Widely used technique which exploits the ability of complementary sequences in single-stranded DNAs or RNAs to pair with each other to form a double helix. Hybridization can take place between two complimentary DNA sequences, between a single-stranded DNA and a complementary RNA, or between two RNA sequences. The technique is used to detect and isolate specific sequences, measure homology, or define other characteristics of one or both strands. (Kendrew, Encyclopedia of Molecular Biology, 1994, p503) Genomic Hybridization,Acid Hybridization, Nucleic,Acid Hybridizations, Nucleic,Genomic Hybridizations,Hybridization, Genomic,Hybridization, Nucleic Acid,Hybridizations, Genomic,Hybridizations, Nucleic Acid,Nucleic Acid Hybridizations
D012150 Polymorphism, Restriction Fragment Length Variation occurring within a species in the presence or length of DNA fragment generated by a specific endonuclease at a specific site in the genome. Such variations are generated by mutations that create or abolish recognition sites for these enzymes or change the length of the fragment. RFLP,Restriction Fragment Length Polymorphism,RFLPs,Restriction Fragment Length Polymorphisms

Related Publications

L A D'Hoostelaere, and K Huppi, and B Mock, and C Mallett, and M Potter
October 1993, The Journal of experimental medicine,
L A D'Hoostelaere, and K Huppi, and B Mock, and C Mallett, and M Potter
March 1993, The EMBO journal,
L A D'Hoostelaere, and K Huppi, and B Mock, and C Mallett, and M Potter
April 2004, Journal of immunology (Baltimore, Md. : 1950),
L A D'Hoostelaere, and K Huppi, and B Mock, and C Mallett, and M Potter
June 1991, Journal of immunology (Baltimore, Md. : 1950),
L A D'Hoostelaere, and K Huppi, and B Mock, and C Mallett, and M Potter
December 2002, Immunological reviews,
L A D'Hoostelaere, and K Huppi, and B Mock, and C Mallett, and M Potter
June 1978, Journal of immunology (Baltimore, Md. : 1950),
L A D'Hoostelaere, and K Huppi, and B Mock, and C Mallett, and M Potter
July 2001, Journal of immunology (Baltimore, Md. : 1950),
L A D'Hoostelaere, and K Huppi, and B Mock, and C Mallett, and M Potter
February 1990, Journal of immunology (Baltimore, Md. : 1950),
L A D'Hoostelaere, and K Huppi, and B Mock, and C Mallett, and M Potter
October 1979, Nature,
L A D'Hoostelaere, and K Huppi, and B Mock, and C Mallett, and M Potter
April 2020, American journal of physical anthropology,
Copied contents to your clipboard!