COMMON FEATURES IN DNA RECOGNITION HELICES OF EUKARYOTIC TRANSCRIPTION FACTORS

被引:61
作者
SUZUKI, M
机构
[1] MRC Laboratory of Molecular Biology, Cambridge CB2 2QH, Hills Road
关键词
ETS; HOMOEO DOMAIN; LEUCINE ZIPPER; MYC; TEA;
D O I
10.1002/j.1460-2075.1993.tb05991.x
中图分类号
Q5 [生物化学]; Q7 [分子生物学];
学科分类号
071010 ; 081704 ;
摘要
Eukaryotic transcription factors which use an alpha-helix for DNA recognition, including the leucine zipper and homoeo domain proteins, have common features in the amino acid sequence of the DNA recognition helix, and also in the way this helix interacts with DNA. These factors all share a similar 12 residue segment in the DNA recognition helix, which is named the probe helix, since it covers all the pertinent interactions. Moreover, in all cases the interactions can be divided into two parts: the Arg/Lys residues at positions 7, 9, 11 and 12 in the C-terminal half of the segment contact phosphate groups, whereas the N-terminal half interacts with the DNA bases by using residues at positions 1, 4, 5 and 8. The residue occupying position 1 is the most important for sequence specific DNA recognition. Similar 12 residue sequences are found in the DNA binding domain of many transcription factors including those of the TEA family, the Myc type of bHLH family, the MADS family, the Ets family and the OmpR family. These generalities show that it might be possible to rind a stereochemical code which explains three-dimensional interactions between DNA and an alpha-helix of this type.
引用
收藏
页码:3221 / 3226
页数:6
相关论文
共 20 条
[1]  
[Anonymous], 1999, INTRO PROTEIN STRUCT
[2]   THE SWISS-PROT PROTEIN-SEQUENCE DATA-BANK [J].
BAIROCH, A ;
BOECKMANN, B .
NUCLEIC ACIDS RESEARCH, 1992, 20 :2019-2022
[3]   PROTEIN DATA BANK - COMPUTER-BASED ARCHIVAL FILE FOR MACROMOLECULAR STRUCTURES [J].
BERNSTEIN, FC ;
KOETZLE, TF ;
WILLIAMS, GJB ;
MEYER, EF ;
BRICE, MD ;
RODGERS, JR ;
KENNARD, O ;
SHIMANOUCHI, T ;
TASUMI, M .
JOURNAL OF MOLECULAR BIOLOGY, 1977, 112 (03) :535-542
[4]   HIGH-AFFINITY DNA-BINDING MYC ANALOGS - RECOGNITION BY AN ALPHA-HELIX [J].
FISHER, DE ;
PARENT, LA ;
SHARP, PA .
CELL, 1993, 72 (03) :467-476
[5]   A GENETIC MODEL FOR INTERACTION OF THE HOMEODOMAIN RECOGNITION HELIX WITH DNA [J].
HANES, SD ;
BRENT, R .
SCIENCE, 1991, 251 (4992) :426-430
[6]   A STRUCTURAL TAXONOMY OF DNA-BINDING DOMAINS [J].
HARRISON, SC .
NATURE, 1991, 353 (6346) :715-719
[7]   CRYSTAL-STRUCTURE AT 1.7-ANGSTROM OF THE BOVINE PAPILLOMAVIRUS-1 E2 DNA-BINDING DOMAIN BOUND TO ITS DNA TARGET [J].
HEGDE, RS ;
GROSSMAN, SR ;
LAIMINS, LA ;
SIGLER, PB .
NATURE, 1992, 359 (6395) :505-512
[8]   DETERMINATION OF THE BASE RECOGNITION POSITIONS OF ZINC FINGERS FROM SEQUENCE-ANALYSIS [J].
JACOBS, GH .
EMBO JOURNAL, 1992, 11 (12) :4507-4517
[9]   CRYSTAL-STRUCTURE OF AN ENGRAILED HOMEODOMAIN-DNA COMPLEX AT 2.8-A RESOLUTION - A FRAMEWORK FOR UNDERSTANDING HOMEODOMAIN-DNA INTERACTIONS [J].
KISSINGER, CR ;
LIU, BS ;
MARTINBLANCO, E ;
KORNBERG, TB ;
PABO, CO .
CELL, 1990, 63 (03) :579-590
[10]   3-DIMENSIONAL STRUCTURE OF THE ESCHERICHIA-COLI DNA-BINDING PROTEIN FIS [J].
KOSTREWA, D ;
GRANZIN, J ;
KOCH, C ;
CHOE, HW ;
RAGHUNATHAN, S ;
WOLF, W ;
LABAHN, J ;
KAHMANN, R ;
SAENGER, W .
NATURE, 1991, 349 (6305) :178-180