4.2 Article

Inhibition of filament formation of human Rad51 protein by a small peptide derived from the BRC-motif of the BRCA2 protein

Journal

GENES TO CELLS
Volume 13, Issue 5, Pages 471-481

Publisher

BLACKWELL PUBLISHING
DOI: 10.1111/j.1365-2443.2008.01180.x

Keywords

-

Ask authors/readers for more resources

Human Rad51 is a key element of recombinational DNA repair and is related to the resistance of cancer cells to chemo- and radiotherapies. The protein is thus a potential target of anti-cancer treatment. The crystallographic analysis shows that the BRC-motif of the BRCA2 tumor suppressor is in contact with the subunit-subunit interface of Rad51 and could thus prevent filament formation of Rad51. However, biochemical analysis indicates that a BRC-motif peptide of 69 amino acids preferentially binds to the N-terminal part of Rad51. We show experimentally that a short peptide of 28 amino acids derived from the BRC4 motif binds to the subunit-subunit interface and dissociates its filament, both in the presence and absence of DNA, certainly by binding to dissociated monomers. The inhibition is efficient and specific for Rad51: the peptide does not even interact with Rad51 homologs or prevent their interaction with DNA. Neither the N-terminal nor the C-terminal half of the peptide interacts with human Rad51, indicating that both parts are involved in the interaction, as expected from the crystal structure. These results suggest the possibility of developing inhibitors of human Rad51 based on this peptide.

Authors

I am an author on this paper
Click your name to claim this paper and add it to your profile.

Reviews

Primary Rating

4.2
Not enough ratings

Secondary Ratings

Novelty
-
Significance
-
Scientific rigor
-
Rate this paper

Recommended

Article Biochemistry & Molecular Biology

Histone Methylation by SETD1A Protects Nascent DNA through the Nucleosome Chaperone Activity of FANCD2

Martin R. Higgs, Koichi Sato, John J. Reynolds, Shabana Begum, Rachel Bayley, Amalia Goula, Audrey Vernet, Karissa L. Paquin, David G. Skalnik, Wataru Kobayashi, Minoru Takata, Niall G. Howlett, Hitoshi Kurumizaka, Hiroshi Kimura, Grant S. Stewart

MOLECULAR CELL (2018)

Article Biochemistry & Molecular Biology

Structural Basis of Heterochromatin Formation by Human HP1

Shinichi Machida, Yoshimasa Takizawa, Masakazu Ishimaru, Yukihiko Sugita, Satoshi Sekine, Jun-ichi Nakayama, Matthias Wolf, Hitoshi Kurumizaka

MOLECULAR CELL (2018)

Article Biochemistry & Molecular Biology

Replication stress induces accumulation of FANCD2 at central region of large fragile genes

Yusuke Okamoto, Watal M. Iwasaki, Kazuto Kugou, Kazuki K. Takahashi, Arisa Oda, Koichi Sato, Wataru Kobayashi, Hidehiko Kawai, Ryo Sakasai, Akifumi Takaori-Kondo, Takashi Yamamoto, Masato T. Kanemaki, Masato Taoka, Toshiaki Isobe, Hitoshi Kurumizaka, Hideki Innan, Kunihiro Ohta, Masamichi Ishiai, Minoru Takata

NUCLEIC ACIDS RESEARCH (2018)

Article Biochemistry & Molecular Biology

MNase, as a probe to study the sequence-dependent site exposures in the+1 nucleosomes of yeast

Di Luo, Daiki Kato, Jumpei Nogami, Yasuyuki Ohkawa, Hitoshi Kurumizaka, Hidetoshi Kono

NUCLEIC ACIDS RESEARCH (2018)

Article Biochemistry & Molecular Biology

Histone H2A variants confer specific properties to nucleosomes and impact on chromatin accessibility

Akihisa Osakabe, Zdravko J. Lorkovic, Wataru Kobayashi, Hiroaki Tachiwana, Ramesh Yelagandula, Hitoshi Kurumizaka, Frederic Berger

NUCLEIC ACIDS RESEARCH (2018)

Article Multidisciplinary Sciences

Histone H3.3 sub-variant H3mm7 is required for normal skeletal muscle regeneration

Akihito Harada, Kazumitsu Maehara, Yusuke Ono, Hiroyuki Taguchi, Kiyoshi Yoshioka, Yasuo Kitajima, Yan Xie, Yuko Sato, Takeshi Iwasaki, Jumpei Nogami, Seiji Okada, Tetsuro Komatsu, Yuichiro Semba, Tatsuya Takemoto, Hiroshi Kimura, Hitoshi Kurumizaka, Yasuyuki Ohkawa

NATURE COMMUNICATIONS (2018)

Article Biochemistry & Molecular Biology

Cryo-EM structure of the nucleosome containing the ALB1 enhancer DNA sequence

Yoshimasa Takizawa, Hiroki Tanaka, Shinichi Machida, Masako Koyama, Kazumitsu Maehara, Yasuyuki Ohkawa, Paul A. Wade, Matthias Wolf, Hitoshi Kurumizaka

OPEN BIOLOGY (2018)

Article Biochemical Research Methods

Structural polymorphism of the Escherichia coli poly-α-L-glutamate synthetase RimK

Yasuhiro Arimura, Tomonori Kono, Kuniki Kino, Hitoshi Kurumizaka

ACTA CRYSTALLOGRAPHICA SECTION F-STRUCTURAL BIOLOGY COMMUNICATIONS (2018)

Article Multidisciplinary Sciences

LC-MS/MS-based quantitative study of the acyl group- and site-selectivity of human sirtuins to acylated nucleosomes

Kana Tanabe, Jiaan Liu, Daiki Kato, Hitoshi Kurumizaka, Kenzo Yamatsugu, Motomu Kanai, Shigehiro A. Kawashima

SCIENTIFIC REPORTS (2018)

Correction Biochemistry & Molecular Biology

Contribution of histone N-terminal tails to the structure and stability of nucleosomes (vol 3, pg 363, 2013)

Wakana Iwasaki, Yuta Miya, Naoki Horikoshi, Akihisa Osakabe, Hiroyuki Taguchi, Hiroaki Tachiwana, Takehiko Shibata, Wataru Kagawa, Hitoshi Kurumizaka

FEBS OPEN BIO (2018)

Article Cell Biology

A chromatin integration labelling method enables epigenomic profiling with lower input

Akihito Harada, Kazumitsu Maehara, Tetsuya Handa, Yasuhiro Arimura, Jumpei Nogami, Yoko Hayashi-Takanaka, Katsuhiko Shirahige, Hitoshi Kurumizaka, Hiroshi Kimura, Yasuyuki Ohkawa

NATURE CELL BIOLOGY (2019)

Article Multidisciplinary Sciences

Structural basis of the nucleosome transition during RNA polymerase II passage

Tomoya Kujirai, Haruhiko Ehara, Yuka Fujino, Mikako Shirouzu, Shun-ichi Sekine, Hitoshi Kurumizaka

SCIENCE (2018)

Article Multidisciplinary Sciences

Structural basis for the inhibition of cGAS by nucleosomes

Tomoya Kujirai, Christian Zierhut, Yoshimasa Takizawa, Ryan Kim, Lumi Negishi, Nobuki Uruma, Seiya Hirai, Hironori Funabiki, Hitoshi Kurumizaka

SCIENCE (2020)

Review Cell Biology

Structural Transition of the Nucleosome during Transcription Elongation

Tomoya Kujirai, Haruhiko Ehara, Shun-ichi Sekine, Hitoshi Kurumizaka

Summary: In eukaryotes, genomic DNA is packaged into chromatin and the nucleosome acts as a barrier to transcription. The RNA polymerase II elongation complex disassembles the nucleosome during transcription to allow passage. After transcription, the nucleosome is rebuilt by transcription-coupled nucleosome reassembly, which plays a crucial role in preserving epigenetic information. The histone chaperone FACT is involved in nucleosome disassembly, maintenance, and reassembly during transcription in chromatin. Recent structural studies have provided insights into the structural transitions of the nucleosome during transcription.

CELLS (2023)

Article Multidisciplinary Sciences

Structural basis for p53 binding to its nucleosomal target DNA sequence

Masahiro Nishimura, Yoshimasa Takizawa, Kayo Nozawa, Hitoshi Kurumizaka

Summary: The study reveals the structure of p53 binding to a nucleosome, providing valuable insights into the mechanism by which p53 binds to its target DNA and changes the chromatin structure for gene activation.

PNAS NEXUS (2022)

No Data Available