Construction of a Versatile, Programmable RNA-Binding Protein Using Designer PPR Proteins and Its Application for Splicing Control in Mammalian Cells

RNAs play many essential roles in gene expression and are involved in various human diseases. Although genome editing technologies have been established, the engineering of sequence-specific RNA-binding proteins that manipulate particular cellular RNA molecules is immature, in contrast to nucleotide...

Full description

Bibliographic Details
Main Authors: Yusuke Yagi, Takamasa Teramoto, Shuji Kaieda, Takayoshi Imai, Tadamasa Sasaki, Maiko Yagi, Nana Maekawa, Takahiro Nakamura
Format: Article
Language:English
Published: MDPI AG 2022-11-01
Series:Cells
Subjects:
Online Access:https://www.mdpi.com/2073-4409/11/22/3529
_version_ 1797465627784380416
author Yusuke Yagi
Takamasa Teramoto
Shuji Kaieda
Takayoshi Imai
Tadamasa Sasaki
Maiko Yagi
Nana Maekawa
Takahiro Nakamura
author_facet Yusuke Yagi
Takamasa Teramoto
Shuji Kaieda
Takayoshi Imai
Tadamasa Sasaki
Maiko Yagi
Nana Maekawa
Takahiro Nakamura
author_sort Yusuke Yagi
collection DOAJ
description RNAs play many essential roles in gene expression and are involved in various human diseases. Although genome editing technologies have been established, the engineering of sequence-specific RNA-binding proteins that manipulate particular cellular RNA molecules is immature, in contrast to nucleotide-based RNA manipulation technology, such as siRNA- and RNA-targeting CRISPR/Cas. Here, we demonstrate a versatile RNA manipulation technology using pentatricopeptide-repeat (PPR)-motif-containing proteins. First, we developed a rapid construction and evaluation method for PPR-based designer sequence-specific RNA-binding proteins. This system has enabled the steady construction of dozens of functional designer PPR proteins targeting long 18 nt RNA, which targets a single specific RNA in the mammalian transcriptome. Furthermore, the cellular functionality of the designer PPR proteins was first demonstrated by the control of alternative splicing of either a reporter gene or an endogenous <i>CHK1</i> mRNA. Our results present a versatile protein-based RNA manipulation technology using PPR proteins that facilitates the understanding of unknown RNA functions and the creation of gene circuits and has potential for use in future therapeutics.
first_indexed 2024-03-09T18:25:11Z
format Article
id doaj.art-2a328fe6eeca46a58a0780d41623349a
institution Directory Open Access Journal
issn 2073-4409
language English
last_indexed 2024-03-09T18:25:11Z
publishDate 2022-11-01
publisher MDPI AG
record_format Article
series Cells
spelling doaj.art-2a328fe6eeca46a58a0780d41623349a2023-11-24T07:56:55ZengMDPI AGCells2073-44092022-11-011122352910.3390/cells11223529Construction of a Versatile, Programmable RNA-Binding Protein Using Designer PPR Proteins and Its Application for Splicing Control in Mammalian CellsYusuke Yagi0Takamasa Teramoto1Shuji Kaieda2Takayoshi Imai3Tadamasa Sasaki4Maiko Yagi5Nana Maekawa6Takahiro Nakamura7EditForce, Inc., Fukuoka 819-0395, JapanFaculty of Agriculture, Kyushu University, Fukuoka 812-8581, JapanEditForce, Inc., Fukuoka 819-0395, JapanEditForce, Inc., Fukuoka 819-0395, JapanEditForce, Inc., Fukuoka 819-0395, JapanEditForce, Inc., Fukuoka 819-0395, JapanEditForce, Inc., Fukuoka 819-0395, JapanEditForce, Inc., Fukuoka 819-0395, JapanRNAs play many essential roles in gene expression and are involved in various human diseases. Although genome editing technologies have been established, the engineering of sequence-specific RNA-binding proteins that manipulate particular cellular RNA molecules is immature, in contrast to nucleotide-based RNA manipulation technology, such as siRNA- and RNA-targeting CRISPR/Cas. Here, we demonstrate a versatile RNA manipulation technology using pentatricopeptide-repeat (PPR)-motif-containing proteins. First, we developed a rapid construction and evaluation method for PPR-based designer sequence-specific RNA-binding proteins. This system has enabled the steady construction of dozens of functional designer PPR proteins targeting long 18 nt RNA, which targets a single specific RNA in the mammalian transcriptome. Furthermore, the cellular functionality of the designer PPR proteins was first demonstrated by the control of alternative splicing of either a reporter gene or an endogenous <i>CHK1</i> mRNA. Our results present a versatile protein-based RNA manipulation technology using PPR proteins that facilitates the understanding of unknown RNA functions and the creation of gene circuits and has potential for use in future therapeutics.https://www.mdpi.com/2073-4409/11/22/3529RNApentatricopeptide repeat proteinsplicing
spellingShingle Yusuke Yagi
Takamasa Teramoto
Shuji Kaieda
Takayoshi Imai
Tadamasa Sasaki
Maiko Yagi
Nana Maekawa
Takahiro Nakamura
Construction of a Versatile, Programmable RNA-Binding Protein Using Designer PPR Proteins and Its Application for Splicing Control in Mammalian Cells
Cells
RNA
pentatricopeptide repeat protein
splicing
title Construction of a Versatile, Programmable RNA-Binding Protein Using Designer PPR Proteins and Its Application for Splicing Control in Mammalian Cells
title_full Construction of a Versatile, Programmable RNA-Binding Protein Using Designer PPR Proteins and Its Application for Splicing Control in Mammalian Cells
title_fullStr Construction of a Versatile, Programmable RNA-Binding Protein Using Designer PPR Proteins and Its Application for Splicing Control in Mammalian Cells
title_full_unstemmed Construction of a Versatile, Programmable RNA-Binding Protein Using Designer PPR Proteins and Its Application for Splicing Control in Mammalian Cells
title_short Construction of a Versatile, Programmable RNA-Binding Protein Using Designer PPR Proteins and Its Application for Splicing Control in Mammalian Cells
title_sort construction of a versatile programmable rna binding protein using designer ppr proteins and its application for splicing control in mammalian cells
topic RNA
pentatricopeptide repeat protein
splicing
url https://www.mdpi.com/2073-4409/11/22/3529
work_keys_str_mv AT yusukeyagi constructionofaversatileprogrammablernabindingproteinusingdesignerpprproteinsanditsapplicationforsplicingcontrolinmammaliancells
AT takamasateramoto constructionofaversatileprogrammablernabindingproteinusingdesignerpprproteinsanditsapplicationforsplicingcontrolinmammaliancells
AT shujikaieda constructionofaversatileprogrammablernabindingproteinusingdesignerpprproteinsanditsapplicationforsplicingcontrolinmammaliancells
AT takayoshiimai constructionofaversatileprogrammablernabindingproteinusingdesignerpprproteinsanditsapplicationforsplicingcontrolinmammaliancells
AT tadamasasasaki constructionofaversatileprogrammablernabindingproteinusingdesignerpprproteinsanditsapplicationforsplicingcontrolinmammaliancells
AT maikoyagi constructionofaversatileprogrammablernabindingproteinusingdesignerpprproteinsanditsapplicationforsplicingcontrolinmammaliancells
AT nanamaekawa constructionofaversatileprogrammablernabindingproteinusingdesignerpprproteinsanditsapplicationforsplicingcontrolinmammaliancells
AT takahironakamura constructionofaversatileprogrammablernabindingproteinusingdesignerpprproteinsanditsapplicationforsplicingcontrolinmammaliancells