PKA‐binding domain of AKAP8 is essential for direct interaction with DPY30 protein

The main function of the A kinase‐anchoring proteins (AKAPs) is to target the cyclic AMP‐dependent protein kinase A (PKA) to its cellular substrates through the interaction with its regulatory subunits. Besides anchoring of PKA, AKAP8 participates in regulating the histone H3 lysine 4 (H3K4) histone...

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Veröffentlicht in:The FEBS journal 2018-03, Vol.285 (5), p.947-964
Hauptverfasser: Bieluszewska, Anna, Weglewska, Martyna, Bieluszewski, Tomasz, Lesniewicz, Krzysztof, Poreba, Elzbieta
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container_issue 5
container_start_page 947
container_title The FEBS journal
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creator Bieluszewska, Anna
Weglewska, Martyna
Bieluszewski, Tomasz
Lesniewicz, Krzysztof
Poreba, Elzbieta
description The main function of the A kinase‐anchoring proteins (AKAPs) is to target the cyclic AMP‐dependent protein kinase A (PKA) to its cellular substrates through the interaction with its regulatory subunits. Besides anchoring of PKA, AKAP8 participates in regulating the histone H3 lysine 4 (H3K4) histone methyltransferase (HMT) complexes. It is also involved in DNA replication, apoptosis, transcriptional silencing of rRNA genes, alternative splicing, and chromatin condensation during mitosis. In this study, we focused on the interaction between AKAP8 and the core subunit of all known H3K4 HMT complexes—DPY30 protein. Here, we demonstrate that the PKA‐binding domain of AKAP8 and the C‐terminal domain of DPY30, also called Dpy‐30 motif, are crucial for the interaction between these proteins. We show that a single amino acid substitution in DPY30 L69D affects its dimerization and completely abolishes its interaction with AKAP8 and another DPY30‐binding partner brefeldin A‐inhibited guanine nucleotide‐exchange protein 1 (BIG1), which is also AKAP domain‐containing protein. We further demonstrate that AKAP8 interacts with DPY30 and the RII alpha regulatory subunit of PKA both in the interphase and in mitotic cells, and we show evidences that AKAP8L, a homologue of AKAP8, interacts with core subunits of the H3K4 HMT complexes, which suggests its role as a potential regulator of these complexes. The results presented here reinforce the analogy between AKAP8–RII alpha and AKAP8–DPY30 interactions, postulated before, and improve our understanding of the complexity of the cellular functions of the AKAP8 protein. A kinase‐anchoring protein 8 (AKAP8) participates in regulating H3K4 histone methyltransferase (HMT) complexes. We demonstrate that the interaction between AKAP8 and the core subunit of histone H3 lysine 4 (H3K4) HMT complexes, DPY30 protein, shows structural analogy to the complex composed of AKAP8 and the cyclic AMP‐dependent protein kinase A regulatory subunit. We also show evidences that A‐kinase anchoring protein 8 like, a homologue of AKAP8, interacts with core subunits of H3K4 HMT complexes.
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Besides anchoring of PKA, AKAP8 participates in regulating the histone H3 lysine 4 (H3K4) histone methyltransferase (HMT) complexes. It is also involved in DNA replication, apoptosis, transcriptional silencing of rRNA genes, alternative splicing, and chromatin condensation during mitosis. In this study, we focused on the interaction between AKAP8 and the core subunit of all known H3K4 HMT complexes—DPY30 protein. Here, we demonstrate that the PKA‐binding domain of AKAP8 and the C‐terminal domain of DPY30, also called Dpy‐30 motif, are crucial for the interaction between these proteins. We show that a single amino acid substitution in DPY30 L69D affects its dimerization and completely abolishes its interaction with AKAP8 and another DPY30‐binding partner brefeldin A‐inhibited guanine nucleotide‐exchange protein 1 (BIG1), which is also AKAP domain‐containing protein. We further demonstrate that AKAP8 interacts with DPY30 and the RII alpha regulatory subunit of PKA both in the interphase and in mitotic cells, and we show evidences that AKAP8L, a homologue of AKAP8, interacts with core subunits of the H3K4 HMT complexes, which suggests its role as a potential regulator of these complexes. The results presented here reinforce the analogy between AKAP8–RII alpha and AKAP8–DPY30 interactions, postulated before, and improve our understanding of the complexity of the cellular functions of the AKAP8 protein. A kinase‐anchoring protein 8 (AKAP8) participates in regulating H3K4 histone methyltransferase (HMT) complexes. We demonstrate that the interaction between AKAP8 and the core subunit of histone H3 lysine 4 (H3K4) HMT complexes, DPY30 protein, shows structural analogy to the complex composed of AKAP8 and the cyclic AMP‐dependent protein kinase A regulatory subunit. 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We further demonstrate that AKAP8 interacts with DPY30 and the RII alpha regulatory subunit of PKA both in the interphase and in mitotic cells, and we show evidences that AKAP8L, a homologue of AKAP8, interacts with core subunits of the H3K4 HMT complexes, which suggests its role as a potential regulator of these complexes. The results presented here reinforce the analogy between AKAP8–RII alpha and AKAP8–DPY30 interactions, postulated before, and improve our understanding of the complexity of the cellular functions of the AKAP8 protein. A kinase‐anchoring protein 8 (AKAP8) participates in regulating H3K4 histone methyltransferase (HMT) complexes. We demonstrate that the interaction between AKAP8 and the core subunit of histone H3 lysine 4 (H3K4) HMT complexes, DPY30 protein, shows structural analogy to the complex composed of AKAP8 and the cyclic AMP‐dependent protein kinase A regulatory subunit. 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Besides anchoring of PKA, AKAP8 participates in regulating the histone H3 lysine 4 (H3K4) histone methyltransferase (HMT) complexes. It is also involved in DNA replication, apoptosis, transcriptional silencing of rRNA genes, alternative splicing, and chromatin condensation during mitosis. In this study, we focused on the interaction between AKAP8 and the core subunit of all known H3K4 HMT complexes—DPY30 protein. Here, we demonstrate that the PKA‐binding domain of AKAP8 and the C‐terminal domain of DPY30, also called Dpy‐30 motif, are crucial for the interaction between these proteins. We show that a single amino acid substitution in DPY30 L69D affects its dimerization and completely abolishes its interaction with AKAP8 and another DPY30‐binding partner brefeldin A‐inhibited guanine nucleotide‐exchange protein 1 (BIG1), which is also AKAP domain‐containing protein. We further demonstrate that AKAP8 interacts with DPY30 and the RII alpha regulatory subunit of PKA both in the interphase and in mitotic cells, and we show evidences that AKAP8L, a homologue of AKAP8, interacts with core subunits of the H3K4 HMT complexes, which suggests its role as a potential regulator of these complexes. The results presented here reinforce the analogy between AKAP8–RII alpha and AKAP8–DPY30 interactions, postulated before, and improve our understanding of the complexity of the cellular functions of the AKAP8 protein. A kinase‐anchoring protein 8 (AKAP8) participates in regulating H3K4 histone methyltransferase (HMT) complexes. We demonstrate that the interaction between AKAP8 and the core subunit of histone H3 lysine 4 (H3K4) HMT complexes, DPY30 protein, shows structural analogy to the complex composed of AKAP8 and the cyclic AMP‐dependent protein kinase A regulatory subunit. We also show evidences that A‐kinase anchoring protein 8 like, a homologue of AKAP8, interacts with core subunits of H3K4 HMT complexes.</abstract><cop>England</cop><pub>Blackwell Publishing Ltd</pub><pmid>29288530</pmid><doi>10.1111/febs.14378</doi><tpages>18</tpages><oa>free_for_read</oa></addata></record>
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subjects A kinase-anchoring protein
AKAP8
AKAP8L
Alternative splicing
Amino acid substitution
Anchoring
Apoptosis
Binding
Brefeldin A
Chromatin
Cyclic AMP
Deoxyribonucleic acid
Dimerization
DNA
DNA biosynthesis
DPY30
Gene silencing
Guanine
H3K4 HMT complexes
H3K4 methylation
Histone H3
Histone methyltransferase
Homology
Kinases
Lysine
Mitosis
PKA regulatory subunit
Protein kinase A
Proteins
Regulatory subunits
rRNA
Substrates
title PKA‐binding domain of AKAP8 is essential for direct interaction with DPY30 protein
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