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Structural basis of the regulation of the normal and oncogenic methylation of nucleosomal histone H3 Lys36 by NSD2 | Nature Communications

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data-test="article-title" data-article-title="">Structural basis of the regulation of the normal and oncogenic methylation of nucleosomal histone H3 Lys36 by NSD2</h1> <ul class="c-article-author-list c-article-author-list--short" data-test="authors-list" data-component-authors-activator="authors-list"><li class="c-article-author-list__item"><a data-test="author-name" data-track="click" data-track-action="open author" data-track-label="link" href="#auth-Ko-Sato-Aff1" data-author-popup="auth-Ko-Sato-Aff1" data-author-search="Sato, Ko">Ko Sato</a><sup class="u-js-hide"><a href="#Aff1">1</a></sup><sup class="u-js-hide"> <a href="#na1">na1</a></sup>, </li><li class="c-article-author-list__item"><a data-test="author-name" data-track="click" data-track-action="open author" data-track-label="link" href="#auth-Amarjeet-Kumar-Aff2" data-author-popup="auth-Amarjeet-Kumar-Aff2" data-author-search="Kumar, Amarjeet">Amarjeet Kumar</a><span class="u-js-hide">  <a class="js-orcid" 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data-test="journal-link" href="/ncomms" data-track="click" data-track-action="journal homepage" data-track-category="article body" data-track-label="link"><i data-test="journal-title">Nature Communications</i></a> <b data-test="journal-volume"><span class="u-visually-hidden">volume</span> 12</b>, Article number: <span data-test="article-number">6605</span> (<span data-test="article-publication-year">2021</span>) <a href="#citeas" class="c-article-info-details__cite-as u-hide-print" data-track="click" data-track-action="cite this article" data-track-label="link">Cite this article</a> </p> <div class="c-article-metrics-bar__wrapper u-clear-both"> <ul class="c-article-metrics-bar u-list-reset"> <li class=" c-article-metrics-bar__item" data-test="access-count"> <p class="c-article-metrics-bar__count">7373 <span class="c-article-metrics-bar__label">Accesses</span></p> </li> <li class="c-article-metrics-bar__item" data-test="citation-count"> <p class="c-article-metrics-bar__count">23 <span 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subject" data-track-label="link">Chemical modification</a></li><li class="c-article-subject-list__subject"><a href="/subjects/cryoelectron-microscopy" data-track="click" data-track-action="view subject" data-track-label="link">Cryoelectron microscopy</a></li><li class="c-article-subject-list__subject"><a href="/subjects/enzyme-mechanisms" data-track="click" data-track-action="view subject" data-track-label="link">Enzyme mechanisms</a></li><li class="c-article-subject-list__subject"><a href="/subjects/epigenetics" data-track="click" data-track-action="view subject" data-track-label="link">Epigenetics</a></li> </ul> </div> </div> <div class="c-article-body"> <section aria-labelledby="Abs1" data-title="Abstract" lang="en"><div class="c-article-section" id="Abs1-section"><h2 class="c-article-section__title js-section-title js-c-reading-companion-sections-item" id="Abs1">Abstract</h2><div class="c-article-section__content" id="Abs1-content"><p>Dimethylated histone H3 Lys36 (H3K36me2) regulates gene expression, and aberrant H3K36me2 upregulation, resulting from either the overexpression or point mutation of the dimethyltransferase NSD2, is found in various cancers. Here we report the cryo-electron microscopy structure of NSD2 bound to the nucleosome. Nucleosomal DNA is partially unwrapped, facilitating NSD2 access to H3K36. NSD2 interacts with DNA and H2A along with H3. The NSD2 autoinhibitory loop changes its conformation upon nucleosome binding to accommodate H3 in its substrate-binding cleft. Kinetic analysis revealed that two oncogenic mutations, E1099K and T1150A, increase NSD2 catalytic turnover. Molecular dynamics simulations suggested that in both mutants, the autoinhibitory loop adopts an open state that can accommodate H3 more often than the wild-type. We propose that E1099K and T1150A destabilize the interactions that keep the autoinhibitory loop closed, thereby enhancing catalytic turnover. Our analyses guide the development of specific inhibitors of NSD2.</p></div></div></section> <noscript> </noscript> <section aria-labelledby="inline-recommendations" data-title="Inline Recommendations" class="c-article-recommendations" data-track-component="inline-recommendations"> <h3 class="c-article-recommendations-title" id="inline-recommendations">Similar content being viewed by others</h3> <div class="c-article-recommendations-list"> <div class="c-article-recommendations-list__item"> <article class="c-article-recommendations-card" itemscope itemtype="http://schema.org/ScholarlyArticle"> <div class="c-article-recommendations-card__img"><img src="https://media.springernature.com/w215h120/springer-static/image/art%3A10.1038%2Fs41586-020-03069-8/MediaObjects/41586_2020_3069_Fig1_HTML.png" loading="lazy" alt=""></div> <div class="c-article-recommendations-card__main"> <h3 class="c-article-recommendations-card__heading" itemprop="name headline"> <a class="c-article-recommendations-card__link" itemprop="url" href="https://www.nature.com/articles/s41586-020-03069-8?fromPaywallRec=false" data-track="select_recommendations_1" data-track-context="inline recommendations" data-track-action="click recommendations inline - 1" data-track-label="10.1038/s41586-020-03069-8">Molecular basis of nucleosomal H3K36 methylation by NSD methyltransferases </a> </h3> <div class="c-article-meta-recommendations" data-test="recommendation-info"> <span class="c-article-meta-recommendations__item-type">Article</span> <span class="c-article-meta-recommendations__date">23 December 2020</span> </div> </div> </article> </div> <div class="c-article-recommendations-list__item"> <article class="c-article-recommendations-card" itemscope itemtype="http://schema.org/ScholarlyArticle"> <div class="c-article-recommendations-card__img"><img src="https://media.springernature.com/w215h120/springer-static/image/art%3A10.1038%2Fs41421-023-00620-5/MediaObjects/41421_2023_620_Fig1_HTML.png" loading="lazy" alt=""></div> <div class="c-article-recommendations-card__main"> <h3 class="c-article-recommendations-card__heading" itemprop="name headline"> <a class="c-article-recommendations-card__link" itemprop="url" href="https://www.nature.com/articles/s41421-023-00620-5?fromPaywallRec=false" data-track="select_recommendations_2" data-track-context="inline recommendations" data-track-action="click recommendations inline - 2" data-track-label="10.1038/s41421-023-00620-5">Structural basis of nucleosomal H4K20 recognition and methylation by SUV420H1 methyltransferase </a> </h3> <div class="c-article-meta-recommendations" data-test="recommendation-info"> <span class="c-article-meta-recommendations__item-type">Article</span> <span class="c-article-meta-recommendations__access-type">Open access</span> <span class="c-article-meta-recommendations__date">05 December 2023</span> </div> </div> </article> </div> <div class="c-article-recommendations-list__item"> <article class="c-article-recommendations-card" itemscope itemtype="http://schema.org/ScholarlyArticle"> <div class="c-article-recommendations-card__img"><img src="https://media.springernature.com/w215h120/springer-static/image/art%3A10.1038%2Fs42003-024-06395-z/MediaObjects/42003_2024_6395_Fig1_HTML.png" loading="lazy" alt=""></div> <div class="c-article-recommendations-card__main"> <h3 class="c-article-recommendations-card__heading" itemprop="name headline"> <a class="c-article-recommendations-card__link" itemprop="url" href="https://www.nature.com/articles/s42003-024-06395-z?fromPaywallRec=false" data-track="select_recommendations_3" data-track-context="inline recommendations" data-track-action="click recommendations inline - 3" data-track-label="10.1038/s42003-024-06395-z">Discovery of NSD2 non-histone substrates and design of a super-substrate </a> </h3> <div class="c-article-meta-recommendations" data-test="recommendation-info"> <span class="c-article-meta-recommendations__item-type">Article</span> <span class="c-article-meta-recommendations__access-type">Open access</span> <span class="c-article-meta-recommendations__date">08 June 2024</span> </div> </div> </article> </div> </div> </section> <script> window.dataLayer = window.dataLayer || []; window.dataLayer.push({ recommendations: { recommender: 'semantic', model: 'specter', policy_id: 'NA', timestamp: 1732442487, embedded_user: 'null' } }); </script> <div class="main-content"> <section data-title="Introduction"><div class="c-article-section" id="Sec1-section"><h2 class="c-article-section__title js-section-title js-c-reading-companion-sections-item" id="Sec1">Introduction</h2><div class="c-article-section__content" id="Sec1-content"><p>Histones are subjected to a variety of posttranslational modifications that regulate diverse aspects of genome functions<sup><a data-track="click" data-track-action="reference anchor" data-track-label="link" data-test="citation-ref" aria-label="Reference 1" title="Kouzarides, T. Chromatin modifications and their function. Cell 128, 693–705 (2007)." href="/articles/s41467-021-26913-5#ref-CR1" id="ref-link-section-d187599147e528">1</a></sup>. The dysregulation of histone modifications is often linked to diseases such as developmental defects and cancers<sup><a data-track="click" data-track-action="reference anchor" data-track-label="link" data-test="citation-ref" aria-label="Reference 2" title="Egger, G., Liang, G., Aparicio, A. &amp; Jones, P. A. Epigenetics in human disease and prospects for epigenetic therapy. Nature 429, 457–463 (2004)." href="/articles/s41467-021-26913-5#ref-CR2" id="ref-link-section-d187599147e532">2</a></sup>. NSD2 (also known as WHSC1/MMSET) is a member of the NSD family that catalyzes the mono- and dimethylation of histone H3 K36<sup><a data-track="click" data-track-action="reference anchor" data-track-label="link" data-test="citation-ref" aria-label="Reference 3" title="Bennett, R. L., Swaroop, A., Troche, C. &amp; Licht, J. D. The Role of Nuclear Receptor–Binding SET Domain Family Histone Lysine Methyltransferases in Cancer. Cold Spring Harb. Perspect. Med. 7, a026708 (2017)." href="/articles/s41467-021-26913-5#ref-CR3" id="ref-link-section-d187599147e536">3</a></sup>. Dimethylated H3 K36 (H3K36me2) antagonizes the activity of polycomb repressive complex 2 (PRC2) in catalyzing H3K27 trimethylation, a hallmark of repressive chromatin<sup><a data-track="click" data-track-action="reference anchor" data-track-label="link" data-test="citation-ref" aria-label="Reference 4" title="Schmitges, F. W. et al. Histone methylation by PRC2 is inhibited by active chromatin marks. Mol. Cell 42, 330–341 (2011)." href="/articles/s41467-021-26913-5#ref-CR4" id="ref-link-section-d187599147e540">4</a></sup>. Therefore, H3K36me2 maintains gene expression by protecting genomic regions from the spreading of repressive chromatin domains. Moreover, H3K36me2 serves as a binding site for DNMT3A, a de novo DNA methyltransferase, thereby controlling the DNA methylation pattern mainly in intergenic regions<sup><a data-track="click" data-track-action="reference anchor" data-track-label="link" data-test="citation-ref" aria-label="Reference 5" title="Weinberg, D. N. et al. The histone mark H3K36me2 recruits DNMT3A and shapes the intergenic DNA methylation landscape. Nature 573, 281–286 (2019)." href="/articles/s41467-021-26913-5#ref-CR5" id="ref-link-section-d187599147e544">5</a></sup>.</p><p>Several lines of evidence have demonstrated the critical importance of the strict regulation of cellular H3K36me2 levels. First, haploinsufficiency of NSD2 or NSD1 is involved in Wolf–Hirschhorn syndrome or Sotos syndrome, respectively<sup><a data-track="click" data-track-action="reference anchor" data-track-label="link" data-test="citation-ref" aria-label="Reference 6" title="Bergemann, A. D., Cole, F. &amp; Hirschhorn, K. The etiology of Wolf–Hirschhorn syndrome. Trends Genet. 21, 188–195 (2005)." href="/articles/s41467-021-26913-5#ref-CR6" id="ref-link-section-d187599147e551">6</a>,<a data-track="click" data-track-action="reference anchor" data-track-label="link" data-test="citation-ref" aria-label="Reference 7" title="Kurotaki, N. et al. Haploinsufficiency of NSD1 causes Sotos syndrome. Nat. Genet 30, 365–366 (2002)." href="/articles/s41467-021-26913-5#ref-CR7" id="ref-link-section-d187599147e554">7</a></sup>. Second, aberrant upregulation of cellular H3K36me2 levels, induced by the overexpression or point mutation of NSD2, has been found in various cancers. Approximately 15–20% of patients with multiple myeloma carry a t(4;14) translocation, which induces NSD2 overexpression from an immunoglobulin heavy chain locus <i>(IGH)-NSD2</i> hybrid, along with a global increase and redistribution of H3K36me2 in the affected cells<sup><a data-track="click" data-track-action="reference anchor" data-track-label="link" data-test="citation-ref" aria-label="Reference 8" title="Kuo, A. J. et al. NSD2 Links dimethylation of histone H3 at Lysine 36 to oncogenic programming. Mol. Cell 44, 609–620 (2011)." href="/articles/s41467-021-26913-5#ref-CR8" id="ref-link-section-d187599147e561">8</a></sup>. An increased H3K36me2 level reprograms cells by reversing the repressive function of PRC2 in myeloma<sup><a data-track="click" data-track-action="reference anchor" data-track-label="link" data-test="citation-ref" aria-label="Reference 9" title="Popovic, R. et al. Histone methyltransferase MMSET/NSD2 Alters EZH2 binding and reprograms the myeloma epigenome through global and focal changes in H3K36 and H3K27 methylation. PLoS Genet. 10, e1004566 (2014)." href="/articles/s41467-021-26913-5#ref-CR9" id="ref-link-section-d187599147e565">9</a></sup>. A recurrent point mutation in the catalytic SET domain, NSD2 p.E1099K, has been found in patients with acute lymphoblastic leukemia<sup><a data-track="click" data-track-action="reference anchor" data-track-label="link" data-test="citation-ref" aria-label="Reference 10" title="Jaffe, J. D. et al. Global chromatin profiling reveals NSD2 mutations in pediatric acute lymphoblastic leukemia. Nat. Genet 45, 1386–1391 (2013)." href="/articles/s41467-021-26913-5#ref-CR10" id="ref-link-section-d187599147e569">10</a></sup> and other types of cancers<sup><a data-track="click" data-track-action="reference anchor" data-track-label="link" data-test="citation-ref" aria-label="Reference 11" title="Oyer, J. A. et al. Point mutation E1099K in MMSET/NSD2 enhances its methyltranferase activity and leads to altered global chromatin methylation in lymphoid malignancies. Leukemia 28, 198–201 (2014)." href="/articles/s41467-021-26913-5#ref-CR11" id="ref-link-section-d187599147e574">11</a></sup> and is known to aberrantly activate H3K36 methyltransferase activity<sup><a data-track="click" data-track-action="reference anchor" data-track-label="link" data-test="citation-ref" aria-label="Reference 10" title="Jaffe, J. D. et al. Global chromatin profiling reveals NSD2 mutations in pediatric acute lymphoblastic leukemia. Nat. Genet 45, 1386–1391 (2013)." href="/articles/s41467-021-26913-5#ref-CR10" id="ref-link-section-d187599147e578">10</a>,<a data-track="click" data-track-action="reference anchor" data-track-label="link" data-test="citation-ref" aria-label="Reference 11" title="Oyer, J. A. et al. Point mutation E1099K in MMSET/NSD2 enhances its methyltranferase activity and leads to altered global chromatin methylation in lymphoid malignancies. Leukemia 28, 198–201 (2014)." href="/articles/s41467-021-26913-5#ref-CR11" id="ref-link-section-d187599147e581">11</a></sup>. Another recurrent mutation in the SET domain, NSD2 p.T1150A, has been found in mantle cell lymphoma along with the p.E1099K mutation<sup><a data-track="click" data-track-action="reference anchor" data-track-label="link" data-test="citation-ref" aria-label="Reference 12" title="Bea, S. et al. Landscape of somatic mutations and clonal evolution in mantle cell lymphoma. Proc. Natl Acad. Sci. USA 110, 18250–18255 (2013)." href="/articles/s41467-021-26913-5#ref-CR12" id="ref-link-section-d187599147e585">12</a></sup> and was recently shown to be catalytically hyperactivated<sup><a data-track="click" data-track-action="reference anchor" data-track-label="link" data-test="citation-ref" aria-label="Reference 13" title="Li, W. et al. Molecular basis of nucleosomal H3K36 methylation by NSD methyltransferases. Nature 590, 498–503 (2021)." href="/articles/s41467-021-26913-5#ref-CR13" id="ref-link-section-d187599147e589">13</a></sup>.</p><p>Biochemical studies have revealed that nucleosome structures regulate the methylation activity of NSD proteins. NSD2 exhibits weak and nonspecific lysine methylation activity on histone octamer substrates, whereas it strongly and specifically methylates H3K36 when nucleosomal substrates are used<sup><a data-track="click" data-track-action="reference anchor" data-track-label="link" data-test="citation-ref" aria-label="Reference 14" title="Li, Y. et al. The target of the NSD family of histone lysine methyltransferases depends on the nature of the substrate. J. Biol. Chem. 284, 34283–34295 (2009)." href="/articles/s41467-021-26913-5#ref-CR14" id="ref-link-section-d187599147e596">14</a></sup>. The linker histone H1, on the other hand, inhibits the activity of NSD2 on nucleosomal substrates<sup><a data-track="click" data-track-action="reference anchor" data-track-label="link" data-test="citation-ref" aria-label="Reference 15" title="Nimura, K. et al. A histone H3 lysine 36 trimethyltransferase links Nkx2-5 to Wolf–Hirschhorn syndrome. Nature 460, 287–291 (2009)." href="/articles/s41467-021-26913-5#ref-CR15" id="ref-link-section-d187599147e600">15</a>,<a data-track="click" data-track-action="reference anchor" data-track-label="link" data-test="citation-ref" aria-label="Reference 16" title="Willcockson, M. A. et al. H1 histones control the epigenetic landscape by local chromatin compaction. Nature 589, 293–298 (2021)." href="/articles/s41467-021-26913-5#ref-CR16" id="ref-link-section-d187599147e603">16</a></sup>. Crystal structures of the SET domains of NSD1<sup><a data-track="click" data-track-action="reference anchor" data-track-label="link" data-test="citation-ref" aria-label="Reference 17" title="Qiao, Q. et al. The structure of NSD1 reveals an autoregulatory mechanism underlying histone H3K36 methylation. J. Biol. Chem. 286, 8361–8368 (2011)." href="/articles/s41467-021-26913-5#ref-CR17" id="ref-link-section-d187599147e607">17</a></sup>, NSD2<sup><a data-track="click" data-track-action="reference anchor" data-track-label="link" data-test="citation-ref" aria-label="Reference 18" title="Tisi, D. et al. Structure of the epigenetic oncogene MMSET and inhibition by N-alkyl sinefungin derivatives. ACS Chem. Biol. 11, 3093–3105 (2016)." href="/articles/s41467-021-26913-5#ref-CR18" id="ref-link-section-d187599147e611">18</a></sup>, and NSD3 (PDB 5UPD) have shown the substrate-binding cleft to be occupied by the autoinhibitory loop (residues 1180–1188 of NSD2), preventing H3K36 binding. The structure of Set2, an H3K36 trimethyltransferase, bound to the nucleosome has been reported<sup><a data-track="click" data-track-action="reference anchor" data-track-label="link" data-test="citation-ref" aria-label="Reference 19" title="Bilokapic, S. &amp; Halic, M. Nucleosome and ubiquitin position Set2 to methylate H3K36. Nat. Commun. 10, 3795 (2019)." href="/articles/s41467-021-26913-5#ref-CR19" id="ref-link-section-d187599147e615">19</a></sup>, revealing that Set2 captures nucleosomes with partially unwrapped DNA. It has been unclear whether NSD2 captures partially unwrapped nucleosomes similarly to Set2 and how the oncogenic mutations alter its catalytic activity.</p><p>To understand how NSD2 engages with nucleosomal H3K36 and how the oncogenic mutations affect its catalytic activity, we report the structure of the NSD2-nucleosome complex. NSD2 binds to the nucleosome with partially unwrapped DNA and interacts with DNA and H2A, in addition to H3. Upon nucleosome binding, the autoinhibitory loop of NSD2 changes its conformation to accommodate the H3 tail in the catalytic cleft. We also show that the oncogenic E1099K and T1150A mutants exhibit increased catalytic turnover but not an increased nucleosome affinity. Molecular dynamics simulations suggest that E1099K and T1150A increase the tendency of the autoinhibitory loop to adopt an open state. Our analyses provide insights into the regulatory mechanisms of NSD proteins under normal and oncogenic conditions and pave the way for the development of inhibitors of these proteins for the treatment of cancers.</p></div></div></section><section data-title="Results"><div class="c-article-section" id="Sec2-section"><h2 class="c-article-section__title js-section-title js-c-reading-companion-sections-item" id="Sec2">Results</h2><div class="c-article-section__content" id="Sec2-content"><h3 class="c-article__sub-heading" id="Sec3">Overall structure of the NSD2-nucleosome complex</h3><p>We solved a 2.8-Å resolution cryo-electron microscopy (cryo-EM) structure of the complex formed by the catalytic fragment of human NSD2 bearing an E1099K mutation (residues 973–1226, containing the AWS domain, SET domain, and C-terminal basic extension) and a nucleosome in the presence of sinefungin, an analog of <i>S</i>-adenosyl methionine (SAM) (Supplementary Figs.&nbsp;<a data-track="click" data-track-label="link" data-track-action="supplementary material anchor" href="/articles/s41467-021-26913-5#MOESM1">1</a>, <a data-track="click" data-track-label="link" data-track-action="supplementary material anchor" href="/articles/s41467-021-26913-5#MOESM1">2</a>, Supplementary Table&nbsp;<a data-track="click" data-track-label="link" data-track-action="supplementary material anchor" href="/articles/s41467-021-26913-5#MOESM1">1</a>). To facilitate complex formation, we created an NSD2-H4 fusion protein connected by a 32-residue linker and coexpressed it with H3. We then assembled a nucleosome using the coexpressed proteins, along with H2A, H2B, and a 185-bp DNA fragment possessing the 601 nucleosome positioning sequence at its center and 20-bp linker DNA sequences at both ends. We additionally introduced H3K36M substitution that is found in most patients with chondroblastoma<sup><a data-track="click" data-track-action="reference anchor" data-track-label="link" data-test="citation-ref" aria-label="Reference 20" title="Behjati, S. et al. Distinct H3F3A and H3F3B driver mutations define chondroblastoma and giant cell tumor of bone. Nat. Genet. 45, 1479–1482 (2013)." href="/articles/s41467-021-26913-5#ref-CR20" id="ref-link-section-d187599147e646">20</a></sup>, is known to inhibit several H3K36 methyltransferases<sup><a data-track="click" data-track-action="reference anchor" data-track-label="link" data-test="citation-ref" aria-label="Reference 21" title="Lu, C. et al. Histone H3K36 mutations promote sarcomagenesis through altered histone methylation landscape. Science 352, 844–849 (2016)." href="/articles/s41467-021-26913-5#ref-CR21" id="ref-link-section-d187599147e651">21</a></sup>, and has been used in structural studies of Set2<sup><a data-track="click" data-track-action="reference anchor" data-track-label="link" data-test="citation-ref" aria-label="Reference 19" title="Bilokapic, S. &amp; Halic, M. Nucleosome and ubiquitin position Set2 to methylate H3K36. Nat. Commun. 10, 3795 (2019)." href="/articles/s41467-021-26913-5#ref-CR19" id="ref-link-section-d187599147e655">19</a></sup> and SETD2<sup><a data-track="click" data-track-action="reference anchor" data-track-label="link" data-test="citation-ref" aria-label="Reference 22" title="Yang, S. et al. Molecular basis for oncohistone H3 recognition by SETD2 methyltransferase. Genes Dev. 30, 1611–1616 (2016)." href="/articles/s41467-021-26913-5#ref-CR22" id="ref-link-section-d187599147e659">22</a></sup>.</p><p>Fig.&nbsp;<a data-track="click" data-track-label="link" data-track-action="figure anchor" href="/articles/s41467-021-26913-5#Fig1">1</a> shows the overall structure of the NSD2-nucleosome complex. Although a single nucleosome should contain two copies of NSD2 (due to the NSD2-H4 fusion used), we observed only one NSD2 molecule engaging with one of the two H3K36M residues; the other molecule may exhibit a random orientation with respect to the nucleosome position. Judging from the density pattern of purine-pyrimidine base pairs at several positions (Supplementary Fig.&nbsp;<a data-track="click" data-track-label="link" data-track-action="supplementary material anchor" href="/articles/s41467-021-26913-5#MOESM1">3</a>), NSD2 preferentially binds to the DNA end of the 601 sequence known to be unwrapped more easily<sup><a data-track="click" data-track-action="reference anchor" data-track-label="link" data-test="citation-ref" aria-label="Reference 23" title="Ngo, T. T. M., Zhang, Q., Zhou, R., Yodh, J. G. &amp; Ha, T. Asymmetric unwrapping of nucleosomes under tension directed by DNA local flexibility. Cell 160, 1135–1144 (2015)." href="/articles/s41467-021-26913-5#ref-CR23" id="ref-link-section-d187599147e672">23</a></sup>. This suggests that nucleosomes with flexible DNA are more susceptible to H3K36 methylation by NSD2, indicating a possible mechanism by which DNA sequence regulates NSD2’s activity. Residues 986–1203 of NSD2 and 31–134 of the engaged H3 are visible in cryo-EM density and have been included in the model coordinates. The basic C-terminal extension (residues 1209–1226) is required for efficient nucleosome H3K36 methylation by NSD proteins<sup><a data-track="click" data-track-action="reference anchor" data-track-label="link" data-test="citation-ref" aria-label="Reference 24" title="Allali-Hassani, A. et al. A basic post-SET extension of NSDs is essential for nucleosome binding in vitro. J. Biomol. Screen 19, 928–935 (2014)." href="/articles/s41467-021-26913-5#ref-CR24" id="ref-link-section-d187599147e676">24</a></sup>. Although no clear density was observed, the extension is expected to be located near nucleosomal DNA and to form ionic interactions with the DNA phosphates. Upon nucleosome binding, NSD2 was seen to markedly change its conformation at the autoinhibitory loop to allow the accommodation of the H3 tail (see “Conformational change of the autoinhibitory loop”).</p><div class="c-article-section__figure js-c-reading-companion-figures-item" data-test="figure" data-container-section="figure" id="figure-1" data-title="Overall structure."><figure><figcaption><b id="Fig1" class="c-article-section__figure-caption" data-test="figure-caption-text">Fig. 1: Overall structure.</b></figcaption><div class="c-article-section__figure-content"><div class="c-article-section__figure-item"><a class="c-article-section__figure-link" data-test="img-link" data-track="click" data-track-label="image" data-track-action="view figure" href="/articles/s41467-021-26913-5/figures/1" rel="nofollow"><picture><source type="image/webp" srcset="//media.springernature.com/lw685/springer-static/image/art%3A10.1038%2Fs41467-021-26913-5/MediaObjects/41467_2021_26913_Fig1_HTML.png?as=webp"><img aria-describedby="Fig1" src="//media.springernature.com/lw685/springer-static/image/art%3A10.1038%2Fs41467-021-26913-5/MediaObjects/41467_2021_26913_Fig1_HTML.png" alt="figure 1" loading="lazy" width="685" height="438"></picture></a></div><div class="c-article-section__figure-description" data-test="bottom-caption" id="figure-1-desc"><p>Unless stated otherwise, proteins are colored as follows: NSD2, magenta; H3, blue; H4, green; H2A, pink; and H2B, yellow. <b>a</b> Density map and <b>b</b> ribbon model, two views related by 180° rotation. <b>c</b> Superposition of the current NSD2-nucleosome structure with that of a canonical nucleosome (PDB 1KX5). Duplex DNA in the NSD2 complex stretches straight up to approximately SHL +5.5, resulting in its partial unwrapping.</p></div></div><div class="u-text-right u-hide-print"><a class="c-article__pill-button" data-test="article-link" data-track="click" data-track-label="button" data-track-action="view figure" href="/articles/s41467-021-26913-5/figures/1" data-track-dest="link:Figure1 Full size image" aria-label="Full size image figure 1" rel="nofollow"><span>Full size image</span><svg width="16" height="16" focusable="false" role="img" aria-hidden="true" class="u-icon"><use xmlns:xlink="http://www.w3.org/1999/xlink" xlink:href="#icon-eds-i-chevron-right-small"></use></svg></a></div></figure></div><p>In the complex structure, the nucleosomal DNA is partially unwrapped near the entry site (Fig.&nbsp;<a data-track="click" data-track-label="link" data-track-action="figure anchor" href="/articles/s41467-021-26913-5#Fig1">1a, c</a>), as observed in the Set2-nucleosome complex<sup><a data-track="click" data-track-action="reference anchor" data-track-label="link" data-test="citation-ref" aria-label="Reference 19" title="Bilokapic, S. &amp; Halic, M. Nucleosome and ubiquitin position Set2 to methylate H3K36. Nat. Commun. 10, 3795 (2019)." href="/articles/s41467-021-26913-5#ref-CR19" id="ref-link-section-d187599147e715">19</a></sup>. In the canonical nucleosome, H3K36 is located between the two gyres of DNA in a relatively crowded environment. Thus, NSD2 needs to remove one gyre to gain access to H3K36 and accommodate its side chain in the catalytic pocket. Nucleosomal DNA, which usually exhibits a curved structure wrapping around the histone octamer, stretches around superhelix location (SHL) +5.5 and extrudes away from the histone octamer. This extrusion allows NSD2 to establish interactions with the first α-helix of H3. Moreover, NSD2 interacts with the N-terminal tail of H3, the C-terminal portion of H2A, and DNA at two locations, SHL-1 and the external linker DNA position (Fig.&nbsp;<a data-track="click" data-track-label="link" data-track-action="figure anchor" href="/articles/s41467-021-26913-5#Fig2">2a</a> and Supplementary Fig.&nbsp;<a data-track="click" data-track-label="link" data-track-action="supplementary material anchor" href="/articles/s41467-021-26913-5#MOESM1">4a</a>, <a data-track="click" data-track-label="link" data-track-action="supplementary material anchor" href="/articles/s41467-021-26913-5#MOESM1">b</a>). The interaction modes are similar to those observed in the complex between yeast Set2, an H3K36 trimethyltransferase, and the nucleosome (Supplementary Fig.&nbsp;<a data-track="click" data-track-label="link" data-track-action="supplementary material anchor" href="/articles/s41467-021-26913-5#MOESM1">4c</a>)<sup><a data-track="click" data-track-action="reference anchor" data-track-label="link" data-test="citation-ref" aria-label="Reference 19" title="Bilokapic, S. &amp; Halic, M. Nucleosome and ubiquitin position Set2 to methylate H3K36. Nat. Commun. 10, 3795 (2019)." href="/articles/s41467-021-26913-5#ref-CR19" id="ref-link-section-d187599147e732">19</a></sup>. However, the linker DNA exhibits different conformations in the two complexes (Supplementary Fig.&nbsp;<a data-track="click" data-track-label="link" data-track-action="supplementary material anchor" href="/articles/s41467-021-26913-5#MOESM1">4d</a>), and three lysine residues of NSD2 (K992, K995, and K998), conserved across NSD proteins but not in Set2, face the linker DNA (Supplementary Fig.&nbsp;<a data-track="click" data-track-label="link" data-track-action="supplementary material anchor" href="/articles/s41467-021-26913-5#MOESM1">4b</a>, <a data-track="click" data-track-label="link" data-track-action="supplementary material anchor" href="/articles/s41467-021-26913-5#MOESM1">5</a>).</p><div class="c-article-section__figure js-c-reading-companion-figures-item" data-test="figure" data-container-section="figure" id="figure-2" data-title="Interactions of NSD2 with histones H3 and H2A and DNA."><figure><figcaption><b id="Fig2" class="c-article-section__figure-caption" data-test="figure-caption-text">Fig. 2: Interactions of NSD2 with histones H3 and H2A and DNA.</b></figcaption><div class="c-article-section__figure-content"><div class="c-article-section__figure-item"><a class="c-article-section__figure-link" data-test="img-link" data-track="click" data-track-label="image" data-track-action="view figure" href="/articles/s41467-021-26913-5/figures/2" rel="nofollow"><picture><source type="image/webp" srcset="//media.springernature.com/lw685/springer-static/image/art%3A10.1038%2Fs41467-021-26913-5/MediaObjects/41467_2021_26913_Fig2_HTML.png?as=webp"><img aria-describedby="Fig2" src="//media.springernature.com/lw685/springer-static/image/art%3A10.1038%2Fs41467-021-26913-5/MediaObjects/41467_2021_26913_Fig2_HTML.png" alt="figure 2" loading="lazy" width="685" height="396"></picture></a></div><div class="c-article-section__figure-description" data-test="bottom-caption" id="figure-2-desc"><p>The cryo-EM density is shown as a blue mesh in <b>a</b> (contoured at 7σ), <b>b</b> (at 3σ), and <b>d</b> (at 5σ). <b>a</b> Interactions with the first α-helix of H3 and DNA. <b>b</b> Interactions with H2A. <b>c</b> Interactions with the H3 tail region. <b>d</b> The H3K36-binding cavity.</p></div></div><div class="u-text-right u-hide-print"><a class="c-article__pill-button" data-test="article-link" data-track="click" data-track-label="button" data-track-action="view figure" href="/articles/s41467-021-26913-5/figures/2" data-track-dest="link:Figure2 Full size image" aria-label="Full size image figure 2" rel="nofollow"><span>Full size image</span><svg width="16" height="16" focusable="false" role="img" aria-hidden="true" class="u-icon"><use xmlns:xlink="http://www.w3.org/1999/xlink" xlink:href="#icon-eds-i-chevron-right-small"></use></svg></a></div></figure></div><h3 class="c-article__sub-heading" id="Sec4">Interactions of NSD2 with histones and DNA</h3><p>Fig.&nbsp;<a data-track="click" data-track-label="link" data-track-action="figure anchor" href="/articles/s41467-021-26913-5#Fig2">2</a> shows the interactions between NSD2 and histones in detail. Two arginine residues in the first α-helix of H3 (H3R49 and H3R52) make extensive contact with NSD2 (Fig.&nbsp;<a data-track="click" data-track-label="link" data-track-action="figure anchor" href="/articles/s41467-021-26913-5#Fig2">2a</a>). In the canonical nucleosome, these arginine residues are located close to the phosphate groups of DNA. The interactions between NSD2 and the two arginine residues may compensate for the loss of their interactions with DNA. In addition, H3Y41 stacks against K1152, which further forms a salt bridge with the phosphate group of nucleosomal DNA at SHL -1.</p><p>The interactions between NSD2 and H2A are mainly hydrophobic, and there is a salt bridge between E1031 and H2AK119 (Fig.&nbsp;<a data-track="click" data-track-label="link" data-track-action="figure anchor" href="/articles/s41467-021-26913-5#Fig2">2b</a>). H2AK119 is monoubiquitinated by polycomb repressive complex 1 (PRC1), which cooperates with PRC2 to establish a transcriptionally repressive chromatin environment<sup><a data-track="click" data-track-action="reference anchor" data-track-label="link" data-test="citation-ref" aria-label="Reference 25" title="Schuettengruber, B., Bourbon, H.-M., Di Croce, L. &amp; Cavalli, G. Genome regulation by polycomb and trithorax: 70 years and counting. Cell 171, 34–57 (2017)." href="/articles/s41467-021-26913-5#ref-CR25" id="ref-link-section-d187599147e807">25</a></sup>. Given the known antagonism between H3K36 methylation and polycomb group proteins, it would be interesting to examine whether H2AK119 monoubiquitination suppresses the H3K36 dimethylation activity of NSD2.</p><p>H3K36M and adjacent H3 residues are bound to the substrate-binding cleft on the surface of the SET domain of NSD2 (Figs.&nbsp;<a data-track="click" data-track-label="link" data-track-action="figure anchor" href="/articles/s41467-021-26913-5#Fig2">2c</a>, <a data-track="click" data-track-label="link" data-track-action="figure anchor" href="/articles/s41467-021-26913-5#Fig3">3c</a>, and Supplementary Fig.&nbsp;<a data-track="click" data-track-label="link" data-track-action="supplementary material anchor" href="/articles/s41467-021-26913-5#MOESM1">6</a>). H3K36M and H3K37 form an intermolecular three-stranded β-sheet structure with M1119-T1121 on one side and Y1179 on the other. The H3T32 carbonyl and hydroxyl groups also form hydrogen bonds with NSD2. Two H3 residues, H3V35 and H3P38, are bound to small hydrophobic patches on the surface of NSD2. The H3V35 side chain interacts with C1102, M1119, T1121, and I1127, while the H3P38 side chain interacts with L1120, T1150, and V1161. The H3K37 side chain protrudes toward the solvent and forms hydrophobic interaction with L1181. The H3K36M side chain is accommodated in the catalytic cavity and surrounded by the side chains of Y1092, L1120, F1177, and Y1179 (Fig.&nbsp;<a data-track="click" data-track-label="link" data-track-action="figure anchor" href="/articles/s41467-021-26913-5#Fig2">2d</a>).</p><div class="c-article-section__figure js-c-reading-companion-figures-item" data-test="figure" data-container-section="figure" id="figure-3" data-title="Autoinhibitory loop and oncogenic mutations."><figure><figcaption><b id="Fig3" class="c-article-section__figure-caption" data-test="figure-caption-text">Fig. 3: Autoinhibitory loop and oncogenic mutations.</b></figcaption><div class="c-article-section__figure-content"><div class="c-article-section__figure-item"><a class="c-article-section__figure-link" data-test="img-link" data-track="click" data-track-label="image" data-track-action="view figure" href="/articles/s41467-021-26913-5/figures/3" rel="nofollow"><picture><source type="image/webp" srcset="//media.springernature.com/lw685/springer-static/image/art%3A10.1038%2Fs41467-021-26913-5/MediaObjects/41467_2021_26913_Fig3_HTML.png?as=webp"><img aria-describedby="Fig3" src="//media.springernature.com/lw685/springer-static/image/art%3A10.1038%2Fs41467-021-26913-5/MediaObjects/41467_2021_26913_Fig3_HTML.png" alt="figure 3" loading="lazy" width="685" height="621"></picture></a></div><div class="c-article-section__figure-description" data-test="bottom-caption" id="figure-3-desc"><p>Residues whose substitution resulted in increased H3K36 methyltransferase activity are indicated with underlined labels. The autoinhibitory loop is colored orange. A water molecule mediating the interaction with T1150 and D1182 in the H3-free form is shown as a red sphere. <b>a</b> Structure of the H3-free NSD2 (PDB ID 5LSU)<sup><a data-track="click" data-track-action="reference anchor" data-track-label="link" data-test="citation-ref" aria-label="Reference 18" title="Tisi, D. et al. Structure of the epigenetic oncogene MMSET and inhibition by N-alkyl sinefungin derivatives. ACS Chem. Biol. 11, 3093–3105 (2016)." href="/articles/s41467-021-26913-5#ref-CR18" id="ref-link-section-d187599147e841">18</a></sup>. <b>b</b> A schematic illustration of (<b>a</b>). <b>c</b> Structure of the NSD2-nucleosome complex. <b>d</b> A schematic illustration of (<b>c</b>).</p></div></div><div class="u-text-right u-hide-print"><a class="c-article__pill-button" data-test="article-link" data-track="click" data-track-label="button" data-track-action="view figure" href="/articles/s41467-021-26913-5/figures/3" data-track-dest="link:Figure3 Full size image" aria-label="Full size image figure 3" rel="nofollow"><span>Full size image</span><svg width="16" height="16" focusable="false" role="img" aria-hidden="true" class="u-icon"><use xmlns:xlink="http://www.w3.org/1999/xlink" xlink:href="#icon-eds-i-chevron-right-small"></use></svg></a></div></figure></div><p>Among known H3K36 methyltransferases, NSD proteins and ASH1L have been shown to monomethylate and dimethylate H3K36, while Set2/SETD2 proteins can introduce H3K36 trimethylation. To gain insights into the differences in methylation state specificity among these proteins, we compared our current NSD2-nucleosome structure (Supplementary Fig.&nbsp;<a data-track="click" data-track-label="link" data-track-action="supplementary material anchor" href="/articles/s41467-021-26913-5#MOESM1">7a</a>) with those of the human SETD2-H3K36M peptide complex (Supplementary Fig.&nbsp;<a data-track="click" data-track-label="link" data-track-action="supplementary material anchor" href="/articles/s41467-021-26913-5#MOESM1">7b</a>)<sup><a data-track="click" data-track-action="reference anchor" data-track-label="link" data-test="citation-ref" aria-label="Reference 22" title="Yang, S. et al. Molecular basis for oncohistone H3 recognition by SETD2 methyltransferase. Genes Dev. 30, 1611–1616 (2016)." href="/articles/s41467-021-26913-5#ref-CR22" id="ref-link-section-d187599147e878">22</a></sup> and the fungus Set2-nucleosome complex (Supplementary Fig.&nbsp;<a data-track="click" data-track-label="link" data-track-action="supplementary material anchor" href="/articles/s41467-021-26913-5#MOESM1">7c</a>)<sup><a data-track="click" data-track-action="reference anchor" data-track-label="link" data-test="citation-ref" aria-label="Reference 19" title="Bilokapic, S. &amp; Halic, M. Nucleosome and ubiquitin position Set2 to methylate H3K36. Nat. Commun. 10, 3795 (2019)." href="/articles/s41467-021-26913-5#ref-CR19" id="ref-link-section-d187599147e885">19</a></sup> and revealed that in addition to F1177, the other aromatic residues surrounding H3K36M (Y1092 and Y1179 of NSD2) are also conserved. On the other hand, L1120 is replaced with methionine in SETD2 and Set2 (Supplementary Figs.&nbsp;<a data-track="click" data-track-label="link" data-track-action="supplementary material anchor" href="/articles/s41467-021-26913-5#MOESM1">5</a>, <a data-track="click" data-track-label="link" data-track-action="supplementary material anchor" href="/articles/s41467-021-26913-5#MOESM1">7</a>). The different residues at this position may regulate methylation state specificity by altering the shape, size, and hydrophobicity of the catalytic cavity.</p><h3 class="c-article__sub-heading" id="Sec5">Conformational change of the autoinhibitory loop</h3><p>Fig.&nbsp;<a data-track="click" data-track-label="link" data-track-action="figure anchor" href="/articles/s41467-021-26913-5#Fig3">3</a> shows the structural comparison between H3-free NSD2<sup><a data-track="click" data-track-action="reference anchor" data-track-label="link" data-test="citation-ref" aria-label="Reference 18" title="Tisi, D. et al. Structure of the epigenetic oncogene MMSET and inhibition by N-alkyl sinefungin derivatives. ACS Chem. Biol. 11, 3093–3105 (2016)." href="/articles/s41467-021-26913-5#ref-CR18" id="ref-link-section-d187599147e907">18</a></sup> and the current structure of NSD2 engaging nucleosomal H3K36. In H3-free NSD2, the autoinhibitory loop (N1180–K1188) adopts a closed conformation, occupying the substrate-binding cleft (Fig.&nbsp;<a data-track="click" data-track-label="link" data-track-action="figure anchor" href="/articles/s41467-021-26913-5#Fig3">3a, b</a>). Upon nucleosome binding, the loop adopts an open conformation, making room for the binding of H3K36M and nearby residues (Fig.&nbsp;<a data-track="click" data-track-label="link" data-track-action="figure anchor" href="/articles/s41467-021-26913-5#Fig3">3c, d</a>). A similar conformational change of the loop is observed in other H3K36 methyltransferases<sup><a data-track="click" data-track-action="reference anchor" data-track-label="link" data-test="citation-ref" aria-label="Reference 13" title="Li, W. et al. Molecular basis of nucleosomal H3K36 methylation by NSD methyltransferases. Nature 590, 498–503 (2021)." href="/articles/s41467-021-26913-5#ref-CR13" id="ref-link-section-d187599147e917">13</a>,<a data-track="click" data-track-action="reference anchor" data-track-label="link" data-test="citation-ref" aria-label="Reference 19" title="Bilokapic, S. &amp; Halic, M. Nucleosome and ubiquitin position Set2 to methylate H3K36. Nat. Commun. 10, 3795 (2019)." href="/articles/s41467-021-26913-5#ref-CR19" id="ref-link-section-d187599147e920">19</a>,<a data-track="click" data-track-action="reference anchor" data-track-label="link" data-test="citation-ref" aria-label="Reference 22" title="Yang, S. et al. Molecular basis for oncohistone H3 recognition by SETD2 methyltransferase. Genes Dev. 30, 1611–1616 (2016)." href="/articles/s41467-021-26913-5#ref-CR22" id="ref-link-section-d187599147e923">22</a></sup></p><p>A detailed structural comparison revealed two elements that could be important for such conformational transitions. First, in the H3-free form, D1182 in the autoinhibitory loop forms a network of water-mediated hydrogen bonds and a salt bridge with the side chains of T1150 and K1152, apparently stabilizing the loop conformation (Fig.&nbsp;<a data-track="click" data-track-label="link" data-track-action="figure anchor" href="/articles/s41467-021-26913-5#Fig3">3a</a>). Similar interactions are found in the crystal structure of NSD1<sup><a data-track="click" data-track-action="reference anchor" data-track-label="link" data-test="citation-ref" aria-label="Reference 26" title="Huang, H. et al. Covalent inhibition of NSD1 histone methyltransferase. Nat. Chem. Biol. 16, 1403–1410 (2020)." href="/articles/s41467-021-26913-5#ref-CR26" id="ref-link-section-d187599147e932">26</a></sup>, implying the functional importance of this conformation shared across NSD family proteins. The T1150A substitution, which is recurrently found in mantle cell lymphoma<sup><a data-track="click" data-track-action="reference anchor" data-track-label="link" data-test="citation-ref" aria-label="Reference 12" title="Bea, S. et al. Landscape of somatic mutations and clonal evolution in mantle cell lymphoma. Proc. Natl Acad. Sci. USA 110, 18250–18255 (2013)." href="/articles/s41467-021-26913-5#ref-CR12" id="ref-link-section-d187599147e936">12</a></sup>, could aberrantly increase the catalytic activity of NSD2 by disrupting the interaction with D1182, thereby affecting the conformation of the autoinhibitory loop. In the nucleosome complex, K1152 of NSD2 no longer forms a salt bridge with D1182 and instead interacts with H3Y41 and a DNA phosphate (Figs.&nbsp;<a data-track="click" data-track-label="link" data-track-action="figure anchor" href="/articles/s41467-021-26913-5#Fig2">2a</a>, <a data-track="click" data-track-label="link" data-track-action="figure anchor" href="/articles/s41467-021-26913-5#Fig3">3c</a>). Thus, K1152 may couple the movement of the autoinhibitory loop with nucleosome binding by switching its binding partner in these forms. This mechanism is consistent with a previous report that the addition of a 41-bp DNA fragment stimulates the catalytic activity of NSD1 and NSD2 on histone octamers<sup><a data-track="click" data-track-action="reference anchor" data-track-label="link" data-test="citation-ref" aria-label="Reference 14" title="Li, Y. et al. The target of the NSD family of histone lysine methyltransferases depends on the nature of the substrate. J. Biol. Chem. 284, 34283–34295 (2009)." href="/articles/s41467-021-26913-5#ref-CR14" id="ref-link-section-d187599147e947">14</a></sup>.</p><p>Second, in the H3-free form, the side chain of L1184 in the autoinhibitory loop binds to the hydrophobic patch formed by C1102, M1119, T1121, and I1127 (Fig.&nbsp;<a data-track="click" data-track-label="link" data-track-action="figure anchor" href="/articles/s41467-021-26913-5#Fig3">3a</a>). In the nucleosome complex, the same patch binds to the H3V35 side chain (Fig.&nbsp;<a data-track="click" data-track-label="link" data-track-action="figure anchor" href="/articles/s41467-021-26913-5#Fig3">3c</a>). The oncogenic E1099K mutation site is located close to the patch. In the H3-free form, the E1099 side chain forms a salt bridge with K1124, which is located in a loop connecting the two β-strands harboring M1119, T1121, and I1127 (Fig.&nbsp;<a data-track="click" data-track-label="link" data-track-action="figure anchor" href="/articles/s41467-021-26913-5#Fig3">3a</a>). In addition to E/K1099, K1124, and K1152, there are several charged residues (such as D1098, D1123, D1125, R1126, and D1158) forming salt bridges with each other around the autoinhibitory loop, which could potentially affect its conformation (see “Discussion”).</p><h3 class="c-article__sub-heading" id="Sec6">E1099K and T1150A increase the apparent <i>k</i> <sub>cat</sub> value of NSD2</h3><p>To gain insight into the mechanisms of substrate recognition and their dysregulation by oncogenic mutations, we conducted biochemical analyses. First, we measured the nucleosomal H3K36 methyltransferase activity of NSD2 and its mutants (Fig.&nbsp;<a data-track="click" data-track-label="link" data-track-action="figure anchor" href="/articles/s41467-021-26913-5#Fig4">4a</a>) using a commercial kit that couples the production of <i>S</i>-adenosyl homocysteine (SAH), a reaction byproduct, to chemiluminescence<sup><a data-track="click" data-track-action="reference anchor" data-track-label="link" data-test="citation-ref" aria-label="Reference 27" title="Coussens, N. P. et al. High-throughput screening with nucleosome substrate identifies small-molecule inhibitors of the human histone lysine methyltransferase NSD2. J. Biol. Chem. 293, 13750–13765 (2018)." href="/articles/s41467-021-26913-5#ref-CR27" id="ref-link-section-d187599147e983">27</a></sup>. NSD2 efficiently methylated the nucleosomes with the 185-bp DNA fragment, but not those with 146-bp DNA fragment, suggesting the importance of its interaction with linker DNA. Accordingly, when the three lysine residues (K992, K995, and K998) that face the linker DNA (Supplementary Fig.&nbsp;<a data-track="click" data-track-label="link" data-track-action="supplementary material anchor" href="/articles/s41467-021-26913-5#MOESM1">4b</a>) were all mutated to alanines, the mutant lost its catalytic activity. The N1034A, K1152A, and T1154A substitutions reduced catalytic activity, showing the important roles played by the interactions of the residues with the nucleosome (Figs.&nbsp;<a data-track="click" data-track-label="link" data-track-action="figure anchor" href="/articles/s41467-021-26913-5#Fig2">2a</a>, <a data-track="click" data-track-label="link" data-track-action="figure anchor" href="/articles/s41467-021-26913-5#Fig4">4a</a>, Supplementary Fig.&nbsp;<a data-track="click" data-track-label="link" data-track-action="supplementary material anchor" href="/articles/s41467-021-26913-5#MOESM1">5</a>). As mentioned above, in the apo structure, D1182 seems to stabilize the closed state of the autoinhibitory loop via its interactions with T1150 and K1152 (Fig.&nbsp;<a data-track="click" data-track-label="link" data-track-action="figure anchor" href="/articles/s41467-021-26913-5#Fig3">3a</a>). However, the D1182A mutant showed reduced activity. We speculate that upon engaging nucleosome, the D1182 side chain may interact with H3 (possibly, with the main-chain amido group of H3G34 or H3V35), thus playing a role in substrate binding. Because of a relatively poor density of the autoinhibitory loop in the current structure, we could not build a reliable atomic model for the D1182 side chain.</p><div class="c-article-section__figure js-c-reading-companion-figures-item" data-test="figure" data-container-section="figure" id="figure-4" data-title="Mutational analyses."><figure><figcaption><b id="Fig4" class="c-article-section__figure-caption" data-test="figure-caption-text">Fig. 4: Mutational analyses.</b></figcaption><div class="c-article-section__figure-content"><div class="c-article-section__figure-item"><a class="c-article-section__figure-link" data-test="img-link" data-track="click" data-track-label="image" data-track-action="view figure" href="/articles/s41467-021-26913-5/figures/4" rel="nofollow"><picture><source type="image/webp" srcset="//media.springernature.com/lw685/springer-static/image/art%3A10.1038%2Fs41467-021-26913-5/MediaObjects/41467_2021_26913_Fig4_HTML.png?as=webp"><img aria-describedby="Fig4" src="//media.springernature.com/lw685/springer-static/image/art%3A10.1038%2Fs41467-021-26913-5/MediaObjects/41467_2021_26913_Fig4_HTML.png" alt="figure 4" loading="lazy" width="685" height="656"></picture></a></div><div class="c-article-section__figure-description" data-test="bottom-caption" id="figure-4-desc"><p><b>a</b> Summary of the enzymatic analysis, showing the relative reaction velocity. Data were presented as mean ± standard deviation of independently generated datasets (<i>n</i> <span class="stix">≧</span> 3). Source data are provided as a Source data file. <b>b</b> Kinetic values and dissociation constants between the NSD2 proteins and the nucleosome with the 185-bp DNA fragment.</p></div></div><div class="u-text-right u-hide-print"><a class="c-article__pill-button" data-test="article-link" data-track="click" data-track-label="button" data-track-action="view figure" href="/articles/s41467-021-26913-5/figures/4" data-track-dest="link:Figure4 Full size image" aria-label="Full size image figure 4" rel="nofollow"><span>Full size image</span><svg width="16" height="16" focusable="false" role="img" aria-hidden="true" class="u-icon"><use xmlns:xlink="http://www.w3.org/1999/xlink" xlink:href="#icon-eds-i-chevron-right-small"></use></svg></a></div></figure></div><p>We next confirmed that the E1099K and T1150A mutants had stronger catalytic activity than the wild-type (Fig.&nbsp;<a data-track="click" data-track-label="link" data-track-action="figure anchor" href="/articles/s41467-021-26913-5#Fig4">4a</a>). Additionally, the substitution of E1099 with arginine, glutamine, and alanine resulted in stronger activities (Fig.&nbsp;<a data-track="click" data-track-label="link" data-track-action="figure anchor" href="/articles/s41467-021-26913-5#Fig4">4a</a>), suggesting the essential regulatory role of glutamate at this position. Moreover, we found that the T1121A substitution, which alters one of the H3V35-binding patch residues (Fig.&nbsp;<a data-track="click" data-track-label="link" data-track-action="figure anchor" href="/articles/s41467-021-26913-5#Fig3">3c</a>), stimulates catalytic activity (Fig.&nbsp;<a data-track="click" data-track-label="link" data-track-action="figure anchor" href="/articles/s41467-021-26913-5#Fig4">4a</a>). This structure-guided identification of a novel activating mutation suggests an important role of the H3V35-binding patch in autoinhibition.</p><p>Next, we conducted a kinetic analysis to gain further insight into the mechanism of hyperactivation (Fig.&nbsp;<a data-track="click" data-track-label="link" data-track-action="figure anchor" href="/articles/s41467-021-26913-5#Fig4">4b</a>, Supplementary Fig.&nbsp;<a data-track="click" data-track-label="link" data-track-action="supplementary material anchor" href="/articles/s41467-021-26913-5#MOESM1">8</a>). The results showed that the increase in catalytic efficiency (<i>k</i><sub>cat</sub><sup>app</sup>/<i>K</i><sub>M</sub><sup>app</sup>) was mainly governed by an increase in the apparent catalytic turnover (<i>k</i><sub>cat</sub><sup>app</sup>) values of the E1099K, T1150A, and T1121A mutants (~16-, 9-, and 3-fold, respectively). The differences in the <i>K</i><sub>M</sub><sup>app</sup> values toward nucleosomes were small among the wild-type and the three mutants. We also measured the affinity between NSD2 and nucleosomes using microscale thermophoresis experiments<sup><a data-track="click" data-track-action="reference anchor" data-track-label="link" data-test="citation-ref" aria-label="Reference 28" title="Asmari, M., Ratih, R., Alhazmi, H. A. &amp; El Deeb, S. Thermophoresis for characterizing biomolecular interaction. Methods 146, 107–119 (2018)." href="/articles/s41467-021-26913-5#ref-CR28" id="ref-link-section-d187599147e1076">28</a></sup>, which showed that neither E1099K nor T1150A increased nucleosome affinity (Fig.&nbsp;<a data-track="click" data-track-label="link" data-track-action="figure anchor" href="/articles/s41467-021-26913-5#Fig4">4b</a>, Supplementary Fig.&nbsp;<a data-track="click" data-track-label="link" data-track-action="supplementary material anchor" href="/articles/s41467-021-26913-5#MOESM1">9</a>). The E1099K mutant exhibited even weaker affinity, although the positively charged K1099 side chain is located near the nucleosomal DNA. Taken together, the results showed that the oncogenic E1099K and T1150A mutations increased the catalytic turnover but not the nucleosome affinity of NSD2.</p><p>We then tested if L1120 is involved in the methylation state specificity. To enhance the signal, we introduced the E1099K background mutation and compare the E1099K single mutant and the E1099K-L1120M double mutant. As shown in Supplementary Fig.&nbsp;<a data-track="click" data-track-label="link" data-track-action="supplementary material anchor" href="/articles/s41467-021-26913-5#MOESM1">10</a>, the E1099K-L1120M double mutant gave a stronger H3K36 trimethylation signal compared with the E1099K single mutant, with only slight increase in the total SAM consumption. These results show that L1120 is important for the dimethylation specificity of NSD2.</p><h3 class="c-article__sub-heading" id="Sec7">Impact of E1099K and T1150A on the dynamics of the autoinhibitory loop</h3><p>To investigate the impact of the E1099K and T1150A mutations on the dynamics of the autoinhibitory loop, we performed MD simulations of the SET domain of the NSD2-SAM complex in the absence of H3. The nucleosome-engaging structure described in this work is highly similar to that of apo-NSD2 except for the autoinhibitory loop (Supplementary Fig.&nbsp;<a data-track="click" data-track-label="link" data-track-action="supplementary material anchor" href="/articles/s41467-021-26913-5#MOESM1">11</a>) and was used as the template to prepare the initial structures. We added the N-terminal helix (residues 973–985) from the apo-NSD2 structure, replaced sinefungin with SAM, and introduced appropriate mutations. We then performed runs on the wild-type and three NSD2 mutants (E1099K, T1150A, and the E1099K-T1150A double mutant, Supplementary Table&nbsp;<a data-track="click" data-track-label="link" data-track-action="supplementary material anchor" href="/articles/s41467-021-26913-5#MOESM1">2</a>) and analyzed the trajectories obtained from three independent 500-ns runs for each system. The residue-wise contact map (Supplementary Fig.&nbsp;<a data-track="click" data-track-label="link" data-track-action="supplementary material anchor" href="/articles/s41467-021-26913-5#MOESM1">12</a>) and the time-dependent developments of the secondary structure elements (Supplementary Fig.&nbsp;<a data-track="click" data-track-label="link" data-track-action="supplementary material anchor" href="/articles/s41467-021-26913-5#MOESM1">13</a>) showed that in all systems, the local structures and the secondary elements were maintained throughout the simulation, except in the following two regions. The N-terminal helix, whose density was not observed in this study, was sometimes lost in the simulation. In all of the systems, the conformation of the autoinhibitory loop was flexible during the simulation, suggesting that the H3-engaging conformation is not stable in the absence of H3 (Supplementary Movie&nbsp;<a data-track="click" data-track-label="link" data-track-action="supplementary material anchor" href="/articles/s41467-021-26913-5#MOESM3">1</a>).</p><p>We first calculated the dynamic cross-correlation of the SET-domain residue-wise fluctuations to capture the correlated motions among the residues. In the wild-type, we observed anti-correlated motions between residues 1095–1130 (region R1) and 1140–1150 (region R2) as well as R1 and residues 1177–1203 (region R3) (Fig.&nbsp;<a data-track="click" data-track-label="link" data-track-action="figure anchor" href="/articles/s41467-021-26913-5#Fig5">5a, b</a>). R1 contained E1099 and residues forming the H3V35- and H3P38-binding hydrophobic patches, whereas R2 and R3 contained T1150 and the autoinhibitory loop, respectively. In all three mutants, the anti-correlated motions between R1–R2 and R1–R3 disappeared (Fig.&nbsp;<a data-track="click" data-track-label="link" data-track-action="figure anchor" href="/articles/s41467-021-26913-5#Fig5">5a</a>), indicating that the movement of R2 and R3 became independent of R1.</p><div class="c-article-section__figure js-c-reading-companion-figures-item" data-test="figure" data-container-section="figure" id="figure-5" data-title="Opening and closing of the autoinhibitory loop."><figure><figcaption><b id="Fig5" class="c-article-section__figure-caption" data-test="figure-caption-text">Fig. 5: Opening and closing of the autoinhibitory loop.</b></figcaption><div class="c-article-section__figure-content"><div class="c-article-section__figure-item"><a class="c-article-section__figure-link" data-test="img-link" data-track="click" data-track-label="image" data-track-action="view figure" href="/articles/s41467-021-26913-5/figures/5" rel="nofollow"><picture><source type="image/webp" srcset="//media.springernature.com/lw685/springer-static/image/art%3A10.1038%2Fs41467-021-26913-5/MediaObjects/41467_2021_26913_Fig5_HTML.png?as=webp"><img aria-describedby="Fig5" src="//media.springernature.com/lw685/springer-static/image/art%3A10.1038%2Fs41467-021-26913-5/MediaObjects/41467_2021_26913_Fig5_HTML.png" alt="figure 5" loading="lazy" width="685" height="533"></picture></a></div><div class="c-article-section__figure-description" data-test="bottom-caption" id="figure-5-desc"><p><b>a</b> 2D plots of the cross-correlation of residue-wise fluctuations in the NSD2 wild-type, E1099K, T1150A, and double mutant E1099K-T1150A proteins. All the correlation coefficients between −0.3 and 0.3 were taken as zero to visualize the significantly correlated residues. The regions labeled R1 (residues 1095–1130), R2 (residues 1140–1150), and R3 (post-SET loop) exhibit a remarkable difference between the wild-type and mutants. The mutation sites are denoted by green ticks on the axis. <b>b</b> The regions R1 (pale yellow), R2 (teal), R3 (gray), the autoinhibitory loop (orange) in R3 and the mutation sites (stick view), are shown and labeled on the NSD2 SET domain structure. <b>c</b> Superimposition of H3-free NSD2 (green) and nucleosome-bound NSD2 (magenta). H3 is shown in marine blue. The overlapping hydrophobic cavity occupied by the L1184 residue in substrate-free NSD2 and H3V35 is circled in black. <b>d</b> Definition of four distance-based locks (D1: L1184–C1102, D2: C1183–C1102, D3: C1183–T1121, and D4: L1181–T1121), as represented by dashed lines in the SET domain structure. The autoinhibitory loop is shown in orange, and residues are labeled. <b>e</b> Table showing the percentage of open autoinhibitory loop conformations observed under different conditions.</p></div></div><div class="u-text-right u-hide-print"><a class="c-article__pill-button" data-test="article-link" data-track="click" data-track-label="button" data-track-action="view figure" href="/articles/s41467-021-26913-5/figures/5" data-track-dest="link:Figure5 Full size image" aria-label="Full size image figure 5" rel="nofollow"><span>Full size image</span><svg width="16" height="16" focusable="false" role="img" aria-hidden="true" class="u-icon"><use xmlns:xlink="http://www.w3.org/1999/xlink" xlink:href="#icon-eds-i-chevron-right-small"></use></svg></a></div></figure></div><p>The independent movement of R3 suggested that the autoinhibitory loop might tend to adopt conformations that allow histone H3 binding in the mutants more often. To test this hypothesis, we introduced four distance-based measures (hereafter referred to D1, D2, D3, and D4 locks) representing the presence or absence of hydrophobic interactions between residues in the autoinhibitory loop (L1181, C1183, and L1184) and those in the H3V35-binding patch (C1102 and T1121) (Fig.&nbsp;<a data-track="click" data-track-label="link" data-track-action="figure anchor" href="/articles/s41467-021-26913-5#Fig5">5c, d</a>). The time development of the four distances is shown in Supplementary Fig.&nbsp;<a data-track="click" data-track-label="link" data-track-action="supplementary material anchor" href="/articles/s41467-021-26913-5#MOESM1">14</a>. We defined the autoinhibitory loop as “open” when all four locks were released and “closed” otherwise. The probabilities of open states of the loop and individual locks are shown in Fig.&nbsp;<a data-track="click" data-track-label="link" data-track-action="figure anchor" href="/articles/s41467-021-26913-5#Fig5">5e</a> and Supplementary Tables&nbsp;<a data-track="click" data-track-label="link" data-track-action="supplementary material anchor" href="/articles/s41467-021-26913-5#MOESM1">3</a> and <a data-track="click" data-track-label="link" data-track-action="supplementary material anchor" href="/articles/s41467-021-26913-5#MOESM1">4</a>. In the wild-type, the autoinhibitory loop was open for only 0.86% of the simulation time, indicating that the loop almost always sits in the substrate-binding cleft. In the E1099K, T1150A, and E1099K-T1150A mutants, open states appeared far more frequently (9.7%, 6.3%, and 18.8%, respectively). A detailed examination of the MD trajectories revealed a novel mode of interaction between the autoinhibitory loop and the hydrophobic patches (Supplementary Fig.&nbsp;<a data-track="click" data-track-label="link" data-track-action="supplementary material anchor" href="/articles/s41467-021-26913-5#MOESM1">15</a>). In the wild-type, the L1181 side chain often forms hydrophobic interactions with T1121 and/or T1150, the two threonine residues whose substitution leads to aberrant enzymatic activation. These interactions occurred less often in the three mutants, as indicated by the frequency of the operational D4 lock (94.9%, 26.3%, 78.9%, and 56.2% for the wild-type, E1099K, T1150A, and E1099K-T1150A, respectively). Moreover, an entropy calculation showed that the states of these four locks are more evenly distributed in the mutants than in the wild-type, suggesting that the loop changes its state more frequently in the mutants (Supplementary Table&nbsp;<a data-track="click" data-track-label="link" data-track-action="supplementary material anchor" href="/articles/s41467-021-26913-5#MOESM1">4</a>). Collectively, our MD analysis suggests that the E1099K and T1150A mutations affect the dynamics of the autoinhibitory loop, causing NSD2 to adopt open states more often to accommodate the H3 tail in the substrate-binding cleft.</p></div></div></section><section data-title="Discussion"><div class="c-article-section" id="Sec8-section"><h2 class="c-article-section__title js-section-title js-c-reading-companion-sections-item" id="Sec8">Discussion</h2><div class="c-article-section__content" id="Sec8-content"><p>Our structural and kinetic analyses show that the oncogenic E1099K and T1150A mutants increase the catalytic turnover of NSD2, leading to its hyperactivation. Moreover, based on the results of MD simulation, we propose a working model of NSD2 in which the autoinhibitory loop conformation regulates its catalytic activity and the oncogenic E1099K and T1150A mutations aberrantly disturb autoinhibition. In the H3-free form, the autoinhibitory loop dynamically moves and exhibits multiple conformations while remaining bound to the H3V35- and H3P38-binding patches via hydrophobic interactions involving L1181, C1183, and L1184 and hydrophilic interactions involving D1182. Consequently, the substrate-binding cleft is almost always occupied by the autoinhibitory loop, leaving no room for H3 binding. Upon nucleosome binding, the conformation of the autoinhibitory loop changes, allowing H3V35 and H3P38 to be accommodated in hydrophobic patches and enabling precise positioning of the H3K36 side chain for methyl group transfer. This transition is partially triggered by the binding of H3Y41 and nucleosomal DNA to K1152, which is incompatible with its interaction with D1182. The E1099K and T1150A mutants affect the conformational dynamics of the autoinhibitory loop, leading to an increased tendency to adopt open states.</p><p>There could be several possible mechanisms by which the E1099K and T1150A mutations affect the conformation of the autoinhibitory loop. In the MD trajectories, a cluster of charged residues surrounding the autoinhibitory loop forms a network of salt bridges (Supplementary Fig.&nbsp;<a data-track="click" data-track-label="link" data-track-action="supplementary material anchor" href="/articles/s41467-021-26913-5#MOESM1">16</a>). In the trajectories of the E1099K and E1099K-T1150A mutants, the E1099K mutation remodels the network by forming a novel salt bridge with D1125, which is accompanied by decreased salt bridge formation between D1123 and K1152 (Supplementary Fig.&nbsp;<a data-track="click" data-track-label="link" data-track-action="supplementary material anchor" href="/articles/s41467-021-26913-5#MOESM1">16c</a>, <a data-track="click" data-track-label="link" data-track-action="supplementary material anchor" href="/articles/s41467-021-26913-5#MOESM1">e</a>). Similarly, in the T1150A mutant, the salt bridge between D1123 and K1152 is reduced (Supplementary Fig.&nbsp;<a data-track="click" data-track-label="link" data-track-action="supplementary material anchor" href="/articles/s41467-021-26913-5#MOESM1">16d</a>). The salt bridge between D1123 and K1152 connects the two β-sheets possessing H3V35- and H3P38-binding patches, and interestingly, the autoinhibitory loop tends to assume an open state when this salt bridge is broken (Supplementary Fig.&nbsp;<a data-track="click" data-track-label="link" data-track-action="supplementary material anchor" href="/articles/s41467-021-26913-5#MOESM1">16f</a>). These observations suggest that the E1099K and T1150A mutations may remodel the network of salt bridges formed by the charged residues surrounding the autoinhibitory loop, thus affecting its dynamics. This hypothesis is consistent with our biochemical assay showing that the substitution of E1099 with neutral amino acids (alanine and glutamine) has a smaller effect than substitution with basic amino acids (lysine and arginine). Alternatively, the T1150A mutant may lose the ability to maintain the loop in a closed state because of the lack of interaction between T1150 and D1182 or L1181. Further studies, such as additional mutant analyses and MD studies with nucleosomal substrates, will be required to test our hypotheses and elucidate the detailed molecular mechanisms of these oncogenic mutants.</p><p>While this manuscript was being completed, Li et al. reported the structures of NSD2 and NSD3 bound to nucleosome at resolutions of 3.15–3.75 Å<sup><a data-track="click" data-track-action="reference anchor" data-track-label="link" data-test="citation-ref" aria-label="Reference 13" title="Li, W. et al. Molecular basis of nucleosomal H3K36 methylation by NSD methyltransferases. Nature 590, 498–503 (2021)." href="/articles/s41467-021-26913-5#ref-CR13" id="ref-link-section-d187599147e1215">13</a></sup>. The overall structures reported here and by Li et al. are very similar, showing that our fusion construct improved the structural resolution by stabilizing the complex without introducing artifacts. The mechanisms proposed by Li et al. differ from ours regarding the aberrant hyperactivation of NSD proteins by oncogenic mutations. E1099K has been proposed to increase the electrostatic interactions between NSD2 and the nucleosome, thereby enhancing its catalytic activity. However, the kinetic and affinity analyses conducted by both Li et al. and our group showed that E1099K does not significantly increase nucleosome affinity. Li <i>et al</i>. also showed that the T1232A mutation of NSD3 (corresponding to the T1150A mutation of NSD2) resulted in a structural shift in the H3P38-H39 region by ~1.4 Å, forming newly created hydrogen bonds between NSD3 and H3. It is not clear if the same mechanism applies to NSD2. When the current NSD2-nucleosome complex (bearing E1099K) was compared with the NSD2-nucleosome complex by Li et al. (bearing E1099K and T1150A) via the superposition of their NSD2 molecules, the coordinate shifts in the Cα atoms of H3P38 and H3H39 were relatively small (0.5 and 0.3 Å, respectively), suggesting that the T1150A mutation may not significantly affect the conformation of the H3P38-K39 region (Supplementary Fig.&nbsp;<a data-track="click" data-track-label="link" data-track-action="supplementary material anchor" href="/articles/s41467-021-26913-5#MOESM1">17</a>).</p><p>We propose that under normal conditions, nucleosomal DNA acts as a positive allosteric regulator by interacting with K1152 and thereby influencing the conformational dynamics of the autoinhibitory loop. This is reminiscent of the regulatory mechanism of ASH1L, another H3K36 dimethyltransferase<sup><a data-track="click" data-track-action="reference anchor" data-track-label="link" data-test="citation-ref" aria-label="Reference 29" title="Lee, Y. et al. Structural basis of MRG15-mediated activation of the ASH1L histone methyltransferase by releasing an autoinhibitory loop. Structure 27, 846–852 (2019). e3." href="/articles/s41467-021-26913-5#ref-CR29" id="ref-link-section-d187599147e1228">29</a>,<a data-track="click" data-track-action="reference anchor" data-track-label="link" data-test="citation-ref" aria-label="Reference 30" title="Hou, P. et al. Structural insights into stimulation of Ash1L’s H3K36 methyltransferase activity through Mrg15 binding. Structure 27, 837–845.e3. (2019)." href="/articles/s41467-021-26913-5#ref-CR30" id="ref-link-section-d187599147e1231">30</a></sup>. By itself, ASH1L has weak catalytic activity, which is stimulated by its binding partner, MRG15. Structural analyses revealed that MRG15 binding indirectly influences the dynamics of the autoinhibitory loop. Thus, influencing the dynamics of the autoinhibitory loop may be a general mechanism regulating the activity of several H3K36 methyltransferases. On the other hand, other families of histone methyltransferases, such as PRC2 and Set1/MLL family proteins, employ different mechanisms for allosteric activation<sup><a data-track="click" data-track-action="reference anchor" data-track-label="link" data-test="citation-ref" aria-label="Reference 31" title="Davidovich, C. &amp; Zhang, Q. Allosteric regulation of histone lysine methyltransferases: from context-specific regulation to selective drugs. Biochemical Soc. Trans. 49, 591–607 (2021)." href="/articles/s41467-021-26913-5#ref-CR31" id="ref-link-section-d187599147e1235">31</a></sup>.</p><p>Our study also provides structural insights into how the H3K36 methylation state can be regulated by nucleosome structure. The linker histone H1 has been shown to inhibit the methyltransferase activity of NSD2 toward chromatin<sup><a data-track="click" data-track-action="reference anchor" data-track-label="link" data-test="citation-ref" aria-label="Reference 15" title="Nimura, K. et al. A histone H3 lysine 36 trimethyltransferase links Nkx2-5 to Wolf–Hirschhorn syndrome. Nature 460, 287–291 (2009)." href="/articles/s41467-021-26913-5#ref-CR15" id="ref-link-section-d187599147e1243">15</a>,<a data-track="click" data-track-action="reference anchor" data-track-label="link" data-test="citation-ref" aria-label="Reference 16" title="Willcockson, M. A. et al. H1 histones control the epigenetic landscape by local chromatin compaction. Nature 589, 293–298 (2021)." href="/articles/s41467-021-26913-5#ref-CR16" id="ref-link-section-d187599147e1246">16</a></sup>. Loss-of-function mutations in genes encoding H1 isoforms are highly recurrent in B cell lymphomas and cause a genome-wide increase in H3K36me2<sup><a data-track="click" data-track-action="reference anchor" data-track-label="link" data-test="citation-ref" aria-label="Reference 16" title="Willcockson, M. A. et al. H1 histones control the epigenetic landscape by local chromatin compaction. Nature 589, 293–298 (2021)." href="/articles/s41467-021-26913-5#ref-CR16" id="ref-link-section-d187599147e1250">16</a>,<a data-track="click" data-track-action="reference anchor" data-track-label="link" data-test="citation-ref" aria-label="Reference 32" title="Yusufova, N. et al. Histone H1 loss drives lymphoma by disrupting 3D chromatin architecture. Nature 589, 299–305 (2021)." href="/articles/s41467-021-26913-5#ref-CR32" id="ref-link-section-d187599147e1253">32</a></sup>, demonstrating the critical importance of H1 for antagonizing NSD proteins for normal gene regulation. H1 binds to the nucleosome dyad and contacts both linker DNAs, stabilizing a compact conformation<sup><a data-track="click" data-track-action="reference anchor" data-track-label="link" data-test="citation-ref" aria-label="Reference 33" title="Bednar, J. et al. Structure and dynamics of a 197 bp nucleosome in complex with linker histone H1. Mol. Cell 66, 384–397 (2017). e8." href="/articles/s41467-021-26913-5#ref-CR33" id="ref-link-section-d187599147e1257">33</a>,<a data-track="click" data-track-action="reference anchor" data-track-label="link" data-test="citation-ref" aria-label="Reference 34" title="Zhou, B.-R. et al. Structural mechanisms of nucleosome recognition by linker histones. Mol. Cell 59, 628–638 (2015)." href="/articles/s41467-021-26913-5#ref-CR34" id="ref-link-section-d187599147e1260">34</a></sup> (Supplementary Fig.&nbsp;<a data-track="click" data-track-label="link" data-track-action="supplementary material anchor" href="/articles/s41467-021-26913-5#MOESM1">18f</a>). Our structure shows that NSD2 binds the nucleosome with partially unwrapped DNA. H1 may thus inhibit the activity of NSD2 by hindering the unwrapping of nucleosomal DNA and, hence, its access to H3K36. On the other hand, several chromatin factors, such as ATP-dependent chromatin remodelers<sup><a data-track="click" data-track-action="reference anchor" data-track-label="link" data-test="citation-ref" aria-label="Reference 35" title="Farnung, L., Vos, S. M., Wigge, C. &amp; Cramer, P. Nucleosome–Chd1 structure and implications for chromatin remodelling. Nature 550, 539–542 (2017)." href="/articles/s41467-021-26913-5#ref-CR35" id="ref-link-section-d187599147e1267">35</a></sup>, so-called “pioneer transcription factors” that can recognize chromatinized DNA elements<sup><a data-track="click" data-track-action="reference anchor" data-track-label="link" data-test="citation-ref" aria-label="Reference 36" title="Michael, A. K. et al. Mechanisms of OCT4-SOX2 motif readout on nucleosomes. Science 368, 1460–1465 (2020)." href="/articles/s41467-021-26913-5#ref-CR36" id="ref-link-section-d187599147e1272">36</a></sup>, and RNA polymerase II<sup><a data-track="click" data-track-action="reference anchor" data-track-label="link" data-test="citation-ref" aria-label="Reference 37" title="Ehara, H. et al. Structural insight into nucleosome transcription by RNA polymerase II with elongation factors. Science 363, 744–747 (2019)." href="/articles/s41467-021-26913-5#ref-CR37" id="ref-link-section-d187599147e1276">37</a></sup>, are known to affect the conformation of nucleosomal DNA. Interestingly, the binding of such factors to nucleosomes results in the partial unwrapping of nucleosomal DNA, similar to what is observed for the NSD2 complex (Supplementary Fig.&nbsp;<a data-track="click" data-track-label="link" data-track-action="supplementary material anchor" href="/articles/s41467-021-26913-5#MOESM1">18a–e</a>). It may be speculated that chromatin factors and H3K36 methyltransferases work cooperatively such that H3K36 exposure caused by other factors (such as chromatin transcription by RNA polymerase II) facilitates efficient methylation. In this case, H3K36 is well positioned to act as a memory mark of changes in the nucleosomal structure, as conformational changes in nucleosomal DNA affect its accessibility.</p></div></div></section><section data-title="Methods"><div class="c-article-section" id="Sec9-section"><h2 class="c-article-section__title js-section-title js-c-reading-companion-sections-item" id="Sec9">Methods</h2><div class="c-article-section__content" id="Sec9-content"><h3 class="c-article__sub-heading" id="Sec10">DNA preparation</h3><p>We prepared the 146-bp and 185-bp DNA fragments using different strategies. The 146-bp DNA fragment was excised by EcoRV from a plasmid DNA sequence containing 14 copies of the Widom 601 DNA sequence. The excised DNA was applied to HiTrap Q column chromatography (GE Healthcare), eluted with a NaCl gradient (0–1000 mM) in 50 mM HEPES-Na pH 7.5, flash-frozen with liquid nitrogen (LN<sub>2</sub>), and stored at −80 °C. The 185-bp DNA fragment was generated using nested PCR amplification. Initially, a 282-bp DNA fragment containing the Widom 601 DNA sequence was amplified using pGEM-3Z-601<sup><a data-track="click" data-track-action="reference anchor" data-track-label="link" data-test="citation-ref" aria-label="Reference 38" title="Lowary, P. T. &amp; Widom, J. New DNA sequence rules for high affinity binding to histone octamer and sequence-directed nucleosome positioning. J. Mol. Biol. 276, 19–42 (1998)." href="/articles/s41467-021-26913-5#ref-CR38" id="ref-link-section-d187599147e1297">38</a></sup> as a template and 282 F and 282 R as primers (Supplementary Table&nbsp;<a data-track="click" data-track-label="link" data-track-action="supplementary material anchor" href="/articles/s41467-021-26913-5#MOESM1">5</a>) and was subsequently purified by acrylamide gel electrophoresis. The 185-bp DNA fragment was amplified using the 282-bp DNA fragment as the template and 185F and 185R (Supplementary Table&nbsp;<a data-track="click" data-track-label="link" data-track-action="supplementary material anchor" href="/articles/s41467-021-26913-5#MOESM1">5</a>) as primers. The amplified 185-bp DNA fragment was applied to HiTrap Q column chromatography, eluted with a NaCl gradient (0–1500 mM) in 20 mM Tris-HCl pH 8.0 and 1 mM EDTA, flash-frozen with LN<sub>2</sub>, and stored at −80 °C.</p><h3 class="c-article__sub-heading" id="Sec11">Protein preparation</h3><p>The sequences of the protein-coding regions are shown in Supplementary Table&nbsp;<a data-track="click" data-track-label="link" data-track-action="supplementary material anchor" href="/articles/s41467-021-26913-5#MOESM1">6</a>. Human histone H2A was bacterially expressed as a His6- and SUMOstar-tagged protein, and the protein was then isolated from inclusion bodies under denaturing conditions (20 mM Tris-HCl, pH 7.5, 7 M guanidine hydrochloride, 500 mM NaCl, 1 mM DTT). The supernatant was applied to Ni Sepharose High Performance (GE Healthcare), washed with 20 mM Tris-HCl, pH 7.5, 7 M urea, and 1 M NH<sub>4</sub>Cl, then eluted with 20 mM Tris-HCl, pH 7.5, 7 M urea, 1 M NH<sub>4</sub>Cl, and 500 mM imidazole, and dialyzed against buffer containing 20 mM Tris-HCl, pH 7.5, 150 mM NaCl, and 0.5 mM DTT. The His6-SUMOstar-tag was removed by SUMOstar protease digestion. The resulting histone H2A protein was applied to HiTrap SP column (GE Healthcare), eluted with a NaCl gradient (400–1500 mM) in 20 mM HEPES-Na, pH 7.5, and 1 mM DTT, flash-frozen with LN<sub>2</sub>, and stored at −80 °C.</p><p>Human histone H2B was bacterially expressed as a His6-tagged protein and isolated from inclusion bodies under denaturing conditions (20 mM Tris-HCl pH 7.5, 7 M guanidine hydrochloride, 500 mM NaCl, 1 mM DTT). The supernatant was applied to cOmplete His-Tag Purification Resin (Roche), washed with 20 mM Tris-HCl, pH 7.5, 7 M urea, 1 M NH<sub>4</sub>Cl, and 1 mM DTT, then eluted with 20 mM Tris-HCl pH 7.5, 7 M urea, 1 M NH<sub>4</sub>Cl, and 500 mM imidazole, and dialyzed against buffer containing 20 mM Tris-HCl, pH 7.5, 100 mM NaCl, and 1 mM DTT. The His6-tag was removed by thrombin digestion. The resulting histone H2B protein was applied to HiTrap SP column, eluted with a NaCl gradient (100–2000 mM) in 10 mM Tris-HCl, pH 7.5, flash-frozen with LN<sub>2</sub>, and stored at −80 °C.</p><p>His6 and SUMOstar-tagged human histone H4 was bacterially coexpressed with human histone H3 and purified under nondenaturing conditions. Cells coexpressing H3 and H4 were suspended in buffer containing 40 mM K<sub>2</sub>HPO<sub>4</sub>, 10 mM KH<sub>2</sub>PO<sub>4</sub>, 20 mM imidazole, 3 M NaCl, 1 mM DTT, 0.1 mM PMSF, and 0.5% Triton X-100 and then sonicated. The supernatant was applied to HisTrap column (GE Healthcare), eluted with 20 mM Tris-HCl, pH 7.5, 7 M urea, 1 M NH<sub>4</sub>Cl, and 500 mM imidazole. The His6-SUMOstar-tag was removed by SUMOstar protease digestion. The resulting histone H3/H4 complex was dialyzed against dialysis buffer (10 mM Tris-HCl, pH 7.5, 250 mM NaCl, 1 mM DTT). The dialyzed protein was applied to HiTrap SP column, eluted with a NaCl gradient (250–1500 mM) in 10 mM Tris-HCl, pH 7.5 and 1 mM DTT, flash-frozen with LN<sub>2</sub>, and stored at −80 °C.</p><p>His6 and SUMOstar-tagged human NSD2-E1099K were fused to H4 and bacterially coexpressed with human histone H3 possessing a K36M substitution. The complex between NSD2-E1099K-H4 and H3 was purified in a way similar to the H4-H3 complex; however, the His6-SUMOstar tag was not removed.</p><p>Wild-type and mutant NSD2 proteins (973–1226) containing Twin-Strep-tag and His6-tag at the N-terminus were bacterially expressed. Cells were suspended in buffer containing 40 mM K<sub>2</sub>HPO<sub>4</sub>, 10 mM KH<sub>2</sub>PO<sub>4</sub>, 500 mM NaCl, 1 mM DTT, 0.1 mM PMSF, and 0.5% Triton X-100 and then sonicated. The supernatant was applied to StrepTrap column (GE Healthcare), eluted with 40 mM K<sub>2</sub>HPO<sub>4</sub>, 10 mM KH<sub>2</sub>PO<sub>4</sub>, 500 mM NaCl, 1 mM DTT, and 2.5 mM desthiobiotin, flash-frozen with LN<sub>2</sub>, and stored at −80 °C. The primers to create plasmids expressing mutant NSD2 proteins are shown in Supplementary Table&nbsp;<a data-track="click" data-track-label="link" data-track-action="supplementary material anchor" href="/articles/s41467-021-26913-5#MOESM1">5</a>.</p><h3 class="c-article__sub-heading" id="Sec12">Histone octamer preparation</h3><p>We incubated histones H2A, H2B, and H3/H4 at a molar ratio of 1.2:1.2:1 in unfolding buffer (6 M guanidine hydrochloride, 4 mM HEPES-Na pH 7.5, 200 mM NaCl, 5 mM DTT) at 4 °C for 1 h, followed by dialysis against refolding buffer (10 mM Tris-HCl, pH 7.5, 2 M NaCl, 1 mM EDTA, 5 mM 2-mercaptoethanol) to reconstitute the histone octamer. The octamer was eventually purified from the unincorporated components using a Superdex 200 pg 26/60 column (GE Healthcare) equilibrated with buffer containing 10 mM Tris-HCl pH 7.5, 2 M NaCl, 1 mM EDTA, and 5 mM 2-mercaptoethanol, flash-frozen with LN<sub>2</sub>, and stored at −80 °C.</p><h3 class="c-article__sub-heading" id="Sec13">Nucleosome reconstitution</h3><p>To reconstitute nucleosomes for enzymatic and interaction analyses, we mixed the 185-bp (final 6.1 μM) or 146-bp (final 5.6 μM) DNA fragment with a histone octamer at a molar ratio of ~1:1.1 and then performed dialysis against 125 mL of 10 mM HEPES-Na pH 7.5, 2 M KCl, and 1 mM DTT for 1 h. Thereafter, 875 mL of 10 mM HEPES-Na pH 7.5 and 1 mM DTT was gradually added to facilitate nucleosome reconstitution. The nucleosome samples were further dialyzed against 10 mM HEPES-Na pH 7.5, 50 mM KCl, and 1 mM DTT. The centrifuged supernatant was eventually concentrated and stored at 4 °C.</p><p>To prepare the NSD2-nucleosome complex for cryo-EM analysis, we mixed the 185-bp DNA fragment (final 2.4 μM) with H2A, H2B, and the complex between NSD2 E1099K-H4 and H3K36M at a molar ratio of ~1:2.6:2.6:2.6 and dialyzed the mixture for 1 h against 125 mL of buffer containing 10 mM HEPES-Na pH 7.5, 2 M KCl, and 1 mM DTT. Thereafter, 875 mL of 10 mM HEPES-Na (pH 7.5) and 1 mM DTT was gradually added to facilitate the reconstitution of nucleosomes. The NSD2-nucleosome complex was further dialyzed against 10 mM HEPES-Na pH 7.5, 1 mM DTT, and 25 mM or 50 mM KCl. The centrifuged supernatant was concentrated, and a sinefungin solution (25 mM) was added (final 1.3 mM) before cryo-EM data acquisition.</p><h3 class="c-article__sub-heading" id="Sec14">Sample vitrification and cryo-EM data acquisition</h3><p>The reconstituted NSD2-nucleosome complex was applied to a freshly glow-discharged Quantifoil holey carbon grid (R1.2/1.3, 300 mesh, Cu/Rh grid for the sample with 25 mM KCl, and Au grid for the sample with 50 mM KCl), subjected to blotting for 4 s at 4 °C in 100% humidity, and plunge-frozen in liquid ethane using a Vitrobot Mark IV (Thermo Fisher Scientific). Grid images were obtained using a 300 kV Titan Krios G3i microscope (Thermo Fisher Scientific) equipped with a K3 direct electron detector (Gatan) installed at the University of Tokyo, Japan. Data sets were acquired with SerialEM software, with a defocus range of −0.8 to −1.6 μm. Data acquisition statistics are shown in Supplementary Table&nbsp;<a data-track="click" data-track-label="link" data-track-action="supplementary material anchor" href="/articles/s41467-021-26913-5#MOESM1">1</a>.</p><h3 class="c-article__sub-heading" id="Sec15">Image processing and model building</h3><p>Movie stacks were corrected for drift- and beam-induced motion using MotionCor2<sup><a data-track="click" data-track-action="reference anchor" data-track-label="link" data-test="citation-ref" aria-label="Reference 39" title="Zheng, S. Q. et al. MotionCor2: anisotropic correction of beam-induced motion for improved cryo-electron microscopy. Nat. Methods 14, 331–332 (2017)." href="/articles/s41467-021-26913-5#ref-CR39" id="ref-link-section-d187599147e1421">39</a></sup>, and the CTF parameters were estimated using GCTF<sup><a data-track="click" data-track-action="reference anchor" data-track-label="link" data-test="citation-ref" aria-label="Reference 40" title="Zhang, K. Gctf: real-time CTF determination and correction. J. Struct. Biol. 193, 1–12 (2016)." href="/articles/s41467-021-26913-5#ref-CR40" id="ref-link-section-d187599147e1425">40</a></sup>. Particles were automatically picked using RELION-3.1<sup><a data-track="click" data-track-action="reference anchor" data-track-label="link" data-test="citation-ref" aria-label="Reference 41" title="Zivanov, J. et al. New tools for automated high-resolution cryo-EM structure determination in RELION-3. eLife 7, e42166 (2018)." href="/articles/s41467-021-26913-5#ref-CR41" id="ref-link-section-d187599147e1429">41</a></sup> and then used for two-dimensional (2D) classification, ab initio reconstruction, and hetero refinement with cryoSPARC<sup><a data-track="click" data-track-action="reference anchor" data-track-label="link" data-test="citation-ref" aria-label="Reference 42" title="Punjani, A., Rubinstein, J. L., Fleet, D. J. &amp; Brubaker, M. A. cryoSPARC: algorithms for rapid unsupervised cryo-EM structure determination. Nat. Methods 14, 290–296 (2017)." href="/articles/s41467-021-26913-5#ref-CR42" id="ref-link-section-d187599147e1433">42</a></sup>. The particles that converged into the NSD2-nucleosome complex class were exported to RELION-3.1 and used for focused three-dimensional (3D) classification with a mask covering only NSD2. The particles that converged to the class with a well-resolved NSD2 density were used for final 3D refinement with RELION-3.1. The resolution was estimated based on the gold-standard Fourier shell correlation (FSC) curve according to the 0.143 criterion. The atomic models of H3-free NSD2 (PDB 5LSU) and nucleosome (PDB 1KX5) were fit into the density using UCSF Chimera<sup><a data-track="click" data-track-action="reference anchor" data-track-label="link" data-test="citation-ref" aria-label="Reference 43" title="Pettersen, E. F. et al. UCSF Chimera?A visualization system for exploratory research and analysis. J. Comput. Chem. 25, 1605–1612 (2004)." href="/articles/s41467-021-26913-5#ref-CR43" id="ref-link-section-d187599147e1437">43</a></sup> and then manually modified using Coot<sup><a data-track="click" data-track-action="reference anchor" data-track-label="link" data-test="citation-ref" aria-label="Reference 44" title="Emsley, P., Lohkamp, B., Scott, W. G. &amp; Cowtan, K. Features and development of Coot. Acta Crystallogr D. Biol. Crystallogr 66, 486–501 (2010)." href="/articles/s41467-021-26913-5#ref-CR44" id="ref-link-section-d187599147e1442">44</a></sup>. Real-space refinement was performed using Phenix<sup><a data-track="click" data-track-action="reference anchor" data-track-label="link" data-test="citation-ref" aria-label="Reference 45" title="Adams, P. D. et al. PHENIX: a comprehensive Python-based system for macromolecular structure solution. Acta Crystallogr D. Biol. Crystallogr 66, 213–221 (2010)." href="/articles/s41467-021-26913-5#ref-CR45" id="ref-link-section-d187599147e1446">45</a></sup>.</p><h3 class="c-article__sub-heading" id="Sec16">Methyltransferase assay</h3><p>For a simple comparison of the initial reaction rate, wild-type or mutant NSD2 (128 nM) and nucleosomes (4 μM) were used (Fig.&nbsp;<a data-track="click" data-track-label="link" data-track-action="figure anchor" href="/articles/s41467-021-26913-5#Fig4">4a</a>). For kinetic analysis, wild-type NSD2 (256 nM), the E1099K mutant (16 nM) or the T1150A mutant (32 nM), and a series of twofold diluted nucleosomes (from 31.25 nM to 4 μM) were used (Fig.&nbsp;<a data-track="click" data-track-label="link" data-track-action="figure anchor" href="/articles/s41467-021-26913-5#Fig4">4b</a>, Supplementary Fig.&nbsp;<a data-track="click" data-track-label="link" data-track-action="supplementary material anchor" href="/articles/s41467-021-26913-5#MOESM1">8</a>). The NSD2 proteins, SAM (30 μM), and nucleosomes were mixed in reaction buffer (2.5 mM HEPES-Na pH 7.5, 10 mM Tris-HCl pH 9.5, 2.5 mM NaCl, 12.5 mM KCl, 1 mM TCEP, and 0.01% Tween 20), and the mixture was incubated at 30 °C. Approximately 4 μL of each reaction mixture was collected at 2, 4, 6, and 8 min and quenched by adding 1 μL of 0.5% TFA. Methyltransferase activity was evaluated using an MTase-Glo Methyltransferase Assay Kit (Promega). The luminescent signal corresponding to SAH production was measured three times using Centro LB 960 (Berthold Technologies) in a white half-area 96-well plate. The measured luminescent signal was converted to represent the amount of SAM utilized with an SAH standard curve. The initial rate of each reaction was determined using a linear regression fit of the data. Each reaction was run in triplicate. Kinetic parameters were derived by fitting the values to the Michaelis–Menten model using KaleidaGraph 4.5.3 software.</p><h3 class="c-article__sub-heading" id="Sec17">Microscale thermophoresis</h3><p>The microscale thermophoresis (MST) assay was performed using a Monolith NT.115 instrument (NanoTemper Technologies). For the MST assay, His-tagged NSD2 proteins (50 nM) labeled with RED-Tris-NTA and a series of twofold-diluted nucleosome or DNA (from 0.31 nM to 10 μM) were incubated in the binding buffer (20 mM HEPES-Na pH 7.5 150 mM KCl, 5% glycerol, 0.05% Tween 20, 1 mM DTT, and 1 mM sinefungin) for 30 min at room temperature and centrifuged at 22,140 × <i>g</i> for 5 min. Premium capillaries were filled with the samples to obtain measurements with an extinction power of 60% and medium MST power at 25 °C. Thermophoresis data were analyzed using MO. Affinity Analysis software ver. 2.3 (NanoTemper Technologies).</p><h3 class="c-article__sub-heading" id="Sec18">Trimethyltransferase assay</h3><p>For H3K36 trimethyltransferase assay, the E1099K single mutant and E1099K-L1120M double mutant were used at 128 nM. The mutant NSD2 proteins, SAM (30 μM), and nucleosomes (4 μM) were mixed in the reaction buffer same as above and were incubated at 30 °C for 3 h. 6 μL of the reaction mixture was subjected to SDS-PAGE (8% acrylamide) using Rapid Running Buffer Solution (nacalai tesque) and then transferred to Immobilon-P PVDF membranes (Merck). The membranes were blocked for 1 h with 3% BSA in TBS-T (100 mM Tris (pH 7.2), 150 mM NaCl, 0.05% Tween-20). Membranes were then incubated with primary antibody against H3K36me3 (#4909, Cell Signaling Technology) diluted in Can Get Signal solution 1 (TOYOBO) for 1 h (1:1000), and secondary antibody (sc-2004, Santa Cruz Biotechnology) diluted in Can Get Signal solution 2 for 1 h (1:2000) at room temperature. Following extensive washing, protein bands were visualized with ECL Prime Western Blotting Detection Reagent (cytiva) and band densities were analyzed with LAS-3000 mini luminescent image analyzer and Multi Gauge version 3.0 software (FUJIFILM).</p><h3 class="c-article__sub-heading" id="Sec19">Molecular dynamics simulations</h3><p>The NSD2 E1099K structure (residues 986–1203 constituting two Zn atoms in the AWS domain, one Zn atom, and SAM in the SET domain) was extracted from the cryo-EM-based nucleosome-bound NSD2 E1099K complex reported&nbsp;in this study by deleting the nucleosome. The N-terminal helix region (residues 973–985) from the crystal structure<sup><a data-track="click" data-track-action="reference anchor" data-track-label="link" data-test="citation-ref" aria-label="Reference 18" title="Tisi, D. et al. Structure of the epigenetic oncogene MMSET and inhibition by N-alkyl sinefungin derivatives. ACS Chem. Biol. 11, 3093–3105 (2016)." href="/articles/s41467-021-26913-5#ref-CR18" id="ref-link-section-d187599147e1494">18</a></sup> (PDB ID: 5LSU) was added to the extracted NSD2 structure. In the combined structure, the L975 and L978 residues of the N-terminus were mutated back to the original sequence residues (Q975 and K1073, respectively) to obtain the initial structure of NSD2 E1099K with an open autoinhibitory loop conformation. Subsequently, the initial structures of wild-type NSD2 and the T1150A and E1099K-T1150A mutants were obtained by introducing appropriate mutations. All mutations were introduced using the rotamer library in UCSF Chimera<sup><a data-track="click" data-track-action="reference anchor" data-track-label="link" data-test="citation-ref" aria-label="Reference 43" title="Pettersen, E. F. et al. UCSF Chimera?A visualization system for exploratory research and analysis. J. Comput. Chem. 25, 1605–1612 (2004)." href="/articles/s41467-021-26913-5#ref-CR43" id="ref-link-section-d187599147e1498">43</a>,<a data-track="click" data-track-action="reference anchor" data-track-label="link" data-test="citation-ref" aria-label="Reference 46" title="Shapovalov, M. V. &amp; Dunbrack, R. L. A smoothed backbone-dependent rotamer library for proteins derived from adaptive kernel density estimates and regressions. Structure 19, 844–858 (2011)." href="/articles/s41467-021-26913-5#ref-CR46" id="ref-link-section-d187599147e1501">46</a></sup>. Thus, we performed MD simulations of the NSD2 wild-type and three mutants, namely, E1099K, T1150A, and E1099K-T1150A (Supplementary Table&nbsp;<a data-track="click" data-track-label="link" data-track-action="supplementary material anchor" href="/articles/s41467-021-26913-5#MOESM1">2</a>).</p><p>All simulations were performed using the AMBER package with the ff14SB force field for proteins and improved parameters for SAM<sup><a data-track="click" data-track-action="reference anchor" data-track-label="link" data-test="citation-ref" title="Case, D. A. et al. AMBER 2018, University of California, San Francisco. (2018)." href="#ref-CR47" id="ref-link-section-d187599147e1511">47</a>,<a data-track="click" data-track-action="reference anchor" data-track-label="link" data-test="citation-ref" title="Maier, J. A. et al. ff14SB: improving the accuracy of protein side chain and backbone parameters from ff99SB. J. Chem. Theory Comput. 11, 3696–3713 (2015)." href="#ref-CR48" id="ref-link-section-d187599147e1511_1">48</a>,<a data-track="click" data-track-action="reference anchor" data-track-label="link" data-test="citation-ref" aria-label="Reference 49" title="Saez, D. A. &amp; Vöhringer-Martinez, E. A consistent S-adenosylmethionine force field improved by dynamic Hirshfeld-I atomic charges for biomolecular simulation. J. Comput. Aided Mol. Des. 29, 951–961 (2015)." href="/articles/s41467-021-26913-5#ref-CR49" id="ref-link-section-d187599147e1514">49</a></sup>. The parameters of the Zn ions coordinated with C1144, C1191, C1193, and C1198 were obtained from the zinc AMBER force field (ZAFF)<sup><a data-track="click" data-track-action="reference anchor" data-track-label="link" data-test="citation-ref" aria-label="Reference 50" title="Peters, M. B. et al. Structural survey of zinc-containing proteins and development of the Zinc AMBER force field (ZAFF). J. Chem. Theory Comput. 6, 2935–2947 (2010)." href="/articles/s41467-021-26913-5#ref-CR50" id="ref-link-section-d187599147e1518">50</a></sup>. The parameters of the two Zn ions in the AWS domain coordinated with seven cysteine residues were generated using the MCPB.py program<sup><a data-track="click" data-track-action="reference anchor" data-track-label="link" data-test="citation-ref" aria-label="Reference 51" title="Li, P. &amp; Merz, K. M. MCPB.py: A Python Based Metal Center Parameter Builder. J. Chem. Inf. Modeling 56, 599–604 (2016)." href="/articles/s41467-021-26913-5#ref-CR51" id="ref-link-section-d187599147e1522">51</a></sup>. Geometry optimization and RESP charge (Merz–Kollman scheme) calculations were performed at the B3LYP/6-31G* level of theory in Gaussian16<sup><a data-track="click" data-track-action="reference anchor" data-track-label="link" data-test="citation-ref" title="Bayly, C. I., Cieplak, P., Cornell, W. &amp; Kollman, P. A. A well-behaved electrostatic potential based method using charge restraints for deriving atomic charges: the RESP model. J. Phys. Chem. 97, 10269–10280 (1993)." href="#ref-CR52" id="ref-link-section-d187599147e1526">52</a>,<a data-track="click" data-track-action="reference anchor" data-track-label="link" data-test="citation-ref" title="Besler, B. H., Merz, K. M. &amp; Kollman, P. A. Atomic charges derived from semiempirical methods. J. Computational Chem. 11, 431–439 (1990)." href="#ref-CR53" id="ref-link-section-d187599147e1526_1">53</a>,<a data-track="click" data-track-action="reference anchor" data-track-label="link" data-test="citation-ref" aria-label="Reference 54" title="Frisch, M. J. et al. Gaussian 16 Rev. B.01 (2016)." href="/articles/s41467-021-26913-5#ref-CR54" id="ref-link-section-d187599147e1529">54</a></sup>. While preparing the parameters of the proteins, no specific protonation state treatments were performed for any residues in this study except for the cysteines coordinated with the Zn atoms in the SET and AWS domains. All the cysteines coordinating with Zn atoms were deprotonated.</p><p>Each system was solvated and neutralized in a cubical box containing a 0.150 M NaCl and&nbsp;TIP3P water model<sup><a data-track="click" data-track-action="reference anchor" data-track-label="link" data-test="citation-ref" aria-label="Reference 55" title="Jorgensen, W. L., Chandrasekhar, J., Madura, J. D., Impey, R. W. &amp; Klein, M. L. Comparison of simple potential functions for simulating liquid water. J. Chem. Phys. 79, 926–935 (1983)." href="/articles/s41467-021-26913-5#ref-CR55" id="ref-link-section-d187599147e1536">55</a></sup> solution with a padding distance of 13.5 Å. Energy minimization involved both steepest-descent and conjugate-gradient algorithms. System equilibration was performed in three successive steps of 500 ps each. First, heating to 300 K in NVT was performed, followed by equilibration under NPT at a temperature of 300 K and a pressure of 1 bar. A positional restraint of 100 kcal mol<sup>-1</sup> Å<sup>−2</sup> was applied to the heavy atoms of the solute during the first two cycles of equilibration. The temperature of 300 K and pressure of 1 bar were maintained using the Langevin dynamics algorithm (collision frequency γ = 2.0 and coupling constant = 1.0 ps) and the Berendsen barostat (pressure relaxation time = 1.0 ps). Particle mesh Ewald (PME) was used to calculate long-range electrostatic interactions<sup><a data-track="click" data-track-action="reference anchor" data-track-label="link" data-test="citation-ref" aria-label="Reference 56" title="Darden, T., York, D. &amp; Pedersen, L. Particle mesh Ewald: An N⋅log(N) method for Ewald sums in large systems. J. Chem. Phys. 98, 10089–10092 (1993)." href="/articles/s41467-021-26913-5#ref-CR56" id="ref-link-section-d187599147e1544">56</a></sup>, and the bonds associated with hydrogen atoms were constrained using the SHAKE algorithm<sup><a data-track="click" data-track-action="reference anchor" data-track-label="link" data-test="citation-ref" aria-label="Reference 57" title="Miyamoto, S. &amp; Kollman, P. A. Settle: an analytical version of the SHAKE and RATTLE algorithm for rigid water models. J. Comput. Chem. 13, 952–962 (1992)." href="/articles/s41467-021-26913-5#ref-CR57" id="ref-link-section-d187599147e1548">57</a></sup>. Finally, three independent 500-ns runs were performed for each system. All analyses for the last 400-ns simulation of each independent run of the trajectories were performed using the CPPTRAJ package<sup><a data-track="click" data-track-action="reference anchor" data-track-label="link" data-test="citation-ref" aria-label="Reference 58" title="Roe, D. R. &amp; Cheatham, T. E. 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Sequence alignment figures were created using ESPript<sup><a data-track="click" data-track-action="reference anchor" data-track-label="link" data-test="citation-ref" aria-label="Reference 60" title="Robert, X. &amp; Gouet, P. Deciphering key features in protein structures with the new ENDscript server. Nucleic Acids Res. 42, W320–W324 (2014)." href="/articles/s41467-021-26913-5#ref-CR60" id="ref-link-section-d187599147e1570">60</a></sup>. Both trajectory visualization and movie creation were accomplished using VMD<sup><a data-track="click" data-track-action="reference anchor" data-track-label="link" data-test="citation-ref" aria-label="Reference 61" title="Stone J. An Efficient Library For Parallel Ray Tracing And Animation. https://scholarsmine.mst.edu/masters_theses/1747 (1998)." href="/articles/s41467-021-26913-5#ref-CR61" id="ref-link-section-d187599147e1574">61</a>,<a data-track="click" data-track-action="reference anchor" data-track-label="link" data-test="citation-ref" aria-label="Reference 62" title="Humphrey, W., Dalke, A. &amp; Schulten, K. VMD: Visual molecular dynamics. J. Mol. Graph. 14, 33–38 (1996)." href="/articles/s41467-021-26913-5#ref-CR62" id="ref-link-section-d187599147e1577">62</a></sup>.</p><h3 class="c-article__sub-heading" id="Sec21">Reporting summary</h3><p>Further information on research design is available in the&nbsp;<a data-track="click" data-track-label="link" data-track-action="supplementary material anchor" href="/articles/s41467-021-26913-5#MOESM4">Nature Research Reporting Summary</a> linked to this article.</p></div></div></section> </div> <div> <section data-title="Data availability"><div class="c-article-section" id="data-availability-section"><h2 class="c-article-section__title js-section-title js-c-reading-companion-sections-item" id="data-availability">Data availability</h2><div class="c-article-section__content" id="data-availability-content"> <p>The density map and model coordinates have been deposited to Electron Microscopy Data Bank (accession number <a href="https://www.ebi.ac.uk/pdbe/entry/emdb/EMD-31015">EMD-31015</a>) and Protein Data Bank (accession number <a href="https://doi.org/10.2210/pdb7E8D/pdb">7E8D</a>), respectively.&nbsp;<a data-track="click" data-track-label="link" data-track-action="section anchor" href="/articles/s41467-021-26913-5#Sec23">Source data</a> are provided with this paper.</p> </div></div></section><div id="MagazineFulltextArticleBodySuffix"><section aria-labelledby="Bib1" data-title="References"><div class="c-article-section" id="Bib1-section"><h2 class="c-article-section__title js-section-title js-c-reading-companion-sections-item" id="Bib1">References</h2><div class="c-article-section__content" id="Bib1-content"><div data-container-section="references"><ol class="c-article-references" data-track-component="outbound reference" data-track-context="references section"><li class="c-article-references__item js-c-reading-companion-references-item" data-counter="1."><p class="c-article-references__text" id="ref-CR1">Kouzarides, T. 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This research was supported by JSPS KAKENHI [grant numbers JP20K08717 (to K.S.), JP18H05534 (to H.K.), JP20H05394, and JP21H05161 (to T.S.)]. The study was partially supported by the Platform Project for Supporting Drug Discovery and Life Science Research (Basis for Supporting Innovative Drug Discovery and Life Science Research (BINDS)) from AMED [grant numbers JP20am0101115 and JP20am0101106 (support numbers 1061 and 2450)].</p></div></div></section><section aria-labelledby="author-information" data-title="Author information"><div class="c-article-section" id="author-information-section"><h2 class="c-article-section__title js-section-title js-c-reading-companion-sections-item" id="author-information">Author information</h2><div class="c-article-section__content" id="author-information-content"><span class="c-article-author-information__subtitle u-visually-hidden" id="author-notes">Author notes</span><ol class="c-article-author-information__list"><li class="c-article-author-information__item" id="nAff4"><p class="c-article-author-information__authors-list">Tomohiro Nishizawa</p><p class="js-present-address">Present address: Graduate School of Medical Life Science, Yokohama City University, 1-7-29 Suehiro-cho, Tsurumi-ku, Yokohama, Kanagawa, 230-0045, Japan</p></li><li class="c-article-author-information__item" id="na1"><p>These authors contributed equally: Ko Sato, Toru Sengoku.</p></li></ol><h3 class="c-article__sub-heading" id="affiliations">Authors and Affiliations</h3><ol class="c-article-author-affiliation__list"><li id="Aff1"><p class="c-article-author-affiliation__address">Department of Biochemistry, Yokohama City University Graduate School of Medicine, 3-9 Fukuura, Kanazawa-ku, Yokohama, Kanagawa, 236-0004, Japan</p><p class="c-article-author-affiliation__authors-list">Ko Sato,&nbsp;Keisuke Hamada,&nbsp;Chikako Okada,&nbsp;Asako Oguni,&nbsp;Ayumi Machiyama,&nbsp;Kazuhiro Ogata&nbsp;&amp;&nbsp;Toru Sengoku</p></li><li id="Aff2"><p class="c-article-author-affiliation__address">Institute for Quantum Life Science, National Institutes for Quantum Science and Technology, 8-1-7 Umemidai, Kizugawa, Kyoto, 619-0215, Japan</p><p class="c-article-author-affiliation__authors-list">Amarjeet Kumar,&nbsp;Shun Sakuraba&nbsp;&amp;&nbsp;Hidetoshi Kono</p></li><li id="Aff3"><p class="c-article-author-affiliation__address">Department of Biological Sciences, Graduate School of Science, The University of Tokyo, 7-3-1 Hongo, Bunkyo-ku, Tokyo, 113-0033, Japan</p><p class="c-article-author-affiliation__authors-list">Tomohiro Nishizawa&nbsp;&amp;&nbsp;Osamu Nureki</p></li></ol><div class="u-js-hide u-hide-print" data-test="author-info"><span class="c-article__sub-heading">Authors</span><ol class="c-article-authors-search u-list-reset"><li id="auth-Ko-Sato-Aff1"><span class="c-article-authors-search__title u-h3 js-search-name">Ko Sato</span><div class="c-article-authors-search__list"><div class="c-article-authors-search__item c-article-authors-search__list-item--left"><a href="/search?author=Ko%20Sato" class="c-article-button" data-track="click" data-track-action="author link - 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K.S., H.K., O.N., K.O. and T.S. designed the experiments. K.S., C.O., A.O. and T.S. cloned, expressed, and purified the proteins and prepared the nucleosomes. K.S., T.N. and T.S. collected and processed the cryo-EM data and built and refined the atomic model. K.S., K.H., C.O., A.M. and T.S. performed the biochemical experiments. A.K., S.S. and H.K. performed the MD simulations. K.S., A.K., H.K., K.O. and T.S. wrote the paper with input from all authors.</p><h3 class="c-article__sub-heading" id="corresponding-author">Corresponding authors</h3><p id="corresponding-author-list">Correspondence to <a id="corresp-c1" href="mailto:ogata@yokohama-cu.ac.jp">Kazuhiro Ogata</a> or <a id="corresp-c2" href="mailto:tsengoku@yokohama-cu.ac.jp">Toru Sengoku</a>.</p></div></div></section><section data-title="Ethics declarations"><div class="c-article-section" id="ethics-section"><h2 class="c-article-section__title js-section-title js-c-reading-companion-sections-item" id="ethics">Ethics declarations</h2><div class="c-article-section__content" id="ethics-content"> <h3 class="c-article__sub-heading" id="FPar1">Competing interests</h3> <p>The authors declare no competing interests.</p> </div></div></section><section data-title="Additional information"><div class="c-article-section" id="additional-information-section"><h2 class="c-article-section__title js-section-title 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id="citeas">Cite this article</h3><p class="c-bibliographic-information__citation">Sato, K., Kumar, A., Hamada, K. <i>et al.</i> Structural basis of the regulation of the normal and oncogenic methylation of nucleosomal histone H3 Lys36 by NSD2. <i>Nat Commun</i> <b>12</b>, 6605 (2021). https://doi.org/10.1038/s41467-021-26913-5</p><p class="c-bibliographic-information__download-citation u-hide-print"><a data-test="citation-link" data-track="click" data-track-action="download article citation" data-track-label="link" data-track-external="" rel="nofollow" href="https://citation-needed.springer.com/v2/references/10.1038/s41467-021-26913-5?format=refman&amp;flavour=citation">Download citation<svg width="16" height="16" focusable="false" role="img" aria-hidden="true" class="u-icon"><use xmlns:xlink="http://www.w3.org/1999/xlink" xlink:href="#icon-eds-i-download-medium"></use></svg></a></p><ul class="c-bibliographic-information__list" data-test="publication-history"><li class="c-bibliographic-information__list-item"><p>Received<span class="u-hide">: </span><span class="c-bibliographic-information__value"><time datetime="2021-01-22">22 January 2021</time></span></p></li><li class="c-bibliographic-information__list-item"><p>Accepted<span class="u-hide">: </span><span class="c-bibliographic-information__value"><time datetime="2021-10-28">28 October 2021</time></span></p></li><li class="c-bibliographic-information__list-item"><p>Published<span class="u-hide">: </span><span class="c-bibliographic-information__value"><time datetime="2021-11-15">15 November 2021</time></span></p></li><li class="c-bibliographic-information__list-item c-bibliographic-information__list-item--full-width"><p><abbr title="Digital Object Identifier">DOI</abbr><span class="u-hide">: </span><span class="c-bibliographic-information__value">https://doi.org/10.1038/s41467-021-26913-5</span></p></li></ul><div data-component="share-box"><div class="c-article-share-box u-display-none" 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