Literature DB >> 34887560

Evolution of a histone variant involved in compartmental regulation of NAD metabolism.

Iva Guberovic1, Sarah Hurtado-Bagès1, Ciro Rivera-Casas2, Gunnar Knobloch3,4, Roberto Malinverni1, Vanesa Valero1, Michelle M Leger5, Jesús García6, Jerome Basquin7, Marta Gómez de Cedrón8, Marta Frigolé-Vivas6, Manjinder S Cheema9, Ainhoa Pérez1, Juan Ausió9, Ana Ramírez de Molina8, Xavier Salvatella6,10,11, Iñaki Ruiz-Trillo5,11, Jose M Eirin-Lopez2, Andreas G Ladurner3,4, Marcus Buschbeck12,13.   

Abstract

NAD metabolism is essential for all forms of life. Compartmental regulation of NAD+ consumption, especially between the nucleus and the mitochondria, is required for energy homeostasis. However, how compartmental regulation evolved remains unclear. In the present study, we investigated the evolution of the macrodomain-containing histone variant macroH2A1.1, an integral chromatin component that limits nuclear NAD+ consumption by inhibiting poly(ADP-ribose) polymerase 1 in vertebrate cells. We found that macroH2A originated in premetazoan protists. The crystal structure of the macroH2A macrodomain from the protist Capsaspora owczarzaki allowed us to identify highly conserved principles of ligand binding and pinpoint key residue substitutions, selected for during the evolution of the vertebrate stem lineage. Metabolic characterization of the Capsaspora lifecycle suggested that the metabolic function of macroH2A was associated with nonproliferative stages. Taken together, we provide insight into the evolution of a chromatin element involved in compartmental NAD regulation, relevant for understanding its metabolism and potential therapeutic applications.
© 2021. The Author(s), under exclusive licence to Springer Nature America, Inc.

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Year:  2021        PMID: 34887560     DOI: 10.1038/s41594-021-00692-5

Source DB:  PubMed          Journal:  Nat Struct Mol Biol        ISSN: 1545-9985            Impact factor:   15.369


  63 in total

Review 1.  Location, Location, Location: Compartmentalization of NAD+ Synthesis and Functions in Mammalian Cells.

Authors:  Xiaolu A Cambronne; W Lee Kraus
Journal:  Trends Biochem Sci       Date:  2020-06-25       Impact factor: 13.807

Review 2.  Keeping the balance in NAD metabolism.

Authors:  Øyvind Strømland; Marc Niere; Andrey A Nikiforov; Magali R VanLinden; Ines Heiland; Mathias Ziegler
Journal:  Biochem Soc Trans       Date:  2019-01-09       Impact factor: 5.407

Review 3.  NAD+ metabolism and its roles in cellular processes during ageing.

Authors:  Anthony J Covarrubias; Rosalba Perrone; Alessia Grozio; Eric Verdin
Journal:  Nat Rev Mol Cell Biol       Date:  2020-12-22       Impact factor: 94.444

Review 4.  Therapeutic Potential of NAD-Boosting Molecules: The In Vivo Evidence.

Authors:  Luis Rajman; Karolina Chwalek; David A Sinclair
Journal:  Cell Metab       Date:  2018-03-06       Impact factor: 27.287

Review 5.  NAD(+) Metabolism and the Control of Energy Homeostasis: A Balancing Act between Mitochondria and the Nucleus.

Authors:  Carles Cantó; Keir J Menzies; Johan Auwerx
Journal:  Cell Metab       Date:  2015-06-25       Impact factor: 27.287

Review 6.  NAD(H) and NADP(H) Redox Couples and Cellular Energy Metabolism.

Authors:  Wusheng Xiao; Rui-Sheng Wang; Diane E Handy; Joseph Loscalzo
Journal:  Antioxid Redox Signal       Date:  2017-07-28       Impact factor: 8.401

7.  Poly(ADP-ribose) polymerase 1 at the crossroad of metabolic stress and inflammation in aging.

Authors:  Matthias Altmeyer; Michael O Hottiger
Journal:  Aging (Albany NY)       Date:  2009-05-20       Impact factor: 5.682

8.  PARP-1 inhibition increases mitochondrial metabolism through SIRT1 activation.

Authors:  Péter Bai; Carles Cantó; Hugues Oudart; Attila Brunyánszki; Yana Cen; Charles Thomas; Hiroyasu Yamamoto; Aline Huber; Borbála Kiss; Riekelt H Houtkooper; Kristina Schoonjans; Valérie Schreiber; Anthony A Sauve; Josiane Menissier-de Murcia; Johan Auwerx
Journal:  Cell Metab       Date:  2011-04-06       Impact factor: 27.287

9.  Pharmacological Inhibition of poly(ADP-ribose) polymerases improves fitness and mitochondrial function in skeletal muscle.

Authors:  Eija Pirinen; Carles Cantó; Young Suk Jo; Laia Morato; Hongbo Zhang; Keir J Menzies; Evan G Williams; Laurent Mouchiroud; Norman Moullan; Carolina Hagberg; Wei Li; Silvie Timmers; Ralph Imhof; Jef Verbeek; Aurora Pujol; Barbara van Loon; Carlo Viscomi; Massimo Zeviani; Patrick Schrauwen; Anthony A Sauve; Kristina Schoonjans; Johan Auwerx
Journal:  Cell Metab       Date:  2014-05-08       Impact factor: 27.287

10.  MacroH2A1.1 regulates mitochondrial respiration by limiting nuclear NAD+ consumption.

Authors:  Melanija Posavec Marjanović; Sarah Hurtado-Bagès; Maximilian Lassi; Vanesa Valero; Roberto Malinverni; Hélène Delage; Miriam Navarro; David Corujo; Iva Guberovic; Julien Douet; Pau Gama-Perez; Pablo M Garcia-Roves; Ivan Ahel; Andreas G Ladurner; Oscar Yanes; Philippe Bouvet; Mònica Suelves; Raffaele Teperino; J Andrew Pospisilik; Marcus Buschbeck
Journal:  Nat Struct Mol Biol       Date:  2017-10-09       Impact factor: 15.369

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