Literature DB >> 28159830

Therapeutic Strategies for Restoring Tau Homeostasis.

Zapporah T Young1, Sue Ann Mok1, Jason E Gestwicki1.   

Abstract

Normal tau homeostasis is achieved when the synthesis, processing, and degradation of the protein is balanced. Together, the pathways that regulate tau homeostasis ensure that the protein is at the proper levels and that its posttranslational modifications and subcellular localization are appropriately controlled. These pathways include the enzymes responsible for posttranslational modifications, those systems that regulate mRNA splicing, and the molecular chaperones that control tau turnover and its binding to microtubules. In tauopathies, this delicate balance is disturbed. Tau becomes abnormally modified by posttranslational modification, it loses affinity for microtubules, and it accumulates in proteotoxic aggregates. How and why does this imbalance occur? In this review, we discuss how molecular chaperones and other components of the protein homeostasis (e.g., proteostasis) network normally govern tau quality control. We also discuss how aging might reduce the capacity of these systems and how tau mutations might further affect this balance. Finally, we discuss how small-molecule inhibitors are being used to probe and perturb the tau quality-control systems, playing a particularly prominent role in revealing the logic of tau homeostasis. As such, there is now interest in developing these chemical probes into therapeutics, with the goal of restoring normal tau homeostasis to treat disease.
Copyright © 2018 Cold Spring Harbor Laboratory Press; all rights reserved.

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Year:  2018        PMID: 28159830      PMCID: PMC5540800          DOI: 10.1101/cshperspect.a024612

Source DB:  PubMed          Journal:  Cold Spring Harb Perspect Med        ISSN: 2157-1422            Impact factor:   6.915


  200 in total

1.  Frontotemporal dementia and corticobasal degeneration in a family with a P301S mutation in tau.

Authors:  O Bugiani; J R Murrell; G Giaccone; M Hasegawa; G Ghigo; M Tabaton; M Morbin; A Primavera; F Carella; C Solaro; M Grisoli; M Savoiardo; M G Spillantini; F Tagliavini; M Goedert; B Ghetti
Journal:  J Neuropathol Exp Neurol       Date:  1999-06       Impact factor: 3.685

2.  Assembly of tau protein into Alzheimer paired helical filaments depends on a local sequence motif ((306)VQIVYK(311)) forming beta structure.

Authors:  M von Bergen; P Friedhoff; J Biernat; J Heberle; E M Mandelkow; E Mandelkow
Journal:  Proc Natl Acad Sci U S A       Date:  2000-05-09       Impact factor: 11.205

3.  The ubiquitin-related BAG-1 provides a link between the molecular chaperones Hsc70/Hsp70 and the proteasome.

Authors:  J Lüders; J Demand; J Höhfeld
Journal:  J Biol Chem       Date:  2000-02-18       Impact factor: 5.157

4.  The neuronal microtubule-associated protein tau is a substrate for caspase-3 and an effector of apoptosis.

Authors:  L Fasulo; G Ugolini; M Visintin; A Bradbury; C Brancolini; V Verzillo; M Novak; A Cattaneo
Journal:  J Neurochem       Date:  2000-08       Impact factor: 5.372

5.  Novobiocin and related coumarins and depletion of heat shock protein 90-dependent signaling proteins.

Authors:  M G Marcu; T W Schulte; L Neckers
Journal:  J Natl Cancer Inst       Date:  2000-02-02       Impact factor: 13.506

6.  A protein factor essential for microtubule assembly.

Authors:  M D Weingarten; A H Lockwood; S Y Hwo; M W Kirschner
Journal:  Proc Natl Acad Sci U S A       Date:  1975-05       Impact factor: 11.205

7.  Structure, microtubule interactions, and paired helical filament aggregation by tau mutants of frontotemporal dementias.

Authors:  S Barghorn; Q Zheng-Fischhöfer; M Ackmann; J Biernat; M von Bergen; E M Mandelkow; E Mandelkow
Journal:  Biochemistry       Date:  2000-09-26       Impact factor: 3.162

8.  The prolyl isomerase Pin1 restores the function of Alzheimer-associated phosphorylated tau protein.

Authors:  P J Lu; G Wulf; X Z Zhou; P Davies; K P Lu
Journal:  Nature       Date:  1999-06-24       Impact factor: 49.962

9.  Structural and functional differences between 3-repeat and 4-repeat tau isoforms. Implications for normal tau function and the onset of neurodegenetative disease.

Authors:  B L Goode; M Chau; P E Denis; S C Feinstein
Journal:  J Biol Chem       Date:  2000-12-08       Impact factor: 5.157

10.  Association of an extended haplotype in the tau gene with progressive supranuclear palsy.

Authors:  M Baker; I Litvan; H Houlden; J Adamson; D Dickson; J Perez-Tur; J Hardy; T Lynch; E Bigio; M Hutton
Journal:  Hum Mol Genet       Date:  1999-04       Impact factor: 6.150

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  12 in total

1.  Management of Hsp90-Dependent Protein Folding by Small Molecules Targeting the Aha1 Co-Chaperone.

Authors:  Jay K Singh; Darren M Hutt; Bradley Tait; Naihsuan C Guy; Jeffrey C Sivils; Nina R Ortiz; Ashley N Payan; Shravan Kumar Komaragiri; Jazzmin Jovonna Owens; David Culbertson; Laura J Blair; Chad Dickey; Szu Yu Kuo; Dan Finley; H Jane Dyson; Marc B Cox; Jaideep Chaudhary; Jason E Gestwicki; William E Balch
Journal:  Cell Chem Biol       Date:  2020-02-03       Impact factor: 8.116

2.  Compromised function of the ESCRT pathway promotes endolysosomal escape of tau seeds and propagation of tau aggregation.

Authors:  John J Chen; Diane L Nathaniel; Preethi Raghavan; Maxine Nelson; Ruilin Tian; Eric Tse; Jason Y Hong; Stephanie K See; Sue-Ann Mok; Marco Y Hein; Daniel R Southworth; Lea T Grinberg; Jason E Gestwicki; Manuel D Leonetti; Martin Kampmann
Journal:  J Biol Chem       Date:  2019-10-02       Impact factor: 5.157

Review 3.  Modulation of Amyloid States by Molecular Chaperones.

Authors:  Anne Wentink; Carmen Nussbaum-Krammer; Bernd Bukau
Journal:  Cold Spring Harb Perspect Biol       Date:  2019-07-01       Impact factor: 10.005

4.  An inhibitor of the proteasomal deubiquitinating enzyme USP14 induces tau elimination in cultured neurons.

Authors:  Monica Boselli; Byung-Hoon Lee; Jessica Robert; Miguel A Prado; Sang-Won Min; Chialin Cheng; M Catarina Silva; Changhyun Seong; Suzanne Elsasser; Ketki M Hatle; Timothy C Gahman; Steven P Gygi; Stephen J Haggarty; Li Gan; Randall W King; Daniel Finley
Journal:  J Biol Chem       Date:  2017-09-26       Impact factor: 5.157

Review 5.  Combating deleterious phase transitions in neurodegenerative disease.

Authors:  April L Darling; James Shorter
Journal:  Biochim Biophys Acta Mol Cell Res       Date:  2021-02-05       Impact factor: 4.739

6.  Inhibitors of heat shock protein 70 (Hsp70) with enhanced metabolic stability reduce tau levels.

Authors:  Hao Shao; Xiaokai Li; Shigenari Hayashi; Jeanette L Bertron; Daniel M C Schwarz; Benjamin C Tang; Jason E Gestwicki
Journal:  Bioorg Med Chem Lett       Date:  2021-04-09       Impact factor: 2.940

Review 7.  Our Working Point of View of Tau Protein.

Authors:  Jesús Avila
Journal:  J Alzheimers Dis       Date:  2018       Impact factor: 4.472

Review 8.  Cognitive Decline in Neuronal Aging and Alzheimer's Disease: Role of NMDA Receptors and Associated Proteins.

Authors:  Jesús Avila; María Llorens-Martín; Noemí Pallas-Bazarra; Marta Bolós; Juan R Perea; Alberto Rodríguez-Matellán; Félix Hernández
Journal:  Front Neurosci       Date:  2017-11-10       Impact factor: 4.677

9.  Small heat shock protein 22 kDa can modulate the aggregation and liquid-liquid phase separation behavior of tau.

Authors:  April L Darling; Jan Dahrendorff; Stefan G Creodore; Chad A Dickey; Laura J Blair; Vladimir N Uversky
Journal:  Protein Sci       Date:  2021-03-15       Impact factor: 6.993

10.  Mapping interactions with the chaperone network reveals factors that protect against tau aggregation.

Authors:  Sue-Ann Mok; Carlo Condello; Rebecca Freilich; Anne Gillies; Taylor Arhar; Javier Oroz; Harindranath Kadavath; Olivier Julien; Victoria A Assimon; Jennifer N Rauch; Bryan M Dunyak; Jungsoon Lee; Francis T F Tsai; Mark R Wilson; Markus Zweckstetter; Chad A Dickey; Jason E Gestwicki
Journal:  Nat Struct Mol Biol       Date:  2018-04-30       Impact factor: 15.369

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