Literature DB >> 30027901

Huntington's disease: the coming of age.

Mritunjay Pandey1, Usha Rajamma.   

Abstract

Huntington's disease (HD) is caused due to an abnormal expansion of polyglutamine repeats in the first exon of huntingtin gene. The mutation in huntingtin causes abnormalities in the functioning of protein, leading to deleterious effects ultimately to the demise of specific neuronal cells.The disease is inherited in an autosomal dominant manner and leads to a plethora of neuropsychiatric behaviour and neuronal cell death mainly in striatal and cortical regions of the brain, eventually leading to death of the individual. The discovery of the mutant gene led to a surge in molecular diagnostics of the disease and in making different transgenic models in different organisms to understand the function of wild-type and mutant proteins. Despite difficult challenges, there has been a significant increase in understanding the functioning of the protein in normal and other gain-of-function interactions in mutant form. However, there have been no significant improvements in treatments of the patients suffering from this ailment and most of the treatment is still symptomatic. HD warrants more attention towards better understanding and treatment as more advancement in molecular diagnostics and therapeutic interventions are available. Several different transgenic models are available in different organisms, ranging from fruit flies to primate monkeys, for studies on understanding the pathogenicity of the mutant gene. It is the right time to assess the advancement in the field and try new strategies for neuroprotection using key pathways as target. The present review highlights the key ingredients of pathology in the HD and discusses important studies for drug trials and future goals for therapeutic interventions.

Entities:  

Mesh:

Year:  2018        PMID: 30027901

Source DB:  PubMed          Journal:  J Genet        ISSN: 0022-1333            Impact factor:   1.166


  184 in total

1.  Elevated serotonin and reduced dopamine in subregionally divided Huntington's disease striatum.

Authors:  S J Kish; K Shannak; O Hornykiewicz
Journal:  Ann Neurol       Date:  1987-09       Impact factor: 10.422

2.  HEAT repeats in the Huntington's disease protein.

Authors:  M A Andrade; P Bork
Journal:  Nat Genet       Date:  1995-10       Impact factor: 38.330

Review 3.  Excitotoxic injury of the neostriatum: a model for Huntington's disease.

Authors:  M DiFiglia
Journal:  Trends Neurosci       Date:  1990-07       Impact factor: 13.837

4.  Huntingtin proteolysis releases non-polyQ fragments that cause toxicity through dynamin 1 dysregulation.

Authors:  Marie-Thérèse El-Daher; Emilie Hangen; Julie Bruyère; Ghislaine Poizat; Ismael Al-Ramahi; Raul Pardo; Nicolas Bourg; Sylvie Souquere; Céline Mayet; Gérard Pierron; Sandrine Lévêque-Fort; Juan Botas; Sandrine Humbert; Frédéric Saudou
Journal:  EMBO J       Date:  2015-07-12       Impact factor: 11.598

5.  Comparative sequence analysis of the human and pufferfish Huntington's disease genes.

Authors:  S Baxendale; S Abdulla; G Elgar; D Buck; M Berks; G Micklem; R Durbin; G Bates; S Brenner; S Beck
Journal:  Nat Genet       Date:  1995-05       Impact factor: 38.330

6.  Characterization of the Huntington's disease (HD) gene homologue in the zebrafish Danio rerio.

Authors:  C A Karlovich; R M John; L Ramirez; D Y Stainier; R M Myers
Journal:  Gene       Date:  1998-09-14       Impact factor: 3.688

7.  Americo Negrette (1924 to 2003): diagnosing Huntington disease in Venezuela.

Authors:  Michael S Okun; Nia Thommi
Journal:  Neurology       Date:  2004-07-27       Impact factor: 9.910

8.  Epidemiology of Huntington's disease in Slovenia.

Authors:  B Peterlin; J Kobal; N Teran; D Flisar; L Lovrecić
Journal:  Acta Neurol Scand       Date:  2008-10-22       Impact factor: 3.209

9.  Mutant huntingtin binds the mitochondrial fission GTPase dynamin-related protein-1 and increases its enzymatic activity.

Authors:  Wenjun Song; Jin Chen; Alejandra Petrilli; Geraldine Liot; Eva Klinglmayr; Yue Zhou; Patrick Poquiz; Jonathan Tjong; Mahmoud A Pouladi; Michael R Hayden; Eliezer Masliah; Mark Ellisman; Isabelle Rouiller; Robert Schwarzenbacher; Blaise Bossy; Guy Perkins; Ella Bossy-Wetzel
Journal:  Nat Med       Date:  2011-02-20       Impact factor: 53.440

10.  N17 Modifies mutant Huntingtin nuclear pathogenesis and severity of disease in HD BAC transgenic mice.

Authors:  Xiaofeng Gu; Jeffrey P Cantle; Erin R Greiner; C Y Daniel Lee; Albert M Barth; Fuying Gao; Chang Sin Park; Zhiqiang Zhang; Susana Sandoval-Miller; Richard L Zhang; Marc Diamond; Istvan Mody; Giovanni Coppola; X William Yang
Journal:  Neuron       Date:  2015-02-05       Impact factor: 17.173

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  14 in total

Review 1.  PGC-1α, Sirtuins and PARPs in Huntington's Disease and Other Neurodegenerative Conditions: NAD+ to Rule Them All.

Authors:  Alejandro Lloret; M Flint Beal
Journal:  Neurochem Res       Date:  2019-05-07       Impact factor: 3.996

2.  Site-specific mitochondrial dysfunction in neurodegeneration.

Authors:  Anežka Vodičková; Shon A Koren; Andrew P Wojtovich
Journal:  Mitochondrion       Date:  2022-02-16       Impact factor: 4.534

3.  Pridopidine for the Improvement of Motor Function in Patients With Huntington's Disease: A Systematic Review and Meta-Analysis of Randomized Controlled Trials.

Authors:  Shujun Chen; Tianyu Liang; Tao Xue; Shouru Xue; Qun Xue
Journal:  Front Neurol       Date:  2021-05-13       Impact factor: 4.003

4.  Incidence of Huntington disease in a northeastern Spanish region: a 13-year retrospective study at tertiary care centre.

Authors:  Paula Sienes Bailo; Raquel Lahoz; Juan Pelegrín Sánchez Marín; Silvia Izquierdo Álvarez
Journal:  BMC Med Genet       Date:  2020-11-23       Impact factor: 2.103

Review 5.  Role of Nuclear Factor Kappa B (NF-κB) Signalling in Neurodegenerative Diseases: An Mechanistic Approach.

Authors:  Shareen Singh; Thakur Gurjeet Singh
Journal:  Curr Neuropharmacol       Date:  2020       Impact factor: 7.363

6.  Design, Synthesis, and Structure-Activity Relationship Study of Potent MAPK11 Inhibitors.

Authors:  Mengdie Gong; Mingyan Tu; Hongxia Sun; Lu Li; Lili Zhu; Honglin Li; Zhenjiang Zhao; Shiliang Li
Journal:  Molecules       Date:  2021-12-29       Impact factor: 4.411

7.  Escins Isolated from Aesculus chinensis Bge. Promote the Autophagic Degradation of Mutant Huntingtin and Inhibit its Induced Apoptosis in HT22 cells.

Authors:  Yueshan Sun; Xueqin Jiang; Rong Pan; Xiaogang Zhou; Dalian Qin; Rui Xiong; Yiling Wang; Wenqiao Qiu; Anguo Wu; Jianming Wu
Journal:  Front Pharmacol       Date:  2020-02-25       Impact factor: 5.810

8.  Exogenous polyserine and polyleucine are toxic to recipient cells.

Authors:  Ryuji Owada; Shinichi Mitsui; Kazuhiro Nakamura
Journal:  Sci Rep       Date:  2022-01-31       Impact factor: 4.379

9.  Toxicity of internalized polyalanine to cells depends on aggregation.

Authors:  Yutaro Iizuka; Ryuji Owada; Takayasu Kawasaki; Fumio Hayashi; Masashi Sonoyama; Kazuhiro Nakamura
Journal:  Sci Rep       Date:  2021-12-06       Impact factor: 4.379

Review 10.  Role of Hydrogen Sulfide and Polysulfides in Neurological Diseases: Focus on Protein S-Persulfidation.

Authors:  Hai-Jian Sun; Zhi-Yuan Wu; Xiao-Wei Nie; Jin-Song Bian
Journal:  Curr Neuropharmacol       Date:  2021       Impact factor: 7.363

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