Literature DB >> 16440064

Influenza pandemics: past, present and future.

Yu-Chia Hsieh1, Tsung-Zu Wu, Ding-Ping Liu, Pei-Lan Shao, Luan-Yin Chang, Chun-Yi Lu, Chin-Yun Lee, Fu-Yuan Huang, Li-Min Huang.   

Abstract

Influenza A virus is well known for its capability for genetic changes either through antigen drift or antigen shift. Antigen shift is derived from reassortment of gene segments between viruses, and may result in an antigenically novel virus that is capable of causing a worldwide pandemic. As we trace backwards through the history of influenza pandemics, a repeating pattern can be observed, namely, a limited wave in the first year followed by global spread in the following year. In the 20th century alone, there were three overwhelming pandemics, in 1918, 1957 and 1968, caused by H1N1 (Spanish flu), H2N2 (Asian flu) and H3N2 (Hong Kong flu), respectively. In 1957 and 1968, excess mortality was noted in infants, the elderly and persons with chronic diseases, similar to what occurred during interpandemic periods. In 1918, there was one distinct peak of excess death in young adults aged between 20 and 40 years old; leukopenia and hemorrhage were prominent features. Acute pulmonary edema and hemorrhagic pneumonia contributed to rapidly lethal outcome in young adults. Autopsies disclosed multiple-organ involvement, including pericarditis, myocarditis, hepatitis and splenomegaly. These findings are, in part, consistent with clinical manifestations of human infection with avian influenza A H5N1 virus, in which reactive hemophagocytic syndrome was a characteristic pathologic finding that accounted for pancytopenia, abnormal liver function and multiple organ failure. All the elements of an impending pandemic are in place. Unless effective measures are implemented, we will likely observe a pandemic in the coming seasons. Host immune response plays a crucial role in disease caused by newly emerged influenza virus, such as the 1918 pandemic strain and the recent avian H5N1 strain. Sustained activation of lymphocytes and macrophages after infection results in massive cytokine response, thus leading to severe systemic inflammation. Further investigations into how the virus interacts with the host's immune system will be helpful in guiding future therapeutic strategies in facing influenza pandemics.

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Year:  2006        PMID: 16440064     DOI: 10.1016/S0929-6646(09)60102-9

Source DB:  PubMed          Journal:  J Formos Med Assoc        ISSN: 0929-6646            Impact factor:   3.282


  44 in total

1.  High genetic compatibility and increased pathogenicity of reassortants derived from avian H9N2 and pandemic H1N1/2009 influenza viruses.

Authors:  Yipeng Sun; Kun Qin; Jingjing Wang; Juan Pu; Qingdong Tang; Yanxin Hu; Yuhai Bi; Xueli Zhao; Hanchun Yang; Yuelong Shu; Jinhua Liu
Journal:  Proc Natl Acad Sci U S A       Date:  2011-02-28       Impact factor: 11.205

2.  The possible roles of solar ultraviolet-B radiation and vitamin D in reducing case-fatality rates from the 1918-1919 influenza pandemic in the United States.

Authors:  William B Grant; Edward Giovannucci
Journal:  Dermatoendocrinol       Date:  2009-07

Review 3.  The inflammatory response triggered by Influenza virus: a two edged sword.

Authors:  Luciana P Tavares; Mauro M Teixeira; Cristiana C Garcia
Journal:  Inflamm Res       Date:  2016-10-15       Impact factor: 4.575

4.  In silico analysis of drug-resistant mutant of neuraminidase (N294S) against oseltamivir.

Authors:  V Karthick; V Shanthi; R Rajasekaran; K Ramanathan
Journal:  Protoplasma       Date:  2012-03-06       Impact factor: 3.356

5.  Crystal structure and interaction studies of the human FBxo3 ApaG domain.

Authors:  Troy C Krzysiak; Bill B Chen; Travis Lear; Rama K Mallampalli; Angela M Gronenborn
Journal:  FEBS J       Date:  2016-04-22       Impact factor: 5.542

6.  Virulence determinants in the PB2 gene of a mouse-adapted H9N2 virus.

Authors:  Qingtao Liu; Junqing Huang; Yuxin Chen; Hongzhi Chen; Qunhui Li; Liang He; Xiaoli Hao; Jingjing Liu; Min Gu; Jiao Hu; Xiaoquan Wang; Shunlin Hu; Xiaowen Liu; Xiufan Liu
Journal:  J Virol       Date:  2014-10-22       Impact factor: 5.103

7.  Identification of a unique population of tissue-memory CD4+ T cells in the airways after influenza infection that is dependent on the integrin VLA-1.

Authors:  Timothy J Chapman; David J Topham
Journal:  J Immunol       Date:  2010-03-03       Impact factor: 5.422

8.  Lymphocyte to monocyte ratio as a screening tool for influenza.

Authors:  George Merekoulias; Evangelos C Alexopoulos; Theodore Belezos; Eugenia Panagiotopoulou; Dr Med Eleni Jelastopulu
Journal:  PLoS Curr       Date:  2010-03-29

9.  Pulse-oximetry accurately predicts lung pathology and the immune response during influenza infection.

Authors:  David Verhoeven; John R Teijaro; Donna L Farber
Journal:  Virology       Date:  2009-06-02       Impact factor: 3.616

10.  The NS1 protein of a human influenza virus inhibits type I interferon production and the induction of antiviral responses in primary human dendritic and respiratory epithelial cells.

Authors:  Kester Haye; Svetlana Burmakina; Thomas Moran; Adolfo García-Sastre; Ana Fernandez-Sesma
Journal:  J Virol       Date:  2009-04-29       Impact factor: 5.103

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