New national and regional bryophyte records, 44

Ellis, L. T.; Alegro, Antun; Šegota, Vedran; Bakalin, Vadim A.; Barone, Rossella; Borovichev, Evgeny; Hugonnot, Vincent; Lebouvier, Marc; Nobis, Marcin; Nowak, Arkadiusz; Ochyra, Ryszard; Papp, Beáta; Szurdoki, Erzsébet; Piwowarczyk, Renata; Plášek, Vítězslav; Číhal, Lukáš; Ren, Zhaojie; Sabovljević, Marko S.; Sérgio, Cecı́lia; García, César; Melo, Ireneia; Sawicki, Jakub; Stebel, Adam; Ştefaˇnuţ, S.; Ion, Roxana; Manole, Anca; Tziortzis, Iakovos; Xiong, Yingfei; Zhao, Zhong

doi:10.1179/1743282015y.0000000014

Cited by 34 publications

(12 citation statements)

References 92 publications

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“…Recretohalophytes have developed specialized salt‐secreting structures to remove excess salts from plant tissues . For example, Limonium bicolor is a typical recretohalophyte that lives in saline environments .…”

Section: Salt Stressmentioning

confidence: 99%

“…In rice, PhyB not only contributes to cold stress resistance, but also influences drought tolerance by regulating total leaf area and transpiration per unit leaf area . Suaeda salsa produces nitric oxide to protect adventitious root formation under waterlogged conditions . Compared to xerophytes, two halophytes were more tolerant to waterlogging and dry‐moist cycles during emergence under saline conditions …”

Section: Distinct Pathways Mediate Stress Adaptationmentioning

confidence: 99%

“…27 Recretohalophytes have developed specialized saltsecreting structures to remove excess salts from plant tissues. [90][91][92][93][94][95][96][97] For example, Limonium bicolor is a typical recretohalophyte that lives in saline environments. 30,33 The salt gland is the first differentiated epidermal structure in Limonium bicolor, differentiating two days earlier than the stomata.…”

Section: Salt Stressmentioning

confidence: 99%

“…4,175,176 Suaeda salsa produces nitric oxide to protect adventitious root formation under waterlogged conditions. 18,34,91,[177][178][179] Compared to xerophytes, two halophytes were more tolerant to waterlogging and dry-moist cycles during emergence under saline conditions. 17,[180][181][182][183] Because of the availability of molecular approaches, Arabidopsis thaliana is an ideal model system to characterize responses to different environmental stresses.…”

Section: Salt Stressmentioning

confidence: 99%

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Molecular mechanisms underlying stress response and adaptation

Sun

Zhou

2017

Thoracic Cancer

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Environmental stresses are ubiquitous and unavoidable to all living things. Organisms respond and adapt to stresses through defined regulatory mechanisms that drive changes in gene expression, organismal morphology, or physiology. Immune responses illustrate adaptation to bacterial and viral biotic stresses in animals. Dysregulation of the genotoxic stress response system is frequently associated with various types of human cancer. With respect to plants, especially halophytes, complicated systems have been developed to allow for plant growth in high salt environments. In addition, drought, waterlogging, and low temperatures represent other common plant stresses. In this review, we summarize representative examples of organismal response and adaptation to various stresses. We also discuss the molecular mechanisms underlying the above phenomena with a focus on the improvement of organismal tolerance to unfavorable environments.

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Section: Salt Stressmentioning

confidence: 99%

Section: Distinct Pathways Mediate Stress Adaptationmentioning

confidence: 99%

Section: Salt Stressmentioning

confidence: 99%

Section: Salt Stressmentioning

confidence: 99%

See 2 more Smart Citations

Molecular mechanisms underlying stress response and adaptation

Sun

Zhou

2017

Thoracic Cancer

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“…Taxonomic classifications of biodiversity provide data for understanding the origin and history of diversification of life on Earth, while simultaneously gathering scientific evidence to inform decisions related to conservation and resource management. Over the past decade, many new species, mainly plants and animals, have been reported (DU et al, 2010;MA et al, 2010;SUN et al, 2010;WANG et al, 2010;ZHANG et al, 2010b;LU et al, 2011;TIAN et al, 2011;CHENG et al, 2012;GAO & REN, 2012;LU et al, 2012;WANG et al, 2012;ZHANG et al, 2012;ZHAO et al, 2012;ZHOU et al, 2012;HU et al, 2013;LI et al, 2013c;LU et al, 2013;REN, 2013;REN & KOU, 2013;WANG et al, 2013b;YUAN et al, 2013a;ZHANG et al, 2013b;ZHAO et al, 2013a;ZHAO et al, 2013b;HOU et al, 2014b;HU et al, 2014;REN, 2014;REN & ZHAO, 2014;ZHAO et al, 2014b;ELLIS et al, 2015;LIU et al, 2015;REN, 2015;WANG et al, 2015a;WANG et al, 2015c;YUAN et al, 2015a;ZHANG et al, 2015a;ZHANG et al, 2015b;ZHAO et al, 2015;WANG et al, 2016;…”

Section: Species Diversitymentioning

confidence: 99%

From ecosystems to human welfare: the role and conservation of biodiversity

Zhang

Zhou

2019

Cienc. Rural

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Biodiversity plays a key role in human welfare by providing agricultural, economic, and health benefits. However, following the industrial revolution, the rapid expansion of the human population and subsequent economic activities have caused a dramatic loss in global biodiversity, resulting in significant disturbances to ecosystems and our own living conditions. Accordingly, the conservation of biodiversity has become one of the most important challenges for humanity. The vast numbers of plants, animals, and microorganisms, the enormous genetic diversity of these species and the different ecosystems to which these organisms belong are all part of a biologically diverse planet. A substantial proportion of the world’s biodiversity has been destroyed, this loss is a catastrophe for all living species, including humans. Fortunately, we are working to remedy the destruction of our ecosystems. Herein, we summarized the discovery and development of biodiversity as a field of study and discuss the importance of the genetic and metabolite diversity. We proposed potential solutions to the loss of biodiversity with the aim of facilitating further exploration and identification of biodiversity, contributing for human welfare through the conservation of human habitats.

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Biological features and regulatory mechanisms of salt tolerance in plants

Liu

2019

J of Cellular Biochemistry

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Halophytes play a vital role in saline agriculture because these plants are necessary to increase the food supply to meet the demands of the growing world population. In addition, the transfer of salt-resistance genes from halophytes using genetic technologies has the potential to increase the salt tolerance of xerophytes. Characterization of some particularly promising halophyte model organisms has revealed the important new insights into the salt tolerance mechanisms used by plants. Numerous advances using these model systems have improved our understanding of salt tolerance regulation and salt tolerance-associated changes in gene expression, and these mechanisms have important implications for saline agriculture. Recent findings provide a basis for future studies of salt tolerance in plants, as well as the development of improved strategies for saline agriculture to increase yields of food, feed, and fuel crops. K E Y W O R D Shalophyte, mechanism, model organism, saline agriculture, salt tolerance

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New national and regional bryophyte records, 44

Abstract: International audienc

Cited by 34 publications

References 92 publications

Molecular mechanisms underlying stress response and adaptation

Molecular mechanisms underlying stress response and adaptation

From ecosystems to human welfare: the role and conservation of biodiversity

Biological features and regulatory mechanisms of salt tolerance in plants

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