The Experts below are selected from a list of 361257 Experts worldwide ranked by ideXlab platform
Slawomir Gajewski - One of the best experts on this subject based on the ideXlab platform.
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Perspectives of Transport Systems Development in the Light of Radio Communication Systems Evolution Towards 5G
Smart Solutions in Today’s Transport, 2017Co-Authors: Slawomir GajewskiAbstract:In the paper conditions of development and implementation of Transport Systems with reference to the development of radio communication networks towards 5G are presented. First, general properties of next generation Systems are mentioned and their architecture. Moreover, planned characteristics of B4G and 5G Systems are depicted which can significantly contribute to the promotion and development of Transport Systems. In particular the paper covers new transmission mechanisms resulting from the development of the Internet of Things and M2M technology as well as related, for example: V2V or V2X. On the other hand, the issue has been analyzed against the background of the development of the so-called heterogeneous networks and used physical resource management mechanisms, reduction and coordination of inter-cell interference and handover problems. In particular attention was also drawn to the conditions of radio signals transmission in the context of high mobility of mobile terminals in Transport Systems.
Lamson Phan Tran - One of the best experts on this subject based on the ideXlab platform.
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aba control of plant macroelement membrane Transport Systems in response to water deficit and high salinity
New Phytologist, 2014Co-Authors: Yuriko Osakabe, Kazuko Yamaguchishinozaki, Kazuo Shinozaki, Lamson Phan TranAbstract:'Summary' 35 I. 'Introduction' 35 II. 'Water deficit stress stimulates ABA biosynthesis and Transport' 36 III. 'ABA signal transductions control ion Transport for modulating stomatal aperture' 39 IV. 'The involvement of ion Transport Systems in the maintenance of ion homeostasis during abiotic stress' 42 V. 'Conclusion' 44 'Acknowledgements' 44 References 45 Summary Plant growth and productivity are adversely affected by various abiotic stressors and plants develop a wide range of adaptive mechanisms to cope with these adverse conditions, including adjustment of growth and development brought about by changes in stomatal activity. Membrane ion Transport Systems are involved in the maintenance of cellular homeostasis during exposure to stress and ion Transport activity is regulated by phosphorylation/dephosphorylation networks that respond to stress conditions. The phytohormone abscisic acid (ABA), which is produced rapidly in response to drought and salinity stress, plays a critical role in the regulation of stress responses and induces a series of signaling cascades. ABA signaling involves an ABA receptor complex, consisting of an ABA receptor family, phosphatases and kinases: these proteins play a central role in regulating a variety of diverse responses to drought stress, including the activities of membrane-localized factors, such as ion Transporters. In this review, recent research on signal transduction networks that regulate the function ofmembrane Transport Systems in response to stress, especially water deficit and high salinity, is summarized and discussed. The signal transduction networks covered in this review have central roles in mitigating the effect of stress by maintaining plant homeostasis through the control of membrane Transport Systems.
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aba control of plant macroelement membrane Transport Systems in response to water deficit and high salinity
New Phytologist, 2014Co-Authors: Yuriko Osakabe, Kazuko Yamaguchishinozaki, Kazuo Shinozaki, Lamson Phan TranAbstract:Plant growth and productivity are adversely affected by various abiotic stressors and plants develop a wide range of adaptive mechanisms to cope with these adverse conditions, including adjustment of growth and development brought about by changes in stomatal activity. Membrane ion Transport Systems are involved in the maintenance of cellular homeostasis during exposure to stress and ion Transport activity is regulated by phosphorylation/dephosphorylation networks that respond to stress conditions. The phytohormone abscisic acid (ABA), which is produced rapidly in response to drought and salinity stress, plays a critical role in the regulation of stress responses and induces a series of signaling cascades. ABA signaling involves an ABA receptor complex, consisting of an ABA receptor family, phosphatases and kinases: these proteins play a central role in regulating a variety of diverse responses to drought stress, including the activities of membrane-localized factors, such as ion Transporters. In this review, recent research on signal transduction networks that regulate the function ofmembrane Transport Systems in response to stress, especially water deficit and high salinity, is summarized and discussed. The signal transduction networks covered in this review have central roles in mitigating the effect of stress by maintaining plant homeostasis through the control of membrane Transport Systems.
Yuriko Osakabe - One of the best experts on this subject based on the ideXlab platform.
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aba control of plant macroelement membrane Transport Systems in response to water deficit and high salinity
New Phytologist, 2014Co-Authors: Yuriko Osakabe, Kazuko Yamaguchishinozaki, Kazuo Shinozaki, Lamson Phan TranAbstract:'Summary' 35 I. 'Introduction' 35 II. 'Water deficit stress stimulates ABA biosynthesis and Transport' 36 III. 'ABA signal transductions control ion Transport for modulating stomatal aperture' 39 IV. 'The involvement of ion Transport Systems in the maintenance of ion homeostasis during abiotic stress' 42 V. 'Conclusion' 44 'Acknowledgements' 44 References 45 Summary Plant growth and productivity are adversely affected by various abiotic stressors and plants develop a wide range of adaptive mechanisms to cope with these adverse conditions, including adjustment of growth and development brought about by changes in stomatal activity. Membrane ion Transport Systems are involved in the maintenance of cellular homeostasis during exposure to stress and ion Transport activity is regulated by phosphorylation/dephosphorylation networks that respond to stress conditions. The phytohormone abscisic acid (ABA), which is produced rapidly in response to drought and salinity stress, plays a critical role in the regulation of stress responses and induces a series of signaling cascades. ABA signaling involves an ABA receptor complex, consisting of an ABA receptor family, phosphatases and kinases: these proteins play a central role in regulating a variety of diverse responses to drought stress, including the activities of membrane-localized factors, such as ion Transporters. In this review, recent research on signal transduction networks that regulate the function ofmembrane Transport Systems in response to stress, especially water deficit and high salinity, is summarized and discussed. The signal transduction networks covered in this review have central roles in mitigating the effect of stress by maintaining plant homeostasis through the control of membrane Transport Systems.
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aba control of plant macroelement membrane Transport Systems in response to water deficit and high salinity
New Phytologist, 2014Co-Authors: Yuriko Osakabe, Kazuko Yamaguchishinozaki, Kazuo Shinozaki, Lamson Phan TranAbstract:Plant growth and productivity are adversely affected by various abiotic stressors and plants develop a wide range of adaptive mechanisms to cope with these adverse conditions, including adjustment of growth and development brought about by changes in stomatal activity. Membrane ion Transport Systems are involved in the maintenance of cellular homeostasis during exposure to stress and ion Transport activity is regulated by phosphorylation/dephosphorylation networks that respond to stress conditions. The phytohormone abscisic acid (ABA), which is produced rapidly in response to drought and salinity stress, plays a critical role in the regulation of stress responses and induces a series of signaling cascades. ABA signaling involves an ABA receptor complex, consisting of an ABA receptor family, phosphatases and kinases: these proteins play a central role in regulating a variety of diverse responses to drought stress, including the activities of membrane-localized factors, such as ion Transporters. In this review, recent research on signal transduction networks that regulate the function ofmembrane Transport Systems in response to stress, especially water deficit and high salinity, is summarized and discussed. The signal transduction networks covered in this review have central roles in mitigating the effect of stress by maintaining plant homeostasis through the control of membrane Transport Systems.
Kazuo Shinozaki - One of the best experts on this subject based on the ideXlab platform.
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aba control of plant macroelement membrane Transport Systems in response to water deficit and high salinity
New Phytologist, 2014Co-Authors: Yuriko Osakabe, Kazuko Yamaguchishinozaki, Kazuo Shinozaki, Lamson Phan TranAbstract:'Summary' 35 I. 'Introduction' 35 II. 'Water deficit stress stimulates ABA biosynthesis and Transport' 36 III. 'ABA signal transductions control ion Transport for modulating stomatal aperture' 39 IV. 'The involvement of ion Transport Systems in the maintenance of ion homeostasis during abiotic stress' 42 V. 'Conclusion' 44 'Acknowledgements' 44 References 45 Summary Plant growth and productivity are adversely affected by various abiotic stressors and plants develop a wide range of adaptive mechanisms to cope with these adverse conditions, including adjustment of growth and development brought about by changes in stomatal activity. Membrane ion Transport Systems are involved in the maintenance of cellular homeostasis during exposure to stress and ion Transport activity is regulated by phosphorylation/dephosphorylation networks that respond to stress conditions. The phytohormone abscisic acid (ABA), which is produced rapidly in response to drought and salinity stress, plays a critical role in the regulation of stress responses and induces a series of signaling cascades. ABA signaling involves an ABA receptor complex, consisting of an ABA receptor family, phosphatases and kinases: these proteins play a central role in regulating a variety of diverse responses to drought stress, including the activities of membrane-localized factors, such as ion Transporters. In this review, recent research on signal transduction networks that regulate the function ofmembrane Transport Systems in response to stress, especially water deficit and high salinity, is summarized and discussed. The signal transduction networks covered in this review have central roles in mitigating the effect of stress by maintaining plant homeostasis through the control of membrane Transport Systems.
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aba control of plant macroelement membrane Transport Systems in response to water deficit and high salinity
New Phytologist, 2014Co-Authors: Yuriko Osakabe, Kazuko Yamaguchishinozaki, Kazuo Shinozaki, Lamson Phan TranAbstract:Plant growth and productivity are adversely affected by various abiotic stressors and plants develop a wide range of adaptive mechanisms to cope with these adverse conditions, including adjustment of growth and development brought about by changes in stomatal activity. Membrane ion Transport Systems are involved in the maintenance of cellular homeostasis during exposure to stress and ion Transport activity is regulated by phosphorylation/dephosphorylation networks that respond to stress conditions. The phytohormone abscisic acid (ABA), which is produced rapidly in response to drought and salinity stress, plays a critical role in the regulation of stress responses and induces a series of signaling cascades. ABA signaling involves an ABA receptor complex, consisting of an ABA receptor family, phosphatases and kinases: these proteins play a central role in regulating a variety of diverse responses to drought stress, including the activities of membrane-localized factors, such as ion Transporters. In this review, recent research on signal transduction networks that regulate the function ofmembrane Transport Systems in response to stress, especially water deficit and high salinity, is summarized and discussed. The signal transduction networks covered in this review have central roles in mitigating the effect of stress by maintaining plant homeostasis through the control of membrane Transport Systems.
Kazuko Yamaguchishinozaki - One of the best experts on this subject based on the ideXlab platform.
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aba control of plant macroelement membrane Transport Systems in response to water deficit and high salinity
New Phytologist, 2014Co-Authors: Yuriko Osakabe, Kazuko Yamaguchishinozaki, Kazuo Shinozaki, Lamson Phan TranAbstract:'Summary' 35 I. 'Introduction' 35 II. 'Water deficit stress stimulates ABA biosynthesis and Transport' 36 III. 'ABA signal transductions control ion Transport for modulating stomatal aperture' 39 IV. 'The involvement of ion Transport Systems in the maintenance of ion homeostasis during abiotic stress' 42 V. 'Conclusion' 44 'Acknowledgements' 44 References 45 Summary Plant growth and productivity are adversely affected by various abiotic stressors and plants develop a wide range of adaptive mechanisms to cope with these adverse conditions, including adjustment of growth and development brought about by changes in stomatal activity. Membrane ion Transport Systems are involved in the maintenance of cellular homeostasis during exposure to stress and ion Transport activity is regulated by phosphorylation/dephosphorylation networks that respond to stress conditions. The phytohormone abscisic acid (ABA), which is produced rapidly in response to drought and salinity stress, plays a critical role in the regulation of stress responses and induces a series of signaling cascades. ABA signaling involves an ABA receptor complex, consisting of an ABA receptor family, phosphatases and kinases: these proteins play a central role in regulating a variety of diverse responses to drought stress, including the activities of membrane-localized factors, such as ion Transporters. In this review, recent research on signal transduction networks that regulate the function ofmembrane Transport Systems in response to stress, especially water deficit and high salinity, is summarized and discussed. The signal transduction networks covered in this review have central roles in mitigating the effect of stress by maintaining plant homeostasis through the control of membrane Transport Systems.
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aba control of plant macroelement membrane Transport Systems in response to water deficit and high salinity
New Phytologist, 2014Co-Authors: Yuriko Osakabe, Kazuko Yamaguchishinozaki, Kazuo Shinozaki, Lamson Phan TranAbstract:Plant growth and productivity are adversely affected by various abiotic stressors and plants develop a wide range of adaptive mechanisms to cope with these adverse conditions, including adjustment of growth and development brought about by changes in stomatal activity. Membrane ion Transport Systems are involved in the maintenance of cellular homeostasis during exposure to stress and ion Transport activity is regulated by phosphorylation/dephosphorylation networks that respond to stress conditions. The phytohormone abscisic acid (ABA), which is produced rapidly in response to drought and salinity stress, plays a critical role in the regulation of stress responses and induces a series of signaling cascades. ABA signaling involves an ABA receptor complex, consisting of an ABA receptor family, phosphatases and kinases: these proteins play a central role in regulating a variety of diverse responses to drought stress, including the activities of membrane-localized factors, such as ion Transporters. In this review, recent research on signal transduction networks that regulate the function ofmembrane Transport Systems in response to stress, especially water deficit and high salinity, is summarized and discussed. The signal transduction networks covered in this review have central roles in mitigating the effect of stress by maintaining plant homeostasis through the control of membrane Transport Systems.
