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E-grāmata: Hormone Metabolism and Signaling in Plants

(School of Biological Sciences, University of Tasmania, Australia, and Insti), (Institute of Genetics and Developmental Biology, Chinese Academy of Sciences), (Institute of Genetics and Developmental Biology, Chinese Academy of Sciences)
  • Formāts: EPUB+DRM
  • Izdošanas datums: 19-Apr-2017
  • Izdevniecība: Academic Press Inc
  • Valoda: eng
  • ISBN-13: 9780128115633
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  • Formāts: EPUB+DRM
  • Izdošanas datums: 19-Apr-2017
  • Izdevniecība: Academic Press Inc
  • Valoda: eng
  • ISBN-13: 9780128115633
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Plants rely on a diverse set of small molecule hormones to regulate every aspect of their biological processes including development, growth and adaptation. Since the discovery of the first plant hormone auxin, hormones have always been the frontiers of plant biology. Although the physiological functions of most plant hormones have been studied for decades, the last 15 to 20 years have seen a dramatic progress in our understanding of the molecular mechanisms of hormone actions. The publication of the whole genome sequences of the model systems of Arabidopsis and rice, together with the advent of multidisciplinary approaches has opened the door to successful experimentation on plant hormone actions.

The book is based on research funded by the Chinese government’s National Natural Science Foundation of China (NSFC).

This is an exciting time for researchers interested in plant hormones. This book will bring us a fresh understanding of hormone biology, particularly molecular mechanisms driving plant hormone actions. With a growing understanding of hormone biology will come new outlooks on how mankind values and utilizes the "built-in" potentials of plants for improvement of crops in an environmentally friendly and sustainable manner.

This book is a comprehensive description of all major plant hormones:

How they are synthesized and catabolized; How they are perceived by plant cells; How they trigger signal transduction; How they regulate gene expression; How they regulate plant growth, development and defense responses; how we measure plant hormones.

  • A comprehensive description of all major plant hormones including the recently discovered strigolactones and several peptide hormones
  • Contains a chapter describing how plant hormones regulate stem cells

Papildus informācija

This cutting-edge resource offers fresh perspective and insight into hormone biology, particularly molecular mechanisms driving plant hormone actions
List of contributors
xi
About the Editors xv
Foreword xvii
1 Hormone function in plants
1(38)
Steven M. Smith
Chuanyou Li
Jiayang Li
1.1 The nature of hormones
1(12)
1.2 Mechanisms of hormone action
13(6)
1.3 Biological functions of hormones
19(5)
1.4 Integration of hormonal activities
24(4)
1.5 Hormones and crops
28(11)
Abbreviations
29(3)
Acknowledgments
32(1)
References
32(7)
2 Auxins
39(38)
Zhaoyun Jiang
Jiayang Li
Li-Jia Qu
2.1 Discovery and functions of auxins
39(1)
2.2 Auxin metabolism
40(11)
2.3 Auxin transport
51(5)
2.4 Auxin signaling
56(7)
2.5 Summary points
63(1)
2.6 Future perspectives
64(13)
Abbreviations
64(1)
Acknowledgments
65(1)
References
65(12)
3 Cytokinins
77(30)
Jian Feng
Yiting Shi
Shuhua Yang
Jianru Zuo
3.1 Discovery and functions of cytokinins
77(1)
3.2 Structures and types of cytokinins
78(1)
3.3 Cytokinin synthesis, metabolism and transport
79(6)
3.4 Cytokinin perception and signal transduction
85(10)
3.5 Summary points
95(1)
3.6 Future perspectives
96(11)
Abbreviations
96(1)
Acknowledgments
97(1)
References
97(10)
4 Gibberellins
107(54)
Xiuhua Gao
Yingying Zhang
Zuhua He
Xiangdong Fu
4.1 Functions of gibberellins
107(1)
4.2 Gibberellin biosynthesis, inactivation, transport and regulation
108(19)
4.3 Gibberellin perception and signaling
127(15)
4.4 Summary points
142(1)
4.5 Future perspectives
142(19)
Abbreviations
143(3)
References
146(15)
5 Abscisic acid
161(42)
Jigang Li
Yaorong Wu
Qi Xie
Zhizhong Gong
5.1 Discovery and functions of abscisic acid
161(1)
5.2 ABA metabolism
162(3)
5.3 ABA transport
165(1)
5.4 ABA functions
166(6)
5.5 ABA signal transduction
172(12)
5.6 ABA control of nuclear gene expression
184(1)
5.7 Ubiquitin--proteasome system in ABA signaling
185(2)
5.8 Summary points
187(1)
5.9 Future perspectives
187(16)
Abbreviations
188(1)
Acknowledgments
189(1)
References
190(13)
6 Ethylene
203(40)
Dongdong Hao
Xiangzhong Sun
Biao Ma
Jin-Song Zhang
Hongwei Guo
6.1 Ethylene biology
203(1)
6.2 Metabolism
204(4)
6.3 Ethylene perception and signaling in Arabidopsis
208(15)
6.4 Ethylene perception and signaling in rice
223(8)
6.5 Summary points
231(1)
6.6 Future perspectives
231(12)
Abbreviations
232(1)
Acknowledgments
233(1)
References
234(9)
7 Jasmonates
243(30)
Qingzhe Zhai
Chun Yan
Lin Li
Daoxin Xie
Chuanyou Li
7.1 Introduction
243(1)
7.2 Biosynthesis of JA
244(5)
7.3 Derivatives and metabolites of JA
249(2)
7.4 Regulation of JA biosynthesis
251(1)
7.5 Jasmonate signaling
252(7)
7.6 Cross talk between JA and other phytohormones
259(2)
7.7 Summary points
261(1)
7.8 Future issues
261(12)
Abbreviations
262(1)
Acknowledgments
263(1)
References
263(10)
8 Salicylic acid
273(18)
Jing Bo Jin
Bin Cai
Jian-Min Zhou
8.1 Discovery and roles of salicylic acid
273(1)
8.2 Biosynthesis of SA
274(2)
8.3 NPR1-dependent SA signaling
276(1)
8.4 Perception of SA by NPR proteins
277(2)
8.5 PAMP- and effector-triggered immunity
279(2)
8.6 Systemic acquired resistance
281(2)
8.7 Summary points
283(1)
8.8 Future perspectives
283(8)
Abbreviations
284(1)
References
285(6)
9 Brassinosteroids
291(36)
Haijiao Wang
Zhuoyun Wei
Jia Li
Xuelu Wang
9.1 The history of brassinosteroids
291(1)
9.2 The biosynthesis and catabolism of brassinosteroids
292(7)
9.3 The signaling pathway of brassinosteroids
299(8)
9.4 Roles of brassinosteroids in physiology and development
307(4)
9.5 Cross talk of brassinosteroids and other signals
311(3)
9.6 Summary points
314(1)
9.7 Future perspectives
314(13)
Abbreviations
315(1)
Acknowledgments
316(1)
References
316(11)
10 Strigolactones
327(34)
Bing Wang
Yonghong Wang
Jiayang Li
10.1 Discovery and functions of strigolactones
327(1)
10.2 Strigolactone biosynthesis
328(5)
10.3 Strigolactone transport
333(1)
10.4 Strigolactone signaling in plants
334(6)
10.5 Strigolactones and parasitism
340(2)
10.6 Strigolactones and symbiosis
342(1)
10.7 Cross talk between strigolactones and other signals
343(5)
10.8 Summary points
348(1)
10.9 Future perspectives
348(13)
Abbreviations
349(1)
Acknowledgments
350(1)
References
350(11)
11 Peptide hormones
361(44)
Xiu-Fen Song
Shi-Chao Ren
Chun-Ming Liu
11.1 Introduction
361(1)
11.2 The identification of peptide hormones
361(11)
11.3 The cleavage and modifications of peptide hormones
372(4)
11.4 The function of peptide hormones
376(16)
11.5 Summary points
392(1)
11.6 Future issues
393(12)
Abbreviations
394(1)
Acknowledgments
395(1)
References
395(10)
12 Plant hormones and stem cells
405(26)
Zhi Juan Cheng
Baoshuan Shang
Xian Sheng Zhang
Yuxin Hu
12.1 Stem cells and hormonal regulation of stem cell activity
405(1)
12.2 Hormones and stem cell niche maintenance
406(7)
12.3 Hormones and de novo stem cell niche formation
413(8)
12.4 Summary points
421(1)
12.5 Future perspectives
421(10)
Abbreviations
422(1)
Acknowledgments
423(1)
References
423(8)
13 Phytohormonal quantification based on biological principles
431(40)
Yi Su
Shitou Xia
Ruozhong Wang
Langtao Xiao
13.1 Phytohormones and their quantification
431(2)
13.2 Sample preparation for phytohormonal assay
433(8)
13.3 Biological methods for phytohormonal quantification
441(13)
13.4 Biological methods for phytohormonal localization and profiling
454(3)
13.5 Summary points
457(1)
13.6 Future perspectives
457(14)
Abbreviations
458(1)
Acknowledgment
459(1)
References
459(12)
14 Quantitative analysis of plant hormones based on LC-MS/MS
471(68)
Jinfang Chu
Shuang Fang
Peiyong Xin
Zhenpeng Guo
Yi Chen
14.1 Introduction to the history of plant hormone analysis
471(2)
14.2 The analytical principle and problems
473(3)
14.3 Indole-3-acetic acid, abscisic acid, jasmonic acid and salicylic acid
476(12)
14.4 Gibberellins
488(4)
14.5 Cytokinins
492(12)
14.6 Brassinosteroids
504(7)
14.7 Strigolactones
511(6)
14.8 Multiple plant hormones
517(6)
14.9 Summary points
523(1)
14.10 Future perspectives
524(15)
Abbreviations
524(2)
Acknowledgments
526(1)
References
526(13)
Author Index 539(48)
Subject Index 587
Dr. Jiayang Li was awarded the Degree of Bachelor of Agronomy from Anhui Agricultural University in 1982, the Degree of Master of Science from the Institute of Genetics and Developmental Biology (IGDB) of the Chinese Academy of Sciences (CAS) in 1984, and PhD in Biology from Brandeis University, USA, in 1991. After completing his postdoctoral research in the Boyce Thompson Institute (BTI) at Cornell University, Dr. Li was recruited as a Professor of plant molecular genetics by IGDB in 1994. Dr. Lis laboratory is mainly interested in the molecular genetics of higher plant development with a focus on the biosynthesis and action of plant hormones including auxin, brassinosteroid and strigolactones. Dr. Li has made seminal contributions to establishing forward genetics approaches to understand rice growth habit and to improve rice yield and quality through rational design, with his achievements receiving world-wide attention from scientific websites and public media. His achievements have also been widely recognized by scientists and his publications have been highlighted in commentaries and cited by review articles, becoming a Thomson-Reuters Highly Cited Researcher in the field of Plant and Animal Sciences. Dr. Li served as the Director General of IGDB from 1999 to 2004, Vice President of CAS from 2004 to 2011, and President of the Chinese Academy of Agricultural Sciences and Vice-Minister of Agriculture for the Peoples Republic of China from 2011 to 2016. Dr Li was elected a Member of the Chinese Academy of Sciences in 2001, a Fellow of The World Academy of Sciences (TWAS) in 2004, a Foreign Associate of the USA National Academy of Sciences (NAS) in 2011, a Member of the German Academy of Sciences Leopoldina in 2012, a Foreign Member of the European Molecular Biology Organization (EMBO) in 2013, and a Foreign Member of the Royal Society in 2015. Dr. Chuanyou Li received his Ph. D. in Genetics at the Institute of Genetics, Chinese Academy of Sciences (CAS) in 1999. He did his post-doc training from1999 to 2003 in the DOE-Plant Research Laboratory (PRL) at Michigan State University. Since 2003, he serves as a professor and group leader at the State Key Laboratory of Plant Genomics, Institute of Genetics & Developmental Biology, CAS. Research in the Chuanyou Li laboratory is aimed at understanding the action mechanisms of jasmonate, which plays vital roles in regulating plant immunity and a wide range of developmental processes. Dr. Li and his colleagues found that the long-distance mobile signal in regulating systemic plant immunity is jasmonate, rather than the peptide systemin. He led more than 60 Chinese Scientists to take part in the International Tomato Genome Consortium and successfully decoded the genome of tomato, a unique model system for plant immunity and fruit biology. He connected the PLETHORA stem cell transcription factor pathway to jasmonate signaling and illustrated a molecular framework for jasmonate-induced regulation of root growth through interaction with the growth hormone auxin. His lab has a long term focus on the transcriptional mechanism of MYC2, a basic-helix-loop-helix protein that regulates diverse aspects of jasmonate responses. He found that turnover of MYC2 stimulates its transcription activity, revealing an activation by destruction mechanism to regulate plant stress response and adaptive growth. He also linked MYC2 to the MED25 subunit of the Mediator complex in the transcription machinery. He has published more than 80 research papers in journals such as Nature, Nature Genetics, PNAS, Plant Cell and PLoS Genetics, which received more than 4000 citations. Dr. Li serves as editor for several international journals including Molecular Plant, Plant Molecular Biology and Annals of Botany. Steven Smith began his scientific career as a technician in the Botany Department at Rothamsted Experimental Station in the UK, where he conducted bioassays of auxins, cytokinins and gibberellins. He later completed a Masters degree studying cytokinin action in tissue culture cells at Indiana University USA, under the mentorship of Carlos O. Miller, the discoverer of kinetin and of organogenesis mediated by auxin and cytokinin. After his PhD at Warwick University UK and postdoctoral studies at CSIRO in Canberra Australia during which time he conducted research on the biosynthesis of chloroplast proteins, he was a lecturer in molecular biology at the Edinburgh University UK for 20 years, studying plant metabolism and development. He was awarded an Australian Research Council Federation Fellowship and moved to the University of Western Australia in 2005 where he was a founding member of the Australian Research Council Centre of Excellence in Plant Energy Biology. There he discovered the mode of action of karrikins and made important contributions to research on strigolactones, brassinosteroids and auxins. He has been Visiting Professor at the Institute of Genetics and Developmental Biology, Chinese Academy of Sciences since 2013. He took up a new position at the University of Tasmania in 2015, and was recognised as a Thomson-Reuters Highly Cited Researcher in Plant and Animal Sciences in 2016.