Molecular Cell Biology of the Growth and Differentiation of Plant Cells This page intentionally left blank Molecular Cell Biology of the Growth and Differentiation of Plant Cells Editor Ray J Rose School of Environmental and Life Sciences The University of Newcastle Newcastle, NSW, Australia CRC Press Taylor & Francis Group 6000 Broken Sound Parkway NW, Suite 300 Boca Raton, FL 33487-2742 © 2016 by Taylor & Francis Group, LLC CRC Press is an imprint of Taylor & Francis Group, an Informa business No claim to original U.S Government works Version Date: 20160513 International Standard Book Number-13: 978-1-4987-2603-0 (eBook - PDF) This book contains information obtained from authentic and highly regarded sources Reasonable efforts have been made to publish reliable data and information, but the author and publisher cannot assume responsibility for the validity of all materials or the consequences of their use The authors and publishers have attempted to trace the copyright holders of all material reproduced in this publication and apologize to copyright holders if permission to publish in this form has not been obtained If any copyright material has not been acknowledged please write and let us know so we may rectify in any future reprint Except as permitted under U.S Copyright Law, no part of this book may be reprinted, reproduced, transmitted, or utilized in any form by any electronic, mechanical, or other means, now known or hereafter invented, including photocopying, microfilming, and recording, or in any information storage or retrieval system, without written permission from the publishers For permission to photocopy or use material electronically from this work, please access www.copyright.com (http://www.copyright.com/) or contact the Copyright Clearance Center, Inc (CCC), 222 Rosewood Drive, Danvers, MA 01923, 978-750-8400 CCC is a not-for-profit organization that provides licenses and registration for a variety of users For organizations that have been granted a photocopy license by the CCC, a separate system of payment has been arranged Trademark Notice: Product or corporate names may be trademarks or registered trademarks, and are used only for identification and explanation without intent to infringe Visit the Taylor & Francis Web site at http://www.taylorandfrancis.com and the CRC Press Web site at http://www.crcpress.com Preface Plants provide humankind with food, fibre and timber products, medicinal and industrial products as well as ecological and climate sustainability Understanding how a plant grows and develops is central to providing the ability to cultivate plants to provide a sustainable future ‘Molecular Cell Biology of the Growth and Differentiation of Plant Cells’ encompasses cell division, cell enlargement and differentiation; which is the cellular basis of plant growth and development Understanding these developmental processes is fundamental for improving plant growth and the production of special plant products, as well as contributing to biological understanding The dynamics of cells and cellular organelles are considered in the context of growth and differentiation, made possible particularly by advances in molecular genetics and the visualization of organelles using molecular probes There is now a much clearer understanding of these basic plant processes of cell division, cell enlargement and differentiation Each chapter provides a current and conceptual view in the context of the cell cycle (6 chapters), cell enlargement (5 chapters) or cell differentiation (9 chapters) The cell cycle section examines the regulation of the transitions of the cell cycle phases, proteins of the nucleus which houses most of the genomic information, the division of key energy-related organelles - chloroplasts, mitochondria and peroxisomes and their transmission during cell division The final chapter in this section deals with the transitioning from cell division to cell enlargement The cell enlargement section considers the organisation of the cell wall, the new technical strategies being used, the biosynthesis and assembly of cellulose microfibrils and signaling dependent cytoskeletal dynamics There are then chapters on the regulation of auxin-induced, turgor driven cell elongation and hormonal interactions in the control of cell enlargement The cell differentiation section considers the regulation of the cell dynamics of the shoot and root apical meristems, the procambium and cambial lateral meristems as well as nodule ontogeny in the legume-rhizobia symbiosis There are chapters on asymmetric cell divisions, stem cells, transdifferentiation, genetic reprogramming in cultured cells and the paradox of cell death in differentiation The final chapter deals with the protein bodies and lipid bodies of storage cells Each chapter is written by specialists in the field and the book provides state of the art knowledge (and open questions) set out in a framework that provides a long term reference point The book is targeted to plant cell biologists, molecular biologists, plant physiologists and biochemists, developmental biologists and those interested in plant growth and development The chapters are suitable for those already in the field, those plant scientists entering the field and graduate students The cover images are taken from Chapters and 12 Ray J Rose This page intentionally left blank Contents Preface v The Plant Cell Cycle Plant Cell Cycle Transitions José Antonio Pedroza-Garcia, Séverine Domenichini and Cécile Raynaud Discovering the World of Plant Nuclear Proteins 22 Beáta Petrovská, Marek Šebela and Jaroslav Doležel Plastid Division 37 Kevin A Pyke Mitochondrial and Peroxisomal Division 51 Shin-ichi Arimura and Nobuhiro Tsutsumi Mechanisms of Organelle Inheritance in Dividing Plant Cells 66 Michael B Sheahan, David W McCurdy and Ray J Rose Cell Division and Cell Growth .86 Takuya Sakamoto, Yuki Sakamoto and Sachihiro Matsunaga Plant Cell Enlargement Organization of the Plant Cell Wall 101 Purbasha Sarkar and Manfred Auer Biosynthesis and Assembly of Cellulose 120 Candace H Haigler, Jonathan K Davis, Erin Slabaugh and James D Kubicki Signaling - Dependent Cytoskeletal Dynamics and Plant Cell Growth 139 Stefano Del Duca and Giampiero Cai 10 The Regulation of Plant Cell Expansion— Auxin-Induced Turgor-Driven Cell Elongation 156 Koji Takahashi and Toshinori Kinoshita viii Molecular Cell Biology of the Growth and Differentiation of Plant Cells 11 How Plant Hormones and Their Interactions Affect Cell Growth 174 Stephen Depuydt, Stan Van Praet, Hilde Nelissen, Bartel Vanholme and Danny Vereecke Plant Cell Differentiation 12 Cellular Dynamics of the Primary Shoot and Root Meristem 199 Lam Dai Vu and Ive De Smet 13 The Cell Cycle in Nodulation 220 Jeremy D Murray 14 Cellular and Molecular Features of the Procambium and Cambium in Plant Vascular Tissue Development 236 Xin-Qiang He and Li-Jia Qu 15 Asymmetric Cell Division in the Zygote of Flowering Plants: The Continuing Polarized Event of Embryo Sac Development 257 Arturo Lòpez-Villalobos, Ana Angela Lòpez-Quiròz and Edward C Yeung 16 Plant Stem Cells .284 Samuel Leiboff and Michael J Scanlon 17 Transdifferentiation: a Plant Perspective 298 Suong T.T Nguyen and David W McCurdy 18 Genetic Reprogramming of Plant Cells In Vitro via Dedifferentiation or Pre-existing Stem Cells 320 Ray J Rose 19 Death and Rebirth: Programmed Cell Death during Plant Sexual Reproduction 340 David J.L Hunt and Paul F McCabe 20 Storage Cells – Oil and Protein Bodies 362 Karine Gallardo, Pascale Jolivet, Vanessa Vernoud, Michel Canonge, Colette Larré and Thierry Chardot Index .383 The Plant Cell Cycle Storage Cells - Oil and Protein Bodies 369 formed, at least one for globulins and up to four in the case of 2S albumins The proglobulins undergo assembly in trimers before reaching the PSVs For 2S albumins, additional peptide segments are removed in the lumen before they leave the ER The precursor forms of SSPs reach the PSVs via three possible routes Major PSVlocalized proteins, such as 11S (Vitale and Raikhel 1999, Jolliffe et al 2005) and 7S globulins, followed the conventional Golgi-mediated route to PSV although only the 7S undergo glycosylation In pea (Pisum sativum), they reached PSVs via dense vesicles of 150–200 nm diameter, also called PBs, which may fused directly to PSV or develop into PSVs (Hinz et al 1999) An alternative route including multivesicular bodies (MVB) as an intermediate step for the PBs before they reach the storage vacuole has been proposed (Robinson et al 1998) These MVBs were assumed to constitute prevacuolar compartments for PSV (Jiang et al 2001) A last route bypassing the Golgi complex has been shown in developing cereal grains for prolamins and in pumpkin seeds for 2S and 11S proteins These proteins aggregate in the ER, bud out as large vesicles (200-400 nm) referred as precursor-accumulating vesicles (PACs), which can also receive glycoproteins such as ricin before being delivered to PSVs by autophagy (Hara-Nishimura et al 1998) Many vesicle carriers for storage protein transport have been identified, leading to the elaboration of a consensual PSV trafficking model (Jolliffe et al 2005, Vitale and Hinz 2005) However, the issues of why one route or another is favoured or whether the pathway varies during seed development remain to be resolved (AbirachedDarmency et al 2012) In addition, vacuolar sorting signals are required to target proteins to vacuoles Some have been identified for members of the 2S and 7S families but are lacking in 11S globulin sequences (Vitale and Hinz 2005, Neuhaus and Rogers 1998) For these proteins, a sorting mechanism based on their capacity to aggregate into granules and trigger dense vesicle budding has been proposed (Arvan et al 2002, Jolliffe et al 2005) Furthermore, PSV biogenesis is governed by complex mechanisms which orchestrate and regulate the life of endomembrane compartments (Bassham et al 2008) The carrier vesicles are surrounded by membranes which include components shown to act as receptor or marker in the transport of protein cargo and their delivery to target destination, as reviewed and discussed by Fujimoto and Ueda (2012), and Uemura and Ueda (2014) Whatever the pathway, SSP reaching the PSV undergo a maturation process, leading to conformational changes and folding Vacuolar processing enzymes are responsible for the proteolytic maturation of 11S globulins and 2S albumins (HaraNishimura et al 1993) Gruis et al (2002) demonstrated the existence of alternative proteolytic pathways implicated in SSP maturation in A thaliana The 11S are cleaved at a well conserved Asn–Gly peptide bond converting the pro-protein into two disulphide-linked alpha and beta polypeptides In the case of 2S albumin, the processing is more complex with the removal of three peptide stretches at different positions of the sequence Despite Asn residues being found several times at the P1 position of the cleaved bonds, conserved cleavage sequences were not found in the napin/2S family (Ericson et al 1986) While the maturation of 11S globulins is essential to obtain their final hexameric structure, the role of maturation for 2S albumins is much less obvious: it substantially increases the isoelectric point from to 11 and may affect its compactness Unfolded proteins are often produced during this maturation process These need to be degraded to maintain the integrity and functionality of ER components In the rice endosperm, the quality of PB is maintained 370 Molecular Cell Biology of the Growth and Differentiation of Plant Cells by polyubiquitination of unfolded SSPs through the Hrd1 ubiquitin ligase system (Ohta and Takaiwa 2015) A good understanding of PSV formation is particularly important in the field of plant molecular farming, as underlined in recent papers (De Meyer and Depicker 2014, Hegedus et al 2015) It is worth mentioning that PB formation depends on the protein storage capacity of legume seeds, which is determined by both the number of cotyledon cells, acquired during embryogenesis, and the duration of the filling phase that largely depends on nitrogen availability (Munier-Jolain et al 1998, Munier-Jolain and Ney 1998, Salon et al 2001) It also relies on a tight regulation of seed metabolism to switch the developmental program towards protein deposition and to ensure large amounts of proteins will be synthesized during seed filling to further support heterotrophic growth of the seedling The molecular mechanisms governing the metabolic control and regulation of SSP synthesis are presented in the following sections Shifting the metabolism towards protein deposition The formation of PBs implies a switch from an embryogenesis-oriented program, characterized by intense cell divisions within the embryo, to a filling mode directed towards embryo cell expansion and reserve accumulation Over the last decade, the availability of genomics and post-genomics sequences for the legume model species Medicago truncatula (Barrel Medic) and Lotus japonicus (Lotus) has boosted the use of omics approaches for studying key stages of seed development, including the switch towards protein deposition (Thompson et al 2009 and references therein, Verdier et al 2013) With the development of high-throughput sequencing, data are now acquired in related crop species, such as soybean (Glycine max) and chickpea (Cicer arietinum) (Collakova et al 2013, Jones and Vodkin 2013, Pradhan et al 2014) A study targeted to the nuclear proteome of developing M truncatula seeds revealed that the most abundant nuclear proteins present just before seed filling belong to the functional class of ribosome biogenesis (Repetto et al 2008) In particular, there was a large pool of ribosomal proteins, which are synthesized within the nucleolus and may further serve for translation of storage proteins, explaining how legume seeds can synthesize large amounts of proteins while desiccating and entering into a quiescent state A question that arises is whether this pool of ribosomal proteins controls the homeostasis of protein amount per seed under challenging environmental conditions In legumes and cereals, epigenetic components are also largely represented at this transition stage, some of them participating in transcriptional repression via the modification of gene accessibility, such as histone deacetylases (Li et al 2008, Demetriou et al 2009, Repetto et al 2012, Collakova et al 2013) Histone deacetylases are involved in the repression of embryo-specific transcription factors, some of them corresponding to master regulators of storage protein synthesis such as ABSCISIC ACID INSENSITIVE (ABI3), FUSCA (FUS3) and LEAFY COTYLEDON (LEC1) (Vicient et al 2000, Kagaya et al 2005, Tanaka et al 2008) The sharp decrease of histone deacetylase transcripts observed at the beginning of seed filling (Repetto et al 2008) may therefore be crucial for the entry into the storage phase In seeds, the epigenetic regulation of the genome, which modulates chromatin structure to limit the expression of genes to a particular tissue at a specific developmental stage, could be part of the currently unclear mechanisms shifting the metabolism towards protein deposition Storage Cells - Oil and Protein Bodies 371 Metabolic control of seed protein deposition: a coordinated interaction between seed tissues Among the metabolites particularly abundant at the beginning of protein deposition are asparagine and sucrose (Collakova et al 2013, Li et al 2015), the latter acting not only as a carbon source but also as a signal to control the entry of the legume embryo into the storage mode (Weber et al 2005) In soybean seeds, the level of free asparagine was found to be positively correlated with protein content, whereas no significant relationships were observed between sucrose concentration and protein concentration at maturity (Pandurangan et al 2012) Hence, the relatively high level of free asparagine at this stage may ensure the provision of nitrogen backbone for PB formation The tissues surrounding the legume embryo play important roles in the transient store of these nutrients coming from the phloem and in their metabolism before translocation to the embryo through active transport systems (Miranda et al 2001, Rolletschek et al 2005, Sanders et al 2009) The seed coat supports storage compound synthesis in the filial tissues by transmitting phloem-derived nutrients, mainly sugars, glutamine and asparagine (Rochat and Boutin 1991) Moreover, studies in M truncatula and soybean have shown that the seed coat is characterized by high level and activity of asparaginase (Gallardo et al 2007, Pandurangan et al 2012), which metabolizes asparagine to provide the embryo with other amino acids, such as alanine and glutamine (Atkins et al 1975) A specific asparaginase gene, ASPGB1a, has been identified that may be responsible for the enhanced flux of nitrogen to the embryo of soybean cultivars displaying high seed protein levels (Pandurangan et al 2012) The endosperm, whose role in the control of seed size at early stages of seed development has been well established (Garcia et al 2005, Kondou et al 2008, D’Erfurth et al 2012, Noguero et al 2015), plays a key role in controlling the flux of nutrients to nourish the embryo during the storage phase It is able to accumulate high levels of soluble metabolites, such as sucrose and amino acids, in its vacuole during the pre-storage phase Among the stored amino acids are alanine and glutamine whose subsequent decline in the endosperm vacuole coincides with an increase in protein storage activities within the embryo (Melkus et al 2009) It is postulated that by accumulating high levels of soluble metabolites, the endosperm may act as a buffer to ensure enough metabolites reach the embryo even under unfavourable environmental conditions The transcriptional regulators of seed protein deposition SSP-encoding genes are specifically induced in immature seeds and tightly regulated during seed filling The A thaliana 12S globulins and 2S albumins, are encoded respectively by four (CRA1, CRB, CRC and CRU2) and five (At2S1 to At2S5) genes (Krebbers et al 1988, Pang et al 1988, van der Klei et al 1993) which are coordinately transcribed during the early and mid-maturation phases (Fig 2) In legumes, comparative studies of SSP mRNA and protein quantities have shown that they are highly correlated, suggesting that SSP expression is primarily controlled by a transcriptional regulation (Gatehouse et al 1982, Walling et al 1986, Gallardo et al 2007) Legumins (11S) and vicilins (7S) accumulate in a sequential manner during the filling phase as synthesis of vicilins precedes that of legumins (Meinke et al 1981, Gatehouse et al 1982, Gallardo et al 2007, Wang et al 2012b) Although this phasing 372 Molecular Cell Biology of the Growth and Differentiation of Plant Cells has been widely observed in legumes, such as pea, soybean and M truncatula, the underlying regulation mechanisms, which may involve different transcription factors (TFs) described below, remain to be studied in this family Molecular basis of seed-specific SSP expression has been mainly focused on the identification of regulatory cis-acting elements in their promoters and of the corresponding TF both in A thaliana and legumes (Ellerstrom et al 1996, Chandrasekharan et al 2003 and references therein) The best characterized motifs include the RY motif (CATGCA) and the G-box related ACGT element representing putative binding sites for TFs from the B3 and bZIP families, respectively (Baumlein et al 1992, Ezcurra et al 1999, Fujiwara et al 2014, also reviewed in Vicente-Carbajosa and Carbonero 2005) Legumes SSP gene promoters are enriched with a third novel E2Fb-like motif, but the functional relevance of this cis-acting element has not been demonstrated yet (Fauteux and Stromvik 2009) Components of the regulatory network governing SSP synthesis have been characterized, mainly in A thaliana LEC2 (LEAFY COTYLEDON2), FUS3 and ABI3 encode TFs from the B3 domain superfamily of DNA binding proteins Together with LEC1, which encodes a protein homologous to the HAP3 subunit of the CAAT box binding proteins, they represent master regulators of the maturation phase Genetic studies have shown that mutations in any of these genes lead to similar pleiotropic effects on seed maturation, including severe defects in SSP accumulation and in the acquisition of desiccation tolerance (reviewed in Santos-Mendoza et al 2008) These genes represent a complex and intricate regulatory network which, combined with inputs from hormone, sugar and light signaling pathways, refines the program for seed maturation (reviewed in Weber et al 2005 and Baud et al 2008) Binding of ABI3, LEC2 and FUS3 to the RY element present in SSP promoters, mediated by the B3 DNA-binding domain, has been shown in vitro or in vivo in yeast (Reidt et al 2000, Monke et al 2004, Kroj et al 2003) LEC2 triggers the expression of SSP-encoding genes such as AT2S1-S4 and CRA1 (Braybrook et al 2006), while more recent ChIP-Chip experiments identified several SSP genes as direct target of ABI3 and FUS3 (Monke et al 2012, Wang and Perry 2013) Cooperation of the B3-domain TF with other TF from the MYB family is needed for correct temporal and spatial SSP expression in seed bZIP10, bZIP25, and bZIP53 have been shown to bind the G-box, often associated with RY elements within SSP promoters, and to regulate SSP accumulation (Lara et al 2003, Alonso et al 2009) Heterodimerization of bZIP53 with bZIP10 or bZIP25 promotes strong activation of SSP genes and the presence of ABI3 increases the heterodimerization The formation of a ternary complex, to achieve correct SSP gene expression has been proposed (Alonso et al 2009) The contribution of chromatin remodeling and histone modification to SSP seed specific expression was illustrated by the work on the transcriptional activation by ABI3 of the β-phaseolin gene which encodes the most abundant SSP in Phaseolus vulgaris (Ng et al 2006) In M truncatula, gene expression profiling during seed development identified several TFs related to the seed filling phase (Verdier et al 2008, Kurdyukov et al 2014) Some TFs co-expressed with SSP mRNA represent orthologs of A thaliana genes involved in SSP accumulation, while others may be more specifically related to the delayed expression of the legumin 11S class (Verdier et al 2008) Although in dicots the principal storage tissue is the embryo, the profiles of protein deposition (and oil accumulation) in the maturing embryo and endosperm was Storage Cells - Oil and Protein Bodies 373 recently examined (Barthole et al 2014) Different protein profiles within both compartments were highlighted, with the endosperm synthesizing less 12S globulins and thus being strongly enriched in 2S albumins This profile was consistent with the expression level of the corresponding SSP-encoding genes within each seed compartment A MYB TF, MYB118, was further identified as a repressor of the expression of maturation-related genes within the endosperm The myb118 mutant displayed a partial relocation of storage compounds from the embryo to the endosperm and a lower accumulation of reserves within the embryo, suggesting that repression of endosperm maturation is important to promote embryo filling (Barthole et al 2014) Acknowledgments We wish to warmly thank Gilles Clément for expert analysis of the unsaponifiable fraction of oil bodies and Sabine d’Andréa for fruitful discussions References Abirached-Darmency, M., F Dessaint, E Benlicha and C Schneider 2012 Biogenesis of protein bodies during vicilin accumulation in Medicago truncatula immature seeds BMC Res Notes 5: 409 Alonso, R., L Onate-Sanchez, F Weltmeier, A Ehlert, I Diaz, K Dietrich, J VicenteCarbajosa and W Droge-Laser 2009 A pivotal role of the basic leucine zipper transcription factor 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