Exploring the formation and permeability of plasmodesmata in the liverwort, Marchantia polymorpha

被引:0
作者
Hsu, Chia-Yun [1 ]
Hsu, Chia-Hsuan [1 ]
Chang, Hui-Yu [1 ]
Lu, Kuan-Ju [1 ,2 ]
机构
[1] Natl Chung Hsing Univ, Grad Inst Biotechnol, 45 Xingda Rd, Taichung 40227, Taiwan
[2] Natl Chung Hsing Univ, Adv Plant & Food Crop Biotechnol Ctr, Taichung 40227, Taiwan
关键词
callose; Marchantia polymorpha; particle bombardment; photoconversion; plasmodesmata; TRAFFICKING; INSIGHTS; MODEL; COMMUNICATION; EVOLUTION; RELEASE; GENOMES; PROTEIN; ORIGIN; SYSTEM;
D O I
10.1093/pcp/pcae153
中图分类号
Q94 [植物学];
学科分类号
071001 ;
摘要
Plasmodesmata are cell-wall-embedded channels that evolved in the common ancestor of land plants to increase cell-to-cell communication. Whether all the fundamental properties of plasmodesmata emerged and were inherited in all land plants at the same time is unknown. Here, we show that the bryophyte Marchantia polymorpha (a nonvascular plant) forms mostly simple plasmodesmata in early-developing gemmae. The complexity of plasmodesmata increases during gemma maturation, and complex plasmodesmata with enlarged cavities are majorly observed in thalli. In contrast to vascular plants, whose simple plasmodesmata can transport monomeric fluorescent proteins, plasmodesmata in M. polymorpha limited their permeability before the juvenile-to-adult transition. In support, callose, a known polysaccharide regulating plasmodesmata permeability in vascular plants, accumulated in most of the M. polymorpha tissues examined. Furthermore, we found that in the apical meristematic region, plasmodesmata allowed the transport of monomeric fluorescent proteins, and this relaxation might correlate with the lower accumulation of callose. Taken together, our study suggests that certain plasmodesmata properties, such as complexity progression and callose accumulation, may have evolved before the divergence between vascular and nonvascular plants.
引用
收藏
页码:333 / 346
页数:14
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共 54 条
  • [1] Althoff F., Kopischke S., Zobell O., Ide K., Ishizaki K., Kohchi T., Et al., Comparison of the MpEF1α and CaMV35 promoters for application in Marchantia polymorpha overexpression studies, Transgenic Res, 23, pp. 235-244, (2014)
  • [2] Amsbury S., Kirk P., Benitez-Alfonso Y., Emerging models on the regulation of intercellular transport by plasmodesmata-associated callose, J. Exp. Bot, 69, pp. 105-115, (2017)
  • [3] Bayer E.M., Benitez-Alfonso Y., Plasmodesmata: channels under pressure, Annu. Rev. Plant Biol, 75, pp. 291-317, (2024)
  • [4] Benitez-Alfonso Y., Faulkner C., Pendle A., Miyashima S., Helariutta Y., Maule A., Symplastic intercellular connectivity regulates lateral root patterning, Dev. Cell, 26, pp. 136-147, (2013)
  • [5] Bowman J.L., Kohchi T., Yamato K.T., Jenkins J., Shu S., Ishizaki K., Et al., Insights into land plant evolution garnered from the Marchantia polymorpha genome, Cell, 171, pp. 287-304, (2017)
  • [6] Brunkard J.O., Zambryski P., Plant cell-cell transport via plasmodesmata is regulated by light and the circadian clock, Plant Physiol, 181, pp. 1459-1467, (2019)
  • [7] Brunkard J.O., Zambryski P.C., Plasmodesmata enable multicellularity: new insights into their evolution, biogenesis, and functions in development and immunity, Curr. Opin. Plant Biol, 35, pp. 76-83, (2016)
  • [8] Burch-Smith T.M., Stonebloom S., Xu M., Zambryski P.C., Plasmodesmata during development: re-examination of the importance of primary, secondary, and branched plasmodesmata structure versus function, Protoplasma, 248, pp. 61-74, (2011)
  • [9] Cesarino I., Dello Ioio R., Kirschner G.K., Ogden M.S., Picard K.L., Rast-Somssich M.I., Et al., Plant science’s next top models, Ann. Bot, 126, pp. 1-23, (2020)
  • [10] Cheng S., Xian W., Fu Y., Marin B., Keller J., Wu T., Et al., Genomes of subaerial zygnematophyceae provide insights into land plant evolution, Cell, 179, pp. 1057-1067, (2019)