Conserved signalling components coordinate epidermal patterning and cuticle deposition in barley
Ontology highlight
ABSTRACT:
PROVIDER: PRJEB53837 | ENA |
REPOSITORIES: ENA
Dataset's files
| Action | DRS | |||
|---|---|---|---|---|
| ERR9880830_1.fastq.gz | Fastqsanger.gz | |||
| ERR9880830_2.fastq.gz | Fastqsanger.gz | |||
| ERR9880840_1.fastq.gz | Fastqsanger.gz | |||
| ERR9880840_2.fastq.gz | Fastqsanger.gz | |||
| ERR9880831_1.fastq.gz | Fastqsanger.gz |
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Project description:Faced with terrestrial threats, land plants seal their aerial surfaces with a lipid-rich cuticle. To breathe, plants interrupt their cuticles with adjustable epidermal pores, called stomata, that regulate gas exchange, and develop other specialised epidermal cells such as defensive hairs. Mechanisms coordinating epidermal features remain poorly understood. Addressing this, we studied two loci whose allelic variation causes both cuticular wax-deficiency and misarranged stomata in barley, identifying the underlying genes, Cer-g/ HvYDA1, encoding a YODA-like (YDA) MAPKKK, and Cer-s/ HvBRX-Solo, encoding a single BREVIS-RADIX (BRX) domain protein. Both genes control cuticular integrity, the spacing and identity of epidermal cells, and barley's distinctive epicuticular wax blooms, as well as stomatal patterning in elevated CO2 conditions. Genetic analyses revealed epistatic and modifying relationships between HvYDA1 and HvBRX-Solo, intimating that their products participate in interacting pathway(s) linking epidermal patterning with cuticular properties in barley. This may represent a mechanism for coordinating multiple adaptive features of the land plant epidermis in a cultivated cereal.
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Project description:To investigate the function of small RNAs in cuticle biosynthesis in B. napus, we constructed four small RNA libraries from stem epidermis of wax-deficient and wild-type materials for sequencing. Subsequently, a total of 43,840,451 clean reads were generated and 24nt sequences represented the dominant percentage. Totally, 300 unique conserved miRNAs were identified and 8 of them showed differentially expressed. In addition, the expression of six novel miRNAs were also changed. After target prediction and function annotation, three miRNAs (aly-miR165a-5p, aly-miR408-5p, and novel-mir2) might influence cuticle morphogenesis not only by repressing the biosynthesis of cuticular substrates and components, but also blocking the transmembrane transport processes. The expression level of aly-miR408-5p and aly-miR165a-5p were increased in glossy materials examined by stem-loop qRT-PCR, while their predicted target genes (BnaC04g29170D, BnaA01g25630D, BnaA06g40560D) were down-regulated. These results suggested that miRNAs might influence cuticle biosynthesis by repressing cuticle-related genes expression in B. napus. Both the biosynthesis and secretion processes of cuticlular components might be influenced by miRNAs. These results will promote the study of post-transcriptional regulation mechanisms of cuticle biosynthesis in B. napus and provide new direction for further research.
2018-11-30 | GSE115073 | GEO
Project description:The cuticles of arthropods, including aquatic crustaceans like Daphnia, provide an interface between the organism and its environment. Thus, the cuticle’s structure influences how the organism responds to and interacts with its surroundings. Here, we used label-free quantification proteomics to provide a proteome of the molted cuticle of Daphnia magna, which has long been a prominent subject of studies on ecology, evolution, and developmental biology, anddetected 278 high confidence proteins. Using protein sequence domain and functional enrichment analyses, we identified chitin-binding structural proteins and chitin modifying enzymes as most abundant protein groups in the cuticle proteome.Structural cuticular protein families showed a similar distribution to those found in other arthropods and indicated proteins responsible for the soft and flexible structure of the Daphnia cuticle . Finally, cuticle protein genes were clustered as tandem gene arrays in the Daphnia genome, indicating their importance for adaptation to environmental change. The cuticle proteome presented here will be a valuable resource to the Daphnia research community, informing investigations on diverse topics such as the genetic basis of interactions with predators and parasites.
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Project description:In Arabidopsis mature seeds, the onset of the embryo-to-seedling transition is nonautonomously controlled, being blocked by endospermic abscisic acid (ABA) release under unfavorable conditions. Mature embryos lack an impermeable cuticle, unlike seedlings, consistent with their endospermic ABA uptake capability. Seedling cuticle formation occurs after germination rather than during embryogenesis. Mature endosperm removal prevents seedling cuticle formation and seed reconstitution by endosperm grafting onto embryos shows that the endosperm promotes seedling cuticle development. Grafting different endosperm and embryo mutant combinations, together with biochemical, microscopy and mass spectrometry approaches, reveals that endospermic release of Tyrosyl Sulfate Transferase (TPST)-sulfated CIF2 and PSY1 peptides promotes seedling cuticle development. Endosperm-deprived embryos produced nonviable seedlings bearing numerous developmental defects, in a manner unrelated to embryo nourishment, all restored by exogenously provided endosperm. Hence, seedling establishment is nonautonomous, requiring the mature endosperm.
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Project description:Muraro2014 - Vascular patterning in Arabidopsis roots
Using a multicellular model, maintanence of vascular patterning in Arabidopsis roots has been studied. The model that is provided here is the single-cell version of the model. The two-cell and multicellular models described in the paper can be downloaded as python scripts (follow the curation tab to get these files).
This model is described in the article:
Integration of hormonal signaling networks and mobile microRNAs is required for vascular patterning in Arabidopsis roots.
Muraro D, Mellor N, Pound MP, Help H, Lucas M, Chopard J, Byrne HM, Godin C, Hodgman TC, King JR, Pridmore TP, Helariutta Y, Bennett MJ, Bishopp A.
Proc Natl Acad Sci U S A. 2014 Jan 14;111(2):857-62.
Abstract:
As multicellular organisms grow, positional information is continually needed to regulate the pattern in which cells are arranged. In the Arabidopsis root, most cell types are organized in a radially symmetric pattern; however, a symmetry-breaking event generates bisymmetric auxin and cytokinin signaling domains in the stele. Bidirectional cross-talk between the stele and the surrounding tissues involving a mobile transcription factor, SHORT ROOT (SHR), and mobile microRNA species also determines vascular pattern, but it is currently unclear how these signals integrate. We use a multicellular model to determine a minimal set of components necessary for maintaining a stable vascular pattern. Simulations perturbing the signaling network show that, in addition to the mutually inhibitory interaction between auxin and cytokinin, signaling through SHR, microRNA165/6, and PHABULOSA is required to maintain a stable bisymmetric pattern. We have verified this prediction by observing loss of bisymmetry in shr mutants. The model reveals the importance of several features of the network, namely the mutual degradation of microRNA165/6 and PHABULOSA and the existence of an additional negative regulator of cytokinin signaling. These components form a plausible mechanism capable of patterning vascular tissues in the absence of positional inputs provided by the transport of hormones from the shoot.
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2024-09-02 | BIOMD0000000522 | BioModels
Project description:By comparing mRNAs contained in the polysome fraction to total mRNAs in Caenorhabditis elegans exposed to either RNAi control or nsun-1 RNAi, we found that loss of NSUN-1 translationally represses genes associated with collagens, cuticle integrity and development. These changes explain phenotypes of nsun-1 depletion, which include impaired fecundity, gonad extrusion and reduced barrier function.
2020-12-09 | GSE143618 | GEO