全文下载排行

    一年内发表文章 | 两年内 | 三年内 | 全部 | 最近1个月下载排行 | 最近1年下载排行

    当前位置: 一年内发表文章
    Please wait a minute...
    选择: 显示/隐藏图片
    1. OsELF3.1-OsCATA-Ghd7 Pathway Regulates Rice Heading
    Wu Zhaozhong, Zhong Zhengzheng, Xu Peng, Liu Ling, Wang Beifang, Yang Qinqin, Wen Xiaoxia, Ma Guifang, Luo Mili, Zhang Yingxin, Liu Qun’en, Peng Zequn, Zhan Xiaodeng, Cao Liyong, Cheng Shihua, Wu Weixun
    Rice Science    2025, 32 (5): 658-672.   DOI: 10.1016/j.rsci.2025.06.001
    摘要225)   HTML45)    PDF (1936KB)(644)    收藏

    Rice, a critical global staple crop, relies heavily on heading date, a key agronomic trait marking the transition from vegetative to reproductive growth. Understanding the genetic regulation of heading date is vital for enhancing the adaptability of high-quality rice varieties across diverse geographical regions and for bolstering local food security. In this study, we uncovered a novel role for OsCATA, a catalase gene, in the regulation of photoperiodic flowering in rice. We identified a novel allele of OsELF3.1, whose mutation resulted in delayed heading. Further analyses revealed that OsELF3.1 physically interacted with OsCATA. Notably, OsCATA exhibited rhythmic expression patterns similar to OsELF3.1 and, when mutated, also delayed flowering. Expression analyses showed that the delayed heading phenotype could be attributed to elevated Ghd7 expression under both long-day and short-day conditions, with OsCATA expression positively regulated by OsELF3.1. Double mutants of OsELF3.1 and OsCATA displayed a heading delay similar to that of oself3.1 single mutants. Additionally, OsELF3.1 could interact with Ghd7 in vivo, alleviating its suppression of Ehd1. Luciferase assays confirmed that Ghd7 repressed Ehd1 expression, while OsELF3.1 mitigated this repression. Collectively, our findings reveal that OsCATA is critical in suppressing Ghd7 expression through the OsELF3.1-OsCATA-Ghd7 transcriptional pathway, thereby regulating rice heading.

    图表 | 参考文献 | 补充材料 | 相关文章 | 多维度评价 | 评论0
    2. Identification of Sucrose Transporter (SUT) Genes Regulating Rice Yield and Quality
    Duan Yingqing, Li Xiaoxue, Wu Yawen, Jiao Guiai, Ma Liuyang, Dong Nannan, Chen Pengfei, Li Xinwei, Cao Ruijie, Chen Tianxiao, Hu Peisong, Wei Xiangjin
    Rice Science    2025, 32 (3): 287-291.   DOI: 10.1016/j.rsci.2025.01.003
    摘要195)   HTML59)    PDF (1164KB)(535)    收藏
    图表 | 参考文献 | 相关文章 | 多维度评价 | 评论0
    3. Sustainable Management Strategies for Rice Leaffolder, Cnaphalocrocis medinalis (Guenée): Progress and Prospects
    Yang Yajun, Lu Yanhui, Tian Junce, Zheng Xusong, Guo Jiawen, Liu Xiaowei, Lü Zhongxian, Xu Hongxing
    Rice Science    2025, 32 (3): 322-338.   DOI: 10.1016/j.rsci.2024.12.011
    摘要204)   HTML31)    PDF (1876KB)(469)    收藏

    The rice leaffolder, Cnaphalocrocis medinalis (Guenée), is a major migratory insect pest in paddy fields that damages rice by folding and feeding on leaves, causing chlorophyll loss and resulting in significant yield losses when its population density exceeds an economic threshold. Sustainable pest management requires ‘green plant protection’ solutions. Advances in science and technology have introduced numerous green methods for sustainable management of the rice leaffolder. This paper reviews recent research advancements in rice leaffolder management, such as ecological regulation, healthy cultivation, behavioral regulation, biological control, and rational insecticide application. Based on accurate monitoring and early warning systems, rice leaffolder management can incorporate comprehensive green control products, green control technologies, and control modes. This paper provides prospects for discussing the future of rice leaffolder management, achieving sustainable management of the rice leaffolder, and ensuring rice production safety.

    图表 | 参考文献 | 相关文章 | 多维度评价 | 评论0
    4. Assessing Changes in Root Architecture, Developmental Timing, Transcriptional and Hormonal Profiles in Rice Co-Cultivated with Azolla filiculoides
    Sara Cannavò, Chiara Paleni, Alma Costarelli, Maria Cristina Valeri, Martina Cerri, Antonietta Saccomanno, Veronica Gregis, Graziella Chini Zittelli, Petre I. Dobrev, Lara Reale, Martin M. Kater, Francesco Paolocci
    Rice Science    2025, 32 (3): 426-444.   DOI: 10.1016/j.rsci.2025.03.004
    摘要182)   HTML27)    PDF (1766KB)(442)    收藏

    Strategies for increasing rice yield are needed to keep pace with the expected global population growth and sustainably address the challenges posed by climate change. In Southeast Asian countries, rice farming benefits from the use of Azolla spp. for nitrogen supply. By virtue of their symbiosis with the nitrogen-fixing cyanobacterium Trichormus azollae, Azolla spp. are ferns that release nitrogen into the environment upon biomass decomposition. However, whether and to what extent actively growing Azolla plants influence the development of co-cultivated rice seedlings remains unclear. To address this, rice (Oryza sativa L. var. Kitaake) seedlings were co-cultivated hydroponically with Azolla filiculoides for up to two months. Morphological changes in rice roots and aerial organs were assessed alongside nitric oxide assays in rice roots, root transcriptomics, and targeted hormonomics of rice roots, leaves, and growth media. Here, we showed that co-cultivation with actively growing A. filiculoides alters rice root architecture by inducing a nitric oxide boost and accelerates leaf and tiller differentiation and proliferation. Overall, this study provides an in-depth analysis of the morphogenetic effects of co-cultivated A. filiculoides on rice during early vegetative growth. It also paves the way for studies assessing whether A. filiculoides co-cultivation primes rice plants to better withstand abiotic and biotic stresses.

    图表 | 参考文献 | 相关文章 | 多维度评价 | 评论0
    5. Metabolic Engineering in Rice for Functional Metabolite Production
    Yong Jin Choi, Sun-Hwa Ha
    Rice Science    2025, 32 (4): 475-498.   DOI: 10.1016/j.rsci.2025.03.003
    摘要217)   HTML19)    PDF (2105KB)(429)    收藏

    To improve the nutritional and functional value of rice, numerous biotechnological approaches have focused on metabolic engineering to address nutritional deficiencies and produce health-beneficial compounds that are either absent or naturally present in low amounts. A prominent example is ‘Golden Rice’, which has been genetically modified to accumulate β-carotene to combat vitamin A deficiency in regions with limited dietary intake. Scientists have been continuously biofortifying rice with various specialized metabolites, including terpenoids, flavonoids, non-flavonoid polyphenols, betalains, vitamins, and amino acids. This review explores the specific pathways and genetic modifications utilized by researchers to enhance the accumulation of targeted metabolites in rice. It comprehensively summarizes key strategies and research trends in rice metabolic engineering, demonstrating how rice can be transformed into a strategic crop for producing industrially valuable compounds beyond its traditional role as a staple food by leveraging its advantages as a versatile host system through its grains, leaves, and cells. Furthermore, we highlight the potential of intergrating metabolic engineering with synthetic biology and big data-driven computational modeling, particularly through artificial intelligence and machine learning, as promising future research directions.

    图表 | 参考文献 | 相关文章 | 多维度评价 | 评论0
    6. Functions of Rice E3 Ubiquitin Ligases in Response to Environmental Stress and in Regulating Grain Size
    Li Haifeng, Fan Jiayi
    Rice Science    2025, 32 (5): 649-657.   DOI: 10.1016/j.rsci.2025.06.005
    摘要258)   HTML19)    PDF (595KB)(421)    收藏

    The ubiquitin-proteasome system involves three types of enzymes (E1, E2, and E3) that promote protein ubiquitination and degradation. Among these, the E3 ubiquitin ligase mediates substrate specificity. In rice, over 1 500 E3 enzymes have been identified, playing diverse roles in growth, developmental processes, and responses to biotic and abiotic stresses. In recent years, significant progress has been made, with some breakthroughs in regulating disease resistance. Here, we summarize the roles of rice E3 ubiquitin ligases in responding to biotic and abiotic stresses, as well as their functions in regulating key agronomic traits such as seed size. Additionally, future research directions are discussed. This review aims to facilitate further studies on E3 ubiquitin ligases in rice.

    图表 | 参考文献 | 补充材料 | 相关文章 | 多维度评价 | 评论0
    7. LR is a Novel Gene Regulating Amylose Content in Rice Revealed by Genome-Wide Association Study
    Li Huijuan, Yu Haipeng, Huang Guanrong, Huang Zengying, Tang Lu, Yang Pengfei, Zhong Zhengzheng, Hu Guocheng, Zhang Peng, Tong Hanhua
    Rice Science    2025, 32 (3): 277-282.   DOI: 10.1016/j.rsci.2024.12.010
    摘要184)   HTML79)    PDF (813KB)(408)    收藏
    图表 | 参考文献 | 相关文章 | 多维度评价 | 评论0
    8. Straw Burning Dilemma in Modern Agriculture: A Systematic Review of Driving Factors, Environmental Impacts, and Sustainable Solutions
    Ghada Abd Elsattar Mohammed Oraby, Fadillah Putra, M. Halim Natsir, Dian Siswanto, Meshal M. Abdullah, Ammar Abulibdeh
    Rice Science    2025, 32 (5): 637-648.   DOI: 10.1016/j.rsci.2025.06.007
    摘要431)   HTML35)    PDF (1330KB)(397)    收藏

    Straw burning has emerged as a persistent and multifaceted challenge within global agricultural systems, particularly across Asia, Africa, and Latin America. This review reframes straw burning not as an isolated behavioral issue, but as the outcome of interlinked structural, technological, and socio-cultural constraints embedded in modern agricultural transitions. Drawing on a synthesis of recent empirical studies, we identify four conceptual turning points that reshape the understanding of straw burning: the structural consequences of mechanization, the trade-offs between high- and low-tech solutions, the cultural legitimacy of burning practices, and the need for systems-based, climate-aligned management paradigms. The analysis reveals that interventions focusing solely on technical innovation often overlook the deeper institutional and cultural factors that sustain burning as a rational choice under constrained conditions. We advocate for hybrid, place-based strategies that combine accessible agronomic practices with long-term investments in infrastructure, policy alignment, and community engagement. Moving beyond fragmented solutions and adopting an integrated systems lens enables this study to contribute a forward-looking framework for sustainable straw management that is environmentally just, socially legitimate, and economically viable.

    图表 | 参考文献 | 相关文章 | 多维度评价 | 评论0
    9. OsACL-A2 Regulates Positive Iron Uptake and Blast Resistance in Rice
    Duan Wenjing, Aaron Chan, Xu Peng, Zhang Yingxin, Sun Lianping, Wang Beifang, Cao Yongrun, Zhang Yue, Li Dian, Chen Daibo, Hong Yongbo, Zhan Xiaodeng, Wu Weixun, Cheng Shihua, Liu Qun’en, Cao Liyong
    Rice Science    2025, 32 (5): 589-593.   DOI: 10.1016/j.rsci.2025.03.007
    摘要298)   HTML47)    PDF (938KB)(386)    收藏
    图表 | 参考文献 | 补充材料 | 相关文章 | 多维度评价 | 评论0
    10. OsNAC022 Controls Tiller Number Through Mediating CCA1 Expression in Rice
    Zhai Rongrong, Li Zhen, Xiang Yuanyuan, Xu Qun, Zhang Mengchen, Yang Yaolong, Wei Xinghua, Wang Shu, Ye Shenghai, Feng Yue
    Rice Science    2025, 32 (4): 445-448.   DOI: 10.1016/j.rsci.2025.04.005
    摘要243)   HTML103)    PDF (854KB)(383)    收藏
    图表 | 参考文献 | 相关文章 | 多维度评价 | 评论0
    11. Function of R2R3-Type Myeloblastosis Transcription Factors in Plants
    Chen Su, Ma Feilong, Chen Jiaoyang, Qi Man, Wei Qianshu, Tao Zhihuan, Sun Bo
    Rice Science    2025, 32 (3): 307-321.   DOI: 10.1016/j.rsci.2025.01.007
    摘要251)   HTML32)    PDF (928KB)(379)    收藏

    Myeloblastosis (MYB) transcription factors, particularly those in the R2R3 MYB subclass, are pivotal in plant growth, development, and environmental stress responses. As one of the largest transcription factor families in plants, the MYB family significantly regulates plant secondary metabolism, including the biosynthetic pathways for phenylpropanoids, which are crucial for stress resistance. This review presents a comprehensive overview of MYB transcription factor classification and their regulatory mechanisms in plant metabolism and stress responses. We discuss the roles of MYB transcription factors in biotic stress resistance, such as defense against pathogens and pests, and in abiotic stress tolerance, including responses to drought and salinity. Special attention is given to the interactions of R2R3 MYB with other transcription factors and co-repressors, focusing on how these synergistic or antagonistic relationships modulate physiological processes. The multifunctional role of R2R3 MYBs in stress responses positions them as promising targets for enhancing crop resilience through genetic breeding. Furthermore, this review highlights potential applications of MYB transcription factors in developing stress-resistant crops and their utility in plant resistant breeding programs.

    图表 | 参考文献 | 相关文章 | 多维度评价 | 评论0
    12. Cloning of qHD8BAS, a Quantitative Trait Locus Regulating Heading Date in Rice
    Zhang Zhengjiu, Bian Ying, Yang Ruoju, Zhang Xiaobo, Gong Junyi, Fan Jiongjiong
    Rice Science    2025, 32 (3): 283-286.   DOI: 10.1016/j.rsci.2024.12.009
    摘要168)   HTML55)    PDF (696KB)(354)    收藏
    图表 | 参考文献 | 相关文章 | 多维度评价 | 评论0
    13. A Comprehensive Review of Hierarchical Porous Carbon Synthesis from Rice Husk
    Dinuka Nuwan Tharaka, Nadeeka D. Tissera, Gayan Priyadarshana, Damayanthi Dahanayake
    Rice Science    2025, 32 (4): 499-511.   DOI: 10.1016/j.rsci.2025.04.009
    摘要185)   HTML19)    PDF (789KB)(352)    收藏

    Hierarchical porous carbon (HPC) materials exhibit superior performance profiles in various applications due to their well-developed multiscale interconnected pore structures. The synthesis of HPC from natural biomass precursors instead of fossil fuel-based precursors has gained considerable attention in recent decades. Rice husk, a globally abundant agricultural waste, offers a sustainable and cost-effective precursor for HPC production. The structural components and inherent silica content of rice husk act as a natural self-template for forming hierarchical pore structures with superior characteristics. In this review, recent studies on preparing rice husk-based HPC are summarized, and synthesis techniques are evaluated. In addition, recent advancements in activation methods and the effect of silica templates are reviewed while comparing these with traditional activated carbon production methods. Potential future directions for research and development activities are also discussed. Rice husk is a highly promising candidate for producing high-performance HPC materials.

    图表 | 参考文献 | 相关文章 | 多维度评价 | 评论0
    14. Insights into Anticancer Activity of Indian Aromatic Rice Callus Suspension Culture on Colon and Lung Cancer Cell Lines by Proteomic Analysis
    Anuradha Kumari, Wusirika Ramakrishna
    Rice Science    2025, 32 (3): 303-306.   DOI: 10.1016/j.rsci.2025.04.002
    摘要124)   HTML39)    PDF (377KB)(348)    收藏
    图表 | 参考文献 | 相关文章 | 多维度评价 | 评论0
    15. Chak-hao, Forbidden Rice of Manipur and Its Sustainable Protection from Post-Harvest Storage Pests Using Indigenous Botanical Plant Powders
    Arati Ningombam, Aruna Beemrote, Romila Akoijam, Sushmita Thokchom, C. H. Basudha, C. H. Sonia, C. H. Premabati, N. Ajitkumar Singh, L. Langlentombi Chanu, Y. Prabhabati Devi, H. Lembisana Devi, A. Gangarani Devi
    Rice Science    2025, 32 (3): 298-302.   DOI: 10.1016/j.rsci.2025.04.001
    摘要143)   HTML15)    PDF (519KB)(334)    收藏
    图表 | 参考文献 | 相关文章 | 多维度评价 | 评论0
    16. Genome-Wide Identification of Dopamine β-Monooxygenase N-Terminal Gene Family in Rice and Its Role in Response to Blast Disease and Abiotic Stress
    Mareyam Mukhtar, Amresh Kumar, Ashfak S. Mujawar, Bhuvnesh Sareen, Suhas G. Karkute, Rohini Sreevathsa, Amitha Mithra Sevanthi, Amolkumar U. Solanke
    Rice Science    2025, 32 (5): 685-703.   DOI: 10.1016/j.rsci.2025.05.004
    摘要257)   HTML19)    PDF (3840KB)(329)    收藏

    Dopamine β-monooxygenase N-terminal (DOMON) domain-containing genes are present across all taxa and are critical in cell signaling and redox transport. Despite their significance, these genes remain understudied in plant species. In this study, we identified 15 DOMON genes in rice and analyzed their phylogenetic relationships, conserved motifs, and cis-regulatory elements. Phylogenetic analysis revealed distinct clustering of OsDOMON genes in rice and other monocots, compared with Arabidopsis thaliana. Promoter analysis showed a higher abundance of stress-related regulatory elements in Tetep, a well-known blast and abiotic stress-tolerant cultivar, compared with Nipponbare and HP2216. OsDOMON genes displayed differential expression under biotic stress (Magnaporthe oryzae infection) and abiotic stresses (drought, heat, and salinity) in contrasting cultivars. Tetep exhibited significantly higher expression levels of specific OsDOMON genes during early blast infection stages, particularly OsDOMON6.1 and OsDOMON9.2, suggesting their roles in cell wall fortification and reactive oxygen species signaling. Under abiotic stress, genes like OsDOMON3.3, OsDOMON8.1, and OsDOMON9.2 showed higher expression in Tetep, indicating their involvement in stress tolerance mechanisms. This study provides a foundation for future functional studies of OsDOMON genes, paving the way for developing rice cultivars resistant to biotic and abiotic stresses.

    图表 | 参考文献 | 补充材料 | 相关文章 | 多维度评价 | 评论0
    17. Identification and Characterization of WAKg Genes Involved in Rice Disease Resistance and Yield
    Ayaz Ahmad, Cheng Mingxing, Guo Yu, Luo Xiong, Yang Zihan, Liu Manman, Yuan Huanran, Li Qiancheng, Li Shaoqing, Fan Fengfeng
    Rice Science    2025, 32 (5): 673-684.   DOI: 10.1016/j.rsci.2025.04.011
    摘要336)   HTML43)    PDF (3954KB)(328)    收藏

    The wall-associated kinases (WAKs) play a crucial role in rice resistance, but their relationship to yield-related traits remains poorly understood. In this study, we analyzed the rice wall-associated kinase galacturonan-binding (WAKg) gene family and evaluated its association with both disease resistance and grain yield. A total of 108 OsWAKg genes were identified in rice. Promoter cis-element analysis revealed that the promoter regions of OsWAKg genes contain abundant resistance- and hormone-related elements. Induced expression analysis of 18 OsWAKg genes highly expressed in both rice leaves and roots showed that 14 genes were pathogen-induced, 9 were induced by development-related hormones, and 8 were responded to both stimuli. Transgenic validation confirmed that OsWAKg16 and OsWAKg52 positively regulate rice disease resistance and yield. Moreover, OsWAKg52 regulates rice disease resistance through multiple pattern-triggered immunity responses. These findings demonstrate that OsWAKgs significantly contribute to the coordinated regulation of disease resistance and grain yield, providing new insights into rice WAKg gene family and potential genetic resources for synergistic crop improvement.

    图表 | 参考文献 | 补充材料 | 相关文章 | 多维度评价 | 评论0
    18. Genome-Wide Association Study and Haplotype Analysis Jointly Identify New Candidate Genes for Alkaline Tolerance at Seedling Stage in Rice
    Ratan Kumar Ganapati, Chen Kai, Zhao Xiuqin, Zheng Tianqing, Zhang Fan, Zhai Laiyuan, Xu Jianlong
    Rice Science    2025, 32 (4): 537-548.   DOI: 10.1016/j.rsci.2025.04.006
    摘要197)   HTML51)    PDF (1845KB)(323)    收藏

    Alkaline soil is characterized by high soluble salt content, elevated pH levels, and ionic imbalance, all of which collectively intensify the harmful effects of alkaline stress on plants. To gain molecular insights into alkaline tolerance (AT), we evaluated 13 AT-related traits in 508 diverse rice accessions from the 3K Rice Germplasm Project at the seedling stage. A total of 2 929 764, 2 059 114, and 1 365 868 single nucleotide polymorphisms were used to identify alkaline-tolerance QTLs via genome-wide association studies (GWAS) in the entire population as well as in the xian and geng subpopulations, respectively. Candidate genes and their superior haplotypes were further identified through gene-based association, haplotype analysis, and gene function annotation. In total, 99 QTLs were identified for AT by GWAS, and three genes (LOC_Os03g49050 for qSSD3.1, LOC_Os05g48760 for qSKC5, and LOC_Os12g01922 for qSNC12) were selected as the most promising candidate genes. Furthermore, we successfully mined superior alleles of key candidate genes from natural variants associated with AT-related traits. This study identified crucial candidate genes and their favorable alleles for AT traits, laying a foundation for further gene cloning and the development of AT rice varieties via marker-assisted selection.

    图表 | 参考文献 | 相关文章 | 多维度评价 | 评论0
    19. Increasing Yields and Partial Factor Productivity of Rice Grown in Tropical Alfisols Using a Decision Support Tool
    Tharindu Nuwan Kulasinghe, Udaya W. A. Vitharana, Darshani Kumaragamage, Randombage Saman Dharmakeerthi, Kaushik Majumdar, Dinaratne Nihal Sirisena, Upul Kumari Rathnayake
    Rice Science    2025, 32 (4): 453-456.   DOI: 10.1016/j.rsci.2025.05.002
    摘要171)   HTML31)    PDF (575KB)(313)    收藏
    图表 | 参考文献 | 相关文章 | 多维度评价 | 评论0
    20. Production of Authentic Hybrid Seedlings by Conferring Parents with Resistance to Different Herbicides
    Wu Jingjing, Xia Shijian, Cai Yue, Zhang Qijun, Zong Shouyu, Zhu Qianhao, Yang Jie
    Rice Science    2025, 32 (5): 612-616.   DOI: 10.1016/j.rsci.2025.05.001
    摘要221)   HTML15)    PDF (1044KB)(308)    收藏
    图表 | 参考文献 | 补充材料 | 相关文章 | 多维度评价 | 评论0