{"title":"生物反应器系统大规模生产被低估的作物,具有高营养影响的凤仙花","authors":"Chandika Ramlall, Nisha Singh, Shakira Shaik","doi":"10.1002/elsc.70038","DOIUrl":null,"url":null,"abstract":"<p><i>Celosia argentea</i> is an undervalued crop that shows potential for production enhancement due to elevated leaf nutrient accumulative ability. By investigating propagation using various in vitro culture systems, thidiazuron (TDZ)-supplemented nutrient media enhanced yield from 10 plants per explant in semi-solid medium, to 27 under continuous immersion in liquid media in recipient for automated temporary immersion (RITA) bioreactors, to 63 under temporary immersion in liquid media in a balloon-type bubble bioreactor (BTBB). TDZ in the BTBB system also increased shoot biomass and subsequent nutrient content relative to TDZ-free media in ex vitro plants. Ex vitro plants originating from both continuous and temporary media immersion in BTBBs outperformed those in all other culture systems in accumulating leaf Mg, Fe, Ca and Zn to meet the recommended dietary allowance for males and females. The genotypic variance and genetic advance of the mean at 5% selection intensity varied for each nutrient per culture system, with and without TDZ. Selective breeding at 5% selection intensity would improve leaf nutrient content but is specific to the culture system and the presence of TDZ. This is the first study to use liquid-based bioreactor systems for <i>C. argentea</i> propagation thereby providing new opportunities to upscale plant production for high nutrient-accumulating genotypes.</p><p><i>Practical application</i>: This study establishes a commercially viable protocol for the large-scale clonal propagation of <i>Celosia argentea</i>, a nutrient-rich, fast growing leafy vegetable with untapped agronomic value. Using temporary immersion bioreactors and thidiazuron-supplemented media, the system delivers up to 63 plants per explant, more than 6-fold the yield of conventional methods, while significantly boosting leaf biomass and nutrient content (Mg, Ca, Fe, Zn). These results position <i>C. argentea</i> as a functional crop for health-focused markets and ready-to-cook vegetable lines. The low-input cultivation needs and rapid production cycle (8 weeks in vitro, 8 weeks ex vitro) make it ideal for high-turnover commercial nurseries, contract growers, and vertical farming operations. The systems reproducibility and high heritability of nutritional traits further support selective breeding programs for premium-value cultivars. This propagation platform offers agribusinesses a scalable entry point into the expanding market for nutrient-dense indigenous vegetables with health and wellness appeal.</p>","PeriodicalId":11678,"journal":{"name":"Engineering in Life Sciences","volume":"25 8","pages":""},"PeriodicalIF":3.0000,"publicationDate":"2025-08-13","publicationTypes":"Journal Article","fieldsOfStudy":null,"isOpenAccess":false,"openAccessPdf":"https://analyticalsciencejournals.onlinelibrary.wiley.com/doi/epdf/10.1002/elsc.70038","citationCount":"0","resultStr":"{\"title\":\"Bioreactor Systems to Mass-Produce the Undervalued Crop, Celosia argentea, With High Nutrient Impact\",\"authors\":\"Chandika Ramlall, Nisha Singh, Shakira Shaik\",\"doi\":\"10.1002/elsc.70038\",\"DOIUrl\":null,\"url\":null,\"abstract\":\"<p><i>Celosia argentea</i> is an undervalued crop that shows potential for production enhancement due to elevated leaf nutrient accumulative ability. By investigating propagation using various in vitro culture systems, thidiazuron (TDZ)-supplemented nutrient media enhanced yield from 10 plants per explant in semi-solid medium, to 27 under continuous immersion in liquid media in recipient for automated temporary immersion (RITA) bioreactors, to 63 under temporary immersion in liquid media in a balloon-type bubble bioreactor (BTBB). TDZ in the BTBB system also increased shoot biomass and subsequent nutrient content relative to TDZ-free media in ex vitro plants. Ex vitro plants originating from both continuous and temporary media immersion in BTBBs outperformed those in all other culture systems in accumulating leaf Mg, Fe, Ca and Zn to meet the recommended dietary allowance for males and females. The genotypic variance and genetic advance of the mean at 5% selection intensity varied for each nutrient per culture system, with and without TDZ. Selective breeding at 5% selection intensity would improve leaf nutrient content but is specific to the culture system and the presence of TDZ. This is the first study to use liquid-based bioreactor systems for <i>C. argentea</i> propagation thereby providing new opportunities to upscale plant production for high nutrient-accumulating genotypes.</p><p><i>Practical application</i>: This study establishes a commercially viable protocol for the large-scale clonal propagation of <i>Celosia argentea</i>, a nutrient-rich, fast growing leafy vegetable with untapped agronomic value. Using temporary immersion bioreactors and thidiazuron-supplemented media, the system delivers up to 63 plants per explant, more than 6-fold the yield of conventional methods, while significantly boosting leaf biomass and nutrient content (Mg, Ca, Fe, Zn). These results position <i>C. argentea</i> as a functional crop for health-focused markets and ready-to-cook vegetable lines. The low-input cultivation needs and rapid production cycle (8 weeks in vitro, 8 weeks ex vitro) make it ideal for high-turnover commercial nurseries, contract growers, and vertical farming operations. The systems reproducibility and high heritability of nutritional traits further support selective breeding programs for premium-value cultivars. 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引用次数: 0
摘要
阿根廷芹是一种被低估的作物,由于叶片养分积累能力的提高,显示出产量增加的潜力。通过研究不同体外培养体系的繁殖情况,在半固体培养基中,thidiazuron (TDZ)添加的营养培养基可使每个外植体的产量从10株增加到27株,在自动临时浸泡(RITA)生物反应器中,连续浸泡在液体培养基中,在气球型气泡生物反应器(BTBB)中,暂时浸泡在液体培养基中,每个外植体的产量增加到63株。与不含TDZ的培养基相比,BTBB体系中的TDZ也增加了离体植株的茎部生物量和随后的养分含量。在btbs中连续和暂时浸泡培养基的离体植株在积累叶片Mg、Fe、Ca和Zn方面都优于所有其他培养体系的离体植株,以满足雄性和雌性的推荐膳食摄入量。在有TDZ和没有TDZ的情况下,每个培养体系中每种养分在5%选择强度下的平均基因型变异和遗传进步是不同的。5%选择强度的选育可以提高叶片养分含量,但对培养体系和TDZ的存在有一定的影响。这是第一个使用液体生物反应器系统进行银青茶繁殖的研究,从而为高营养积累基因型的高端植物生产提供了新的机会。实际应用:本研究建立了一套商业上可行的大规模无性系繁殖方案,这是一种营养丰富、生长迅速、农艺价值尚未开发的叶类蔬菜。该系统使用临时浸泡生物反应器和补硫培养基,每个外植体最多可种植63株植物,产量是传统方法的6倍以上,同时显著提高叶片生物量和营养成分(Mg, Ca, Fe, Zn)。这些结果表明,银青茶是一种功能性作物,可用于注重健康的市场和即食蔬菜生产线。低投入的栽培需求和快速的生产周期(体外培养8周,体外培养8周)使其成为高周转率商业苗圃、合同种植者和垂直农业经营的理想选择。系统的可重复性和营养性状的高遗传力进一步支持了优质品种的选择育种计划。这个传播平台为农业企业提供了一个可扩展的切入点,进入营养丰富、具有健康和保健吸引力的本土蔬菜市场。
Bioreactor Systems to Mass-Produce the Undervalued Crop, Celosia argentea, With High Nutrient Impact
Celosia argentea is an undervalued crop that shows potential for production enhancement due to elevated leaf nutrient accumulative ability. By investigating propagation using various in vitro culture systems, thidiazuron (TDZ)-supplemented nutrient media enhanced yield from 10 plants per explant in semi-solid medium, to 27 under continuous immersion in liquid media in recipient for automated temporary immersion (RITA) bioreactors, to 63 under temporary immersion in liquid media in a balloon-type bubble bioreactor (BTBB). TDZ in the BTBB system also increased shoot biomass and subsequent nutrient content relative to TDZ-free media in ex vitro plants. Ex vitro plants originating from both continuous and temporary media immersion in BTBBs outperformed those in all other culture systems in accumulating leaf Mg, Fe, Ca and Zn to meet the recommended dietary allowance for males and females. The genotypic variance and genetic advance of the mean at 5% selection intensity varied for each nutrient per culture system, with and without TDZ. Selective breeding at 5% selection intensity would improve leaf nutrient content but is specific to the culture system and the presence of TDZ. This is the first study to use liquid-based bioreactor systems for C. argentea propagation thereby providing new opportunities to upscale plant production for high nutrient-accumulating genotypes.
Practical application: This study establishes a commercially viable protocol for the large-scale clonal propagation of Celosia argentea, a nutrient-rich, fast growing leafy vegetable with untapped agronomic value. Using temporary immersion bioreactors and thidiazuron-supplemented media, the system delivers up to 63 plants per explant, more than 6-fold the yield of conventional methods, while significantly boosting leaf biomass and nutrient content (Mg, Ca, Fe, Zn). These results position C. argentea as a functional crop for health-focused markets and ready-to-cook vegetable lines. The low-input cultivation needs and rapid production cycle (8 weeks in vitro, 8 weeks ex vitro) make it ideal for high-turnover commercial nurseries, contract growers, and vertical farming operations. The systems reproducibility and high heritability of nutritional traits further support selective breeding programs for premium-value cultivars. This propagation platform offers agribusinesses a scalable entry point into the expanding market for nutrient-dense indigenous vegetables with health and wellness appeal.
期刊介绍:
Engineering in Life Sciences (ELS) focuses on engineering principles and innovations in life sciences and biotechnology. Life sciences and biotechnology covered in ELS encompass the use of biomolecules (e.g. proteins/enzymes), cells (microbial, plant and mammalian origins) and biomaterials for biosynthesis, biotransformation, cell-based treatment and bio-based solutions in industrial and pharmaceutical biotechnologies as well as in biomedicine. ELS especially aims to promote interdisciplinary collaborations among biologists, biotechnologists and engineers for quantitative understanding and holistic engineering (design-built-test) of biological parts and processes in the different application areas.