Effect of photoperiod and KNO3 concentration on the induction and development of potato (Solanum tuberosum) microtuber in vitro

J. P. Choirunnisa, R. Wardana
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Abstract

Abstract. Choirunnisa JP, Wardana R. 2021. Effect of photoperiod and KNO3 concentration on the induction and development of potato (Solanum tuberosum) microtuber in vitro. Cell Biol Dev 5: 70-75. Potato (Solanum tuberosum L.) is a carbohydrate source plant that was developed as an alternative to food diversification. The availability of quality potato seeds is very limited due to the high attack rate of bacteria and viruses. The demand for potato seeds can be fulfilled by developing potato microtuber through the application of plant tissue culture. The purpose of this research was to determine the response of potato microtuber formation with different photoperiods and KNO3 concentrations. This study design uses a factorial Completely Randomized Design (CRD) with 5 replicates. The first factor is 3 levels of photoperiod (8 hours/day, 12 hours/day, 16 hours/day). The second factor is 3 levels of KNO3 (1900 mg/L, 2850 mg/L, 3800 mg/L). The study was conducted by observing the age of microtubers initiation, number of shoots, number of roots, number of microtubers, the diameter of microtubers, and wet weight of microtubers were analyzed using SPSS. The results showed that the combination treatment of 8 hours/day photoperiod and KNO3 concentration of 3800 mg/L could accelerate the initiation of microtubers at 8 DAP (Days After Planting). The concentration of 3800 mg/L KNO3 can increase the number of roots and microtubers, the diameter of microtubers, and the wet weight of microtubers. The highest diameter of microtubers (17.89 mm) and the highest wet weight of microtubers (278.81 mg) were found in the photoperiod of 16 hours/day. This study concludes that the higher concentration of KNO3 and the longer photoperiod could be used for the induction and development of potato microtubers, while the short photoperiod could be used to accelerate microtubers initiation
光周期和KNO3浓度对马铃薯离体微块茎诱导和发育的影响
摘要Choirunnisa JP, Wardana R. 2021。光周期和KNO3浓度对马铃薯离体微块茎诱导和发育的影响细胞生物学进展5:70-75。马铃薯(Solanum tuberosum L.)是一种碳水化合物来源植物,是作为食物多样化的替代品而开发的。由于细菌和病毒的高侵袭率,优质马铃薯种子的可用性非常有限。利用植物组织培养技术开发马铃薯微块茎,可以满足对马铃薯种子的需求。本研究旨在研究不同光周期和KNO3浓度对马铃薯微块茎形成的影响。本研究设计采用5个重复的完全随机设计(CRD)。第一个因素是三个层次的光周期(8小时/天,12小时/天,16小时/天)。第二个因素是3个水平的KNO3 (1900 mg/L、2850 mg/L、3800 mg/L)。采用SPSS软件对微块茎发生年龄、芽数、根数、微块茎数、微块茎直径、微块茎湿重进行分析。结果表明,8 h /d光周期和3800 mg/L KNO3浓度的组合处理可促进微块茎在8 DAP (d后)的形成。浓度为3800 mg/L的KNO3可以增加根和微块茎的数量、微块茎直径和微块茎的湿重。在16 h /d光照条件下,微块茎直径最大(17.89 mm),湿重最大(278.81 mg)。本研究认为,较高的KNO3浓度和较长的光周期可以促进马铃薯微块茎的诱导和发育,而较短的光周期可以促进微块茎的形成
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