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甜高粱的遗传转化。

Genetic transformation of sweet sorghum.

机构信息

Botany Department/BIOL, The University of Queensland, Brisbane, 4072, Australia.

出版信息

Plant Cell Rep. 2010 Sep;29(9):997-1005. doi: 10.1007/s00299-010-0885-x. Epub 2010 Jun 10.

DOI:10.1007/s00299-010-0885-x
PMID:20535472
Abstract

Sweet sorghum has substantial potential as a biofuel feedstock, with advantages in some environments over alternatives such as sugarcane or maize. Gene technologies are likely to be important to achieve yields sufficient for food, fuel and fibre production from available global croplands, but sorghum has proven difficult to transform. Tissue culture recalcitrance and poor reproducibility of transformation protocols remain major challenges for grain sorghum, and there has been no reported success for sweet sorghum. Here we describe a repeatable transformation system for sweet sorghum, based on (1) optimized tissue culture conditions for embryogenic callus production with >90% regenerability in 12-week-old calli, and (2) an effective selection regimen for hygromycin resistance conferred by a Ubi-hpt transgene following particle bombardment. Using this method, we have produced sixteen independent transgenic lines from multiple batches at an overall efficiency of 0.09% transformants per excised immature embryo. Co-expression frequency of a non-selected luciferase reporter was 62.5%. Transgene integration and expression were confirmed in T(0) and T(1) plants by Southern analysis and luciferase assays. This success using the major international sweet sorghum cultivar Ramada provides a foundation for molecular improvement of sweet sorghum through the use of transgenes. Factors likely to be important for success with other sweet sorghum cultivars are identified.

摘要

甜高粱作为生物燃料的原料具有很大的潜力,在某些环境下优于甘蔗或玉米等替代品。基因技术对于实现从可用的全球耕地中生产食物、燃料和纤维的产量可能是重要的,但高粱已被证明难以转化。组织培养的抗性和转化方案的重复性差仍然是粮食高粱的主要挑战,而甜高粱则没有报道成功。在这里,我们描述了一种可重复的甜高粱转化系统,该系统基于(1)优化的组织培养条件,可在 12 周龄的愈伤组织中产生>90%的再生能力的胚性愈伤组织,以及(2)在粒子轰击后由 Ubi-hpt 转基因赋予的潮霉素抗性的有效选择方案。使用这种方法,我们从多个批次中产生了 16 个独立的转基因系,每个切除的未成熟胚的转化效率总体为 0.09%。未选择的荧光素酶报告基因的共表达频率为 62.5%。Southern 分析和荧光素酶测定证实了 T(0)和 T(1)植物中转基因的整合和表达。使用主要的国际甜高粱品种 Ramada 的这一成功为通过转基因对甜高粱进行分子改良提供了基础。确定了对其他甜高粱品种取得成功可能很重要的因素。

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