Abstract: A stevia cultivar with super high Rebaudioside A content, designated ‘320032’, is disclosed. Another embodiment relates to the plant parts of stevia cultivar ‘320032’, to the plants of stevia ‘320032’ and to methods for producing a stevia plant produced by crossing the cultivar ‘320032’ with itself or another stevia variety, including methods using marker assisted breeding. Another embodiment further relates to hybrid stevia seeds and plants produced by crossing the cultivar ‘320032’ with another stevia cultivar. Twelve highly polymorphic SNPs loci and the corresponding genomic sequences used to identify plant variety ‘320032’-derived plant materials are also disclosed.

Abstract: A method for making a highly soluble steviol glycoside composition is described. The resulting composition readily provides solutions with at least 0.5% concentration.

Abstract: Novel Stevia rebaudiana plant cultivars, a process for preparing superior compositions comprising steviol glycosides, and the advantageous use of the compositions comprising steviol glycosides in consumables, including food and beverage products, are disclosed.

Abstract: A stevia cultivar, designated ‘16265046’, is disclosed. The embodiments of the invention relate to the plant parts of stevia cultivar ‘16265046’, to the plants of stevia ‘16265046’ and to methods for producing a stevia plant produced by crossing the cultivar ‘16265046’ with itself or another stevia variety, including methods using marker assisted breeding. The embodiments further relate to hybrid stevia seeds and plants produced by crossing the cultivar ‘16265046’ with another stevia cultivar. Twelve highly polymorphic SNPs loci and the corresponding genomic sequences used to identify plant variety ‘16265046’-derived plant materials are also disclosed.

Abstract: A stevia cultivar, designated ‘16228013’, is disclosed. Further embodiments relate to the plant parts of stevia cultivar ‘16228013’, to the plants of stevia ‘16228013’ and to methods for producing a stevia plant produced by crossing the cultivar ‘16228013’ with itself or another stevia variety, including methods using marker assisted breeding. Further embodiments relate to hybrid stevia seeds and plants produced by crossing the cultivar ‘16228013’ with another stevia cultivar. Six highly polymorphic SNPs loci and the corresponding genomic sequences used to identify plant variety ‘16228013’ derived plant materials are also disclosed.

Abstract: An aneuploid Stevia cultivar from colchicine-induced polyploidy, designated ‘AP-1’. The plant parts of Stevia cultivar ‘AP-1’, the plants of stevia ‘AP-1’ and methods for producing a Stevia plant produced by crossing the cultivar ‘AP-1’ with itself or another Stevia variety, including methods using colchicine treatments for producing an aneuploidy Stevia plant. The disclosure further relates to hybrid Stevia seeds and plants produced by crossing the cultivar ‘AP-1’ with another Stevia cultivar. Ten highly polymorphic SNPs and the corresponding genomic sequences used to identify ‘AP-1’.

Abstract: Stevia varieties with a high content of RebM, are disclosed Further provided are methods for producing Stevia plants having a high RebM content by negatively regulating certain genes selecting the resulting plants, and breeding with such plants to confer such desirable Reb M phenotypes to plant progeny.

Abstract: Novel Stevia rebaudiana plant cultivars, a process for preparing superior compositions comprising steviol glycosides, and the advantageous use of the compositions comprising steviol glycosides in consumables, including food and beverage products, are disclosed.

Abstract: Novel cultivars of Stevia rebaudiana plant, with a novel genetic trait of self-compatibility, and the advantageous use of this genetic trait in Stevia crossing breeding for increasing steviol glycosides production, including food and beverage products and other consumables, are disclosed.

Abstract: Stevia varieties with a high content of RebM, are disclosed Further provided are methods for producing Stevia plants having a high RebM content by negatively regulating certain genes selecting the resulting plants, and breeding with such plants to confer such desirable Reb M phenotypes to plant progeny.

Abstract: Novel cultivars of Stevia rebaudiana plant, with a novel genetic trait of self-compatibility, and the advantageous use of this genetic trait in Stevia rebaudiana crossing breeding for increasing steviol glycosides production, including food and beverage products and other consumables, are disclosed.

Abstract: Novel Stevia rebaudiana plant cultivars, a process for preparing superior compositions comprising steviol glycosides, and the advantageous use of the compositions comprising steviol glycosides in consumables, including food and beverage products, are disclosed.

Abstract: A stevia cultivar with super high Rebaudioside A content, designated ‘320032’, is disclosed. Another embodiment relates to the plant parts of stevia cultivar ‘320032’, to the plants of stevia ‘320032’ and to methods for producing a stevia plant produced by crossing the cultivar ‘320032’ with itself or another stevia variety, including methods using marker assisted breeding. Another embodiment further relates to hybrid stevia seeds and plants produced by crossing the cultivar ‘320032’ with another stevia cultivar. Twelve highly polymorphic SNPs loci and the corresponding genomic sequences used to identify plant variety ‘320032’-derived plant materials are also disclosed.

Abstract: A stevia cultivar containing a high Rebaudioside M content, designated ‘18136109’, is disclosed. The invention relates to the plant parts of stevia cultivar ‘18136109’, to the plants of stevia ‘18136109’ and to methods for producing a stevia plant produced by crossing the cultivar ‘18136109’ with itself or another stevia variety, including methods using marker assisted breeding. The invention further relates to hybrid stevia seeds and plants produced by crossing the cultivar ‘18136109’ with another stevia cultivar. Twelve highly polymorphic SNPs loci and the corresponding genomic sequences used to identify plant variety ‘18136109’-derived plant materials are also disclosed.

Abstract: A stevia cultivar, designated ‘16228013’, is disclosed. Further embodiments relate to the plant parts of stevia cultivar ‘16228013’, to the plants of stevia ‘16228013’ and to methods for producing a stevia plant produced by crossing the cultivar ‘16228013’ with itself or another stevia variety, including methods using marker assisted breeding. Further embodiments relate to hybrid stevia seeds and plants produced by crossing the cultivar ‘16228013’ with another stevia cultivar. Six highly polymorphic SNPs loci and the corresponding genomic sequences used to identify plant variety ‘16228013’ derived plant materials are also disclosed.

Abstract: Stevia varieties with a high content of RebM, are disclosed Further provided are methods for producing Stevia plants having a high RebM content by negatively regulating certain genes selecting the resulting plants, and breeding with such plants to confer such desirable Reb M phenotypes to plant progeny.

Abstract: Stevia varieties with a high content of RebM, are disclosed Further provided are methods for producing Stevia plants having a high RebM content by negatively regulating certain genes selecting the resulting plants, and breeding with such plants to confer such desirable Reb M phenotypes to plant progeny.

Abstract: A stevia cultivar, designated ‘16228013’, is disclosed. Further embodiments relate to the plant parts of stevia cultivar ‘16228013’, to the plants of stevia ‘16228013’ and to methods for producing a stevia plant produced by crossing the cultivar ‘16228013’ with itself or another stevia variety, including methods using marker assisted breeding. Further embodiments relate to hybrid stevia seeds and plants produced by crossing the cultivar ‘16228013’ with another stevia cultivar. Six highly polymorphic SNPs loci and the corresponding genomic sequences used to identify plant variety ‘16228013’ derived plant materials are also disclosed.

Abstract: An aneuploid Stevia cultivar from colchicine-induced polyploidy, designated ‘AP-1’. The plant parts of Stevia cultivar ‘AP-1’, the plants of stevia ‘AP-1’ and methods for producing a Stevia plant produced by crossing the cultivar ‘AP-1’ with itself or another Stevia variety, including methods using colchicine treatments for producing an aneuploidy Stevia plant. The disclosure further relates to hybrid Stevia seeds and plants produced by crossing the cultivar ‘AP-1’ with another Stevia cultivar. Ten highly polymorphic SNPs and the corresponding genomic sequences used to identify ‘AP-1’.

Abstract: A stevia cultivar, designated ‘16265046’, is disclosed. The embodiments of the invention relate to the plant parts of stevia cultivar ‘16265046’, to the plants of stevia ‘16265046’ and to methods for producing a stevia plant produced by crossing the cultivar ‘16265046’ with itself or another stevia variety, including methods using marker assisted breeding. The embodiments further relate to hybrid stevia seeds and plants produced by crossing the cultivar ‘16265046’ with another stevia cultivar. Twelve highly polymorphic SNPs loci and the corresponding genomic sequences used to identify plant variety ‘16265046’-derived plant materials are also disclosed.