A01H4/005

Plant propagule root-growing device
10827694 · 2020-11-10 · ·

Devices for directionally placing a plant propagule (2) inside a tubular hollow member (3), including a platform element (20) arranged such that a foldable member (1) can be placed thereon; an actuating dispensing arrangement {90a, 90b, 100) for placing a foldable member (1) on the platform element (20); an arrangement (40)/(40a) for placing a plant propagule (2) on a foldable member (1) placed on the platform element (20); optionally, including a way (150) for identifying an imaginary line (9) on the foldable member (1) stretching through the root forming end (7) to the shoot forming end (8) of the propagule (2) being directionally placed during operation; an actuating folding arrangement {30, 80)/(120/80) for folding the foldable member (1) along said imaginary line (9) to form a folded foldable member (la); an actuating dispensing arrangement (180) for providing a tubular hollow member (3) having a first open end (4); and an actuating placing arrangement {30, 80)/(120/80) for placing said folded foldable member (la) into the tubular hollow member (3) through the first open end (4). Related methods for handling plant propagules, in particular somatic plant embryos.

Process for in vitro flowering in <i>Crocus sativus </i>L

A process for in vitro induction of flowering/in vitro proliferation of floral primordia in saffron crocus (Crocus sativus L.) produces whole flowers with real stigmas. The process produces saffron through a process of in vitro flowering to obtain season independent, continuous flowering of saffron.

Micropropagation of HDT date palm
10820540 · 2020-11-03 · ·

Disclosed herein are media, kits, systems and methods for achieving micropropagation of a HDT date palm on a commercially relevant scale. Compositions and methods for each stage of micropropagation, including initiation, elongation, and rooting are disclosed in the present application. Also disclosed are conditions for harvesting and sterilizing explant tissue for micropropagation.

Production of thapsigargins by <i>thapsia </i>cell suspension culture

The present invention relates to a method of producing sesquiterpene lactones of the thapsigargin family, the method comprising the steps of: (a) culturing plant cells of the genus Thapsia in a nutrient medium in a suspension cell culture, wherein the cells produce one or more sesquiterpene lactones of the thapsigargin family; and (b) recovering one or more sesquiterpene lactones of the thapsigargin family produced in (a). The present invention further relates to a suspension cell culture comprising plant cells of the genus Thapsia, wherein the plant cells are capable of producing one or more sesquiterpene lactones of the thapsigargin family and to a plant cell biomass comprising plant cells of the genus Thapsia obtained from said suspension cell culture.

Micropropagation of date palm
10820537 · 2020-11-03 · ·

Disclosed herein are media, kits, systems and methods for achieving micropropagation of a date palm on a commercially relevant scale. Compositions and methods for each stage of micropropagation, including initiation, elongation, and rooting are disclosed in the present application. Also disclosed are conditions for harvesting and sterilizing explant tissue for micropropagation.

Micropropagation of Abada date palm
10820538 · 2020-11-03 · ·

Disclosed herein are media, kits, systems and methods for achieving micropropagation of an Abada date palm on a commercially relevant scale. Compositions and methods for each stage of micropropagation, including initiation, elongation, and rooting are disclosed in the present application. Also disclosed are conditions for harvesting and sterilizing explant tissue for micropropagation.

Micropropagation of Black Barhee date palm
10820539 · 2020-11-03 · ·

Disclosed herein are media, kits, systems and methods for achieving micropropagation of a Black Barhee date palm on a commercially relevant scale. Compositions and methods for each stage of micropropagation, including initiation, elongation, and rooting are disclosed in the present application. Also disclosed are conditions for harvesting and sterilizing explant tissue for micropropagation.

Regeneration and transformation of Cosmos Bipinnatus plantlets
10813305 · 2020-10-27 ·

Cosmos bipinnatus cotyledons are isolated as explants, and the isolated explants are cultured onto a regeneration medium to obtain regenerated Cosmos bipinnatus shoots. The regeneration medium optionally includes a basal medium, a cytokinin, an ethylene action inhibitor, and a nitrogen source.

METHODS OF PRODUCING SUGAR CANE TRANSPLANT UNITS

Methods of producing sugar cane transplant units that includes planting a sugar cane propagation material in a planting container that has a volume of 10 to 200 cubic centimeters; growing the sugar plant to an age of at least 4 months; harvesting the stalks of the sugar cane plant when the stalks have a length of 10 to 50 centimeters; cutting the harvested stalks into stalk segments, wherein the stalk segments are cut to a length of 1 to 5 centimeters; and planting one or more of the stalk segments into a planting container that has a volume from 10 to 200 cubic centimeters.

METHODS TO IMPROVE GENETIC TRANSFORMATION OF SORGHUM

The invention provides an improved method for transformation of sorghum and the production of genetically modified sorghum. In particular, methods and means are described for the production of high quality, transformable sorghum plant cells which are maintained in culture for longer duration without losing their regenerative potential and their use for genetic transformation. The method also describes the use of improved media for efficient plant regeneration from transformed plant cells, thereby providing significant improvement in the stable transformation frequency of sorghum.