All kinds of plant tissue culture concepts

Examine plant tissue culture media, focusing on White's medium developed by Pierre White in 1963 for tomato root culture, with low salt and higher magnesium sulfate concentrations.

Explore the Murashige medium, a plant growth medium developed in 1962 to induce organogenesis and regeneration, now widely used for various plant tissue culture systems.

Use Gamborg B5 medium to support cell suspension, callus, protoplast, tissue, and organ cultures, with potassium nitrate boosting soybean root callus and ammonium sulfate enhancing growth.

Explore how scientists developed n6 medium and six medium, containing macro and micro nutrients and vitamins, to initiate, grow, and differentiate rice callus cultures, with ammonium concentration identified as crucial.

Explore plant tissue culture media, including niche medium for anther cultures, and compare synthetic, chemically defined media with natural media made from plant extracts.

Explore how plant tissue culture media supply macronutrients and micronutrients, plus organic supplements and growth regulators, to drive in vitro growth and morphogenesis.

Identify external carbon sources essential for energy in cultured plant cells, with sucrose as the preferred carbon source and glucose supporting strong growth, while fructose is less efficient.

Explore macronutrients for plant tissue culture, including nitrogen, phosphorus, potassium, calcium, magnesium, and sulfur. Learn how culture media supply at least 25 millimoles via nitrates and ammonium.

This lecture contrasts macronutrients and micronutrients in plant tissue culture media, detailing essential micronutrients such as iron, manganese, zinc, boron, copper, cobalt, and molybdenum, and chelated forms like iron EDTA.

Compare macronutrients and micronutrients in plant tissue culture, including absorption, roles in structure and osmotic potential, and toxicity, then review organic supplements and essential vitamins with dosage ranges.

Add amino acids such as l-glutamine, glycine, arginine, and cysteine to plant tissue culture media to boost growth and establish cell lines, with organic nitrogen uptake favored.

Identify organic supplements used in plant tissue culture media, such as milk protein, coconut milk, yeast extract, malt extract, and fruit juices, and their age-related variability.

Explore how activated charcoal in plant tissue culture media stimulates growth and differentiation in carrot, tomato, and orchids, while inhibiting tobacco and soybean growth via hormone adsorption and phenol removal.

Explore antibiotics in plant tissue culture media to prevent microbial growth, enabling gene cloning and transformation, and useful organic supplements like vitamins, amino acids, and organic extracts.

Explore plant growth regulators—auxins, cytokinins, gibberellins, and abscisic acid—their promoters and inhibitors, and auxin-driven processes like phototropism, apical dominance, and seedless fruit development.

Explore cytokinins, plant growth regulators that promote cell division and shoot differentiation in tissue culture, and learn how the auxin–cytokinin balance shapes morphogenesis and aging.

Gibberellins are plant growth regulators that govern stem elongation and germination, with gibberellic acid speeding germination and GA3 used in tissue culture to boost callus growth and elongate dwarf plants.

Gibberellins promote stem and root growth, seed germination, flowering, bolting, apical dominance, and parthenocarpy, with uses in fruit setting, brewing, and banana and grape storage.

Explore abscisic acid and ethylene as growth inhibitors, focusing on abscisic acid's roles in flowering regulation in Arabidopsis, stomatal closure, leaf senescence, seed germination, and callus growth in tissue culture.

Explore abscisic acid's roles in stomatal closure, seed dormancy and germination inhibition, fruit ripening delay, leaf senescence, and stress-responsive gene expression governing environmental stress tolerance.

Explore ethylene, a gaseous plant hormone that ripens fruit, influences flowering and leaf shedding, and acts as a growth regulator across plant parts.

Summarizes plant tissue culture media components and growth regulators, including auxins and cytokinins, gibberellins and abscisic acid, plus inorganic and carbon sources and agar as a solidifying agent.

Maintain plant tissue culture media at 5.0 to 6.0 for growth during media preparation. Prevent post-autoclave shifts outside 4.5–7.0, which halt plant cell growth, and avoid contamination.

Prepare tissue culture media from 10x-100x stock solutions in demineralized water. Dissolve growth regulators in Inuvik or alcohol; autoclave at degree centigrade and 15 psi for 20 minutes; filter-sterilize hormones.

Select a suitable medium for plant tissue culture by testing 3–5 growth regulator concentrations and combinations of auxins and cytokinins, and emphasize careful medium preparation to avoid harming cultures.

Learn plant tissue culture media preparation, including media composition, macro- and micronutrients, plant growth regulators, sterilization, and solidifying agents.