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Lifeasible has accumulated extensive practical experience in chloroplast research. Our engineers are committed to providing you with the most comprehensive and suitable chloroplast research solutions. Our solutions are fast and efficient without compromising reliability.
Vaccine Antigens | Therapeutic Proteins
Rubisco Performance | Rubisco Activase | CO2 Concentration | Calvin-Benson Cycle Enzymes | Electron Transport Rate
Liquid Crystal Polymers | Polyhydroxy Butyrate Polymers | Nanomaterials
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Pectin Lyases | Xylanases | β-Glucosidases | Endoglucanases
Herbicide Resistance | Insect Resistance | Pathogen Resistance | Salt Tolerance | Drought Tolerance | Enhancing Nutrition | Nitrogen Fixation | Cytoplasmic Male Sterility
Chloroplast genetic engineering has many advantages that traditional nuclear genetic engineering does not have, and has an attractive prospect in applied research.
The biggest advantage of chloroplast transformation is the high expression of foreign genes.
After the foreign gene is integrated into the chloroplast genome, it will not spread, avoiding the problem of gene escape.
The exogenous gene can be inserted between the two genes at a fixed point without affecting the expression of the original gene in the chloroplast.
Exogenous genes are transformed into chloroplasts in the form of polycistrons and expressed normally, avoiding the phenomenon of gene silencing.
Chloroplasts are inherited maternally, and the seed progeny will always remain pure. There will be no segregation due to sexual hybridization.
Exogenous genes from prokaryotes can be efficiently expressed in chloroplasts without modification and modification.
The chloroplast genome is small, simple in structure and not bound to histones, making genetic manipulation easy.