Learning Outcomes
The aim is the students’ introduction to the rapidly increasing field of «Biotechnology of Pharmaceutical Plants». During the 7th semester course (Pharmaceutical Biotechnology), the students have obtained general knowledge, the basic principles, technologies, and applications of molecular biotechnology. At the present course, students will have the ability to learn about the importance of secondary metabolism in the production of plant substances with pharmaceutical action, the biosynthetic pathways that lead to the biosynthesis of these substances, the modern experimental approaches of molecular biotechnology that lead to gene isolation, cloning and genetic modification. Finally, the lectures will cover the latest findings of molecular biotechnology in producing plant substances with pharmaceutical action, using the plants as factories that produce pharmaceutical substances and food.
Course Content (Syllabus)
Primary metabolites
Secondary metabolites
Regulation of biosynthesis and metabolism of natural products
Regulation mechanism of biosynthesis (stable expression, induced expression) at gene level, protein level, substance level
In relation to function
Developmentally regulated or
Induced by external or internal stimuli e.g. salicylic or jasmonic acid
Regulation at enzyme level (feed-back, allosteric interaction, availability of co-factor, phosphorylation)
Regulation at the level of Compartmentalisation (transport by diffusion or active transport)
Biosynthesis of natural products
Biosynthesis and oxidation of ascorbic acid
Biosynthesis of terpenes
Biosynthesis of phenylpropanoids
Biosynthesis of alkaloids
Approach and methodology of increase of the production of active substances of certain drugs
Metabolic engineering
Strategies of metabolic engineering in plants
Metabolic engineering of secondary metabolites biosynthetic pathways
Differential modulation of multigene family
Bifurcation and connection of different pathways
Catabolism of desirable components
Compartmentalization of plant cell-membrane transporters
Transport of components differs in various plant systems
Potentials and challenges in metabolic engineering of transport proteins
Existence of more than one limiting steps in biosynthesis rate (Rate-Limiting Steps)
Toxicity, reduced resistance in infective factors-plant viability
Factors-viability of plant
Feedback inhibitions
Potentials in the field of metabolic engineering of plants
Multipoint Metabolic Engineering
Regulatory genes-transcription factors
Cooperation of metabolic engineering with combinatorial biochemistry
Down-regulation of genes
Functional genomics
Development of technology and bioinformatics
Metabolic engineering in new metabolic pathways and combinatorial biosynthesis
Functional genomics or genomic analysis
Applications of functional genomics in pharmaceutical and aromatic plants
Tissue culture of plants (totipotency, somaclonal variability, re-birth)
In vitro rebirth of pharmaceutical plants
Genetically engineered pharmaceutical plants
Genetic engineering Protocols
Production of homozygote plants and control-selection of genetic transformation
Applications of genetic engineering in pharmaceutical and aromatic plants
Production of secondary metabolites and biopharmaceutical substances
Production of hairy roots
Applications for the production of biopharmaceutical substances
Molecular farming, molecular medical farming (vaccines and edible vaccines, antibodies, proteins etc.)
Bioethics and genetically transformed plants and food