GM is a technique involving the insertion of DNA into the genome of an organism. To produce transgenic plants, new DNA is transferred to plant cells. Typically, the cells then grow in tissue culture where they grow into plants. The seeds produced by these plants inherit the new DNA
The properties of all organisms depend on their genetic structure and their interaction with the environment. The genetic makeup of an organism is its genome, which consists of the DNA of all animals and plants. The genome contains the gene and the DNA region usually carries instructions for producing the protein. It is these proteins that give plants their properties. For example, the color of a flower is determined by a gene that conveys an indication that a protein is involved in the production of a pigment that stains a petal.
Genetic alteration of plants involves adding specific ranges of DNA to the plant genome and giving it new or different characteristics. This includes changing plant growth methods and increasing resistance to specific diseases. The new DNA becomes part of the genome of the transgenic plants and the seeds produced by these plants will contain these genomes.
The first step in the production of transgenic plants requires the introduction of DNA into plant cells. One method for transferring DNA is to coat the surface of small metal particles with the relevant DNA fragments and collide the particles against the plant cells. Another way is to use bacteria or viruses. There are many viruses and bacteria that transfer their DNA to host cells as a normal part of their life cycle. For transgenic plants, the most commonly used bacteria are called Agrobacterium tumefaciens. The gene of interest is transferred to the bacterium, which in turn transfers the new DNA to the genome of the plant cell. Plant cells which successfully absorbed DNA are then cultured to produce new plants. This is possible because individual plant cells have excellent ability to produce whole plants. For example, sweet potato contains a DNA sequence transferred from Agrobacterium to sweet potato genome several thousand years ago.
There are other ways to change the crop genome, such as mutation breeding, but there are also long-term things, but there are new methods such as genome editing, but in this problem GM is currently defined and so focus on GM I will hit you. Regulatory objectives in Europe
Since the bias of this document was obvious from the beginning, the author responded directly to the original question "What is genetic modification (GM) of direct crops and how is it done?" Could not be provided. Instead, their reactions are very misleading. Because it ignores the most unnatural and disturbing features while diluting the mentioned unnaturalness. As one of the biggest confusion, the authors avoid mentioning that biotechnologists have inserted foreign DNA into the plant genome in any way - and that insertion only destroys the DNA regions they wedged out A documented phenomenon of 'genome destruction' without it. (Four)
Royal Society: A Case Study on the Systematic Distortion of Health Risk for Genetically Modified Organisms
In order to understand the controversy of genetically modified crops it is necessary to understand what genetic recombination and genetic recombination are: organisms produced by combining genes of different species using genetic recombination (rDNA) technology . Alternatively, genetic modification (GM) - passion is the reason we drive all things to succeed, but it happens when we want to do things that endanger our lives. When doing what we like, there are possibilities that innumerable physician consultation and surgery will be carried out if you grab the wrong foothold or do it easily with one hand.