Genetic Engineering Free Essay Example

they specifically target and dismantle enemy cells or viruses. Unlike antibiotics, however, DNA scissors have proven to be more effective in neutralizing threats by disrupting their DNA. This innovative technique holds immense potential for combating diseases such as AIDS, as even this virus relies on DNA for its functioning.HTML Text:

One day the only thing that will stand between medical diseases and their cure will be the analysis of their DNA. Genetics now offers a new way to solve the general problems of the world.

First, genetic research makes it possible for food to be grown safer, better, and faster, without doing any damage to the environment. With today's knowledge of genetic engineering, several food companies are investigating possibilities of making more food in less time. Through a process known as gene therapy, geneticists have the ability to modify parts of genetic material in organisms. Geneticists can add attributes to crops, like tomatoes, that would make them resistant to insects. With such features, dangerous chemicals like DDT that harm the environment, plants, animals, and humans would not be needed. Other enhancements would include prolonged life spans for food products after harvesting. For example, tomatoes have been engineered to last longer so they do not have to be harvested early. Thus, it is unnecessary to spray chemicals on them to prematurely change their color. While the US has not yet approved the new crops, several countries have and are making great profits off them.

Finally, through a process known as gene splicing, geneticists are able to cross different organisms and therefore breed beneficial life forms.

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Advancements in genetics have the

potential to revolutionize disease treatment by analyzing DNA. Genetics provides a novel approach to addressing global issues.

Initially, genetic research enables the safer, superior, and faster growth of food without causing harm to the environment. Utilizing genetic engineering knowledge, various food companies explore producing larger quantities of food within shorter periods. Gene therapy allows alteration of genetic material in organisms, empowering geneticists to introduce traits that enhance crop resistance to insects. This eliminates the need for environmentally harmful chemicals like DDT that negatively affect plants, animals, and humans. Moreover, gene modification enables prolonging the post-harvest lifespan of food products. For instance, tomatoes have been engineered to maintain longevity, eliminating the necessity for premature harvesting and chemical interventions to alter their color. Although the US has yet to approve these new crops, several countries have embraced them, generating substantial profits.

Ultimately, gene splicing permits geneticists to crossbreed different organisms, resulting in the creation of beneficial life forms.

The Supreme Court's ruling on the patentability of newly created life forms has led to investments in genetic research by several companies. One such company, General Electric, funded a team of geneticists who successfully created a new life form: oil-eating bacteria. These bacteria have the ability to consume oil without posing any harm to the environment. One significant application for the bacteria is in cleaning up shoreline areas after oil spills. Due to the impossibility of completely removing all traces of oil, the bacteria are released to meticulously and effectively eliminate any remaining oil. General Electric is currently in the process of obtaining or may have already obtained a patent for these bacteria. This development highlights the active

role that genetics will play in addressing global issues. Genetic engineering enables us to address and rectify bodily malfunctions, such as chemical deficiencies. Insulin production provides a prominent example of utilizing genetics to produce supplements for those with deficiencies. In the past, diabetics relied on insulin derived from sheep, which necessitated a large number of sheep to sustain one person. However, after the discovery of DNA, geneticists used gene splicing to develop bacteria capable of producing insulin. By cloning the human gene for insulin and inserting it into E. coli bacteria, scientists successfully created bacteria that not only produced insulin but also reproduced the human gene during replication.Next, genetic engineering will enable the creation of vital organs for transplants. A major challenge in modern medicine is the shortage of organ donors, resulting in increasing waiting lists and loss of lives. In the future, geneticists could clone sections of organs and produce organs for transplant surgeries. It may even be possible to clone cells from damaged organs and create exact replicas. Genetic engineering will undoubtedly have a significant impact on addressing bodily malfunctions. It is evident that genetic engineering has already facilitated advancements in human life and will continue to do so with ongoing research. Despite receiving criticism, the rewards of genetics far outweigh any disadvantages. As genetics becomes integrated into medical practice, there may be ongoing protests against perceived consequences of genetic engineering on society. Rather than allowing fear and ignorance to hinder this crucial and compassionate endeavor, scientists and society should prioritize education to enhance communication and understanding, thereby promoting the benefits of genetic engineering.