Genetic engineering and gene analysis have revolutionized medicine, agriculture, and society by allowing the control and manipulation of gene defects, carcinogenesis, and other cellular processes.

GENETIC ENGINEERING AND GENE ANALYSIS

A framework for open discourse on the use of CRISPR-Cas9 technology to manipulate the human genome is urgently needed to ensure safety and ethical application of this technology.

A prudent path forward for genomic engineering and germline gene modification

Genetic engineering can enable the production of therapeutic proteins, enabling the development of novel medicines by studying the molecular basis of cellular control and pathophysiology.

Genetic engineering and pharmaceuticals

Gene engineering in livestock increases productivity, produces disease resistance, and enhances biomedicine models, benefiting both agriculture and humans.

Current status and future of gene engineering in livestock

Germline intervention is necessary to maintain current genetic health levels for future generations, appealing to both bioliberals and bioconservatives, due to relaxed selection pressures from conventional medicine.

In Genes We Trust: Germline Engineering, Eugenics, and the Future of the Human Genome.

Genetic engineering has the potential to alter human physical or mental characteristics through gene treatment and test-tube fertilization, influencing reproductive rights and political control.

Genetic Engineering: Present and Future

Genetic engineering has potential therapeutic applications, but ethical considerations must be made regarding potential risks and ethical implications.

Genetic Engineering

Genetic engineering will have a negligible impact on human genetic diversity and is more likely to ensure human health and longevity than reduce it.

The Evolutionary Biological Implications of Human Genetic Engineering

Genetic engineering will lead to personalized pharmaceuticals, based on individual differences, transforming the pharmaceutical industry in the future.

Development Prospects of Genetic Engineering Pharmaceuticals

Combining the human genome project with association studies can help identify the genetic basis of complex human diseases like schizophrenia and diabetes.

The Future of Genetic Studies of Complex Human Diseases

Human germline genome editing became ethically acceptable due to a combination of discursive, institutional, political, and technological changes, making it "thinkable" and legitimate for treating rare inherited conditions in the future.

Thinking the unthinkable: how did human germline genome editing become ethically acceptable?

The sequencing of more than 1 billion genomes in the next 20 years will require scalable computational and quantitative approaches, as well as a shift in training to prepare the class of 2035 for a highly interdisciplinary world.

Biological data sciences in genome research

CRISPR germline engineering may violate future autonomy in embryos, as it alters their unique genetic fabric without their autonomous decision-making capacity.

Will CRISPR Germline Engineering Close the Door to an Open Future?

Genetic engineering may lead to increased habituation to GMOs, normalization of genetic reductionism, and the perception that humans are the main source of creativity and problem-solving in the biosphere.

Genetic Engineering and Human Mental Ecology: Interlocking Effects and Educational Considerations

The ethics of human embryo gene editing should be based on global dialogue, public involvement, and a broad social consensus to achieve a rational acceptance of this technology.

Advances in Genetic Editing of the Human Embryo

Genetic engineering and genome editing technologies have revolutionized crop improvement, providing improved nutritional value, stress tolerance, and agronomic traits, while addressing global hunger and micronutrient deficiency.

Genetic Engineering of Horticultural Crops: Present and Future

Genetic programming has produced human-competitive results in various fields, with future improvements due to increased computing power and Moore's law.

Human-competitive results produced by genetic programming

Genetic engineering involves transferring selected genetic code (DNA) from one organism to another organism's cells, altering their biological traits for desired traits, such as increased yield or resistance to certain diseases.

Biotechnology development may lead to erosion of morality, undermine egalitarianism, and reciprocity, and lead to unpredictable answers to the meaning of human existence and relation to others.

Afterword to the Story of Man in the Context of the Development of Biotechnology

Genetic engineering may be morally permissible and even obligatory for parents and societies pursuing future generations' best interests, based on no harm, enabling thriving, and promoting social utility.

Genetically engineering future generations’ compressed morbidity

What are the future of genetic engineering in humans?

These studies suggest that the future of genetic engineering in humans includes advancements in medicine, agriculture, and personalized pharmaceuticals, while also necessitating ethical considerations and open discourse to ensure safety and responsible application.