Today, we will explore genetic engineering, which is defined as the deliberate modification of an organism’s genetic material. Can anyone explain what they think this means?

Exactly! It involves altering DNA to produce desired traits or outcomes. Let’s break it down further. What do you think a 'gene' is?

Correct! A gene is a segment of DNA that codes for a specific protein, which in turn influences an organism's traits. Can anyone give me an example of a trait that genes might influence?

That's a great example! Now, let’s remember the key terms: 'Gene' is associated with controlling traits, and 'Genome' is the complete set of genes in an organism. Let's summarize: genetic engineering modifies DNA to create specific desired traits.

Now, let's shift our focus to the historical development. Can anyone tell me when the double helix structure of DNA was discovered?

Correct! That was a monumental milestone. Following that, can someone recall another significant breakthrough in genetic engineering?

Excellent! Each of these milestones paved the way for advancements in biotechnology. Let's remember these years as key landmarks: 1953 for DNA structure, 1972 for recombinant DNA, and our journey continues with the introduction of CRISPR in 2012.

Finally, let’s look at the applications of genetic engineering. What are some areas where genetic engineering is applied?

Spot on! Genetic engineering plays crucial roles in both fields. However, what do we need to think about regarding the ethical implications?

Exactly! Ethical considerations about genetic manipulation raise questions about safety and implications of gene editing. In summary, while genetic engineering holds promise for progress, we must tread carefully and consider the ethical impacts of our work.