Genetic Engineering in 6 minutes | What Is Genetic Engineering? | Genetics | Simplilearn

Simplilearn
26 Oct 202206:20

Summary

TLDRThis video script delves into the fascinating world of genetic engineering, explaining how it can enhance traits in animals and plants by altering DNA. It discusses the creation of GMOs for various purposes, including disease resistance in animals and improved crop yields. The script also touches on the role of AI in accelerating genetic research and the ethical considerations surrounding GMOs. The video concludes with a trivia question about the first genetically modified organism, piquing viewers' curiosity.

Takeaways

  • 🧬 Genetic engineering involves altering an organism's DNA by adding or removing genes to create a new gene framework with desirable traits.
  • đŸŸ Traits like shiny fur in Samoyeds or loyalty in Golden Retrievers are influenced by an organism's genes.
  • đŸŒ± The technology can be applied to both animals and plants, as they both possess DNA structures.
  • đŸ§Ș Genetically modified organisms (GMOs) are the result of genetic engineering, which can enhance or eliminate certain characteristics.
  • 🔬 The field of genetic engineering became more accessible with Bob Fraley's work on transforming plant cells with new DNA fragments in the 1980s.
  • đŸŒŸ Genetic engineering is used to modify crops for increased productivity, nutritional value, and disease resistance.
  • 💊 It enables the production of medications, vaccines, enzymes, and hormones at a reduced cost by manipulating microorganisms and plant materials.
  • 🌿 Biofuels can be produced from bioengineered energy crops that grow rapidly and can be converted into various fuel types.
  • 🐟 GMO animals are often used in scientific experiments or for human consumption, like the genetically modified salmon.
  • ⚠ There are risks associated with genetic engineering, including potential allergies, gene spread to non-GMO organisms, and unanticipated genetic deficiencies.

Q & A

  • What is genetic engineering?

    -Genetic engineering is the process of altering a DNA structure by either adding or removing genes from it to form a newer gene framework with desirable characteristics. It can be applied to both animals and plants.

  • What is a GMO?

    -A GMO, or genetically modified organism, is the resultant organism after its DNA structure has been altered through genetic engineering.

  • Who were the pioneers in transforming plant cells with new DNA fragments?

    -Bob Fraley was among the pioneers who transformed plant cells with new DNA fragments in the early 1980s.

  • How does genetic engineering differ from traditional breeding?

    -While traditional breeding involves selective mating to enhance certain traits over generations, genetic engineering allows for the direct alteration of an organism's DNA to introduce or remove specific characteristics.

  • What are the two variations of genetic engineering mentioned in the script?

    -The first variant involves fusing an organism's original DNA with foreign genes to introduce new characteristics. The second type involves the removal of certain genes to eliminate unwanted behaviors or characteristics.

  • How does machine learning facilitate genetic engineering?

    -Machine learning models, like those used by Google's DeepVariant and Deep Genomics, accelerate genome structure experiments and make gene sequencing projects easier to mass propagate.

  • What is gene cloning and how is it used in medical fields?

    -Gene cloning is the process of creating an exact duplicate of base DNA material. It is especially helpful in medical fields for rapid testing of vaccines and serums.

  • In what ways is genetic engineering used in agriculture?

    -Genetic engineering is used to modify crop plants to increase productivity, nutritional value, protein content, resistance to disease, and fertilizer usage.

  • How does genetic engineering contribute to the production of medications and vaccines?

    -Genetic engineering allows for the generation of large quantities of important medications, vaccines, enzymes, and hormones at minimal cost by manipulating microorganisms and plant-based materials.

  • What are the potential risks associated with genetic engineering?

    -Potential risks include unexpected allergy risks from GMO foods, the spread of genetically altered foreign DNA to non-GMO plants and animals, and unanticipated genetic deficiencies or diseases in genetically modified animals.

  • What was the first genetically modified organism created in 1974?

    -The first genetically modified organism created in 1974 was a mouse.

Outlines

00:00

🧬 The Wonders of Genetic Engineering

This paragraph introduces the concept of genetic engineering, explaining how traits like shiny fur in Samoyeds or loyalty in Golden Retrievers are influenced by an organism's genes. It discusses the potential of extracting and transferring desirable genetic traits to enhance immunity, prevent diseases, and improve agricultural productivity. Genetic engineering is defined as the manipulation of an organism's DNA by adding or removing genes to create a new genetic framework with beneficial characteristics. The paragraph also touches on the historical development of genetic engineering, starting with the work of Bob Fraley in the 1980s, and the advancements in biotechnology that have made direct DNA alteration possible. It mentions two types of genetic engineering: one that fuses an organism's DNA with foreign genes to introduce new traits, and another that removes genes to eliminate undesirable characteristics. The paragraph concludes by highlighting the role of AI and machine learning in accelerating genetic research and the cloning of genes for medical applications.

05:01

đŸŒ± Applications and Concerns of Genetic Engineering

The second paragraph delves into the practical applications of genetic engineering, such as modifying crop plants to increase yield, nutritional value, and resistance to diseases. It also mentions the production of medications, vaccines, enzymes, and hormones through genetic manipulation of microorganisms and plant materials. The paragraph further discusses the creation of biofuels from engineered energy crops and the use of GMO animals in scientific research and for human consumption. However, it also raises concerns about the potential risks associated with genetic engineering, including the possibility of unexpected allergies, the spread of foreign DNA to non-GMO organisms, and the potential for genetically modified animals to have unforeseen genetic deficiencies. The paragraph emphasizes the importance of thorough research and careful moderation of genetic engineering experiments to prevent long-term harm. It concludes with a question about the first genetically modified organism created in 1974, inviting viewers to participate in a quiz and engage with the content.

Mindmap

Keywords

💡Genetic Engineering

Genetic engineering is a process that involves altering the DNA structure of an organism by adding or removing genes to create a new genetic framework with desirable characteristics. In the context of the video, genetic engineering is a central theme, highlighting its potential to enhance traits in animals and plants, such as disease resistance or productivity. The script mentions how genetic engineering can be used to remove genes that cause vulnerability to diseases, thereby improving the health of organisms.

💡DNA

DNA, or deoxyribonucleic acid, is the molecule that carries the genetic instructions for the development, functioning, and reproduction of all known living organisms and many viruses. The video script emphasizes the role of DNA in determining the characteristics of organisms, and how genetic engineering manipulates DNA to introduce or eliminate specific traits, such as shiny fur in Samoyeds or loyalty in golden retrievers.

💡GMO (Genetically Modified Organism)

A genetically modified organism (GMO) is an organism whose genetic material has been altered using genetic engineering techniques. The video explains that GMOs are created by either fusing an organism's original DNA with foreign genes to introduce new traits or by removing certain genes to eliminate undesirable characteristics. Examples given in the script include the creation of high-yielding crops and disease-resistant plants.

💡Gene Cloning

Gene cloning is the process of creating an exact duplicate of base DNA material. The video script mentions that gene cloning is particularly useful in medical fields, as it can accelerate the rapid testing of vaccines and serums. It is a technique that allows for the replication of specific genes, which is crucial for research and development in biotechnology.

💡Machine Learning

Machine learning is a type of artificial intelligence that enables computers to learn and improve from experience without being explicitly programmed. The video script discusses how machine learning models, such as those developed by Google's DeepVariant and Deep Genomics, are used to facilitate easier drug tests and gene sequencing projects, streamlining the process of genetic research and development.

💡Genome

A genome is an organism's complete set of genetic information, encoded in DNA. The video script refers to genome structures and how scientists use genetic engineering to modify them. The term is used in the context of how genetic engineering can be applied to alter the genetic makeup of organisms to achieve specific outcomes, such as enhancing crop productivity or creating disease-resistant animals.

💡Recombinant DNA Technology

Recombinant DNA technology is a method used to combine DNA sequences that would not typically be found together, creating new combinations of genetic material. The video script explains that this technology is used to produce high-yielding grain and vegetable crops with enhanced nutritional value, disease resistance, and reduced need for fertilizers.

💡Tissue Culture Techniques

Tissue culture techniques involve the growth of cells, tissues, or organs outside their natural environment, typically in a laboratory setting. The video script mentions the use of tissue culture techniques in conjunction with recombinant DNA technology to produce genetically modified crops with improved characteristics.

💡Biofuels

Biofuels are fuels derived from biological materials, such as plants or animal waste. The video script discusses how energy crops and biofuels can be genetically engineered to grow rapidly and produce large amounts of biomass that can be converted into fuel oils, alcohols, or diesel, offering a renewable energy source.

💡Risks of Genetic Engineering

The video script acknowledges that there are risks associated with genetic engineering, such as the potential for unexpected allergic reactions to GMO foods, the spread of genetically altered foreign DNA to non-GMO plants and animals, and the possibility of genetically modified animals having unanticipated genetic deficiencies or diseases. These risks highlight the importance of thorough research and regulation in the field of genetic engineering.

Highlights

Household animals exhibit traits like shinier fur and strong immunity, which are influenced by their genetic makeup.

Certain dog breeds like Golden Retrievers are known for loyalty and human friendliness, while Samoyeds are recognized for their superior fur quality.

Life expectancy varies significantly between regions, such as African countries compared to North American nations, which may relate to genetic factors.

Genetic engineering can extract desirable qualities from one organism's genes and introduce them into others to spread these characteristics.

Removing genes associated with blood-related diseases can potentially eliminate such vulnerabilities in animals.

Agricultural profitability could be increased by genetically enhancing crops to reduce negative effects and improve yield.

Genetic engineering is the process of altering DNA by adding or removing genes to create organisms with desirable traits.

Genetically modified organisms (GMOs) are the result of genetic engineering applied to both animals and plants.

Bob Fraley's work in the 1980s laid the foundation for the production and study of genetically engineered organisms.

Breeding techniques have been used for years to modify animal features, but recent biotechnology advancements allow direct DNA alteration.

There are two main types of genetic engineering: fusion of foreign genes to introduce new traits, and removal of genes to eliminate unwanted characteristics.

Machine learning and AI have accelerated genome studies and made drug testing and gene sequencing projects more efficient.

Sophia Genetics uses AI models to prescribe personalized medications for cancer patients and other diseases.

Gene cloning is used to create exact DNA duplicates, which is beneficial for rapid testing of medical treatments like vaccines.

Genetic engineering is used to modify crop plants for increased productivity, nutritional value, and disease resistance.

Vaccines created with gene cloning technology are safe and free from contaminants.

Biofuels can be produced from bioengineered energy crops that grow rapidly and can be converted into various fuel types.

GMO animals are primarily used in scientific experiments to study gene functions and their impact on health and disease.

There are risks associated with genetic engineering, such as potential allergic reactions and the spread of foreign DNA to non-GMO organisms.

Genetically modified animals may have unforeseen genetic deficiencies or diseases, necessitating thorough research and regulation.

The first genetically modified organism created in 1974 was a mouse, marking a significant milestone in genetic engineering.

Transcripts

play00:00

you must have seen some breeds of

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household animals having especially

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shinier fur or strong immunity to

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certain diseases

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you must have heard that golden

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retrievers are one of the most loyal and

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human friendly dogs whereas Samoyeds are

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the ones that have one of the best furs

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according to surveys even life

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expectancy in African countries is

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substantially lower than a North

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American nations what kind of

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characteristics affect these

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fluctuations

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most of these characteristics come from

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the organism's genes or their DNA

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structure to be specific

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what if there was a way to extract these

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desirable qualities from their genes and

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give them to other organisms to spread

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these characteristics

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if a particular animal is at risk of

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blood-related diseases removing the gene

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that forces this vulnerability will help

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remove this problem

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similarly the agriculture industry would

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be much more profitable if we could

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enhance existing crops to reduce their

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unnecessary effects

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all of this is possible using genetic

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engineering so what is genetic

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engineering

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genetic engineering is the process of

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altering a DNA structure by either

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adding or removing genes from it to form

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a newer Gene framework with desirable

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characteristics it can be applied to

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both animals and plants since both are

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living organisms with their own DNA

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structures

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the resultant organism is often called a

play01:25

GMO a genetically modified organism

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the production and study of genetically

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engineered organisms became possible

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after Bob Fraley among others

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transformed plant cells with new DNA

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fragments in the early 1980s humans have

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been modifying creatures through

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breeding for a long time

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over many years breeders have had

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techniques that make for certain animal

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features such as corn cows and even dogs

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but recent developments in biotechnology

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have made it possible for researchers to

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directly alter the DNA of animals plants

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and microbes

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there are usually two variations of

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genetic engineering the first variant

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has the original DNA structure of an

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organism fused with some foreign genes

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to introduce newer characteristics or

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features in the resultant GMO for

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example plant genes are often used with

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certain germicidal cells to facilitate

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long-term growth

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the second type features the removal of

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certain genes from a DNA structure to

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eliminate certain Behavior or

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characteristics that may be unwanted in

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the GMO

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for example removing a particular gene

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or enzyme from a species reduces its

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chances of falling prey to cancerous

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tumors

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with so much investment in digital

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Scientology scientists don't have to

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create thousands of experiments and

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store them physically

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experiments on genome structures are

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further accelerated and easier to mass

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propagate since the Advent of machine

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learning and artificial learning

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organizations like Google's deep variant

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and deep genomics have machine learning

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models to facilitate easier drug tests

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and Gene sequencing projects another

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institution Sophia genetics has made

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progress using AI models to prescribe

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personalized medications for cancer

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patients and other diseases

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scientists have also been able to

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perform gene cloning which is

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essentially the process of creating an

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exact duplicate of Base DNA material

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this is especially helpful in medical

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Fields where gene cloning can accelerate

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the rapid testing of vaccines and serums

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but where does genetic engineering find

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its use in today's world

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1. genetic engineering technology is

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widely used to modify crop plants

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genotypes to increase their productivity

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nutritional value protein content

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resistance to disease and fertilizer

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usage High yielding grain holes and

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vegetable crops can be produced using

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recombinant DNA technology and tissue

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culture techniques two it is possible to

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generate large quantities of important

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medications vaccines enzymes and

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hormones at minimal cost by manipulating

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microorganisms and plant-based materials

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vaccines created with gene cloning

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technology do not possess any

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contaminants and are completely safe

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three

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energy crops were biofuels that produce

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large amounts of biomass that may be

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turned into fuel oils alcohols diesel or

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other petroleum products can now be

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bioengineered to grow rapidly these

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wastes can then be converted into energy

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4. the majority of GMO animals are

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created for use in scientific

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experiments these animals serve as

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models for studying the operation of

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certain genes often concerning how the

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genes affect health and illness however

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some GMO animals like salmon fish are

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created for human consumption

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however there are a few risks associated

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with genetic engineering the likelihood

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of unexpected allergy risks from some

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GMO Foods increases due to genetic

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engineering another worries the

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potential for the genetically altered

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foreign DNA to spread to non-GMO plants

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and animals

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apart from food animals that have been

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genetically modified may have

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unanticipated genetic deficiencies or

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diseases

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research needs to be thorough and well

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moderated before running these

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experiments to avoid loss of life or

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resources in the long run

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so here is a question for you

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which animal was the first genetically

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modified organism created in 1974. one

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Mouse two cat

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three frog

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give the correct answer in reasoning and

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stand a chance to win an Amazon voucher

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Étiquettes Connexes
Genetic EngineeringDNA ManipulationGMO CropsHealth ImpactAgricultureGene CloningBiotechnologyAnimal BreedingPlant ModificationMedical Applications
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