Jasper Sturtewagen’s Post

this article exploring how combining artificial intelligence (AI) and biotechnology, particularly gene editing and machine learning, was insightful about the significant advancements in fields like medicine and agriculture. Also, highlighting the importance of policymakers implementing regulations to address potential risks, such as unintended consequences and ethical concerns, associated with these technologies. #learnings #updates

The convergence of biotechnology and artificial intelligence (AI) is changing the game in science and industry. One of the most significant advancements is CRISPR and cell/gene editing technology. This tool is revolutionizing how businesses across various sectors approach innovation and problem-solving, from pharmaceuticals to agriculture and biotech. For executives looking to drive their companies forward, understanding the potential and applications of CRISPR is crucial. Are you ready to embrace this groundbreaking technology and take your business to the next level? #CRISPR #biotechnology #AI #innovation #businessgrowth https://lnkd.in/gAZtGAUH

#DNA Modification Using CRISPR/Cas9 Becomes Accessible The modern stage of genetic engineering is curious in many ways, but the most interesting is that even today, almost everyone can access CRISPR/Cas9 kits to create their own genetically modified organism. Their price is around $100 now in specialised shops. Not for modifying ourselves, right? Yet. But modifying bacteria is interesting, too. CRISPR/Cas9 technology utilises short RNA strands that can be artificially synthesised to match specific genome regions, connected with Cas9 proteins that cut DNA at this point, enabling a specific genetic sequence to be inserted there via genetic recombination. Therefore, a kit contains the CRISPR/Cas9 complex, plus the gene that should be inserted. While early experiments with microorganism modification were usually limited by making them glow, nowadays genetically modified bacteria can produce chemical substances, recycle waste, break toxic substances, improve agricultural production, and potentially do many other things. All these applications aren’t used widely yet, but their time is coming, as more and more biotech startups arise. It means it’s the right time to realise your idea with modified living organisms. With all these advancements, the entry-level in the #biotech business is now lower than ever, while continuing to fall. You can not only develop your genetic engineering idea, such as creating waste-cleaning bacteria, but verify it with minimal investments. And that’s where valuable products can be born. Connect with #Atlantix to turn your ideas into stable and profitable businesses, moving from concepts to patented products that change everything! #science #biology

🧬 Did you know plants can be edited like paper with a Scissors? Imagine you cutting out a piece of paper to make a perfect shape. You carefully trim away the parts you don’t need and add the pieces you do. That’s exactly how gene editing works—but instead of paper, we’re working with the DNA of living things such as plants. With gene editing, scientists can “snip” specific parts of a plant’s genes and improve traits like resistance to diseases and better nutrition. It’s precise, fast, and has the power to contribute towards food challenges globally. Gene editing is like giving nature a helping hand to do what it already does—but better, showing the power of technology Any new technology in you field you would like to share? Day 9/21 #Elevateyourprofessionalexperiencewith_Amaka Amaka Ifeduba, Ph.D.

I’m learning Genomics with The Knowledge Society (TKS), and I’ll be sharing it all on here as well as my blog which you can find in my profile. There are so many applications for genomics in several industries. I want to get into a couple of them. One example that I have briefly mentioned that uses genomics is healthcare. If you are going to have a disease in your lifetime, then it will show up in your genome in the form of a mutated gene. When mapping out the human genome of someone, identifying where the mutation takes place can allow doctors to target it more precisely with personalized medicine. Another example is in the agriculture industry with GMO’s (genetically modified organisms) using technologies like CRISPR that utilizes the CAS-9. CAS-9 is deployed when there is a virus in your system. It finds the virus’ genetic code and cuts it off before it can grow or replicate. CRISPR uses CAS-9 to target any genetic code scientists want to replace. Once the genetic code is cut off, scientists can insert a new code to be connected into the system. These can work to give specific traits and advantages. There are already foods, like corn for example, that have a gene which allows the plant to produce pesticides to kill bugs rather than farmers spraying pesticides. While the pesticides are lethal to bugs, they are actually harmless to humans. This technology connects back to healthcare. There could be a time where we take mutated genes in humans that can activate disease and replace them with a different gene. Scientists looking into the far future are thinking of using this technology to create “designer babies”. The idea is to edit and replace these genes while the growth is happening in the embryo. But that’s very far into the future. CRISPR and gene editing, thanks to genomics, are making there way into our lives quietly but with big impact. It’ll be interesting to see what the future looks like in this field!

HUMANS CAN LIVE FOREVER? Some school of thought believe we die because of genetic errors. If these errors can all be corrected through genetic engineering, human will live forever. The idea that genetic errors are the primary cause of death is an oversimplification. While genetic mutations can contribute to various health issues and diseases, they're not the sole reason for mortality. Our lifespan is influenced by a complex interplay of genetic, environmental, and lifestyle factors ¹. Genetic engineering, however, holds promise for treating and preventing certain diseases caused by genetic mutations. By modifying an organism's genotype using recombinant DNA technology, scientists can introduce desirable traits and potentially eliminate harmful ones ². This technique has already led to breakthroughs in medicine, agriculture, and industry. *Genetic Engineering Applications:* - *Medicine:* Producing insulin, growth hormones, and vaccines - *Agriculture:* Developing disease-resistant crops and livestock - *Industry:* Creating biofuels and biodegradable materials However, the notion of "living forever" through genetic engineering is still in the realm of science fiction. While gene therapy and editing technologies like CRISPR show immense potential, they're not yet capable of completely halting the aging process or preventing all diseases. *Challenges and Limitations:* - *Complexity of Human Biology:* Multiple factors contribute to aging and disease - *Ethical Concerns:* Gene editing raises questions about safety, consent, and accessibility - *Unintended Consequences:* Altering genes can have unforeseen effects on human health and ecosystems In summary, genetic errors are just one piece of the mortality puzzle. While genetic engineering offers hope for improving human health, it's not a magic bullet for achieving immortality. Further research and responsible application of these technologies are necessary to fully harness their potential ¹ ²

AI & CRISPR: A Biotech Revolution! 🧬 Exciting times ahead in biotechnology! Scientists are now harnessing the power of Artificial Intelligence (AI) to craft novel proteins that could tackle major global challenges like reducing greenhouse gases and innovating new materials. Alongside, CRISPR technology is making precise edits in genes, pushing the boundaries of genetic engineering further than ever before. 🔬 This synergy of AI and gene editing holds transformative potential for the future of biotechnology. Imagine bioengineered crops that can thrive in arid conditions or new enzymes that can break down plastics! ⚠️ But, as promising as it sounds, this technology is still budding and not without risks. The complexity of biological systems means there’s a chance of unforeseen consequences. 💭 What's your take on this revolutionary blend of AI and gene editing? Are the benefits worth the risks? Drop your thoughts below! 👇 #AI #GeneEditing #Biotechnology #Innovation #FutureOfScience #CRISPR #ArtificialIntelligence #ScienceDiscussion #EcoSolutions #MaterialScience

Genetic engineering is a transformative biotechnological field that involves manipulating the genetic material of organisms to achieve desired traits or characteristics. Through techniques like gene editing, scientists can insert, delete, or modify specific genes within an organism's genome, enabling precise control over its genetic makeup. This technology holds immense promise across various domains, including agriculture, medicine, and biotechnology. In agriculture, genetically engineered crops can be engineered for increased yield, pest resistance, or tolerance to environmental stressors, offering potential solutions to global food security challenges. In medicine, genetic engineering holds the promise of personalized treatments, where therapies can be tailored to an individual's genetic profile, leading to more effective and targeted interventions for diseases like cancer and genetic disorders. Additionally, genetic engineering has paved the way for the production of valuable biopharmaceuticals, such as insulin and vaccines, through the use of genetically modified organisms. However, genetic engineering also raises ethical, social, and environmental concerns, including the potential for unintended consequences, genetic discrimination, and the impact on biodiversity. As the technology continues to advance, ongoing dialogue and regulation are essential to ensure responsible and ethical use while harnessing its full potential for the benefit of humanity. #snsinstitutions #snsdesignthinkers #designthinking

IS IMMORTALITY POSSIBLE WITH ADVANCEMENTS IN GENETICS ENGINEERING TO CORRECT ERRORS IN OUR GENES? The idea that genetic errors are the primary cause of death is an oversimplification. While genetic mutations can contribute to various health issues and diseases, they're not the sole reason for mortality. Our lifespan is influenced by a complex interplay of genetic, environmental, and lifestyle factors ¹. Genetic engineering, however, holds promise for treating and preventing certain diseases caused by genetic mutations. By modifying an organism's genotype using recombinant DNA technology, scientists can introduce desirable traits and potentially eliminate harmful ones ². This technique has already led to breakthroughs in medicine, agriculture, and industry. *Genetic Engineering Applications:* - *Medicine:* Producing insulin, growth hormones, and vaccines - *Agriculture:* Developing disease-resistant crops and livestock - *Industry:* Creating biofuels and biodegradable materials However, the notion of "living forever" through genetic engineering is still in the realm of science fiction. While gene therapy and editing technologies like CRISPR show immense potential, they're not yet capable of completely halting the aging process or preventing all diseases. *Challenges and Limitations:* - *Complexity of Human Biology:* Multiple factors contribute to aging and disease - *Ethical Concerns:* Gene editing raises questions about safety, consent, and accessibility - *Unintended Consequences:* Altering genes can have unforeseen effects on human health and ecosystems In summary, genetic errors are just one piece of the mortality puzzle. While genetic engineering offers hope for improving human health, it's not a magic bullet for achieving immortality. Further research and responsible application of these technologies are necessary to fully harness their potential ¹ ².