Plant-based meat and genetic engineering technology

18

October

2022

5/5 (1)

More attention than ever is directed towards sustainability and climate change nowadays. It is in the news every day and companies are also heavily influenced by it. The younger generation is devoting more attention to it and demanding companies to take more responsibility. They advocate better and more sustainable products and production processes.

There are several emissions sources, such as cars and factories. Another source of emission is livestock. Currently, when looking at emissions numbers, global livestock is responsible for 14.5% of all human-caused emissions. Decreasing emissions is crucial to fight climate change and increasing sustainability. Research has shown that meat generally has a higher carbon footprint compared to plant-based food, thus eating less meat, or even better no meat, and more plant-based food could lead to fewer emissions (Petrovic et al., 2015). Change starts with yourself, so to also be a part of the mission to become more sustainable, an increasing number of people are becoming vegetarian, meaning that they do not eat meat or fish (Minassian, 2022).

To substitute meat, there are an increasing number of alternatives on the market that are marketed as plant-based meat. To reduce global meat consumption, not only vegetarians and vegans need to be targeted, but also consumers who eat meat. According to a Bloomberg Intelligence Report, by 2030, the sales of plant-based food are expected to have five folded (Minassian, 2022). A common remark from consumers who do eat meat is that these alternatives do not taste or feel like meat. Technology is playing a crucial role in fabricating plant-based alternatives that are indistinguishable from actual meat. Especially, genetic engineering technology has immense potential. It can recreate proteins normally found in animal products, such as milk, which creates textures and tastes that resemble real meat. Also, crops can be optimised to be able to use in plant-based meat (IDTechEx, 2021). So, in order to reduce meat consumption these technologies will be essential to get consumers who do eat meat to make the switch to plant-based alternatives and therefore actively participate towards a more sustainable world.

Works Cited

IDTechEx. (2021, July 20). Emerging Technologies Set to Shape the Next Generation of Plant-Based Meat. Retrieved from prnewswire.com: https://www.prnewswire.com/news-releases/emerging-technologies-set-to-shape-the-next-generation-of-plant-based-meat-says-idtechex-814624557.html

Minassian, L. (2022, April 6). Why the Global Rise in Vegan and Plant-Based Eating is No Fad (30x Increase in US Vegans + Other Astounding Vegan Stats). Retrieved from foodrevolution.org: https://foodrevolution.org/blog/vegan-statistics-global/

Zoran Petrovic, V. D. (2015). Meat production and consumption: Environmental consequences Zoran Petrovica,*, Vesna Djordjevica, Dragan Milicevica, Ivan Nastasijevica, Nenad Parunovica aInstitute of Meat Hygiene and Technology, Kacanskog 13, 11000 Belgrade, Serbia Abstract. Procedia Food Science, 235-238.

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3D printing in healthcare

7

October

2022

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Nowadays, customization and personalization are becoming more standard practices in many areas, whether it is in retail or in technology. A technology that enables this in many different facets is 3D printing. 3D printing is an upcoming technology that can be used for multiple purposes. Currently, for businesses, it is enabling them to easily create prototypes of their final product. This is called “rapid prototypingā€¯ (Hoffman, 2020). The 3D printer allows them to quickly adjust the product and implement potential changes.

In several industries such as healthcare, art and automotive industry 3D printing can be used and an increasing number of ways of applying this technique are found. Especially in healthcare 3D printing can have multiple benefits such as customisation and personalisation, increased cost efficiency, enhanced productivity and democratization and collaboration. For surgeries that involve implants or prosthetics, 3D printing will allow for easier customisation as the prototype can be made at a higher speed and adjustments that are needed can be implemented faster, which thus makes the customisation easier. Also, the speed at which these customised parts are made is much higher compared to the current traditional methods. As these surgeries and therefore the customised parts are relatively low volume, the cost of 3D printing is minimal (Ventola, 2014).  

As mentioned above one current use is the personalisation of implants and prosthetics. There are several more and potentially more complicated applications in the healthcare industry. One application of 3D printing is the bio-printing of tissues and organs. Tissue or organ failure is currently treated by organ transplants, but there is a chronic shortage of human organs. Even if a transplant has taken place, it is still unsure how the body reacts to this new organ and if it will not be rejected. Bio-printing with cells from the patient’s body could eliminate this risk of rejection.

In conclusion, bio-printing is a promising technology that could increase the speed of customisation in healthcare as well as a potential solution to the organ shortage.

Bibliography

Hoffman, T. (2020, July 1). 3D Printing: What You Need to Know. Retrieved from pcmag.com: https://www.pcmag.com/news/3d-printing-what-you-need-to-know#:~:text=Designers%20use%203D%20printers%20to,and%20novelty%20items%2C%20and%20toys

Ventola, C. L. (2014). Medical Applications for 3D Printing: Current and Projected Uses. P&T, 704-711.

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