Tag Archives: biotechnology

Necrobotics: The Fascinating Field of Using Dead Organisms for Robotics

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An exciting new field called necrobotics investigates the possibility of using dead organisms, or biotic materials, as robotic components. The term itself brings up images of both mystery and fear. Even though the idea might seem absurd, it has the potential to produce creative and long-lasting solutions for a range of uses, including archaeology and healthcare.

Harnessing Nature’s Ingenuity

Many organisms have amazing mechanisms that allow them to carry out difficult tasks that nature provided them with. These natural designs, which range from the complex hydraulic systems of spiders to the complex joint structures of insects, provide important insights for the creation of more effective and versatile robots. By integrating biotic materials into robotic systems, necrobotics seeks to capitalize on this natural inventiveness.

Spiders: A Case Study in Necrobotics

Research on spiders has shown great promise for the field of necrobotics. Their hydraulic systems, which consist of valves that can be controlled and chambers filled with fluid, enable them to produce precise movements with amazing strength and dexterity. Using the legs of dead spiders, a Rice University research team successfully created a robotic gripper in 2022. This necrobotic gripper showed remarkable grasping abilities; it could lift weights up to 130% of its own mass and handle small objects.

Beyond Spiders: A Wider Realm of Biotic Materials

Necrobotics is not just about spiders; it includes a wider range of biotic materials, such as insect wings, fish scales, and bird feathers. Every material has special qualities that can be used for certain purposes. For example, insect wings could be used for movement and propulsion, and bird feathers could be used for lightweight, flexible structures.

Potential Applications of Necrobotics

Necrorobotics has a wide range of possible uses in different industries. Necrorobotics has the potential to revolutionize the medical field by creating minimally invasive surgical instruments, precise drug delivery microrobots, and prosthetic limbs that emulate human muscle movement.
Necrorobotics may be used in archaeology to help with the careful excavation of delicate artifacts, enabling archaeologists to handle and preserve priceless historical treasures with little harm. Necrorobotics could be used in environmental remediation to create robots that can clean up and navigate through contaminated areas, thereby eliminating dangerous materials from the environment.

Ethical Considerations and Sustainability

Despite the enormous potential of necrobotics, ethical issues must be addressed and sustainable methods must be followed. Careful regulation of the source of biotic materials used in robotics is necessary to reduce the negative effects on natural ecosystems. To further minimize waste and the environmental impact of necrobotic components, efforts should be made to maximize their longevity and reusability.

Conclusion: A Glimpse into the Future of Robotics

Necrobotics is a new paradigm in robotics that offers a fresh way to create intelligent, effective, and sustainable machines. Necrorobotics holds the potential to transform numerous industries and influence the direction of technology by utilizing the inventiveness of nature. To ensure a responsible and sustainable future for necrobotics, it is crucial to carefully balance scientific innovation with ethical considerations and environmental stewardship as this field continues to evolve.

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Dna data storage

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Over the past 13 years, the volume of online data has skyrocketed, surpassing an astonishing 100 zetabytes (equivalent to 100,000,000 gigabytes). Handling this colossal amount of data poses significant challenges for tech giants like Google. The task is not only financially burdensome but also environmentally unsound, given the substantial power consumption of servers. In 2020 alone, Google’s data center consumed over 15 terawatt-hours, a measure equivalent to burning about 170,000 tons of coal for energy production.

Beyond the immediate concerns of cost and environmental impact, there’s a looming issue with the durability of current data storage methods. As electronic products age, they inevitably wear down, necessitating replacements. Servers, the backbone of our digital infrastructure, are no exception. Looking ahead, the next 50 years will likely demand the replacement of existing servers with more advanced versions. Considering the rapid evolution of technology over the past two decades, the current storage system may not prove universally sustainable for the future.

A potential remedy to these multifaceted challenges lies in the realm of DNA storage. According to the Wyss Institute, a mere gram of DNA possesses the capacity to store an astounding 215 petabytes of data (equivalent to one million gigabytes per petabyte). But how does this innovative solution operate?

DNA, constructed from four nucleotides (adenine, cytosine, guanine, and thymine), aligns with the binary code used by computers. By encoding binary information into a DNA sequence and subsequently synthesizing it, we can harness the unique properties of DNA for data storage. This approach not only conserves space but also eliminates the need for continuous energy consumption for storage maintenance.

Crucially, once data is encoded into DNA, it exhibits remarkable stability. The oldest decoded DNA sequence, dating back 1.65 million years, attests to the enduring nature of this storage medium. Despite these advantages, challenges persist, notably in the time required to encode extensive DNA sequences. However, as with any technological advancement, perfection is not immediate, and refinement over time is essential.

In summary, the escalating demands of online data call for innovative solutions. DNA storage emerges as a promising contender, offering unparalleled capacity, sustainability, and longevity. While challenges persist, ongoing research and development are poised to further enhance the efficiency and practicality of this groundbreaking technology.

charts:

https://cdn.buttercms.com/output=f:webp/ods4p5fQVmXkFeHFP3Zx

https://dnastorage.doc.ic.ac.uk/wp-content/uploads/2023/07/cropped-dna_storage.png

other

https://www.statista.com/statistics/788540/energy-consumption-of-google/#:~:text=Google’s%20energy%20consumption%20has%20increased,12.7%20terawatt%20hours%20in%202019.

https://www.statista.com/statistics/871513/worldwide-data-created/

Save it in DNA

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Food of the Future: Agricultural waste is used for growing synthetic meat.

Reading Time: 3 minutes

Eating meat is a way of life for many people. Meat is considered essential source of protein and contains many other nutrients. But it is also known that the breeding of poultry and cattle is inefficient and requires a huge amount of resources.  Huge areas, water and fodder for livestock are given to pastures. In addition, cattle breeding harms the atmosphere. At the same time, the world’s population is growing relentlessly. Scientists estimate that by 2050 the world’s population will grow from the current 7.7 to 9.7 billion, and by the end of the century it will reach 11 billion people.  Naturally, the issue of feeding a growing population becomes more acute.

That is why marketologists and statisticians predict in the coming years the growth of the market for artificial meat from laboratory, which is gaining fame on the wave of interest in responsible consumption. Startups around the world are creating a new industry, promising salvation for the environment without compromises on taste, composition and quality.

I believe humanity is doomed to abandon natural meat and replacement of animal products is becoming a common practice in modern society. Meat substitutes are created using protein synthesis, which involves combining amino acids to form a new type of protein. Scientists have come a long way in creating realistic substitutes for vegetable and animal protein.  However, the future of meat synthesis is still unknown.

From my perspective, the best way to create realistic meat substitutes is biotechnology. Scientists are learning to synthesize different types of proteins from plants. But there is one problem: the production of a high-quality analogue of meat, which has the same taste and qualities, is now too expensive. But recently, a team of scientists from Singapore and China has made a breakthrough in this area. They have found a way to use food waste to grow meat, reducing production costs and helping to make cultured meat a potential food option for people in the future.

Muscle cells multiply easily and vigorously in nutrient media, but need a wireframe to give them a characteristic shape to become meat. Without it, the meat will most likely resemble a lump of mashed potatoes. Unique wireframes can be created using new 3D printing technology. However, it is difficult and expensive, as it requires the use of food and safe neutral substances. The use of collagen or gelatin destroys the idea of sprouts because they are extracted from the flesh of living organisms, and edible polymers are too expensive. Finding cost-effective edible ink for printing is one of the major challenges in the production of cultured meat.

In search of an alternative, scientists paid attention to agricultural waste in the form of barley and rye husks. Modern technologies make it possible to extract proteins, which, after processing, can be turned into the basis of “ink” for 3D printers and scaled to create the same framework for the growth of muscle tissue.This technology allows more efficient processing of products and significantly reduces the need for animal husbandry.

I believe that this method of printing using such ink has great potential for future meat synthesis. The husk that remains from the grains is not suitable for food and in fact it is thrown away. This is a cheap resource that can be used quite successfully. I believe that the ideal option in the future may be further development in this area, finding new sources that can serve as a framework for growing stem cells. This creates less harm to nature, reduces greenhouse gas emissions, since no animal dies for this food source, which is more ethical. In addition, this type of meat synthesis can help produce meat faster than traditional methods.

In conclusion, the idea of scientists pushed me to another idea: the way to our survival is the reuse and recycling of resources. In any field, whether it is the production of synthetic meat or any other. We are now at a stage of development where we can no longer be mere consumers and only take resources from nature, but must find and use other ways to meet our needs.

https://phys.org/news/2022-12-3d-printing-ink-cultured-meat-cost-effective.html

https://www.impomag.com/training-development/news/22605050/new-3d-printing-ink-could-make-cultured-meat-more-costeffective

Демографические изменения | Организация Объединенных Наций (un.org)

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