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When Handsome hunks of their respective fields met ๐Ÿ˜Ž together Yash bae ๐Ÿ˜š Tejasvi Surya sir #ToxicTheMovie #Toxic #YashBoss

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The fascinating concept of Non-Newtonian fluids, which transition from a liquid state to a solid-like state when pressure is applied, has a rich history that spans several centuries. The study and understanding of these peculiar fluids have evolved over time, leading to a wide range of practical applications and scientific insights. One of the earliest references to Non-Newtonian behavior in fluids dates back to the 17th century when Sir Isaac Newton formulated the basic principles of fluid mechanics. Newton's laws of fluid motion primarily applied to Newtonian fluids, which exhibit constant viscosity and flow behavior regardless of the applied force or pressure. However, it soon became apparent that not all fluids behaved in this predictable manner. In the mid-19th century, a scientist named Thomas Andrews made significant contributions to the understanding of Non-Newtonian fluids. Andrews conducted groundbreaking experiments with carbon dioxide, revealing that under high pressure, this gas could transform into a liquid. This observation marked one of the earliest instances of pressure-induced phase changes in fluids. The term "Non-Newtonian" itself was coined in the 20th century to describe fluids that did not adhere to Newton's classical laws of fluid dynamics. These fluids exhibited a variety of behaviors, but one of the most intriguing was their ability to solidify or increase in viscosity when subjected to stress or pressure. One of the most famous examples of such behavior is cornstarch mixed with water, which forms a substance known as "oobleck" that becomes more solid when pressure is applied. In the modern era, Non-Newtonian fluids have found applications in various fields, including food science, engineering, and material science. They are used in products like quicksand, body armor, and even in the development of impact-resistant materials. One of the key insights that emerged from the study of Non-Newtonian fluids is the importance of understanding the relationship between stress and strain, as well as the influence of time-dependent properties on their behavior. This knowledge has led to advancements in rheology, the study of flow and deformation in materials, and has practical implications in areas such as industrial processing, medicine, and the design of everyday products.

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Robots that act like slime! ๐ŸซŸ Cornell University engineers developed a robotic collective that behaves less like a machine and more like a material that flows, reshapes, and adapts without centralized control. It consists of dozens of small robots with limited individual mobility that exhibit coordinated motion when entangled. The system resembles soft matter, continuously deforming and reorganizing as it moves, driven by mechanical intelligence. Each robotic module measures 200mm long and 20mm wide, containing a small motor that oscillates between "I" and "U" shapes. These oscillations generate forces against the ground, allowing modules to inch forward and jostle together. On their own, modules move slowly and inefficiently. When they entangle into chains, they self-organize into shifting configurations that prove resilient in challenging environments. On incline surfaces, chains moved more reliably than individuals. In obstacle fields, the collective behaved like a flowing material, connections formed to maintain cohesion, then broke apart to prevent jamming. The system stays functional even when modules fail. Isolated modules emit an audible distress signal, prompting nearby modules to slow down so the straggler can reconnect. No centralized sensing or control, each module infers when it has lost contact by how much it's being jostled. Read more here: ~~ โ™ป๏ธ Join the weekly robotics newsletter, and never miss any news โ†’

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BREAKING: When todayโ€™s jobs are automated by AI, what will great human work look like? This is the most important question of our time. Introducing Thesis Statements, a new project from Every ๐Ÿชจ bringing together 100 builders and thinkers to call their shot: We asked them to make a specific prediction about what great human work will look like after automation. Today weโ€™re launching the first 25 Thesis Statements from an incredible group including: โ€ข Karri Saarinen โ€ข Chris Pedregal โ€ข Anne-Laure Le Cunff โ€ข Yash Tekriwal โ€ข Alex Komoroske โ€ข Tina He โ€ข Jonny Miller โ€ข Paul Millerd โ€ข sari azout โ€ข Tom Critchlow โ€ข Simone Stolzoff And 14 more amazing builders and thinkers. At Every ๐Ÿชจ we believe there is a bright future for human work after automation. And we believe that thereโ€™s a small group of humans who know what it looks likeโ€”because they live the answers every day. But their ideas are still largely missing from the mainstream discourse about AI. Thatโ€™s why weโ€™re creating a public record of what people at the frontier are seeing now, so we can get these ideas to as many people as possible. Weโ€™ll also revisit them over time, and ask: Which claims held up? Which didnโ€™t? Which became more useful as the technology changedโ€”and which dissolved on contact with the world? Read them, argue with them, share them, and submit your own:

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