OMG science
fromArs Technica
4 days agoResearch roundup: 7 cool science stories we almost missed
Raccoons exhibit flexible problem-solving skills, thriving in human environments by successfully navigating complex puzzles.
During the pandemic, many researchers expressed reluctance to share their ideas for fear of professional repercussions, such as losing credibility or funding. This culture of silence is particularly detrimental in critical situations like a pandemic, where new ideas could save lives.
"Reader-practitioners" would tinker with the various recipes, tweaking them as needed and making personalized notes in the margins. And they left telltale protein traces behind as they did so. The team reported their findings in a paper published in The American Historical Review. It's the first time researchers have used proteomics to analyze Renaissance recipes, enhanced further by in-depth archival research to place the scientific results in the proper historical context.
In antiquity, many opined about "the elements" in combination. Around 2500 years ago, Leucippus and Democritus founded the idea of atoms. Perhaps everything, they opined, was composed of indivisible building blocks. In the late 1700s, hydrogen and oxygen were discovered. Circa 1804, John Dalton revived atomism to explain chemical behavior. Then in 1869, Mendeleev developed the periodic table: organizing the atoms.
The foundation of future Mesopotamian advances in scientific/technological progress was laid by the Sumerians, who first explored the practice of the scientific hypothesis, engaged in technological innovation, created the written word, developed mathematics, astronomy, and astrology, and even fashioned the concept of time itself. Some of the most important inventions of the Sumerians were: the wheel the sail the corbeled arch/true arch irrigation and farming implements maps mathematics time and clocks astronomy and astrology medicinal drugs and surgery
Any object or concept can be represented as a form, a topological surface, and consequently any process can be regarded as a transition from one form to another. If the transition is smooth and continuous, there are well-established mathematical methods for describing it. In nature, however, the evolution of forms usually involves abrupt changes and perplexing divergences, or transformations. Because these transformations represent sudden disruptions of otherwise continuous processes, Rene Thom of the Institut des Hautes Etudes Scientifiques in France termed them elementary catastrophes.
Perhaps the most commonly told myth in all of science is that of the lone genius. The blueprint for it goes something like this. Once upon a time in history, someone with a towering intellect but no formal training wades into a field that's new to them for the first time. Upon considering the field's issues, they immediately see things that no one else has ever seen before.
Recent integrative approaches suggest that physics cannot be adequately characterized by magnitude-based distinctions alone, such as those implied by Big-P, little-p, and mini-p physics. While these categories capture differences in scope and historical impact, they fail to address the heterogeneity of physical activity itself. To remedy this, I propose the Five Fs of physics: force, friction, flux, formulation, and foundational structure.
In terms of making things happen, energy is an indispensable consideration. Systems spontaneously tend towards the lowest-energy state. When a system reaches equilibrium, no further energy can be extracted. That maximum entropy, lowest energy state is the inevitable end-state of the Universe. But until that moment arrives, reactions of all kinds will occur, continuing to liberate energy. In our bodies, chemical bonds break and reform: releasing energy.