All in Science & Nature

Beyond Traditional Reforestation: Exploring Drone-Based Planting, Sensor-Based Monitoring, and SET Technologies

Capturing carbon from our atmosphere grows to be of extreme importance as “Earth’s temperature has risen by an average of 0.11 degrees Fahrenheit (0.06 degrees Celsius) per decade since 1850, or about 2 degrees Fahrenheit in total” (Lindsey and Dahlman 2024). Carbon and other elements help create a greenhouse effect, which keeps our Earth at a suitable temperature to support life. Currently, more carbon dioxide is in our atmosphere than is considered optimal for maintaining a stable climate. So what can we do about that?

Quantum Computing and Climate Modeling

You may have heard of a unique computer known as a quantum computer. These computers are similar to traditional computers as they both need to be programmed to perform tasks, process information, and perform logical operations such as AND, OR, and NOT. While the two types of computers have some similarities, quantum computers differ in how they compute data, how they are programmed, the hardware and settings that are required to run them, and more. Quantum computers are of great benefit to us globally due to the fact that they can solve complex problems and create accurate predictions that would take a classical computer an exceptionally long time to compute.

From Stardust to Supernova

Imagine a billion-year cosmic dance in which stars are born out of the blackness of interstellar clouds, burn brightly for billions of years, and then meet their dramatic end. The story of stars' evolution is fascinating, revealing the mysteries of creation and destruction on a cosmic scale, from the birthplace of stellar nurseries to the blazing spectacle of supernovae.

A Beginner’s Guide to Theropods, Part 2: Crests, Horns and Sails

The Early Jurassic World was a very uniform one. After the extremes of heat and drought that characterized the Triassic, a brief period of global cooling had reduced their therapsid and croc-line competitors to a handful of small mammals and lizardlike creatures and allowed the formerly restricted dinosaurs to spread throughout the world (Dunne et al). With the continents joined together, there were no major barriers to their dispersal, and so for the first time in dinosaur history, faunas the world over looked much the same (Holtz). Some faunal elements would have been familiar, if rare, parts of a Late Triassic ecosystem: long-tailed pterosaurs in the air, ichthyosaurs and plesiosaurs in the sea, bipedal prosauropods and small coelophysids on land. Others were more novel: elephant-sized sauropods, bipedal and armored ornithischians, and hunting them all, the first truly large (6m+), apex-predator theropods. 

A Beginner’s Guide to Theropods, Part 1: Setting the Scene

Theropods (meat-eating dinosaurs) permeate popular culture. Anyone who’s ever had a passing interest in dinosaurs knows T. rex and Velociraptor. They fill books and movies; they’re perpetual objects of childhood fascination for their size, power, and ferocity. They’re windows into a world lost forever, that we can only ever look dimly into. And, in the form of birds, they’re still around today. In this series, we’ll be looking at the Mesozoic through the eyes of theropods, taking a walk up the tree of life and through time to track the ever-changing Mesozoic world and our changing knowledge of it. We’ll see the roles they played in their ecosystems and look at their evolution and diversity, along with a number of historically important discoveries that helped enrich our view of the Age of Reptiles and the predators that stalked through it.

Light: More Than Meets The Eye

Throughout the tapestry of human history, none has captured our collective imagination more than the profound enigma of light. This luminous entity has been the subject of enduring fascination. With questions as ancient as our existence, we have probed the very essence of light: its composition, its absence, and the way it bathes our world in its glow. 

The Future of Medicine from Nanorobotics

Prepare to enter the realm of science fiction turned reality: a world where tiny machines navigate the human body, revolutionizing the future of medicine. Nanorobotics, a cutting-edge field, holds immense potential for enhancing healthcare. Imagine targeted disease treatments, precise drug delivery, and tissue regeneration beyond our wildest dreams. These minuscule marvels, known as nanorobots, are not fiction; they are the next frontier in medical innovation. As researchers push the boundaries of this technology, personalized treatments, early disease detection, and minimally invasive procedures come within our reach. Step into a future where science fiction becomes science fact, and the possibilities for healthcare are limitless.

A Tale of Two Extinctions: What the Triassic Tells us about Who Lives, Who Dies and Why it Matters Today

About 250 million years ago, the worst mass extinction Earth has ever seen left a gaping hole in ecosystems the world over. The organisms that filled that hole would come to define the world of the Mesozoic and leave fundamental changes in their ecology that still shape the living world today. On land, there was an explosive diversification of reptiles, including among its array of weird wonders the ancestors of modern lizards, turtles, and crocodiles. In the seas, an invasion of new predators and shell-crushers set off an arms race that produced the diverse community of fast-moving fish and heavily-armored invertebrates we see today. And under the feet of the new ruling reptiles, a last gasp of the Permian world would make one of the most significant morphological innovations in mammalian history (Benton et al, Dal Corso et al). Then, after only 50 million years, the world would be wiped clean again, ending a range of Triassic experiments and giving way to the more recognizable world of the Jurassic and Cretaceous. Among the beneficiaries of this new world were the dinosaurs, who started as a small part of an already crowded fauna, but, by the beginning of the Jurassic, had come to dominate a newly-emptied ecosystem, and, with very little serious competition, radiated out into the variety of forms that characterized the later Mesozoic (Dunne et al). But what caused this change, from thriving ecosystems full of evolutionary novelties to barren landscapes monopolized by a small handful of survivors, and what advantage did they have that allowed them to make it through and recolonize this barren world?