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This Diminutive Reptile Plays Rock-Paper-Scissors
Side-blotched lizards probably don’t call the game that, but they play a version of it anyway. A new study explains the hidden biology that makes this possible.
In 1962, A Geologist Went Into A Cave. 2 Months Later, He’d Accidentally Invented A New Field Of Biology.
No biggie.
New issue: Don't count the calories | BBC Science Focus Magazine
January’s long nights, howling winds and unending drizzle that constitute a British winter all seem to scream: stay indoors, get under a blanket and stay very still. But every year, I reach January and the same conclusion as millions of others: it’s time for change. Christmas is what does it. There’s only so much indulgence the body can take. It starts on the 24th when, if you’re lucky, work’s finished and the fridge is full. Over the next seven days, I’ll feast like a Tudor monarch, picking at carcasses, stabbing at cheese and washing it all down with a bit of port (well, someone’s got to finish it). But by New Year’s Day I’ve had enough. Meaningful, lasting change isn’t easy. The science says so. Sure, a fitness influencer will scream at you until they’re Christmas-ham-pink in the face that losing weight is JUST SIMPLE MATHS: burn more calories than you consume, and you’ll lose weight. But your genes, biology and chemistry don’t work like a calculator. There’s more to it. So we’re here to help you construct bite-sized changes that will add up to significant improvements in your health and wellbeing this year.
Why vitamin C matters especially during cold and flu season
While its reputation is at times dismissed as folklore or the efforts of orange juice marketing campaigns, vitamin C’s benefits are rooted in biology.
AlphaFold Changed Science. After 5 Years, It’s Still Evolving
WIRED spoke with DeepMind’s Pushmeet Kohli about the recent past—and promising future—of the Nobel Prize-winning research project that changed biology and chemistry forever.
AlphaFold Changed Science. After 5 Years, It’s Still Evolving
WIRED spoke with DeepMind’s Pushmeet Kohli about the recent past—and promising future—of the Nobel Prize-winning research project that changed biology and chemistry forever.
Plant science with a twist
Biology and engineering researchers at Washington University in St. Louis have uncovered the mechanism of plants’ twisting roots.
The disunity of science is a feature, not a bug
Mathematical models wield miraculous power, but mistaking them for reality has trapped science in a destructive quest for a “Theory of Everything.” Physicist and philosopher Ragner Fjelland argues that this leads to bloated, Frankenstein theories kept alive by clumsy, ad-hoc amendments, which reduce rather than boost science’s power. Fjelland calls for a radical shift in our attitude: we must reorientate towards creating entirely new theories, celebrating rather than lamenting disunity and diversity in science. Science, from the scientific revolution in the seventeenth century to the present day, has more or less developed in a “reductionist” way. The fundamental assumption is that all sciences may be ordered in a hierarchy that can be represented as an upside-down pyramid. At the top we find the human sciences, and at the bottom physics. Strong (or “ontological”) reductionism maintains that all theories at one level can be completely reduced to the lower level, all the way down to theories of atoms and elementary particles, or whatever is “at the bottom.” In the end, all diversity in the world can be unified in one fundamental theory. Hence it is called a final theory, or a Theory of Everything.One of the central figures in developing the idea of a Theory of Everything is the Dutch theoretical physicist Gerard 't Hooft, who received a Nobel Prize in physics in 1999 for his work. He emphasizes the non-empirical status of the theory:There exists no closely resembling alternative theory. This means that any slight change brought about in the rules would make the theory unlikely or inelegant. The theory will be a "package deal": take it, or leave it. This should hold both for the local laws and for the boundary conditions.This endeavor is not new. On the contrary, it goes all the way back to the birth of Western philosophy 2,500 years ago. The Babylonians made regular astronomical observations during a period of 600 years, from 747 BCE until 150 ACE. They developed mathematical techniques to predict astronomical phenomena, but they made no attempts at explaining them. However, the Greeks developed models, both material and theoretical, to explain the observed phenomena.The best example is Plato’s late dialogue Timaeus. Here he introduces a divine craftsman, the Demiurge, who has constructed the universe according to an original plan. Plato seems to have thought that the original plan is what is actually real, while the material world is merely an imperfect realization of it. He therefore does not, in the Timaeus, reconstruct the material universe, but the original plan, which can then be used to explain the material universe.Plato’s aim in producing a theoretical model is to reconstruct the original plan. That is what he carries out in Timaeus—and some modern physicists have embarked on the same project. For example, Einstein’s basic attitude is reflected in the title of Abraham Pais’ biography: “Subtle is the Lord...,” echoing Einstein’s comment, “Subtle is the Lord, but malicious He is not.” In an interview Einstein compared our situation to a child who enters a huge library. The child knows that someone has written the books, but he does not know the languages in which they are written. He suspects that there is a mysterious order, but he does not know what it is.___“We have all been working in what Husserl called the Galilean style; that is, we have all been making abstract mathematical models of the universe to which at least the physicists give a higher degree of reality than they accord the ordinary world of sensation.”Steven Weinberg, Nobel Prize in Physics (1979)___This Platonist view is contrary to a widespread impression of science, symbolized by the picture of the “father” of modern science, Galileo Galilei, with his telescope. According to this impression, Galileo liberated himself from the dominating metaphysics of his day—basically Aristotelian philosophy—and constructed a telescope that he directed towards the sky, showing that Jupiter has four moons. He also performed experiments with bronze balls rolling down inclined planes and found the law of freely falling bodies.However, in other cases Galileo emphasized the unreliability of our senses. It is easy to see why. He defended Copernicus’ heliocentric hypothesis. According to this hypothesis, we are not at rest at the center of the universe, but moving at a tremendous speed through space. Why don’t we observe this motion? Galileo praises Copernicus because “with reason as his guide he resolutely continued to affirm what sensible experience seemed to contradict.” In other places he directly refers to Plato. SUGGESTED VIEWING The quest for a final theory With Michio Kaku Galileo’s Platonism goes back to his early writings. In The Assayer, published as early as 1623, Galileo compared the universe to a grand book that is written in the language of mathematics, and “its characters are triangles, circles, and other geometric figures without which it is humanly impossible to understand a single word of it.” Therefore, things that cannot be described by mathematics—for example, colors, smells and odors—are not real. They are merely subjective.This division into subjective and objective, advocated by Galileo and his younger contemporary René Descartes, is normally associated with a mechanistic world view, which is regarded as the opposite of Platonism. When we reduce something to, for example, molecules and atoms, we move “downwards.” In contrast, the Platonist moves “upwards,” to abstract entities. However, it only shows that when we address fundamental questions, we should be careful in applying everyday spatial metaphors like “up” and “down.”___Nature is complex, and we cannot in general construct mathematical models that adequately describe the world.___The endeavor of finding a Theory of Everything has been heavily criticized. In 2006, the theoretical physicist Lee Smolin published “The Crisis in Fundamental Physics.” He argued that one of the most fundamental principles of science is that we should only regard theories as scientific if we have the possibility to show that they are false by experiments. Although he did not refer to Karl Popper, other critics have referred to Popper and argued that a theory is not scientific if it cannot be falsified (see for example Ellis & Silk 2014).These were not the first physicists to be anti-reductionists. In 1972, the journal Science published an article by the physicist Philip Anderson with the title “More Is Different.” This is the kind of article a scientist would normally write only after he has won a Nobel Prize. However, Anderson won the Nobel Prize for physics five years later, in 1977. The article is amazing, not primarily because it argues in favor of anti-reductionism in general, but because it argues for anti-reductionism within physics itself. Anderson’s conclusion was:At each stage entirely new laws, concepts, and generalizations are necessary, requiring inspiration and creativity to just as great a degree as in the previous one. Psychology is not applied biology, nor is biology applied chemistry.We may say that Plato started the “unity of science movement,” based on Euclidean geometry as the model of all knowledge. A distinguishing mark of geometry is that all possible constructions can be reduced to a few fundamental principles. We have to acknowledge that this approach has limitations. In general, we can easily model technological systems. In addition, we may construct simplified and idealized models that capture important aspects of systems, from various perspectives and for various purposes. But nature is complex, and we cannot in general construct mathematical models that adequately describe the world. In a complex system, each level has its distinct, emergent, properties that are characteristic of this level. Therefore, a complex system should be investigated at different levels and from different perspectives. Instead of exclusively pursuing a scientific ideal based on the unity of science, we should acknowledge the diversity—or even the disunity—of science.
What scientists are still discovering about mistletoe
New species of the plants are still being discovered, and their parasitic biology is being probed for potential cancer treatments.
This AI finds simple rules where humans see only chaos
A new AI developed at Duke University can uncover simple, readable rules behind extremely complex systems. It studies how systems evolve over time and reduces thousands of variables into compact equations that still capture real behavior. The method works across physics, engineering, climate science, and biology. Researchers say it could help scientists understand systems where traditional equations are missing or too complicated to write down.
Georgia Southern alumnus lives on through posthumous work
The December 2025 issue of "Freshwater Science" will feature a special publication dedicated to the late José Sánchez-Ruiz, a former graduate student from Georgia Southern University's Department of Biology. His research on leaf decomposition in the Ogeechee River will be published posthumously, honoring his legacy.
Transformational Astrophysics And Exoplanet Science With Habitable Worlds Observatory's High Resolution Imager
Habitable Worlds Observatory (HWO) will be NASA's flagship space telescope of the 2040s
The Science Behind Holiday Feasting—and Why It’s Totally Fine
Modern diet culture frames holiday eating as failure, but biology, history, and psychology tell a different story—one where feasting is not a lapse in discipline, but a deeply human ritual tied to survival, memory, and connection.
Small Stories, Big Science at the Smithsonian’s Conservation Biology Institute in 2025
Take a look at some bite-sized stories about our science programs this year.
AI Is Getting Better at Science. OpenAI Is Testing How Far It Can Go
OpenAI’s new FrontierScience benchmark shows AI advancing in physics, chemistry, and biology—and exposes the challenge of testing these systems.
Column | More than 100 scientists told me what kids books inspired their careers
Want to inspire the next generation of scientists? Here are the best books recommended by experts in ecology, biology, entomology and other fields.
The OpenFold Consortium Names Dr. Jan Domanski as Senior Science Lead to Drive the Next Generation of Open Source AI Models for Structural Biology and Drug Discovery
DAVIS, Calif., December 15, 2025--Dr. Domanski embodies the spirit of OpenFold: a deep scientific understanding of proteins with engineering expertise and a builder’s mindset
Teen’s video a ‘Breakthrough’ in science communication
Seventeen-year-old Grace Lee from Chula Vista is gaining national attention as a finalist in the global Breakthrough Junior Challenge, an annual competition that invites students to create original videos explaining complex scientific ideas in creative and engaging ways. Founded in 2015, the contest encourages young people to break down advanced scientific theories using imagination and storytelling— “Steven Spielberg meets Albert Einstein,” as organizers describe it. Lee’s submission centers on the principle of least time in physics, a concept that explains why light always travels the path that takes the least amount of time. To bring the idea to life, she used intricate origami characters and stop-motion animation, along with simple at-home experiments, she said. “The fact that light always travels via the path that takes the least amount of time sounds simple at first, but nature is full of surprises,” she said. “This principle is actually very profound and underlies many different fields in physics that seem completely unrelated, from optics to Newton’s laws to Einstein’s theory of relativity.” Also, origami has long been one of her passions and integrating it into her project felt natural. She often makes origami gifts for friends and teaches origami in her school clubs. “A single 10-second scene would take hours to craft,” she said, noting the mixture of stop-motion and post-production editing required to animate expressions and movement. To ensure the science remained accurate and accessible, she spent time reading books and online resources, writing a script, creating a storyboard, and filming and editing repeatedly until the visuals worked.The experiments were among the biggest challenges. To demonstrate water waves, she used everyday household items — “a spatula and an electric toothbrush to vibrate the waves, glass in a baking pan for different depths, and an iPhone flashlight so the waves would be visible.” She also put careful thought into explaining the principle through analogies, including a gingerbread man and a fox. “Analogies and visuals are incredibly important,” she said. “Visual demonstrations allow viewers to see how the science actually works.” Beyond the competition, Lee is deeply involved in science leadership and advocacy. She serves as International President of miRcore, the world’s largest student computational biology organization, with 136 chapters across five countries. She leads a 20-member executive board, organizes outreach connecting schools worldwide, and has helped run workshops at locations including Scripps Research Institute and the University of Michigan. “I used to be intimidated,” she said, but she gradually grew her skills and confidence. “Now I am no longer afraid to use my voice and enthusiasm to bring out the best in others.” Her research experience includes two peer-reviewed papers on asthma and vaping. Misconceptions around vaping, she said, show why clear science communication matters. “Our research shows that there is long-term harm to your lungs on the cellular level that isn’t obvious unless you come down with an illness like the flu,” she said. Lee also founded Full Hearts at Eastlake High School, transforming the small club into one of the school’s largest, with hands-on service projects in partnership with local nonprofits. She continues mentoring younger students to sustain the mission. If she wins the Breakthrough Junior Challenge, Grace hopes the $100,000 science lab prize for her school will expand opportunities for students who have limited access to equipment and hands-on science outside the classroom.
Turning Passion Into Purpose Through Science and Resilience
A first-generation college student and parent, Tearica Moore is graduating Saturday with a bachelor's degree in biology.
UT Southwestern biochemist to receive O’Donnell Award from TAMEST
Yunsun Nam, Ph.D., Professor of Biochemistry and Biophysics at UT Southwestern Medical Center, will receive the 2026 Edith and Peter O’Donnell Award in Biological Sciences from the Texas Academy of Medicine, Engineering, Science & Technology (TAMEST) for her research into how RNAs and proteins interact at the molecular level. Her work has shed light on gene regulation, cancer biology, and RNA-based therapeutics.
Through Collaboration, 7 Research Teams Aim to Transform Biomedical Science
Collaboration powers scientific discovery. Now 14 accomplished researchers are teaming up to lead such a charge as The Pew Charitable Trusts’ 2025 Innovation Fund investigators. The new class, announced Dec. 9, brings together pairs of leading scientists whose studies span immunology, cancer biology, biophysics, and more. Through their interdisciplinary partnerships, these investigators will explore creative research projects at the forefront of health and medicine.
Weird Science: Citizen science and monkey sweat help NC researcher determine whether current obsession with skincare routines may be doing more harm than good
Dr. Julie Horvath is the head of the Genomics & Microbiology Research Lab at the North Carolina Museum of Natural Sciences and also an Associate Research Professor at North Carolina Central University. She’s studying personal hygiene and its effects on the microbes on our skin – by taking samples from people's arm pits and from the underarms of other primates.
Humans are built for nature not modern life
Human biology evolved for a world of movement, nature, and short bursts of stress—not the constant pressure of modern life. Industrial environments overstimulate our stress systems and erode both health and reproduction. Evidence ranging from global fertility declines to chronic inflammatory diseases shows the toll of this mismatch. Researchers say cultural and environmental redesign, especially nature-focused planning, is essential.
Lessons from the Past: Responsible Science and Astrobiology
In a recent paper, a team of SETI and astrobiology specialists examines four controversial claims about the existence of extraterrestrial life. From these, they present recommendations for scientists and science communicators when addressing future claims of discovery.
Becoming Scientists
Students in Christina Cota’s biology lab get the hands-on experience necessary for ‘doing science’ after they graduate
Why autism should not be treated as a single condition
A better understanding of its biology will lead to better interventions
Gut microbiome-mediated transformation of dietary phytonutrients is associated with health outcomes
Nature Microbiology - Systematic analysis and machine learning coupled with in vitro and in vivo validation link gut microbiome-mediated transformation of dietary phytonutrients to health outcomes.
Exploring Denmark’s Tardigrade Fauna through Citizen Science
In a groundbreaking study that intertwines the realms of citizen science and systematic biology, researchers have successfully unveiled an intricate tapestry of tardigrade fauna residing in Danish cryptogams. Tardigrades, or “water bears,” are microscopic, water-dwelling ani
Biology bird cam delivers entertainment, learning opportunities
University of Wisconsin-Whitewater Department of Biology built a tool with the potential to captivate audiences and support valuable hands-on learning opportunities for students.
Cities put science in the spotlight
When three European cities launch an initiative next year to boost scientific excellence and collaboration, much of the action is likely to take place in public spaces rather than in the laboratory.That is welcome news for Ana Marušić. A medical doctor and professor at the University of Split Medical School in Croatia, Marušić champions close connections between “town and gown” to encourage citizen involvement in research, raise public health awareness and ignite young people’s interest in science. “Responsible research and innovation cannot be done in an ivory tower, answering only the questions that are relevant for scientists,” explains Marušić, who chairs the Department of Research in Biomedicine and Health and leads the Centre for Evidence-based Medicine. “The role of the university is to be a medium for transferring new discoveries in science to society, but also to listen to society about what is important and what is needed.”Three cities united by scienceMarušić’s efforts stand to gain traction through Science Comes to Town (SCTT), a new European project to highlight science’s role in society and strengthen cross-border collaboration in research, innovation and sustainability. With funding from the European Commission, three cities—Split, Brest (in France) and Kiel (in Germany)—plan more than 1,000 public events, workshops and competitions for citizens of all ages, researchers, businesses and policymakers. The year-long project kicks off in Spilt on 20 January with a conference involving partner institutions, community representatives and European policymakers. The three cities may be geographically far apart, but they share much in common. All are located on coasts and are home to top regional research institutions that are part of SCTT. Among the project's partners, the University of Western Brittany in Brest, Kiel University and the University of Split belong to the SEA-EU university alliance, uniting nine European coastal academic institutions to advance research, student exchanges and sustainable development. “These universities have a very strong connection between gown and town,” explains Marušić, who is one of Split’s SCTT ambassadors. “It's very important that these universities are there for the community so that we can learn from each other and grow together.”Tackling Europe’s STEM shortagesSCTT will also reinforce efforts to address Europe’s widening gap in science, technology, engineering and mathematics (STEM) education. Studies show that nearly eight out of ten small- and medium-sized businesses cannot find enough workers with the skills required in advanced computing and artificial intelligence (AI)—hindering initiatives to boost European innovation and competitiveness. In healthcare, the European Commission has estimated a shortfall in medical professionals of 1.2 million, due to fewer young people joining the field and an ageing population that needs more care.Strengthening knowledge and dialogue can also help build trust between scientists and the public at time when disruptive technologies are reshaping research and clinical practice, but are also sparking questions about ethics and accuracy. With experience in the classroom and in clinical epidemiology—a discipline involving monitoring and controlling public health problems—Marušić sees the potential risks of over-reliance on AI and chatbot answers for both research and learning. “AI is a very good tool, but one has to be very critical about it,” she adds. “Delegating brain activities will definitely diminish your neural capacities because you are not developing the circuitry that is important for higher-level cognitive engagement.” She stresses the importance of critical thinking and encourages students to use AI as a researcher’s tool to reinforce rather than supplant human discretion and brainpower.The power of outreachSplit’s experience in bringing scientists and the public together has provided a platform for discussing research ethics and explaining science in simple terms. Local efforts to expand health literacy and awareness have helped reduce cardiovascular disease among women, according to Marušić’s research. The city’s university also hosts events to introduce schoolchildren to science, using hands-on experiments to spark curiosity.Marušić’s own love of science began with an interest in studying molecular biology. “But my parents told me, why don't you study medicine?” she recalls. “I said, OK, why not? And that was the best decision that I made.” Marušić is not a practicing physician, but teaches anatomy and public health. She also co-edits ST-OPEN, an overlay university journal that works on capacity building for research publishing among students and their supervisors. Balancing teaching, research and editorial work, she is a strong advocate for medical studies, urging high school students to consider medicine “because later on it gives you a really wide perspective about human life and about society” as well as many career opportunities.As SCTT prepares to bring science into daily life in 2026, Marušić hopes that it will build permanent bridges between scientists and citizens across Europe. “We can be a showcase for making collaboration with the community stronger to share knowledge, attract young talent and integrate critical and scientific thinking into everyday life,” she explains, adding that "collaborating with businesses to improve cities and communities is also an important aspect of this project."Science|Business, which connects policymakers, academics and industry through its news reporting, analysis and events, is an SCTT partner.
The Sunshine Hormone’s Second Act: Why Science is Rethinking Vitamin D
New research reclassifies Vitamin D from a bone-health nutrient to a systemic steroid hormone, challenging public health guidelines. This deep dive explores the conflict between clinical trials and molecular biology, the potential for cancer and autoimmune prevention, and the future of personalized supplementation based on genetic metabolism.