For a long time, the discussion about creativity in schools was primarily philosophical, with Ken Robinson giving TED Talks, politicians nodding courteously, and then going back to reading score spreadsheets. However, there has been a recent change in the research community that doesn’t seem to be part of a trend. It seems more like a correction. Now, researchers are posing an almost embarrassingly straightforward question: what does a child truly experience during creative learning?

It turns out that the answers are neither straightforward nor what the majority of adults anticipated.

A major academic journal published a configurative review in 2025 that looked at 112 education studies on creative learning since 2010. The review found that the concept has been understood and applied in remarkably different ways across classrooms and cultures. It’s what the disagreement reveals, not the disagreement itself, that’s interesting. The majority of those studies measured results. Few were recording the child’s inner experience while they were creating.

Researchers are currently working to close this gap, and it is truly fascinating to watch them try. According to neuroscience-informed research, children who participate in music, theater, or visual art are not only expressing themselves but also developing working memory, cognitive flexibility, and attention in ways that were never intended to be measured by standardized tests. Children who learned to play an instrument demonstrated quantifiable gains in executive functioning when compared to a control group, according to one long-term study. Although the researchers were cautious about making too many claims, it was clear from their writing that they were curious.

This picture was further complicated by a recent nationwide survey of 2,000 American parents and their 8–12-year-old children. Particularly because of AI, 73% of parents said they think creativity will be more important for their kids’ futures than it was for earlier generations. Interestingly, children were much less worried about this than their parents. Compared to 35% of parents, only 22% of kids were concerned that AI would reduce their ability to think creatively. That gap contains something instructive. Youngsters who are actually creating seem to have an innate understanding that no machine has yet been able to mimic the experience of creating something with your hands and deciding to keep it.

The final detail is more important than it may seem. According to the survey, 68% of children who create something by hand as opposed to digitally want to display it at home, and 48% want to give it as a gift. They say it becomes real. enduring. significant. This implies that the researchers who were observing classrooms in silence are onto something that productivity metrics and test scores were never able to quantify.

Whether school systems, caught between accountability frameworks and budgetary constraints, can accommodate this type of learning at scale is still up for debate. The history of creativity among policymakers is complex. In speeches, they commemorate it, but when funds become scarce, they covertly reduce arts programs. The contradiction is difficult to ignore. The children are requesting more time to create, the research is mounting, and the responsible adults are still primarily focused on the numbers.

The post Why the Most Thoughtful Education Researchers in America Are Now Studying What Creative Learning Actually Feels Like to a Child appeared first on Creative Learning Guild.

Those bacteria were carefully brought back to life by Yuki Morono and his colleagues at JAMSTEC in the summer of 2020. They were neither dead cells nor preserved fossils. Despite being inactive, they were living things. After being given nutrition in the lab, they woke up and started growing. Nor at a leisurely pace. They flowered, as germs are known to do.

Not only had life endured for so long, but it had done so with so little, which was especially amazing. These microorganisms had been trapped in sediment that had never been exposed to light for entire epochs, entombed beneath the seabed. The oxygen was almost gone. It was almost devoid of energy. Before Tyrannosaurus ever set foot on the ground, the sediment had been deposited.

In a different 2020 study that was published in Communications Biology, other scientists discovered whole bacterial colonies residing inside solid volcanic rock, nestled inside tiny clay-filled fissures. These survivors weren’t solitary individuals. They drew energy from the iron molecules in the clay itself to form stable communities. No sunlight. No sweets. Just chemistry and fortitude.

Even more astounding was the finding of sophisticated creatures—tiny worms and snails—living beneath hydrothermal vents. These organisms, which were previously believed to be limited to the vent holes themselves, were suddenly discovered tunneling through subseafloor spaces, creating vast ecosystems that relied only on chemical energy.

After reading the previous section, I stopped and wondered how many other kinds of life we have overlooked because we have been looking in the wrong place.

This isn’t a random discovery. The consequences are astounding. Not only has life been found in ancient rock and deep ocean mud, but it has also been found in the mineral-rich upper mantle layers. The existence of microorganisms in mantle rocks that were pushed to the surface by tectonic movements was verified by experts in 2015. Amazingly, in total darkness, the hydrogen produced by the reaction of these pebbles with seawater powered microbial activity.

The International Ocean Discovery Program provided scientists with access to one of the planet’s final frontiers by utilizing drilling techniques that had been honed over decades. An important layer of knowledge was provided by Jason Sylvan and his team at Texas A&M, who showed that bacteria that were previously believed to be extinguished are actually active and metabolizing in real time. Despite being only a millimeter in size, one microbe had far-reaching consequences.

What we know about the boundaries of life is essentially broadened by these discoveries. Additionally, they change the parameters for where we ought to look for it. Lava tubes are ancient on Mars. It is thought that beneath its ice exterior, Europa harbors a saltwater ocean. The moon of Saturn, Enceladus, uses cryovolcanic eruptions to shoot organic molecules into space. Why wouldn’t microbial life flourish in the solid rock beneath the oceans on Earth?

Crucially, the microorganisms’ capacity to thrive on inorganic resources like iron or hydrogen instead of organic nutrition reflects the type of metabolic adaptation that scientists anticipate discovering elsewhere in the solar system. Their perseverance is not only remarkable, but also educational.

The notion of a “deep biosphere” was purely theoretical over a century ago. It is now mapped, documented, and still expanding. Once thought to be geologically inert, the deep ocean crust is today understood to be a thriving microbial domain that covers the entire planet.

Researchers are still working to improve techniques for more accurate and in-depth sampling. Deeper understanding of microbial behavior is being made possible by techniques like DNA analysis, isotopic tracing, and methane measurements. A subject of curiosity has developed into a full-fledged scientific frontier.

However, there are restrictions. Scaling up the research is still both technically and financially difficult, and these creatures have not yet been significantly replicated outside of the lab. The notion of the habitable zone of life has, however, been substantially expanded.

The notion that hostile conditions are devoid of life is challenged by every sample that is taken from beneath the ocean floor. Conversely, they appear to act as survival nurseries. Life continues in the face of adversity, time, and darkness.

In addition, it subtly changes our understanding of the origins of life and its potential hiding places.

The post Researchers find earliest known life—deep beneath ocean floor appeared first on Creative Learning Guild.