Sciworthy Newsletter

“How to keep good gene on, innovations for 2026, a better way to treat canine cancer.”

Views expressed in this science and technology update are those of the reporters and correspondents.

Accesses on 15 January 2026, 1919 UTC.

Content and Source:  “Sciworthy Newsletter-January 2026.”

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Welcome to the Sciworthy newsletter! To ring in the New Year, this month we’re celebrating scientific innovations. Science rarely moves in a straight line. Some discoveries quietly refine what we already know, while others mark true turning points—moments when new data reshape long-held ideas or push technology forward. In this issue, we explore recent findings that could signal such shifts, from breakthroughs in gene therapy to metal-mining plants and fungi-based smart materials.
How to Keep Good Genes On
By Bhargabi Banerjee
2026 is here! And one of the genetic breakthroughs from the past year could lead to a safer future for treating inherited diseases in 2026 and beyond.

Most medical treatments try to fix a problem by directly altering broken genes. But scientists have recently discovered that sometimes genes are perfectly fine. They just get switched off by tiny chemical tags attached to DNA.

Researchers at the University of New South Wales found that these chemical tags, called methyl groups, act like locks that keep genes turned off. For years, scientists debated whether these tags caused genes to shut down or simply appeared after genes were already inactivated. This study confirmed that the tags are actually the cause. When researchers removed them, the genes turned back on. When they added the tags again, the genes switched off.

This discovery marks a step forward because most gene-editing methods work by cutting DNA. Cutting DNA always carries a small risk of causing cancer, which is especially dangerous for treatments meant to last a lifetime. This new method avoids cutting DNA, which makes it much safer.

The researchers hope to use this approach to treat a blood disorder called sickle cell disease, where red blood cells become hard and curved instead of soft and round. These misshapen cells struggle to carry oxygen and move through blood vessels, causing pain and serious health issues.

Before birth, all babies produce a healthy form of blood called fetal hemoglobin. After birth, the gene that produces fetal hemoglobin is switched off, and it’s replaced by adult hemoglobin. In people with sickle cell disease, the adult version doesn’t work properly. By removing the chemical tags that keep the fetal gene switched off, scientists hope to turn it back on in adults, allowing their bodies to make healthy blood cells again.

So far, this method has worked in human cells in the lab. Animal testing will be the next step, before ultimately trying it in humans. If successful, scientists think this breakthrough could help treat many genetic diseases, without the risks that come with cutting DNA.

Innovations for 2026
New life-saving customized gene therapy. An infant patient, designated baby KJ, was born with a potentially fatal genetic disease known as CPS-1 deficiency. People with a deficient CPS-1 gene cannot remove the toxic chemical ammonia from their livers. Scientists at Penn Medicine recently used the DNA-editing technology CRISPR to modify KJ’s genes. After 2 rounds of treatment, they found that KJ’s blood ammonia levels remained stable – a sign that his liver function and metabolism were improving. Read about it here.
Fungi could reshape the next generation of smart materials. What if living fungus could power our electronics, weave our textiles, and reinvent plastic as we know it?  As nature’s recyclers, fungi are among the most versatile organisms. They can colonize many different surfaces, from wood to plastic, and even heal themselves. Scientists from Switzerland recently developed mixtures of living fungal fibers that can act as self-stabilizing emulsifiers, tunable films, and fast-responding smart materials in food, packaging, and electronics. Read about it here.
better way to treat canine cancer. A main cause of death in dogs is cancer, which affects about 1 in 4 dogs worldwide. Despite recent advancements in cancer research, treatment based on a dog’s genetics is still not widely implemented in veterinary care. To address this gap, scientists from Stanford examined canine cancer mutations using DNA data from over 2,000 dogs with confirmed cancer diagnoses. The team found that each canine cancer had a unique genetic signature, which could help veterinarians make more accurate cancer diagnoses and develop better treatments for our canine friends. Read about it here.
Metal-tolerant plants could change the future of mining. Some plants are especially good at extracting metals like copper, lead, and nickel from the soil and storing them in their roots and leaves. Scientists hope to use these plants to “mine” metals that are important for the economy, a concept called phytomining. However, researchers don’t fully understand how these plants tolerate such high concentrations of metals. A team of researchers from France and the Netherlands described a plant that can accumulate high concentrations of nickel while experiencing only mild stress. Read about it here.
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Sciworthy Newsletter

“Most read articles of 2025:  From geothermal energy and wildfires to dying stars and Earth’s oldest animals.”

Views expressed in this science and technology update are those of the reporters and correspondents.

Accessed on 18 December 2025, 0220 UTC.

Content and Source:  “Sciworthy Newsletter:  Most read articles of 2025.”

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Welcome to the Sciworthy newsletter! This month, we’re taking a look back at our most popular articles of 2025. From geothermal energy and wildfires to dying stars and Earth’s oldest animals, these articles offer something for every science lover!
Most Read Articles of 2025
Photo by Matt Palmer on Unsplash
A new way to find geothermal energy. For hundreds of years, humans have drilled for oil and used it as a source of energy to heat our houses and light our streets. Now, scientists are looking to transition to more renewable energy sources. One such source is geothermal energy, which uses heat from the Earth to make steam that turns turbines and generates electricity. To aid in the transition to renewable geothermal energy, researchers from Utah State University have adapted technology originally developed by the oil industry. Read about it here.
"Artist’s impression of two white dwarf stars destined to merge and create a Type Ia supernova" by ESO is licensed under CC BY 2.0
Dying stars create new elements. Marvel movie and comic book fans may be familiar with the story of Thor’s hammer, Mjolnir, which was forged with metal from the heart of a dying star. While no one will be granted the powers of the god of thunder anytime soon, some of the heavy metals around us may have come from long-dead stars. Researchers found that the outer layers of white dwarfs, which get thrown off when they collapse, initially form light elements, but later become neutron-rich and form heavier elements. Read about it here.
"Chengjiang Fossil Site" by xiquinhosilva is licensed under CC BY 2.0
A treasure trove of Cambrian fossils. The history of all animal life, including humans, began 540 million years ago in the Cambrian period. The earliest animals didn’t have skeletons, so paleontologists studying this period rely heavily on rare fossils that preserve organs and other soft internal body structures to learn about these ancient creatures. Researchers from Yunnan University and Oxford University discovered exceptionally well-preserved fossils from a previously overlooked group of Cambrian rocks in China. These fossils include a new subset of deep-water animals and reveal insights into the earliest forms of animal life. Read about it here.
Aerogel by lintmachine is licensed under CC BY-NC-SA 2.0
Aerogels for oil spills. When thick oil from tanker or pipeline accidents spreads across the ocean, cleaning it up often creates more waste than it removes. Traditional synthetic tools like polypropylene pads and oil-dispersants are made from chemicals that are toxic and slow to break down. To offer a greener alternative, scientists at the National University of Singapore created a strong, highly porous solid that can clean up oil spills using sustainable and reusable materials. Read about it here, or watch the video here.
Forest fire. Photo by Matt Howard on Unsplash
How quickly can forests recover from wildfires? Wildfires kill vegetation and release greenhouse gases like carbon dioxide into the atmosphere. Scientists in the past found that regrowth of this vegetation can recapture as much as 80% of the carbon dioxide on a regional scale. They’ve studied post-fire recovery periods and what factors affect local regrowth, but they haven’t yet assessed these on a global scale. Researchers from China and Sweden recently modeled worldwide forest productivity before and after wildfires. They found that plant regrowth depended on the type of biome and how much water was available. Read about it here.
Support Us
This giving season, consider supporting free, objective science news! Sciworthy is an initiative of the 501(c)(3) non-profit organization Blue Marble Space. We don’t do advertising, sponsored content, or other online monetization strategies because we don’t think advertisers should drive the discussion. That means we rely on generous donors like you to help us maintain our website, support our writers, and develop our online courses. You can make a one-time donation, set up a recurring donation, or become a Patreon supporter. Even $5 per month can make a difference. Donate now to support impartial science news!
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Sciworthy Newsletter

“The Fall Equinox, From microbes to Mars, Exoplanets with extreme seasons might be more habitable.”

Views expressed in this science, space, and technology update are those of the reporters and correspondents.  Accessed on 10 September 2025, 2028 UTC.

Content and Source:  “Sciworthy Newsletter.”

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Welcome to the Sciworthy newsletter! September is often referred to as the “season of change.” In the northern hemisphere, the end of September marks the beginning of fall, when leaves begin to turn, days shorten, and ecosystems respond. From microbes preparing for winter to orbital effects on exoplanet habitability, this month we’re highlighting seasonal transformations in nature!
The Fall Equinox
On September 22, Earth will experience 12 hours of daylight and 12 hours of night. In the northern hemisphere, this event marks the official beginning of the autumn season: the fall or autumnal equinox. This event, along with all other seasonal transitions, occurs because Earth has a tilted axis of rotation, shown in red in the image below.

During the year, the Sun appears to move along a path in the sky known as the ecliptic. The Earth’s equator, or its sky equivalent called the celestial equator, is offset from the ecliptic by 23.5°. This means that for 6 months, either the northern or southern hemisphere faces towards the Sun while the other hemisphere faces away from it, then they switch for 6 months. The equinoxes mark the times when Earth’s orientation switches.

One way we know the Earth is round is that objects of the same height at different distances north or south of the equator will cast shadows of different lengths at noon on the equinox. And the angles of each shadow will be exactly equal to the latitude of the objects casting them!

Meet the Team

Maria Calderon-Marrero is a senior at Cornell University majoring in Biology with a concentration in Microbiology and minoring in Earth and Atmospheric Sciences. As a Ronald E. McNair Scholar, she is preparing for a Ph.D. in microbial astrobiology, with a focus on how life might survive, and leave traces, on planets like Mars or ocean worlds such as Europa.

She conducts research in the Muñoz-Saez Group at Cornell University, studying microbes in the silica-rich hot springs of El Tatio, Chile, an environment that closely resembles ancient Mars. Her work investigates how biosignatures are preserved in extreme conditions to help guide future space missions. She has also contributed to research on Antarctic extremophiles and lipid biomarkers in Mars analog environments.

Maria is passionate about making science engaging and inclusive. She hopes to use astrobiology to spark curiosity and inspire students from all backgrounds, especially those historically underrepresented in STEM. Outside the lab, she enjoys nature, crafting, and exploring sci-fi and fantasy worlds through books, video games, and shows.

Maria is joining us from the Blue Marble Space Institute of Science‘s Young Scientist Program. She is developing a project with Sciworthy to communicate astrobiology through videos.

Read Maria’s article about how hot spring rocks could help find life on Mars here.
From Microbes to Mars and Beyond

How do microbes prepare for winter? As the Earth continues its journey around the Sun, the animals and plants of the northern hemisphere are preparing for the coming winter. Humans rely on calendars to keep track of the seasons, while other organisms use changes in the weather and the amount of daylight to signal when winter is approaching. But how do microbes prepare for winter? Researchers discovered that when some bacteria sense shorter days, they boost their cell walls with extra fats to survive the freezing temperatures. Read about it here.

Seasonal frost forms on Mars. Water is essential for life, so when researchers want to explore another planet, they first locate its water resources. Astrobiologists are particularly interested in Mars due to its evidence of past water, which could have enabled life. Since the surface of Mars is cold and dry today, they want to know where that past water went. Scientists recently discovered seasonal frost accumulations on Martian volcanoes that formed from water vapor in the atmosphere. Read about it here.

Exoplanet (Illustration) (2019-29-4503-Image) from ESA/Hubble is licensed under CC BY 4.0

Exoplanets with extreme seasons might be more habitable. Earth’s relative distance to the Sun month-to-month doesn’t influence the climate much because its orbit is close to a perfect circle, as described above. But exoplanets with non-circular orbits could experience extreme seasonal changes. Astronomers have shown that these exoplanets with weird orbits could actually be more habitable than planets with circular orbits. Somewhere in the Galaxy, alien microbes could be enjoying a scorching, irradiated summer and a subzero, icy winter. Read about it here.

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