Mason Dean

[HFSP @HFSP]

The HFSP Science Digest #5 is out! 📖

68 pages, 30 articles exploring frontier life sciences, from the origins of life to the rhythms of aquatic mammals.

Discover the science: https://t.co/Jiy66ViC36

#HFSP #ScienceDigest 🧪 #sts

[HFSP @HFSP]

🧪 Considering an HFSP Research Grant?

Join our webinar on the 2028 call for application guidance and a live Q&A!

📅 17 Nov | Two sessions:
🕘 09:00 CET
🕓 16:00 CET

🔗 Register: https://t.co/XfgZQwi7am

#HFSP #FrontierScience #sts

[HFSP @HFSP]

Your research + one completely different discipline. What are you choosing? 👀
We asked a few scientists and got some interesting answers.
At #HFSP, crossing disciplinary boundaries is part of what makes frontier science possible.
🤝 What's your ideal collaboration?
🧪 #sts

[Development @Dev_journal]

Break to build: fracture as a unifying morphogenetic strategy

Read this Review from our special issue #DevSIextracellular by Daniel Santos-Oliván, @_Priya_R, Alejandro Torres-Sánchez and colleagues.

https://t.co/k9bl2ZEm60

[Nick Volpe @nvolpewild]

Videos of displaced wild Orangutans are literally the saddest videos on earth 😭😡

[Amandine Gillet @Amand_Gillet]

Happy to announce the new version of our #MorphoRegions R package, now allowing to investigate regionalisation patterns on a wider variety of data, including #GeometricMorphometrics! 💻

Check the package website for details:
https://t.co/8jFvvltJo9

@MCZpaleo @Kjonesthebones

[HFSP @HFSP]

Three days of inspiring scientific talks, interdisciplinary discussions and new connections!

Thank you to everyone who made the #HFSPFrontierWorkshop such a great scientific exchange. 🧪

More highlights coming soon! 🙂

#HFSP #InterdisciplinaryScience #Evolution

[HFSP @HFSP]

What happens when researchers from #paleontology, #AI, #mathematics, and evolutionary #biology come together?

New ideas emerge!

A glimpse from the #HFSPFrontierWorkshop in London, where scientists are exploring fresh perspectives on the history of life! 🧪

#HFSP #sts

[HFSP @HFSP]

Some collaborations become publications. Others become lifelong friendships.
Today we're celebrating both. 💙

Happy #InternationalDayofFriendship to our global community! 🌍
Tag a friend you met through #HFSP. 👇

[Anatomical Society @anat_soc]

Kicking off the final day is Dr Zoe Davies exploring the comparative anatomy of movement across two, three and four legs. From #gait analysis to tripedal canine #biomechanics, a fascinating reminder of how anatomy and biomechanics work together to shape locomotion across species.

[EMBO @EMBO]

EMBO news and updates can be found on an alternative platform – Spread the word!

[HFSP @HFSP]

The HFSPO High-Level Science Summit 2026 kicked off Geneva week with an afternoon of inspiring talks and discussions on the future of frontier life science and an interactive coffee break featuring VR, and robotics!
#hfsp #snsf @snsf_ch

[Amaia Cipitria @amaia_cipitria]

We are #hiring, please RT! #Postdoc in the field of #Biotechnology or similar, with expertise in complex #3Dmodels and primary cell cultures, to develop advanced #patient-derived cancer models. More info & apply until 20/07 👉 https://t.co/u5kKgjGBNN
@biogipuzkoa , @Ikerbasque

[Millie Marconi @MillieMarconnni]

A Japanese immunologist spent 20 years proving that the chemicals trees release into the air walk into your bloodstream, hunt down your stress hormones, and arm your immune system in ways no therapist or pharmaceutical has ever matched, and most of the data has been sitting in Japanese medical journals for two decades waiting to be translated.

His name is Qing Li.

He is a clinical professor at Nippon Medical School in Tokyo and the president of the Japanese Society of Forest Medicine. The Japanese government has been funding his research since 2004, and the body of work he has produced is the reason forest bathing is now an officially prescribed clinical therapy in Japan and Korea.

The story actually starts in 1982, when the Japanese Ministry of Agriculture, Forestry and Fisheries coined the term shinrin-yoku to describe the practice of slow, mindful walking in a forest. They did it for a practical reason.

Japan was urbanizing fast, stress-related illness was climbing, and the country had thousands of square kilometers of forest sitting unused. The idea was to give people a reason to walk into the trees... They had no idea what was actually happening to the human body during those walks until Qing Li ran the first proper experiment in 2005.

He took twelve healthy adult men on a three-day, two-night trip to a forest park. They walked for a few hours each day. Nothing strenuous. No prescribed routes or breathing exercises. They simply walked slowly through the trees, breathing the air, looking at the forest.

Li drew blood and urine samples before the trip, on the second day, on the third day, on day seven after returning home, and again on day thirty.

The numbers that came back from the lab were not what anyone expected.

The activity of a specific type of immune cell called the natural killer cell, which is the cell your body uses to hunt down cancer cells and virus-infected cells before they can spread, had jumped by roughly 50 percent during the forest trip. The actual number of natural killer cells circulating in the bloodstream had increased significantly.

Three different anti-cancer proteins that those cells produce, called perforin, granzymes, and granulysin, had all risen sharply. And the effect did not disappear when the men went home. The immune boost was still measurable on day seven and was still partially present on day thirty.

Two hours a day in a forest had upgraded the immune system for a full month.

Li ran the same experiment with women a year later and found nearly identical results. Then he ran it with a control group who took a three-day trip through an urban area with the same amount of walking, the same hotel quality, and the same diet.

The urban group showed no measurable change in natural killer cell activity at all. The forest was doing the work, not the vacation.

The mechanism turned out to be a class of airborne molecules called phytoncides. Trees produce these compounds to defend themselves against insects, bacteria, and fungi. Pine, cedar, oak, and cypress trees release them in particularly large amounts, especially in warmer weather and after rainfall.

When you walk through a forest, you are inhaling those molecules into your lungs and absorbing them through your skin, and once inside your body they appear to directly stimulate the production and activity of the very immune cells Li was measuring in his lab.

Roughly 50 percent of the health benefit of a forest walk, according to Li's data, comes from the chemistry of the air itself. The other half comes from what the forest is doing to your nervous system.

This is where it stops being only about the immune system and starts being about stress.

A separate Japanese research team measured cortisol, the body's main stress hormone, in 84 participants across 35 different forest sites. They drew samples before and after a 30-minute walk in each forest and compared them to control walks in matched urban environments. The cortisol levels of the people who walked in the forest were lower than the cortisol levels of the people who walked in the city by a significant margin. Their heart rates were lower. Their blood pressure was lower.

The activity of their parasympathetic nervous system, which is the part responsible for rest and recovery, had gone up. The activity of their sympathetic nervous system, which is the part that drives fight or flight, had gone down.

Then a researcher at the University of Michigan named MaryCarol Hunter ran the cleanest version of this experiment ever done. She recruited participants from a city and told them to take a nature pill three times a week for eight weeks.

They were free to choose the time, the place, and the duration of the nature experience, as long as it was outside, in daylight, and free of phones, conversations, and aerobic exercise. They sent her saliva samples before and after each session so she could measure cortisol changes accurately and rule out the normal daily drop in stress hormones that happens to everyone.

The result was that participants experienced a 21.3 percent drop in cortisol per hour spent in nature, with the biggest payoff happening between minutes 20 and 30 of the walk.

After that, the cortisol kept dropping, but more slowly. The threshold dose for measurable stress relief was just 20 minutes outside in something that looked and felt like nature.

What none of this means is that nature is a substitute for therapy or for medication when someone genuinely needs them. Therapy treats different things than a walk does, and Li himself has been careful in interviews to call forest bathing a complementary intervention rather than a replacement for clinical care.

But what the research has settled is that the human body has a physiological response to being among trees that operates on the same biological systems modern medicine is trying to reach with drugs and clinical protocols, and that response is fast, measurable, and free.

The strangest part of Li's work is the implication he keeps repeating in interviews. The average person now spends more than 90 percent of their life indoors. Their cortisol stays elevated. Their natural killer cells stay sluggish.

Their parasympathetic nervous system rarely gets a chance to take over. The system that was tuned by millions of years of life under a canopy of trees is being asked to run permanently inside a box made of drywall and screens.

Your body has not forgotten what it is supposed to do in a forest. It is waiting for you to walk into one.

[Massimo @Rainmaker1973]

Did you know spiders have ‘beans’?

They’re actually tarsal pads at the tips of their legs—tiny claw-like structures that help them grip surfaces and climb walls.

[Anatomical Society @anat_soc]

Job opportunity at the University of Aberdeen

[News from Science @NewsfromScience]

In July 2019, a remotely operated vehicle filmed an unusual creature 2 kilometers below the waves near Jarvis Island in the central Pacific Ocean.

Three meters long with pink and gray skin, jaws that can snap outward in a flash, and a comically elongated snout, the animal leisurely glid along the sea floor. Five years later, researchers spotted the same species near Tonga.

Both were goblin sharks, an odd and poorly understood animal that had never been filmed in its deep-sea home.

Learn more: https://t.co/Z0NLw15Ebm

[Schmidt Ocean @SchmidtOcean]

This is a deep-sea isopod. Dr. Johanna Weston, deep-ocean biologist and guest investigator at @WHOI, is confident this is Bathyopsurus nybelini, one of her favorite animals. Learn why via the YouTube caption: https://t.co/yDxWrRjS97

[新村龍也 Tatsuya Shinmura @HS_Shinmura]

Full-text access now available!

My paper on the 3D reconstruction of whale skeletal configuration using stepwise photogrammetry is now freely available via Wiley Article Share.

Read here:
https://t.co/yplV6OlQbU
https://t.co/VaRhwiEjYz

[Cambridge University @Cambridge_Uni]

How can a robot fish help explain the origins of walking? 🤖🐟

Researchers @Cambridge_Eng have built a fish-like robot to study how some fish move on land, shedding light on how early vertebrates may have evolved walking hundreds of millions of years ago.

Find out more: https://t.co/mjfKI6gycI