https://www.facebook.com/675548178981949/

Dr. Pox's Medical Mysteries, Boise, ID (2026)

10/28/2026

🩺🕰️ Dr. Pox’s Medical Mysteries — This Day in History 10/28

On this day in history, science and medicine took some fascinating — and sometimes unsettling — turns.

From groundbreaking discoveries to bizarre experiments and forgotten firsts, today’s date holds more medical mystery than you might expect.

Swipe through time, question what we thought we knew, and remember — today’s “routine medicine” was once unimaginable.

🧪 Stay curious.
🦠 Stay skeptical.
🕯️ History is watching.

, , , , ,

10/28/2026

🧠✨ The Trepanation Renaissance: When Drilling Your Own Skull Was a "Health Trend"
In the 1970s, a bizarre and dangerous movement gained traction among a small fringe of counterculture thinkers and artists in Europe and the U.S.—self-trepanation. That’s right: people were drilling holes into their own skulls in an effort to expand consciousness, boost brain blood flow, and achieve a “permanent high.” Here's how this disturbing medical mystery unfolded:

🔍 1. Trepanation is one of the oldest surgical practices in human history.
Archaeologists have discovered skulls dating back thousands of years with clean, round holes bored into them. Ancient civilizations in Peru, Greece, and North Africa used trepanation to supposedly treat epilepsy, migraines, mental illness, or "release evil spirits."

🛠️ 2. The modern trepanation revival was started by a Dutchman named Bart Hughes.
In 1962, Hughes—who studied medicine but never received his degree—believed that trepanation would increase “brainbloodvolume” and restore childlike consciousness. He claimed the skull’s closure in early childhood reduced cerebral circulation, and the only fix was to reopen it.

📘 3. Hughes published a manifesto called The Mechanism of Brainbloodvolume in 1965.
This dense, pseudoscientific treatise claimed trepanation could permanently expand consciousness. Despite widespread dismissal from the scientific community, it influenced others—especially in the psychedelic subculture.

🧽 4. His girlfriend, Amanda Feilding, became the face of the movement.
In 1970, Amanda Feilding famously performed trepanation on herself using a dentist’s drill while filming the process. Blood runs down her face in the documentary she titled Heartbeat in the Brain. She even ran for British Parliament on a platform of "Trepanation for the National Health."

🪞 5. Some followers believed trepanation would replace drugs.
Feilding and Huges argued that the practice could induce a "natural high," replacing L*D or psilocybin. They also claimed it could treat depression and improve creativity, despite no clinical evidence supporting any of these claims.

🧠 6. Scientists strongly warned against the practice.
The medical consensus is clear: self-trepanation is extremely dangerous, with risks including brain injury, hemorrhage, infection, and death. No peer-reviewed research has ever shown benefits to the procedure in healthy individuals.

🎥 7. Trepanation was featured in fringe documentaries and art.
The 2004 documentary A Hole in the Head features interviews with self-trepanation advocates, showcasing just how far belief in this pseudoscience had spread.

⚖️ 8. It remains illegal in most places.
Performing trepanation without a medical license is considered assault or reckless endangerment in many countries. Several practitioners were investigated or banned after performing the procedure on others.

🗣️ 9. Despite the risks, a few still advocate for it.
Amanda Feilding now runs the Beckley Foundation, which focuses on psychedelic research—but she still supports the idea of trepanation, albeit less publicly.

🚨 10. Trepanation is a powerful reminder of how far fringe health trends can go.
When science is ignored and belief runs wild, people can be convinced to take extreme—and irreversible—actions on their own bodies in the name of enlightenment.

🩺 Would YOU ever consider drilling into your skull to "unlock your brain"?
Sound off in the comments below and tag a friend who loves bizarre medical history! 💬👇

10/27/2026

🕺💀 The Dancing Plague of 1518: When Dance Turned Deadly
In July of 1518, something truly bizarre struck the streets of Strasbourg, a city in what is now France. It began with a single woman, and by the end, dozens lay dead — victims of their own bodies. They weren’t poisoned, stabbed, or shot…
They danced themselves to death.

Here are 10 verified facts about one of the most disturbing and unexplained events in medical history:

1️⃣ One woman started it all — and she couldn’t stop.
Frau Troffea walked into the street and began dancing. She wasn’t performing or celebrating — she was frantic. Her movements were jerky and involuntary. Witnesses said she danced for nearly six days straight, collapsing only to sleep before getting up again. Her face showed fear, not joy.

2️⃣ By the end of the week, the streets were packed with dancers.
Within days, dozens had joined her. Men, women, even children. Their feet bled. They screamed in pain. But something forced them to keep moving. They couldn’t explain why — and neither could the horrified crowd that gathered to watch.

3️⃣ People danced until their hearts gave out.
Historical accounts report deaths from exhaustion, heart failure, and strokes. Some collapsed mid-spin, never to rise again. It’s estimated that as many as 15 people were dying each day at the peak of the outbreak.

4️⃣ The city tried to fix it... with more dancing.
Authorities believed the dancers needed to purge themselves of “excess heat in the blood.” So they cleared a town square, hired musicians, and even built a stage — hoping to speed up the cure. Instead, the music only drove more to join in the frenzy.

5️⃣ Scientists still argue about what caused it.
No theory has been universally accepted. Some say it was ergot poisoning — a hallucinogenic mold found on rye bread. Others point to mass psychogenic illness, triggered by fear, stress, and religious fervor. Some even suggest it was a form of epilepsy or autoimmune disorder. No one knows for sure.

6️⃣ This wasn’t the first time Europe had danced itself sick.
Outbreaks of “dancing mania” had been reported in earlier centuries — as far back as 1374 in Aachen. But none were as large, long-lasting, or deadly as Strasbourg’s 1518 epidemic.

7️⃣ Dancers begged for help — but their bodies didn’t listen.
Eyewitnesses said many of the afflicted were fully aware of what was happening. They cried, screamed, and collapsed from pain. Some broke ribs or shattered bones — only to rise again, as if possessed.

8️⃣ Doctors blamed the stars.
One theory at the time was that a cosmic alignment — specifically Mars and Venus in a “fiery trine” — had overheated people’s blood. Others thought it was a punishment from Saint Vitus, the patron saint of dancers and epilepsy sufferers.

9️⃣ A pilgrimage finally brought it to an end.
After months of horror, survivors were taken to a shrine dedicated to St. Vitus. There, priests placed ceremonial red shoes on the dancers, and performed rites to banish the affliction. Only then did the outbreak fade.

🔟 500+ years later, we still don’t know what truly happened.
The Dancing Plague remains one of the most chilling and baffling events in medical history. It’s a reminder of how little we sometimes understand about the mind, the body — and mass human behavior.

💬 What would you do if hundreds around you started dancing uncontrollably? Would you join in — or run like hell? Let us know in the comments!

🔁 Share this with your fellow weird history fans. Because nothing says “Monday” like a plague that turns your feet into a death sentence.

🧪

10/26/2026

🖖 FAREWELL, ENSIGN CHEKOV — WALTER KOENIG (1936–2026) 🌌

Today, the stars shine a little less brightly.

We say goodbye to Walter Koenig, the beloved actor who brought Ensign Pavel Chekov to life aboard the USS Enterprise in the original Star Trek television series.

Walter passed away at the age of 90, leaving behind an extraordinary legacy spanning more than six decades in entertainment.

When Koenig joined Star Trek in 1967, he became part of something much greater than a television show. As the young, enthusiastic Russian navigator of the Enterprise, Chekov represented a hopeful future in which humanity had moved beyond the divisions of the Cold War to explore the universe together.

With his unmistakable charm, humor, and memorable performances, Walter helped make Chekov one of science fiction’s most beloved characters.

He would return to the role throughout the original Star Trek films, becoming a familiar face to generations of fans. His remarkable career also included portraying the sinister Alfred Bester in Babylon 5, demonstrating his tremendous range as an actor.

But beyond the television screen, Walter was known for his kindness toward fans, his dedication to his craft, and his lifelong connection to the Star Trek community.

For nearly sixty years, he helped inspire us to imagine a better tomorrow, to embrace exploration, and to believe that humanity’s greatest adventures still lie ahead.

The Enterprise has lost another treasured member of her crew, but his place among the stars is eternal.

Thank you, Walter, for the laughter, the memories, and the countless adventures.

May your final voyage be peaceful.

Rest in peace, Walter Koenig. September 14, 1936 – October 2026. 🖖

“Second star to the right, and straight on till morning.” ⭐

What is your favorite Chekov moment from Star Trek? Share your memories below as we celebrate the life of this science fiction legend.

10/26/2026

The Frog Pregnancy Test
Before modern labs, a frog could tell you if you were pregnant. Seriously.

From the 1930s to the 1960s, doctors used African clawed frogs as live pregnancy tests. The results were surprisingly accurate—and very, very weird.

Here are 10 ribbiting facts about this surreal chapter in medical history:

🧪 No P*e Stick? No Problem: The test involved injecting a woman’s urine into the frog. If the frog laid eggs within 12 hours, the result was positive.

🐸 The Hero Frog: The species used was Xenopus laevis, known for laying eggs in response to human chorionic gonadotropin (hCG)—a hormone found in pregnant women.

💡 Discovered in South Africa: This test was created by Lancelot Hogben, a British scientist in South Africa. His work revolutionized early pregnancy diagnostics.

🧬 More Reliable Than You'd Think: These frog tests were more accurate than many early lab-based tests, and became a staple across hospitals.

🚚 Frogs Shipped Worldwide: Hospitals around the world kept tanks of frogs in labs. The U.K. alone imported over 50,000 frogs a year for pregnancy testing.

⏰ 12-Hour Results: The frog laid eggs? You're pregnant. No eggs? You're not. It was fast, reusable, and fairly low-cost for the time.

⚠️ Unintended Consequence: These frogs became vectors for chytrid fungus, an invasive disease that devastated amphibian populations globally.

📉 Decline in the 60s: As chemical immunoassays improved, the frog test was phased out. But for decades, it was standard practice.

🐾 They’re Still Around: Retired test frogs often ended up in aquariums or labs. Some populations still survive as invasive species.

😳 Real Human Impact: Thousands of women learned about their pregnancies through a frog in a jar—a deeply personal moment made weirdly scientific.

Would you trust a frog to diagnose you? 🐸💦 Drop a comment below!

🧪🐸👶🧬

10/26/2026

🩺🕰️ Dr. Pox’s Medical Mysteries — This Day in History 10/26

On this day in history, science and medicine took some fascinating — and sometimes unsettling — turns.

From groundbreaking discoveries to bizarre experiments and forgotten firsts, today’s date holds more medical mystery than you might expect.

Swipe through time, question what we thought we knew, and remember — today’s “routine medicine” was once unimaginable.

🧪 Stay curious.
🦠 Stay skeptical.
🕯️ History is watching.

, , , , ,

10/25/2026

💚 1. Platypus fur can glow green or cyan under ultraviolet light.
In the original study, museum specimens that looked uniformly brown under normal light appeared green to cyan when exposed to UV illumination.

🔦 2. This is called biofluorescence.
Biofluorescence occurs when an organism absorbs light at one wavelength and re-emits it at a longer, visible wavelength.

💡 3. It is not the same thing as bioluminescence.
The platypus does not generate its own light chemically. It needs an outside source of ultraviolet light before its fur fluoresces.

📏 4. The fur absorbs ultraviolet wavelengths between roughly 200 and 400 nanometers.
Researchers then detected visible fluorescence between about 500 and 600 nanometers, peaking near 500 nm.

🧪 5. Scientists confirmed the effect using spectroscopy.
The researchers did more than simply photograph glowing fur—they measured the wavelengths emitted from the specimens to verify that true fluorescence was occurring.

♂️♀️ 6. Both male and female specimens fluoresced.
The original investigation examined three museum specimens, including both sexes, and found similar blue-green fluorescence.

🌙 7. The platypus is mostly active at night and around dawn and dusk.
That nocturnal and crepuscular lifestyle originally helped inspire researchers to investigate whether its fur might fluoresce under ultraviolet light.

🧬 8. The platypus was the first monotreme reported to have biofluorescent fur.
The 2020 discovery extended documented mammalian biofluorescence into the monotremes—the ancient mammal group that includes platypuses and echidnas.

🦇 9. Platypuses are not the only mammals that fluoresce.
Fluorescence has now been documented across numerous mammal groups, including flying squirrels, opossums, wombats, and other species.

❓ 10. Scientists still do not know exactly why platypus fur fluoresces.
Ideas have included communication or camouflage, but researchers have not established a confirmed biological function. Field studies on living animals are still needed to determine whether the fluorescence matters in the wild.

Which platypus fact surprises you more: that its fur glows blue-green under UV light—or that males carry venomous ankle spurs? 👇

10/24/2026

🐸 What if a harmless-looking tadpole could change its body into a bigger-jawed predator—and start eating other tadpoles?

That is exactly what happens in some spadefoot toads of the genus Spea. Their tadpoles can develop into one of two dramatically different forms: an omnivore morph that mainly feeds on detritus, or a carnivore morph specialized for eating animal prey—including other tadpoles.

Here are 10 verified facts about this bizarre transformation:

🥄 1. Spadefoot tadpoles can develop into two different feeding forms.
The ordinary omnivore morph mainly feeds on detritus and small food particles, while the carnivore morph specializes in larger animal prey.

🧬 2. This is an example of phenotypic plasticity.
The same species can produce dramatically different body forms depending partly on environmental conditions and diet.

💪 3. Carnivore tadpoles grow much larger jaw muscles.
Studies show that carnivore morphs develop both more muscle fibers and larger individual fibers in their jaw musculature than omnivores.

😬 4. Their mouths actually change shape.
Carnivore morphs develop specialized mouthparts suited for grabbing animal prey, while omnivores have structures better adapted for grazing and feeding on detritus.

🫃 5. Their digestive systems change too.
Carnivore tadpoles generally develop shorter intestines, while omnivore morphs retain longer guts better suited to processing detritus and plant-rich material.

🦐 6. Eating fairy shrimp can help trigger the carnivore form.
Exposure to diets containing anostracan fairy shrimp is a well-documented environmental cue that can promote development of the carnivore phenotype.

🐸 7. Eating other tadpoles can also promote the carnivore morph.
Experiments with Spea multiplicata found that diets containing certain tadpoles produced more carnivore morphs than diets without them.

🍽️ 8. Carnivore tadpoles really can become cannibals.
These predatory morphs may capture and consume other tadpoles, including members of their own species under some conditions.

⏱️ 9. Becoming a carnivore can help them develop faster.
Carnivore morphs often grow and develop more rapidly, which can be a major advantage in temporary desert ponds that may dry up before the tadpoles finish metamorphosis.

🌵 10. This bizarre strategy is especially useful in harsh, temporary habitats.
Spadefoot toads often breed in short-lived ponds in arid regions. When time and food are limited, switching into a fast-growing predator can improve a tadpole’s chances of surviving long enough to become a toad.

Which is stranger to you: a tadpole growing predator jaws—or discovering that eating other tadpoles can help trigger the transformation? 👇

10/23/2026

🩺🕰️ Dr. Pox’s Medical Mysteries — This Day in History 10/23

On this day in history, science and medicine took some fascinating — and sometimes unsettling — turns.

From groundbreaking discoveries to bizarre experiments and forgotten firsts, today’s date holds more medical mystery than you might expect.

Swipe through time, question what we thought we knew, and remember — today’s “routine medicine” was once unimaginable.

🧪 Stay curious.
🦠 Stay skeptical.
🕯️ History is watching.

, , , , ,

10/23/2026

✋ Imagine watching someone tap another person on the cheek—and suddenly feeling a tap on your own face, even though nobody touched you. How strange would that be?

That phenomenon is known as mirror-touch synesthesia, or MTS. People with it experience genuine tactile sensations on their own bodies simply by watching someone else being touched.

Here are 10 verified facts about this unusual sensory phenomenon:

👁️ 1. The sensation is triggered by seeing someone else being touched.
For people with mirror-touch synesthesia, observing touch can automatically produce a conscious sensation of touch on their own body.

✋ 2. The felt sensation often appears on the corresponding body part.
Watching another person’s arm being stroked, for example, may create a tactile sensation on the observer’s own arm.

🪞 3. Some people feel the sensation as if looking in a mirror.
If they see someone’s left cheek touched, they may feel it on their own right cheek. This is known as a specular, or mirrored, pattern.

🧍 4. Others feel it on the same anatomical side.
A touch to another person’s left arm may instead be felt on the observer’s own left arm. Researchers call this an anatomical pattern.

🧠 5. Most people’s brains respond to seeing someone else touched—but they don’t consciously feel it.
Observing touch activates parts of the somatosensory system even in people without MTS. In mirror-touch synesthetes, that activity appears strong enough or differently regulated enough to reach conscious sensation.

⚡ 6. The sensations are reported as automatic and involuntary.
People with MTS do not simply imagine what the other person is feeling—the tactile response occurs without deliberately choosing it.

👤 7. Seeing a real human body can produce stronger sensations than seeing an object.
Experiments found that mirror-touch sensations were generally stronger when participants watched real bodies being touched than when they saw dummy body parts or images of bodies.

📊 8. Mirror-touch synesthesia appears to be uncommon.
One widely cited study estimated that around 1.6% of people may experience the phenomenon, although prevalence estimates vary depending on how strictly researchers define and test it.

❤️ 9. Some studies have linked MTS with differences in social perception and empathy.
Researchers have reported enhanced emotion recognition and higher scores on some empathy measures in certain groups with mirror-touch synesthesia, although the relationship between MTS and empathy is complex rather than universal.

🧩 10. Scientists think self-versus-other processing may be part of the explanation.
One major hypothesis is that the brain’s normal distinction between sensations happening to another person and sensations happening to oneself is less strongly separated in people with MTS.

Which would be harder to live with: feeling every touch you see happen to another person—or hearing sounds every time you see movement? 👇