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The Unforeseen Something

6 October 2026 at 11:00
family portrait of three outside a home with a brick wall and light-colored front door

Mark Johnson | The Atavist Magazine | September 2026 | 2,048 words (7 minutes)

This is an excerpt from issue no. 180, “The Family Plan.”


At first she told no one. Not her twin sister. Not her mother. Not even her father the scientist.

Six-year-old Jenna Smith knew better than to pee when she was in the bath. But on that night in 1992, in her family’s home in Iowa City, the water felt so comfortable against her skin that she didn’t want to get out of the tub. It seemed like such a small thing. Who would know?

Seconds later the water around her waist turned reddish pink. Blood? It had to be. Jenna wondered if she’d hurt herself. “I was six years old sitting in a bathtub, watching a few seconds of my world stop making sense,” she would recall years later.

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She kept the blood a secret because she didn’t want to admit that she’d peed in the bath. But when it was still in her urine the next time she used the toilet, she went to her mother. Concerned, her mom called her dad, Richard Smith, and he took Jenna to the emergency room.

Richard was an ear, nose, and throat doctor in the University of Iowa’s school of medicine, a researcher who would become one of the world’s authorities on the genetics of hearing loss. His wife, Lynne Lanning, had worked as both a lawyer and a nurse. They had four young children: twins Jenna and Jessica, who were identical, and two boys, Luke and Rion.

At the ER, doctors ran tests on Jenna, but they couldn’t identify the cause of the blood. In the days that followed the bleeding intensified. At her parents’ urging, Jenna collected samples of her urine in Dixie cups for further testing. The doctors remained stumped, however, and after a while Jenna found the whole thing more annoying than worrisome.

The uncertainty was much harder on her parents. It wasn’t that doctors were misdiagnosing their daughter; they were unable to diagnose her at all. “It was horrible,” Richard said. “Imagine seeing your child and you know something is wrong, and you know the doctors treating her have no clue what to do.” Richard called a pediatric nephrologist he knew in Houston, where the family had lived previously. The nephrologist listed several conditions that could be causing the bleeding and said that, to determine which was to blame, Jenna’s parents should take her to Cincinnati Children’s Hospital Medical Center.

In July 1992, Richard, Lynne, and Jenna drove nearly 500 miles to get answers. Doctors in Cincinnati diagnosed Jenna with dense deposit disease, a condition in which proteins clog and damage the kidneys, leading to renal failure in many patients. There was no cure.

The hospital couldn’t tell the family much else—no one could. The disease was exceedingly rare, afflicting between one and three people in a million. Back home, Richard and Lynne spent hours inside the University of Iowa’s quiet medical library, poring over papers in search of information about their daughter’s illness. They could find no evidence that anyone was actively studying the condition.

Although many Americans—roughly one in ten—suffer from a rare disease, the experience can be lonely. Friends and relatives don’t understand the unique miseries such illnesses impose on daily life. Few doctors are likely to have encountered them before. And because there aren’t many patients, drug companies usually don’t invest in research for treatments.

Richard and Lynne feared that their daughter’s life might be tragically brief. Sometimes the mention of weddings would sink Lynne into melancholy; she couldn’t bring herself to watch the movie Father of the Bride. Richard agonized over what to do. His training compelled him to seek answers, but he wanted to be Jenna’s father, not the scientist charged with curing her. He kept his research focused on hearing loss. At first, anyway.

Stories of scientific discovery almost always celebrate individual researchers, consigning the contributions of loved ones, communities, and colleagues to footnotes. There are exceptions―the teams that built the first atomic bomb and deciphered the human genome, for instance. Science also has its share of famous families. Marie and Pierre Curie, along with their daughter Irène and her husband, Frédéric, won five Nobel Prizes between them for discoveries related to radioactivity. For the most part, however, the history of scientific progress has been mythologized as a succession of brilliant, driven individuals—often men—who chose the lab over the dinner table and competition over collaboration.

Some scientists have embraced the role of maverick. “You have to worry about your own work and ignore what everyone else is doing,” the physicist and Nobel laureate Richard Feynman is said to have told a colleague. The decades-long pursuit of a treatment for Jenna’s disease followed a very different path. There was no single hero, no lone scientist seeking glory. The biomedical quest required the efforts of a family and their neighbors in Iowa City, and the work of scientists around the globe. Together they changed an obscure area of medicine.

Richard and Lynne met in 1977, when both were working at Memorial Hermann-Texas Medical Center in Houston—she as a nurse, he as a medical intern. He noticed a run in her nylons and was smitten by her smile. She liked his down-to-earth manner and intelligence, his humor and kindness. They were working in the hospital’s burn unit when he asked her out.

The couple married in 1981, and except for two years in England, they remained in Houston until 1990. That December they moved to Iowa City, where Richard had a job waiting for him leading the pediatric otolaryngology division and running a research lab at the University of Iowa’s medical school. They had been there only a year when Jenna got sick.

Richard and Lynne learned that their daughter’s disease was caused by a malfunction in her complement system. Believed to have evolved long before other parts of our immune infrastructure, the complement system sends proteins to battle foreign invaders. Unlike antibodies, these proteins are not tailored to fight a specific virus or bacteria, but they kick into gear faster when a threat is detected. In people with Jenna’s condition, the complement system is like a runaway train: Proteins become overstimulated and then accumulate in the glomeruli, tiny filters the kidneys use to clear waste from blood.

Blood in the urine is one symptom of the disease. Others include swelling, high blood pressure, inflammation, and fatigue. When Jenna was in the first grade, her body struggled to make growth hormones. Her production of red blood cells slowed, and she grew increasingly tired. During rehearsals for The Nutcracker ballet around Christmas 1993, she’d finish her part and then lie down backstage, completely spent.

Doctors put her on a heavy dose of the steroid prednisone and on blood-pressure medication. The prednisone caused her body to retain water. She woke up each morning with her eyes swollen shut, then waited in bed until the swelling receded. She couldn’t fit into her clothes or shoes. She wore flip-flops and roomy jumpers Lynne sewed for her.

As twins, Jenna and Jessica had always been close. They played together, made up songs and dance moves, explored the woods near their home, and enjoyed pranking friends and family members. “She made a lot of things feel not so heavy,” Jenna said of her sister. Still, she sometimes thought that Jessica “got off scot-free” by not having dense deposit disease. Neither girl liked feeling different from the other. (Years later, Jessica would be diagnosed with type-1 diabetes; Jenna would not.)

The changes to Jenna’s appearance meant the girls were no longer identical. Once, according to Lynne, when a boy at school said that Jenna couldn’t be a twin anymore because of how she looked, Jessica slugged him. Lynne recalled sitting in the principal’s office, politely listening to a lecture—this is not the way we resolve things!—but understanding why Jessica had lashed out. Nothing was so frightening to her daughters as the idea that they’d stop being twins.

About half of those afflicted with Jenna’s disease progressed to kidney failure within a decade of diagnosis; it took her less than a year. She made it through the last day of first grade. Then, as other children departed for summer camp, she went to a clinic. While her classmates practiced archery and did arts and crafts, she learned about the catheter doctors would surgically insert in her body. Through that tube, a machine would pump fluid into her abdomen, where her peritoneum—her abdominal lining—would take over the filtering function kidneys usually perform.

She would take the peritoneal dialysis machine home with her and use it every day for the foreseeable future, possibly for the rest of her life. When a nurse tried to take Lynne aside to show her how to operate it, Jenna stopped her. “I’m the patient,” the seven-year-old insisted. “I’m learning how to run the machine.”

In such moments, Lynne was surprised at the strength she drew from her daughter. She needed it. Her grief could leave her feeling drained. One day she found herself crying into the soil as she gardened.

But Lynne and Richard were determined that sadness would not define their lives. For a long time, they didn’t have a TV in their house—they wanted the family to talk when they were together, and for the children to build forts, learn to sew, be creative. They had painting nights, creating portraits of one another. There were cooking contests, too. Richard and Lynne made sure to spend one-on-one time with each kid. Richard traveled with Luke to Japan, with Rion to the Grand Canyon, with Jessica to Italy, and with Jenna to England. Lynne took trips with the children to Brazil, England, and Guatemala. There were themed birthday celebrations: a James Bond party for Richard, where everyone was armed with Nerf guns, and one for Lynne where Richard dressed as the artist Bob Ross and the guests painted “happy little clouds.” Richard coached the kids’ hockey and soccer teams. He built harps and lyres from scratch, and Lynne played them.

Every day, Richard left for work at 5 a.m., while the children were still in bed. He returned around six at night. The family joked that they could hear him coming from half a mile away in his rust-bucket Isuzu Trooper with the bad muffler and a hole in the passenger footwell. When he wasn’t seeing patients or in surgery, Richard was in the lab. On Saturdays, Luke would go there with him. Sometimes the other kids joined. They liked to refill the communal candy jars and visit the mice used in experiments.

It seemed a wonder to the lab’s staff that Richard squeezed so much into a day. When they began using email to communicate, they received messages from him time-stamped three or four in the morning. “Why don’t you sleep sometime?” a colleague replied once. Indeed, Richard slept little. At night his mind kept running through the mysteries of his daughter’s disease.

Richard had read that it took 10,000 hours—the equivalent of working full-time for about five years—to achieve expertise in a subject. He believed it. In 1995, he began flying to conferences about kidney disease, where he talked to the few doctors who cared for patients like Jenna. Medicine was getting no closer to finding a treatment.

That year the owner of a ranch where Richard and Lynne’s children took riding lessons offered to host a fundraiser for kidney disease research. The family organized Dressage in the Heartland, which featured riding events, fiddle music, and bowls of chili. After raising upwards of $10,000 for the National Kidney Foundation, they held the event again the following year. There are hundreds of kidney ailments, however, and the foundation didn’t allow the money the family raised to be earmarked for the research of dense deposit disease. (The foundation said it now allows monetary gifts to be dedicated to specific conditions.)

Richard and Lynne ran into more disappointment during a visit to the University of Minnesota in early 1997. A specialist they consulted was blunt. “Nobody is looking at this disease,” he told them. “And barring something unforeseen, nothing will be done in the next twenty years.”

It was a four-and-a-half-hour drive back to Iowa City. In the car, Lynne brought up what the doctor had said. Maybe they would have to be that unforeseen something.

Meditations on the botched execution of Christa Pike

By: A A
4 October 2026 at 16:00

“And now she is on a respirator in a hospital as doctors fight to save her life, presumably so that the state of Tennessee can try to kill her again.”

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Contact us: info@strategic-culture.su

They botched another execution in Tennessee.

They stuck the prisoner full of seven different syringes, but she didn’t die. She just experienced extreme suffering, minute after excruciating minute, before eventually losing consciousness.

Her name is Christa Pike. As of this writing, she is still alive.

Pike committed a horrific violent crime as a young woman after a life of nightmarish abuse. She was physically and sexually abused by her mother’s live-in boyfriend, was raped by a neighbor when she was eleven, and attempted suicide at the age of twelve.

And now she is on a respirator in a hospital as doctors fight to save her life, presumably so that the state of Tennessee can try to kill her again.

It’s all so absurd. People are so cruel to each other.

We inflict pain upon our neighbors, and our neighbors pass that pain on to other neighbors, and it just goes on and on like that until one day you’re watching a woman strapped to a gurney flailing around in anguish as panicked executioners plunge needle after needle into her body to stop her outlawed heartbeat.

We are bound to each other so intimately like that. A rapist was abused by his father, who was abused by his uncle, who was abused by his priest, who was abused by his teacher, generation after generation of human trauma stretching back to our evolutionary ancestors frantically struggling to survive predation in the middle of the food chain. A baton passed from hand to hand through the sands of time in a vast relay marathon of suffering.

The course of my life has been directly influenced by my abusers, and by their abusers, and by the people who abused them, and it is only by sheer chance that this ancient stream of samsara carried me to be typing words on a laptop in Melbourne instead of fighting for my life after a botched execution in Tennessee.

You cannot make a deep study of trauma and human dysfunction and still sustain a belief in the death penalty. Once you’ve explored your inner depths enough to understand how many factors have contributed to your life being the way it is and caused your mind to operate the way it operates, you can’t really claim that anyone had sufficient control over the way their life unfolded to justify killing them for their crimes.

You can still form judgements about people regarding who you want to spend time with and form relationships with, but even in the most chaotic and destructive among us you can still see a fundamental innocence. I can keep my distance from wild crocodiles without believing they are evil. We can still immobilize dangerous people to protect our society without assigning ourselves the right to take their life.

As humanity moves more deeply into consciousness, this insight will become more and more brightly illuminated, and we will begin healing our trauma so that the relay baton of suffering stops with us. The vindictive, judgmental scales will fall from our eyes, and there will be a widespread recognition of the fact that, underneath all the savagery and sadism and exploitation and abuse, we were always ultimately just confused and damaged children stumbling through a giant universe that we did not understand.

Original article: caitlinjohnstone.com.au

Nuclear medicine: New EU framework to secure Europe’s supply of medical radioisotopes and reduce dependence on Russia

11 September 2026 at 08:30

The European Commission has put forward the European Radioisotope Valley Initiative (C/2026/6132) a new strategic framework to strengthen Europe’s leadership in the production of medical radioisotopes. It aims to reinforce EU security of radioisotope supply, guiding investment in the sector and reducing strategic dependencies on third countries, in particular Russia.  

With more than 10 million medical procedures using radioisotopes performed in the EU every year, mainly in oncology and cardiology, an impressive EU-wide production and distribution network has been developed to supply radioisotopes to patients across Europe daily. The EU has become the world’s leading producer of medical radioisotopes, exporting about half of its production overseas. However, critical parts of the European supply chain are exposed to dependencies on foreign suppliers, ageing production facilities, and competition from alternative suppliers, thereby creating the risk of investment displacement and higher costs. Furthermore, the global demand for medical radioisotopes, as well as the pace of innovation in this area, are increasing. Today’s ERVI communication responds to these challenges by defining a coordinated approach to supporting investments in research and development, bringing innovation to market, addressing value chain dependencies, and increasing production capacity. It also provides a direct contribution to the REPowerEU Roadmap towards ending Russian energy imports.

The Communication establishes five strategic priorities and 10 actions.

Research & Development and bringing innovations to market

The Commission will support research and innovation into the next-generation medical radioisotopes, radiopharmaceuticals and production technologies. A Strategic Research and Innovation Agenda (SRIA) - as used in other sectors - will help better connect research with market needs and patients. Instruments such as the emerging IPCEI for innovative nuclear technologies, the European Innovation Council, and new European partnerships can help mobilize public and private investment to accelerate innovation deployment. 

Investments in production facilities to ensure security of supply

The initiative aims to guide and support Member States and industry investments across the medical radioisotope value chain to strengthen the resilience and localisation of EU supply. Priorities include the development of EU-based metallic High Assay Low Enriched Uranium (HALEU) capacity and production of stable isotopes currently imported from Russia, as well as upgrades of existing reactors and construction of new production facilities. Member states should make use of the EU Startup and Scaleup Strategy, the SGEI State aid framework and the recent Critical Medicines Act for which the political agreement was achieved this year to support these efforts, while the Commission will explore ways to better combine public and private financing.

Market Monitoring and Forecasting

The Commission will act to improve the visibility of supply and demand trends and assess the investment needs of the European market for radioisotopes. This work will build upon the European Observatory on the Supply of Medical Radioisotopes and rely on continuing involvement of Member States and stakeholders, while making full use of the new EU mechanisms for tackling shortages of essential medicines.

Developing strategic international partnerships

ERVI will support cooperation with trusted international partners to diversify supply chains, strengthen resilience and promote scientific and industrial collaboration. In particular, the continuing cooperation with our partners in the UK and US is crucial for developing a resilient supply chain for metallic High Assay Low Enriched Uranium (HALEU).

Supporting an evolving regulatory framework

The Commission will cooperate with the International Atomic Energy Agency to support reliable international transport of medical radioisotopes and explore further measures to facilitate transport between Member States. A further step will be to pursue the streamlining of EU and national procedures for radiation protection and waste management in nuclear medicine to support patients’ access to innovative treatments.

Background

In June 2024, the Council called on the Commission to seek to maintain Europe’s global leadership role in the supply of medical radioisotopes and make tangible and swift progress on developing ambitious ‘building blocks’ for specific actions. 

In order to define the objectives and architecture of ERVI, the Commission carried out extensive consultations involving stakeholders and member states and published a feasibility study in March 2026.

The initiative also builds on the Strategic Agenda for Medical Ionising Radiation Applications (SAMIRA), adopted by the Commission in 2021 to strengthen the secure supply of medical radioisotopes, improve quality and safety in radiation medicine, and support innovation in nuclear medicine technologies.

In May 2025, the REPowerEU road map further highlighted the need to increase EU production capacities, reduce dependency on Russia and strengthen the resilience of the European medical radioisotope supply chain. The establishment of ERVI was identified as one of the roadmap’s key actions.

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Two skeletons from the Indonesian island of Sulawesi had something strange going on in their mouths. Not cavities. Not the usual wear from a tough diet. Deep, rounded grooves cut into the teeth — a pattern no archaeologist had documented before, and one nobody could explain. The answer, published in Science Advances, pushes the known […]

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In his journals and in letters to colleagues, Gajdusek was self-righteous, arguing that what he’d done was “no more serious than lying on the grass or picking a dandelion,” and he cited the Anga initiation rites as justification. These ceremonies had brought boys into their communities, as part of a shared passage into manhood, but Gajdusek treated them as a timeless license for the acts that he’d committed privately, one boy at a time. George Klein, a professor at the Karolinska Institute, in Stockholm, who was part of the Nobel Assembly for thirty-six years, validated Gajdusek’s opinions, telling him that he wondered if “the Western world can ‘catch up with you.’” He wrote, “I share your indignation about the typically Jewish-Christian-Moslem hypocrisy on sexual matters.” Gajdusek was troubled, though, by how many colleagues wrote letters saying that they knew the charges must be untrue. “I thought better of my friends,” he said. “They are dissimulating and lying.”



A Fatal Reaction

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In this harrowing, incredibly reported story co-published by Science and Retraction Watch, Brendan Borrell uncovers how “Mei,” a 6-year-old girl in China, died a week after an experimental gene-editing trial went wrong—and how her medical team, led by neuroscientist Zilong Qiu, downplayed the risks to her parents, did not publicly disclose her death, and has faced no real accountability.

On 23 March 2025, the day before the procedure, the family settled into a shared room inside a crowded pediatric ward. When the other girl in the room broke into tears, Mei handed her one of her favorite stuffed animals: a blue bird. “She liked to give things to other kids,” Jason said.

The next day Mei put on a brave face as she was taken to the procedure room. Yu’s handpicked doctor inserted a needle between two vertebrae on her lower back and withdrew just over a teaspoon of spinal fluid to create space for the drug. Then, he swapped syringes and gently pressed down on the plunger, filling her spinal canal with viruses.

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22 July 2026 at 12:00

For Men’s Health, Brian Underwood investigates the flood of sunscreen misinformation on Instagram and TikTok, where influencers push inaccurate data about chemical UV filters, play chemist and promote their own DIY formulas, or even encourage no sun protection at all. Underwood sorts fact from fear, talking with dermatologists, chemists, and professionals who are working to reshape the messaging around sun exposure and sunscreen.

Environmental concerns may have also shown up in your feed, with suggestions that these same filters are poisoning our oceans, giving rise to a whole category of sunscreens labeled “reef safe”—a meaningless marketing term that’s not regulated by the FDA (the same goes for products labeled “natural” or “organic”). Dr. Nelson’s point about “low-relevance models” is something to consider here too: The research demonstrating that oxybenzone, octinoxate, and other active ingredients may lead to reef bleaching was done in a lab setting where coral was exposed to levels of these chemicals significantly higher than has been found in the natural environment. It conveniently left out the fact that inorganic filters like zinc oxide (the one typically used in “reef safe” formulas) would have the same effect in similar doses.

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