Introduction of Nurse-Led Rehabilitation Services for Patients With Stroke After Discharge to Improve Self-Care Management in Bangladesh: Pilot Randomized Controlled Trial
Effects of Social Media Narratives on Affective and Behavioral Responses to Menopause Content: Randomized Online Experimental Study
Genetic Study Links Excessive Sweating to Neurological Dysfunction
Data from a new study suggest that a form of hyperhidrosis, or excessive sweating, may be due to genetic mutations that result in the overstimulation of the nerves that control the sweat glands. These findings, which are reported in Science Advances, could open a door to targeted treatments for the condition using existing medicines. Full details of the findings are provided in the paper titled “A neurocutaneous NaV1.8 channelopathy underlies a genetic subtype of primary idiopathic hyperhidrosis.” The international study is led by scientists at Vrije Universiteit Brussel.
Excessive sweating, which affects roughly two to five percent of the population, causes more than just discomfort. The impact of the condition on the daily lives of people living with it can be very severe. Patients often sweat so profusely that they have to change clothes several times a day. Many avoid social contact, experience shame, and develop depression. Yet the condition is often seen as a superficial skin problem and patients often do not receive appropriate care.
That could change thanks to the findings from this study which is the culmination of 10 years of research done by scientists in the lab of Frank Bosmanbs, PhD, at Vrije Universiteit Brussel and their collaborators at Johns Hopkins University. To pinpoint a genetic basis for hyperhidrosis, the scientists analyzed the DNA of more than 180 patients. They discovered defects in the Nav1.8 ion channel, which normally functions as a biological gate that regulates electrical signals in the nervous system.
Specifically, in patients with hyperhidrosis, the gate is left too wide open due to a genetic predisposition. As a result of this, the nerves are constantly overstimulated and in a state of activity, which results in excessive sweating often triggered by emotional or stress-related stimuli. To dig deeper into their theory, the scientists developed an experimental mouse model. Because mice only sweat from their paws, the team developed a microscopic measurement method to count sweat droplets using an iodine-starch mixture.
They found that mice that had the same genetic defect as hyperhidrosis patients also sweated excessively. Furthermore, once the scientists administered a substance that blocked the overactive nerve signals, their symptoms decreased significantly and reversibly. However the genetic picture is more complex. Bosmanbs and his team found a patient who had inherited an inhibitory nerve mutation but still sweated excessively due to a separate mutation in a local water channel within the sweat gland. It suggests that there are different biological pathways that can lead to the same overstimulation that results in hyperhidrosis.
Though the genetic picture is a complex one, the scientists believe that their findings offer the prospect of better treatments for this condition. Currently, some severe forms of hyperhidrosis are treated by severing the sympathetic nerve pathways in the chest. While effective, this treatment is both invasive and can have unwanted side effects. With a deeper understanding of the genetic basis of the condition, scientists may be able to better predict which patients are likely to get the most benefit from localized treatment of the sweat glands, systemic medication or nerve-targeted therapies. Another potential treatment avenue is drug repurposing, which is supported by the evidence from the mouse studies. However, further testing via controlled clinical trials is required.
The post Genetic Study Links Excessive Sweating to Neurological Dysfunction appeared first on GEN – Genetic Engineering and Biotechnology News.
Parkinson’s in the Clinic, Insilico enters Phase III, Vertex Acquires Crinetics
Promise hits Parkinson’s disease therapy, as a Phase I/II clinical study has demonstrated the feasibility of transplanting stem-cell-derived dopamine progenitor cells into the brain. In preclinical research, a new platform uses the brain’s fluid transport pathways to effectively deliver AAVs to therapeutic targets in mice. We’ll also cover the accelerating infrastructure moment for AI-driven drug discovery, with billion-dollar investments flowing into end-to-end platforms driven by models and compute, rather than single drug assets. In business, Insilico’s revenue leaps as the company’s AI-developed lead candidate moves to Phase III, while Vertex acquires Crinetics for $10 billion.
Listed below are links to the GEN stories referenced in this episode of Touching Base:
Engineered AAVs Harness Glymphatic System to Reach Brain Targets in Mice
GEN, July 9, 2026
Stem Cell Therapy Shows Promise in First Human Parkinson’s Disease Trial
GEN, July 9, 2026
Pharma Races to Scale AI as Billions Flow into Drug Discovery
By Fay Lin, PhD, GEN Edge, July 6, 2026
StockWatch: Insilico Projects Profit, Revenue Leaps as AI-Developed Lead Candidate Moves to Phase III
By Alex Philippidis, GEN Edge, July 12, 2026
Vertex Eyes Expansion Beyond Cystic Fibrosis with Planned $10B Crinetics Buyout
By Alex Philippidis, GEN Edge, July 7, 2026
Top 20 Drugs Heading for the Patent Cliff, 2026-2029
By Alex Philippidis, GEN Magazine, Nov 1, 2025
Touching Base Podcast
Hosted by Corinna Singleman, PhD
Behind the Breakthroughs
Hosted by Jonathan D. Grinstein, PhD
The State of Biologics Testing 2026
Charles River Laboratories and GEN, June 10, 2026
Produced with support from:
The post Parkinson’s in the Clinic, Insilico enters Phase III, Vertex Acquires Crinetics appeared first on GEN – Genetic Engineering and Biotechnology News.
Dendritic Cells Identified as Key Organizers of Anti-Tumor Immune Hubs
Not all immune activity inside a tumor is disorganized. In some patients, tumors contain tertiary lymphoid structures, or TLSs: organized clusters of immune cells that resemble lymph-node-like sites of local immune coordination. Their presence has been associated with improved survival and better responses to immunotherapy in several cancers, making them an increasingly important feature of the tumor microenvironment.
A new study published in Science identifies a specialized immune cell population that helps build and sustain these structures. Researchers at the Icahn School of Medicine at Mount Sinai and collaborating institutions found that type 1 conventional dendritic cells, or cDC1s, act as central organizers of TLSs in cancer. The work helps explain how local anti-tumor immune responses are maintained within tumor tissue and points to potential strategies for improving immunotherapy.
Why TLSs matter in cancer immunity
TLSs are not normal anatomical lymph nodes. They arise in chronically inflamed tissues, including tumors, and can contain organized T-cell zones, B-cell follicles, germinal center-like regions, plasma cells, and specialized stromal networks. In cancer, their presence is often interpreted as evidence that the immune system is not only infiltrating the tumor but organizing a sustained local response.
Many tumors contain immune cells, but not all immune infiltrates are functionally productive. TLSs may provide a site where antigen presentation, T-cell activation, B-cell maturation, and antibody responses occur close to malignant cells. This could help explain why TLS-positive tumors are often associated with more favorable outcomes and greater sensitivity to immune checkpoint blockade.
Until now, however, it has been less clear what drives TLS formation and, just as importantly, what keeps these structures functional once they are established.
cDC1s as local immune architects
Dendritic cells are best known for antigen presentation: they capture tumor antigens and prime T-cell responses. This study expands that role. The researchers found that cDC1s do not only initiate anti-tumor immunity; they help organize the physical and functional immune architecture inside tumors.
“Our goal was to understand how these immune structures develop and persist inside tumors,” said lead author Raphael Mattiuz, PhD. “We found that a distinct subset of dendritic cells acts as the organizer, bringing together different immune cells and keeping the local anti-cancer response active.”
The team analyzed tumor samples from patients with lung, liver, colorectal, kidney, and ovarian cancers using multiplex imaging and spatial gene-expression approaches. These methods allowed them to map where dendritic cells were located, which immune cells surrounded them, and how those local neighborhoods related to TLS organization.
Across tumor types, mature dendritic cells accumulated within TLSs. The mechanistic work then focused on a mouse model of non-small cell lung cancer designed to reproduce mature TLS formation seen in human tumors. In this model, cDC1s were required both during the establishment of TLSs and later for their maintenance.
More than T-cell priming
The study suggests a two-stage role for cDC1s. Early in tumor development, TLS formation depended on IFNγ-driven maturation of cDC1s, migration to tumor-draining lymph nodes, and recruitment of primed T cells back into the tumor. As tumors progressed, however, the biology changed. TLSs could persist even when egress of T cells from tumor-draining lymph nodes was impaired, while cDC1s became retained within intratumoral stromal hubs enriched in CCR7 ligands.
This is clinically interesting because it positions cDC1s as tissue-resident coordinators of ongoing immunity, not merely transient antigen couriers. The researchers found that timed depletion of cDC1s after TLSs had formed disrupted TLS maintenance. Blocking their localization to stromal hubs had a similar effect.
The function of these cells also depended on antigen presentation. Genetic ablation of both MHC class I and II on cDC1s impaired TLS maintenance, T follicular helper cell preservation, germinal center formation, tumor-specific IgG production, and differentiation of progenitor exhausted CD8-positive T cells.
“We were surprised to see that these rare cells become permanent organizers within the tumor itself,” Mattiuz said. “They don’t just activate cancer-killing T cells. They also help coordinate antibody responses, allowing multiple parts of the immune system to work together where they’re needed most.”
Implications for immunotherapy
Checkpoint inhibitors have changed cancer care, but durable responses remain limited to a subset of patients. One reason is that reinvigorating T cells may not be enough if the tumor lacks the local immune organization needed to sustain productive responses. TLS biology offers a complementary framework: the issue may not only be whether immune cells are present, but whether they are organized into functional niches.
This study suggests that cDC1-directed therapies could help strengthen those niches. Potential strategies might include increasing cDC1 abundance, enhancing cDC1 maturation, improving their recruitment or retention in tumors, or combining cDC1 activation with checkpoint blockade, vaccines, radiotherapy, or other immune-modulating approaches.
The findings also add nuance to biomarker development. TLS presence is already being studied as a prognostic and predictive feature, but TLS quality may matter as much as TLS quantity. A tumor with cDC1-rich, antigen-presenting, germinal center-supporting TLSs may behave differently from a tumor with less mature or poorly maintained immune aggregates.
For medical oncology, this could eventually refine how TLSs are interpreted in pathology and translational studies. Rather than treating TLSs as a binary histological feature, future assays may need to assess their cellular composition, dendritic cell state, B-cell organization, and proximity to effector T-cell populations.
Still early, but mechanistically important
The work is not yet a clinical intervention. It does not show that activating cDC1s in patients will reliably generate TLSs or improve immunotherapy outcomes. Tumor type, antigenicity, stromal architecture, prior therapy, and immunosuppressive pathways will likely influence whether this biology can be therapeutically exploited.
Nevertheless, the study provides a clearer mechanistic target in a field that has often treated TLSs as useful but poorly controlled biomarkers. If cDC1s are required to form and maintain functional TLSs, then therapies aimed at dendritic cell biology may become a way to convert poorly organized tumor immune infiltrates into more coordinated anti-tumor responses.
The broader message is that effective cancer immunity is spatial as well as cellular. It is not only about having T cells, B cells, antibodies, or dendritic cells inside the tumor. It is about arranging them in the right place, in the right state, and for long enough to sustain pressure on malignant cells.
By identifying cDC1s as organizers of tumor-associated TLSs, the study offers a more concrete path toward therapies that help the immune system build its own infrastructure inside cancer.
The post Dendritic Cells Identified as Key Organizers of Anti-Tumor Immune Hubs appeared first on Inside Precision Medicine.
KRAS-Targeted Vaccine Crosses First Clinical Milestone in Pancreatic Cancer Prevention
A vaccine to prevent pancreatic cancer, targeting common KRAS mutations, was found to be safe and stimulated KRAS-specific T-cell responses in 90% of study participants who were at high risk of developing pancreatic ductal adenocarcinoma (PDAC), according to Phase I clinical trial results. After a median follow-up of 16.5 months, none of the participants developed pancreatic cancer, and some of the precancerous lesions shrank or stopped growing. The study represents the first proof of concept for the use of vaccines for interception of pancreatic cancer in human patients.
The findings are published in Cancer Discovery, in the paper, “First-in-human Testing of a Mutant KRAS Vaccine for Pancreatic Cancer Interception in High-risk Cohorts.”
PDAC is an aggressive cancer that is often diagnosed at advanced stages and carries a low (five-year) survival rate. Approximately 10% of cases are associated with hereditary predisposition caused by pathogenic mutations in specific cancer susceptibility genes that are passed down from parent to child. The disease evolves over time from precursor lesions such as pancreatic intraepithelial neoplasia and intrapapillary mucinous neoplasms.
“Individuals at high risk due to hereditary predisposition or to the presence of a concerning pancreatic lesion detected on imaging usually undergo surveillance to monitor for changes over time,” said Neeha Zaidi, MD, associate professor of oncology at the Sidney Kimmel Comprehensive Cancer Center at Johns Hopkins University. “If there is a high enough concern for transformation to cancer or if early cancer is detected, the current standard of care is surgical resection. However, the chances of recurrence are up to 80%, and many precursor lesions to pancreatic cancer are microscopic and thus undetectable by imaging.”
The researchers wanted to test if intercepting cancer development through noninvasive approaches could provide an effective strategy to prevent PDAC and improve survival in high-risk individuals. “Prevention and interception save lives and reduce the morbidity associated with cancer development and progression. This is especially important for cancers whose early-onset frequency is increasing and for which we do not have effective methods for early detection,” said Elizabeth Jaffee, MD, FAACR, deputy director of the Sidney Kimmel Comprehensive Cancer Center at Johns Hopkins.
Mutations in the KRAS gene are the main oncogenic drivers in more than 90% of PDACs. The researchers previously developed mKRAS-VAX, an off-the-shelf synthetic long peptide vaccine targeting the six most common KRAS mutations found in PDAC and in most pancreatic precancer lesions.
In the new study, the team conducted a Phase I clinical trial to assess vaccination with mKRAS-VAX in 20 individuals at high risk of PDAC due to hereditary predisposition and radiographic evidence of a pancreatic lesion, typically in the form of a small cyst.
“The goal of this study was to test the safety of the vaccine and induction of durable immune responses,” said Jaffee. She added that the trial was based on preclinical data demonstrating the ability of a KRAS-targeted vaccine to prevent progression of early precancers in a genetically engineered mouse model of KRAS-driven pancreatic cancer.
Study participants received mKRAS-VAX via subcutaneous injections according to a prime-boost vaccination strategy, with priming doses on weeks one, three, and five and a boost dose on week 13. Blood was collected at different time points, and optional annual follow-up visits were offered for long-term immune monitoring.
Results showed that the vaccine stimulated mutant-KRAS-specific effector and central memory T-cell responses in 90% of participants. These responses remained detectable in the blood for up to two years after vaccination. “This long-lasting response is particularly noteworthy when assessing for possible interception of cancer, which requires long-lasting immunity,” said Zaidi. “In addition, the vaccine was safe and well tolerated, supporting its use in larger cancer interception studies.”
After a median follow-up of 16.5 months, none of the vaccinated individuals developed cancer. The researchers evaluated changes in cyst size as an exploratory clinical endpoint and found a higher rate of cyst reduction or resolution among the vaccinated individuals (37.5%) relative to an unvaccinated cohort with similar characteristics (6.8%).
“This research underscores the need for further funding to support the development of strategies that can intercept and prevent cancer development in high-risk individuals. More studies are needed to find the best vaccine approaches, the best targets, and the ideal timing for vaccination,” concluded Jaffee.
According to the authors, the study’s limitations include the small size and the fact that the trial was not designed to assess the clinical efficacy of the vaccine. “We observed evidence of stability or regression of the pancreatic cysts in association with the induction and durability of KRAS-specific T-cell responses,” said Michael G. Goggins, MD, professor of pathology, medicine, and oncology and the Sol Goldman Professor of Pancreatic Cancer Research at Johns Hopkins University School of Medicine. “However, larger studies are needed to demonstrate that this effect was in fact due to the vaccine.”
The post KRAS-Targeted Vaccine Crosses First Clinical Milestone in Pancreatic Cancer Prevention appeared first on GEN – Genetic Engineering and Biotechnology News.
Solving a 40-Year Mystery Could Advance Treatments for Neurodegenerative Diseases
A decades-long mystery surrounding one of the nervous system’s most important molecular machines has been solved, providing a structural blueprint that could accelerate the development of targeted therapies for several inherited neurodegenerative diseases.
In a study published in Science Advances, researchers at the University of California, Davis report the first complete structure of kinesin-1—a motor protein that transports neurotransmitters, proteins, and other essential cargo throughout nerve cells—in its inactive state. The findings reveal how the protein is switched off until needed and identify structural features that could serve as targets for future drugs.
Although kinesin-1 was the first member of the kinesin superfamily to be discovered and has been studied for more than 40 years, scientists have never fully understood how cells regulate its activity. The new study provides what the authors call “a structural answer,” revealing how motor activity and cargo binding are coordinated.
Kinesin-1 is essential for healthy neurons. The protein walks along microtubules using energy from ATP, carrying cargo from the cell body to distant parts of nerve cells. When this transport system fails, neurons cannot deliver the materials needed to function and survive, contributing to diseases including amyotrophic lateral sclerosis (ALS), Charcot-Marie-Tooth disease type 2, and hereditary spastic paraplegia.
Using cryo-electron microscopy, the researchers captured the complete structure of kinesin-1 in its autoinhibited, or “off” state. They discovered that the protein folds into a compact configuration that simultaneously prevents the motor from moving and blocks cargo from attaching.
“This dual-inhibited kinesin architecture provides a comprehensive blueprint” for how the protein maintains its inactive state, the authors write. The structure also reveals distinct regulatory sites that can be unlocked to restore both movement and cargo transport.
The team also uncovered how the protein is activated. They propose that the microtubule-associated protein MAP7 binds kinesin-1 and triggers a series of structural changes that unfold the protein, releasing the motor domains and exposing the cargo-binding site. Once activated, kinesin can resume transporting essential cellular components through the neuron.
The findings have important implications for drug development because many disease-causing mutations disrupt kinesin-1’s ability to switch between its inactive and active states. Until now, researchers lacked the structural information needed to understand exactly how these mutations impair the protein or how they might be corrected.
With the complete structure now available, investigators can examine how specific mutations alter kinesin-1 and begin designing molecules that restore its normal function. Rather than replacing the defective protein, future therapies could stabilize its structure or correct the molecular interactions that prevent it from turning on.
The authors hope this discovery will aid in designing a molecule that would bind the mutant protein and correct its defect. They believe the study establishes “a clear foundation for future mutational studies” and provides “a powerful framework” for understanding how kinesin proteins are regulated across the broader superfamily.
While additional research is needed before therapies reach the clinic, the work provides the detailed structural roadmap that has long been missing. By revealing exactly how kinesin-1 is locked into its inactive state and how that lock can be released, the study identifies promising new targets for precision medicines aimed at restoring intracellular transport in neurodegenerative disease.
The post Solving a 40-Year Mystery Could Advance Treatments for Neurodegenerative Diseases appeared first on Inside Precision Medicine.
Pancreatic Cancer Vaccine Triggers Immune Response Before Tumors Develop
Results from a Phase I clinical trial show early promise for a vaccine designed to prevent pancreatic cancer in people at high risk of developing the disease. Published in Cancer Discovery, the findings suggest it may be possible to intercept one of the most aggressive forms of cancer before it takes hold.
Pancreatic cancer is often diagnosed at advanced stages and grows rapidly, contributing to its poor survival rates. Yet the disease typically develops over many years from pancreatic cysts and other precursor lesions, creating a window of opportunity to intervene before those lesions turn into malignant tumors.
“Individuals at high risk due to hereditary predisposition or to the presence of a concerning pancreatic lesion detected on imaging usually undergo surveillance to monitor for changes over time,” said Neeha Zaidi, MD, associate professor of oncology at Johns Hopkins Medicine and co-senior author of the study. “If there is a high enough concern for transformation to cancer or if early cancer is detected, the current standard of care is surgical resection. However, the chances of recurrence are up to 80%, and many precursor lesions to pancreatic cancer are microscopic and thus undetectable by imaging.”
More than 90% of pancreatic cancers are driven by mutations in the KRAS gene, which also appear in many precancerous lesions. Zaidi’s team developed a vaccine targeting the six most common KRAS mutations, with the goal of training the immune system to recognize and attack cells carrying these mutations before they become cancerous.
The Phase I clinical trial evaluated the mKRAS-VAX vaccine in 20 participants with genetic predisposition to pancreatic cancer and a pancreatic abnormality identified through imaging. Patients received four doses of the vaccine over the course of 13 weeks and were monitored for side effects and immune responses for a median follow-up time of 16.5 months.
None of the patients developed pancreatic cancer or high-risk lesions during the study, and 90% of them developed a significant immune response to the vaccine. Memory cells against the six KRAS mutations were still detectable in the blood for as long as two years after vaccination.
“This long-lasting response is particularly noteworthy when assessing for possible interception of cancer, which requires long-lasting immunity,” said Zaidi. “In addition, the vaccine was safe and well tolerated, supporting its use in larger cancer interception studies.”
Although the main goal of the study was to prove the vaccine’s safety, an exploratory imaging analysis found that pancreatic cysts completely regressed in five participants and partially regressed in three, while the remaining remained stable.
The vaccine had previously been tested in pancreatic cancer patients who had undergone surgery and were at high risk of experiencing recurrence, where all participants remained disease free for at least five years. “We thought if we can see an immune response in patients with cancer, the vaccine should work even better in people who are at higher risk because of a family history, gene alteration or cyst on the pancreas,” said Zaidi.
Another trial is currently enrolling patients to study whether the immune response generated by the vaccine can infiltrate within precancerous lesions in addition to being detectable in the blood. If successful in larger clinical studies, the vaccine could offer the first interception strategy to reduce the number of pancreatic cancer cases.
“Prevention and interception save lives and reduce the morbidity associated with cancer development and progression. This is especially important for cancers whose early-onset frequency is increasing and for which we do not have effective methods for early detection,” says Elizabeth Jaffee, MD, deputy director of the Johns Hopkins Kimmel Cancer Center, co-director of the Skip Viragh Center for Pancreatic Cancer, and associate director of the Bloomberg~Kimmel Institute for Cancer Immunotherapy.
“This is just the beginning, but the findings suggest that the immune system is getting activated. We have more work to do, but this is a good start aimed at prevention, which no one had thought about doing before.”
The post Pancreatic Cancer Vaccine Triggers Immune Response Before Tumors Develop appeared first on Inside Precision Medicine.
The Download: perimenopause misinformation and China’s latest AI leap
This is today’s edition of The Download, our weekday newsletter that provides a daily dose of what’s going on in the world of technology.
There’s a lot of hype around perimenopause. Don’t buy it.
Perimenopause used to be considered taboo, but not anymore. Thanks at least in part to TV doctors and social media influencers, conversations about the sometimes years-long period before menopause are now more open than ever. But the conversation is increasingly shaped by misinformation.
Despite what some marketers will claim, there is no test for perimenopause. That doesn’t mean women should have to put up with symptoms, but treatment suggestions often lack scientific evidence. And not all the symptoms women experience in midlife can be blamed on hormones.
Read the full story on the hype and misinformation surrounding perimenopause.
—Jessica Hamzelou
This article is from The Spark, our weekly climate tech newsletter. Sign up to receive it in your inbox every Wednesday.
The must-reads
I’ve combed the internet to find you today’s most fun/important/scary/fascinating stories about technology.
1 China’s AI gap with the US may have just narrowed
A Chinese startup has released the world’s largest open AI model. (Reuters $)
+ It competes with some Anthropic and OpenAI models. (Gizmodo)
+ The model’s launch sent AI and semiconductor stocks sliding. (Bloomberg $)
+ Chinese Nvidia alternatives are also gaining traction. (SCMP)
+ Xi Jinping pitched China as an AI partner to the developing world. (CNBC)
+ The country is betting big on open-source. (MIT Technology Review)
2 Trump Media is selling instant access to “market-moving’ social posts
It’s developed a new way to monetize the president’s posts. (Quartz)
+ And Trump could profit directly from selling access to his statements. (BBC)
+ Kalshi says it caught Trump’s teleprompter operator insider trading. (Verge)
3 Astronomers have found an atmosphere on a nearby Earth-like planet
It’s the first potentially habitable world known to host an atmosphere. (NYT $)
+ Making it a top contender in the search for aliens. (404 Media)
+ But you need to know how to spot one. (MIT Technology Review)
4 A brain implant has restored feeling in a paralysed hand
The recipient can now feed himself and drink from a cup. (Guardian)
+ Movement continued when the stimulation was turned off. (New Scientist $)
+ China has approved a world-first brain chip. (MIT Technology Review)
5 The EU has told Google to share search data and open up AI on Android
It will be forced to share data with competing search providers. (Ars Technica)
+ And open Android phones to rivals’ AI bots. (WP $)
6 Period trackers are hiding privacy problems
New research uncovers how they’re sharing users’ health data. (BBC)
7 The Tesla driver in a fatal Texas crash overrode FSD, investigators say
He bypassed the tech by pressing the gas pedal to 100%. (Verge)
8 A new stealth drone spins so fast that it disappears
Though its creators admit it can still be easily heard. (New Scientist $)
9 A space-station study suggests why astronauts’ bodies waste away
Microgravity disrupts mitochondria, reducing protein production. (Nature)
10 “Adversarial clothing” that confuses facial recognition is all the rage
Privacy could be the next big trend. (Guardian)
Quote of the day
“Xi’s message is clear: China is not going to follow anyone on both AI technology and standards. Instead, China is going to lead the world in both aspects.”
—George Chen, chair in digital practice at The Asia Group consultancy, gives Reuters his take on Xi Jinping’s speech at the World Artificial Intelligence Conference (WAIC) in Shanghai.
One More Thing
How poop could feed the planet
A new industrial facility in suburban Seattle is giving off a whiff of futuristic technology. It can safely treat fecal waste from people and livestock while recycling nutrients that are crucial for agriculture but in increasingly short supply across the nation’s farmlands.
It’s among a range of systems reframing feces, urine, and their ingredients as invaluable natural resources to reuse instead of waste products to burn or bury. Several companies are now showing how to safely scale up the transformation with energy-efficient technologies.
Find out how human waste is being transfomed into agricultural solutions.
—Bryn Nelson
We can still have nice things
A place for comfort, fun, and distraction to brighten up your day. (Got any ideas? Drop me a line.)
+ Soccer icons have received the Ghanaian movie poster treatment.
+ A captivating cosmic construction project is July’s Picture of the Month from the James Webb Space Telescope.
+ Sir David Attenborough recently turned 100. Here’s everything he’s ever worked on, all in one place.
+ “Desire paths” are the trails made by people walking contrary to defined routes. This video explains what they mean about psychology and design.


