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Rim Lesions and Development of MS in Radiologically Isolated Syndrome

In #RadiologicallyIsolatedSyndrome, greater paramagnetic rim lesion burden on MRI was associated with increased risk and earlier development of clinical MultipleSclerosis.


Question Are paramagnetic rim lesions (PRLs) and central vein sign–positive white matter lesions (CVS+L) associated with developing clinical symptoms of multiple sclerosis (MS) in people with radiologically isolated syndrome (RIS)?

Findings In this cohort of 36 people with RIS, a higher PRL count was associated with a shorter time to developing clinical symptoms of MS and was an independent predictor of symptom onset; these findings were validated in an independent cohort of 43 people with RIS.

Meaning Results show that PRLs may have prognostic utility for risk stratification and help guide treatment decisions in people with RIS, the earliest detectable stage of MS.

Complement C5 Inhibitor Ameliorates a Case of Dysferlinopathy

Complement inhibition showed promising clinical improvement in this single case of dysferlinopathy.


Dysferlinopathy is a rare autosomal recessively inherited myopathy, presenting as several phenotypes, including a proximal weakness dominant limb-girdle muscular dystrophy R2 phenotype and a distal weakness dominant Miyoshi distal myopathy phenotype.1,2 Muscle weakness usually emerges in young adulthood, followed by a progressive motor decline over the first decade, which tends to be more rapid in individuals with earlier onset.3 Dysferlinopathy is caused by pathogenic variants of the DYSF gene that impair function of dysferlin, a protein that cooperates with others to repair membranes and restore skeletal muscle integrity after injury.4

To date, no effective treatment for dysferlinopathy has been clinically validated. Promising approaches, including exon skipping and gene editing targeting the DYSF gene, as well as myoblast transplantation, are still under investigation in preclinical models.5 Although dysferlinopathy often presents with inflammatory features on muscle pathology and is prone to misdiagnosis as myositis, it is characterized by the absence of focal MHC-I expression and complement C5b-9 deposition on nonnecrotic sarcolemma, which help distinguish it from other muscular dystrophies and inflammatory myopathies.6,7 Specially, complement C3 gene knockout in dysferlin-deficient mice has been demonstrated being able to reverse muscle pathology and improve motor function in the previous animal research.

Regulating the Impact of Hypertension on Stroke: Therapeutic Potential of a Peptide Mimetic of Tyrosine Phosphatase STEP

Even with delayed intervention, this neuroprotective agent delivers lasting protection to the hypertensive brain from ischemic injury.


BackgroundIn spite of the advances in understanding the pathophysiology of stroke, successful treatment remains a major challenge. The lack of consideration of preclinical studies with associated comorbidities is a primary factor for the translational failure, as ~94% of patients with stroke have ≥1 preexisting comorbidities. Because hypertension is the most common comorbid condition in patients with stroke and predisposition to hypertension is known to worsen stroke outcome, we evaluated the efficacy of a novel neuroprotective peptide derived from the brain‐enriched and neuron‐specific tyrosine phosphatase striatal enriched phosphatase (STEP) in attenuating ischemic brain damage under hypertensive conditions.

Dr. Natalie Yivgi-Ohana, Ph.D. — CEO, Minovia — Harnessing The Therapeutic Power Of Mitochondria

Dr. Natalie Yivgi-Ohana, Ph.D. — CEO, Minovia Therapeutics — Harnessing The Therapeutic Power Of Mitochondria


Is Co-Founder and CEO of Minovia Therapeutics (https://minoviatx.com/), a biotech company dedicated to rapidly advance life-changing therapies that address the unmet need of serious and complex mitochondrial diseases, and are the first clinical-stage company to develop a mitochondrial transplantation approach to treat a broad range of indications generated by a mitochondrial dysfunction which lead to rare-genetic or age-related diseases.

Dr. Yivgi-Ohana has twenty years of experience in mitochondrial research and received her Ph.D. in Biochemistry at The Hebrew University, after which she completed her postdoctoral fellowship at the Weizmann Institute of Science.

Dr. Yivgi-Ohana also has her B.Sc., Medical Sciences Ben-Gurion University of the Negev and her Master’s Degree, Human Reproduction Bar-Ilan University.

Dr. Yivgi-Ohana founded Minovia with a passion to help children and adults with mitochondrial diseases worldwide.

Heisenberg-limited Quantum Sensing Achieves Noise Resilience Via Indefinite-Causal-Order Error Correction

The research extends beyond theoretical analysis by outlining a feasible experimental implementation using integrated photonics. This includes a detailed description of the required optical components and control sequences for realising the ICO gate and performing the quantum sensing measurements. By leveraging the advantages of integrated photonics, the proposed scheme offers a pathway towards compact and scalable quantum sensors with enhanced performance characteristics. The findings pave the way for practical applications in fields such as precision metrology, biomedical imaging, and materials science.

Indefinite Causal Order for Real-Time Error Correction

Realistic noisy devices present significant challenges to quantum technologies. Quantum error correction (QEC) offers a potential solution, but its implementation in quantum sensing is limited by the need for prior noise characterisation, restrictive signal, noise compatibility conditions, and measurement-based syndrome extraction requiring global control. Researchers have now introduced an ICO-based QEC protocol, representing the first application of indefinite causal order (ICO) to QEC. By coherently integrating auxiliary controls and noisy evolution within an indefinite causal order, the resulting noncommutative interference allows an auxiliary system to herald and correct errors in real time.

New Drug Slashes Dangerous Blood Fats by Nearly 40% in First Human Trial

When we eat, the body turns surplus calories into molecules called “triglycerides”, especially when those calories come from carbs, sugar, fats, and alcohol. Triglycerides are a type of fat or “lipid”, and the body stores them in fat cells to use as fuel between meals.

However, too much of this fat can become harmful. High triglyceride levels can lead to “hypertriglyceridemia” (“excess triglycerides in the blood”), a condition tied to a much higher risk of heart disease, stroke, and pancreatitis. That is why people are widely encouraged to support healthy triglyceride levels through diet and exercise, while more severe cases may require medication.

Scientists Uncover Potential “Two-in-One” Treatment for Diabetes and Heart Disease

Earlier work linked the experimental drug ‘IC7Fc’ to improvements in type 2 diabetes, and new research now points to a possible role in cardiovascular health as well. Scientists report that the compound may lower the risk of heart disease by reducing harmful cholesterol in the bloodstream and calming inflammatory activity that damages blood vessels over time.

The findings come from a preclinical study published in Science Advances, led by researchers at Leiden University Medical Centre in the Netherlands in collaboration with Monash University and other international partners.

In experiments involving mice genetically predisposed to heart disease, treatment with IC7Fc led to clear reductions in blood fat (triglycerides) and cholesterol, markers closely linked to the development of cardiovascular complications.

Easy-to-use tool can identify high- and low-risk metastatic prostate cancer patients earlier

A new study published in Nature Communications provides a framework for researching whether earlier, model-guided treatment intensification can meaningfully improve survival for patients with aggressive disease.

“Early decline in prostate-specific antigen (PSA) to very low levels is one of the strongest predictors of long-term survival in metastatic prostate cancer. However, clinicians currently have to wait up to six months after starting therapy to see whether a patient achieves this favorable response. For patients who do not respond well, this delay may allow the cancer to progress and become more resistant to treatment,” said Soumyajit Roy, MD, a radiation oncologist at UH Seidman Cancer Center and first author of the study.

Because existing clinical risk stratification tools—such as disease volume or metastatic burden—are relatively imprecise, there has been an unmet need for a reliable, easy-to-use tool that can risk stratify patients earlier, before that critical six-month window closes. Researchers wanted to determine whether it is possible to predict early treatment response at the time of diagnosis for men with metastatic hormone-sensitive prostate cancer (mHSPC) who are treated with modern androgen receptor pathway inhibitors (ARPIs), which are now standard of care worldwide.

Scientists Discover a New “Cleanup Hub” Inside the Human Brain

How does the brain clear away waste? This task is handled by the brain’s lymphatic drainage system, and attempts to understand how it operates have driven major advances in brain imaging.

A new study published in iScience by researchers at the Medical University of South Carolina reports the first human evidence of a previously unrecognized center of lymphatic drainage in the brain, the middle meningeal artery (MMA).

Using a NASA collaboration that gave them access to real-time MRI tools originally designed to study how spaceflight alters fluid movement in the brain, the MUSC team, led by Onder Albayram, Ph.D., followed the movement of cerebrospinal and interstitial fluids along the MMA in five healthy volunteers over six hours. Their observations showed that cerebrospinal fluid moved slowly and passively, a pattern consistent with lymphatic drainage rather than blood circulation, which would be faster and more pulsatile.

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