The world's first mRNA lung cancer vaccine has begun human testing in a groundbreaking international trial that could transform cancer treatment. BioNTech, the pharmaceutical company that co-developed a leading COVID-19 vaccine, is now testing BNT116 against non-small cell lung cancer, the most common and lethal form of the disease. The experimental vaccine works by teaching the immune system to identify and attack cancer cells, potentially offering new hope for patients facing advanced lung cancer diagnoses. Researchers are conducting the initial safety trial at 34 medical centers across seven countries, including major sites in the UK, US, and Germany. This represents the first time mRNA technology has been tested as a lung cancer treatment in humans.

University of Toronto researchers have documented quantum measurements suggesting photons can exhibit negative transit times through atomic media. The experiment, led by physicist Daniela Angulo, measured atomic excitation durations following photon interactions and recorded values below zero. While the phenomenon appears to contradict conventional temporal ordering, team leader Aephraim Steinberg emphasizes this represents a quantum mechanical measurement effect rather than causality violation or relativistic contradiction. The findings, published on arXiv preprint server, have generated significant scientific debate. Critics contend that "negative time" reflects mathematical measurement artifacts rather than genuine temporal reversal, while supporters argue the results illuminate fundamental quantum probabilistic behaviors. The research challenges traditional understanding of light-matter interactions without suggesting practical time manipulation applications.

Built for U.S. researchers, Nexus delivers 400 quadrillion ops/sec, 330 TB memory, and 10 PB flash storage! Georgia Tech, backed by a $20 million NSF grant, is building Nexus, an AI-powered supercomputer set to launch in spring 2026. Capable of over 400 quadrillion operations per second, Nexus will support research in fields like medicine, clean energy, and climate modeling. Designed for accessibility, it will connect with the National Center for Supercomputing Applications via a high-speed network, democratizing AI tools for U.S. researchers.

A major new study out of Brazil has revealed alarming evidence that heavy drinking can leave a lifelong mark on the brain. Researchers at the University of São Paulo analyzed the brains of 1,781 people, comparing autopsy findings with detailed lifetime drinking histories. The results were stark: heavy drinkers were 133% more likely to have vascular brain lesions, damage to small blood vessels, compared to lifelong abstainers. Even those who had quit heavy drinking years before were 89% more likely to show this kind of brain injury. The dangers don’t end there. The study found that heavy drinkers had a 41% higher chance of developing tau protein tangles, a classic hallmark of Alzheimer’s disease, while former heavy drinkers had a 31% higher risk. Perhaps most sobering, people with a history of heavy alcohol use died on average 13 years earlier than those who never drank. The researchers also noted lower brain mass-to-height ratios and more reported memory and cognitive problems in these groups, even if some effects weren’t as clear in living moderate or heavy drinkers. While the study relied partly on family reporting for drinking habits and couldn’t conclusively prove that alcohol alone caused all the brain damage, it adds substantial weight to the list of reasons for caution. The risks of drinking, especially heavy or sustained use, may last long after the last drink is poured. 📚 Source: University of São Paulo, Brazil (2025) | Study PMID: 40203226

🚨 Major Breakthrough in Cancer Research! Scientists at the University of Florida have developed a promising universal cancer vaccine that could revolutionize cancer treatment. 💉🧬 Using mRNA technology—the same platform behind COVID-19 vaccines—this experimental shot trains the immune system to identify and destroy a molecule found in many types of cancer cells, including melanoma, breast, pancreatic, and lung cancers. In preclinical mouse trials, the vaccine not only wiped out existing tumors but also prevented new ones from forming. The key lies in targeting TACA (tumor-associated carbohydrate antigen), a structure common to several cancers. ⚠️ While it’s still in early stages and not yet tested in humans, this innovation could pave the way for a single vaccine to combat multiple forms of cancer. 🔬 Human clinical trials are up next—stay tuned for this potential game-changer in cancer care. #UniversalCancerVaccine #mRNARevolution #CancerBreakthrough #Immunotherapy #OncologyInnovation #BiotechNews #HealthTech #ScienceUpdate #FutureOfMedicine

🌼 Dandelion root wipes out 95% of colon cancer cells in lab tests 🧬 Could a common weed be a powerful cancer fighter? A groundbreaking study by the University of Windsor revealed that dandelion root extract (DRE) eliminated over 95% of colorectal cancer cells within 48 hours in laboratory conditions. Published in Oncotarget, the study found that DRE activates multiple cancer cell death pathways, indicating a complex and potent anticancer effect. Lead researcher Dr. Siyaram Pandey highlighted its rare ability to kill cancer cells without harming healthy ones—something conventional chemotherapy often cannot do. Why this matters: Low toxicity and naturally derived Targets only cancer cells Sparks new interest in plant-based cancer therapies Important caveat: These findings are from lab tests, not human clinical trials. “Most cells are dead within 48 hours,” said Pandey, “but that doesn’t mean patients will be cured in 48 hours.” Still, this research shines a light on the powerful potential of natural remedies and the urgent need for further clinical trials. #DandelionRoot #ColonCancer #CancerResearch #NaturalTherapy #ScienceNews #PlantPower #Oncotarget #UniversityOfWindsor #SiyaramPandey #MedicalBreakthrough #AlternativeMedicine #HopeThroughScience #NaturalCures #HealthInnovation

মাছের মাথার ভেতর কোটি টাকার ব্যবসা.? 😲 এটা গল্প না, বাস্তব সত্য! বাংলাদেশের অধিকাংশ মানুষ যখন মাছের মাথা ফেলে দেয়, কিন্তু বিশ্বব্যাপী এই অংশটা কিনে নেয় লাখ লাখ টাকায়। কারণ মাছের মাথার ভেতরেই আছে এক ছোট্ট কিন্তু অমূল্য সম্পদ- পিটুইটারি গ্লান্ড (Pituitary Gland).!! 🧠 পিটুইটারি গ্লান্ড কী? এটা মাছের ব্রেইনের নিচের অংশে থাকা হরমোন নিঃসরণকারী একটি ছোট গ্রন্থি। এটি মাছের প্রজনন বা “induced breeding” এর জন্য অপরিহার্য। বিশ্বের অনেক হ্যাচারি ও গবেষণাগারে এই গ্লান্ড থেকে GtH (Gonadotropic Hormone) সংগ্রহ করে ব্যবহার করা হয়। 🌍 কেন এত চাহিদা? কোথায় ব্যবহৃত হয়? এই গ্লান্ড সবচেয়ে বেশি ব্যবহৃত হয়: ✅ Fish Hatchery Industry – কৃত্রিম প্রজনন করাতে ✅ Pharmaceutical Research – হরমোন গবেষণায় ✅ Aqua Tech Companies – প্রজনন বুস্টার ও ঔষধ প্রস্তুত করতে বিশ্বের যে দেশগুলোতে এর চাহিদা সবচেয়ে বেশঃ 🇨🇳 চীন 🇻🇳 ভিয়েতনাম 🇹🇭 থাইল্যান্ড 🇮🇩 ইন্দোনেশিয়া 🇵🇭 ফিলিপাইন 💸 এক কেজি পিটুইটারি গ্লান্ডের দাম কত? প্রতি কেজি গ্লান্ডের দাম আন্তর্জাতিক বাজারে হয়: ৩০,০০০ থেকে ৫০,০০০ মার্কিন ডলার (প্রায় ৩০–৫০ লাখ টাকা) 😲 একটি গ্লান্ডের ওজন হয় মাত্র ৫–১০ মিলিগ্রাম ১ কেজি = প্রায় ৪,০০০–৫,০০০ মাছের গ্লান্ড 🐟 কোন মাছের গ্লান্ড সবচেয়ে বেশি চাহিদাসম্পন্ন? • রুই • কাতলা • মৃগেল • পাঙ্গাস • শিং • মাগুর • টেংরা, বোয়াল, বাইম এই মাছগুলোর গ্লান্ড সবচেয়ে কার্যকর ও মূল্যবান 🧊 সংরক্ষণ ও প্রক্রিয়াকরণ গ্লান্ড সংগ্রহ করার পর এটি সংরক্ষণ করতে হয়: ✅ Deep Freeze (-40°C) ✅ অথবা Ethanol Solution-এ ডুবিয়ে পরে এটি কাঁচা বা প্রসেসড অবস্থায় রপ্তানি করা হয় 📦 রপ্তানি প্রক্রিয়া ও লাইসেন্স আপনি চাইলে বাংলাদেশ থেকেই এই গ্লান্ড রপ্তানি করতে পারেন, তবে আপনাকে নিতে হবেঃ 🔹 ট্রেড লাইসেন্স 🔹 ব্যবসা রেজিস্ট্রেশন (BIN) 🔹 VAT নম্বর 🔹 রপ্তানি উন্নয়ন ব্যুরো (EPB) রেজিস্ট্রেশন 🔹 মৎস্য অধিদপ্তর থেকে অনুমোদন 🔹 ফিশ প্রসেসিং ও এক্সপোর্ট লাইসেন্স 📈 কীভাবে বায়ার খুঁজবেন? ✅ বিদেশি হ্যাচারি কোম্পানি ও রিসার্চ ল্যাব ✅ Alibaba, Made-in-China, Tradekey-এর মতো B2B সাইট ✅ চীনের ডিলার বা এজেন্ট ✅ আন্তর্জাতিক ফিশারিজ ট্রেড ফেয়ার ✅ সোশ্যাল মিডিয়া ও ওয়েবসাইটের মাধ্যমে প্রমোশন 💼 কত টাকা ইনভেস্টমেন্ট লাগবে? • ছোট স্কেলে (ঘরে বসে গ্লান্ড কালেকশন): ৪০-৫০ হাজার টাকা • মিড স্কেল (সংরক্ষণ + নমুনা প্রেরণ): ১–২ লাখ টাকা • বড় স্কেলে প্রসেসিং ল্যাব ও এক্সপোর্ট সেটআপ: ৫–১০ লাখ টাকা 📍 বাংলাদেশে কোথায় বেশি সম্ভাবনা? • ময়মনসিংহ • রাজশাহী • খুলনা • বরিশাল • কুমিল্লা • সিলেট এই অঞ্চলে প্রতিদিন হাজার হাজার টন মাছ কাটাকাটি হয় — কিন্তু এই মূল্যবান গ্লান্ড অনেক সময় ফেলে দেওয়া হয় জাস্ট “অজ্ঞানতায়”। ✅ কেন এটা বাংলাদেশের জন্য গুরুত্বপূর্ণ? • দেশের রপ্তানি আয় বাড়বে • মাছের সব অংশের ভ্যালু পাওয়া যাবে • উদ্যোক্তাদের নতুন লাভজনক খাত • বৈধভাবে রেমিটেন্স আনার সুযোগ • সরকারি সহায়তা থাকলে বছরে ৫০+ মিলিয়ন ডলার আয় সম্ভব 🔥 আপনার জন্য পরামর্শ: ✅ মাছের গ্লান্ড নিয়ে রিসার্চ করুন ✅ স্থানীয় মৎস্য অফিসে যোগাযোগ করুন ✅ প্রশিক্ষণ নিন, তারপর লাইসেন্স নিন ✅ ১০০% বৈধভাবে এই ব্যবসা শুরু করুন ✅ আন্তর্জাতিক বায়ারদের সাথে কানেক্ট করুন #রপ্তানি #ইম্পোর্ট #startabusiness #importexport #এক্সপোর্ট #export #business #entrepreneur #মাছ_রপ্তানি #কোটি #পিটুইটারি

A Groundbreaking Moment in Cancer Research: World’s First Lung Cancer mRNA Vaccine Enters Human Trials 🧬💉 In a historic leap for oncology, scientists have officially launched the world’s first clinical trial of an mRNA vaccine for lung cancer—a potential game-changer in the fight against one of the deadliest cancers worldwide. Developed by BioNTech, the biotech firm behind one of the pioneering COVID-19 vaccines, the new vaccine—BNT116—is specifically designed to combat non-small cell lung cancer (NSCLC), which accounts for about 85% of all lung cancer cases. Unlike traditional treatments, BNT116 works by teaching the immune system to recognize and attack cancer cells, and to help prevent the cancer from coming back. If successful, it could redefine how we treat—and possibly even prevent—advanced lung cancer. The Phase 1 clinical trial is currently underway at 34 sites across seven countries, including the UK, United States, and Germany, marking a major milestone in personalized cancer immunotherapy. 🔬 Source: BioNTech via BioNTech Official Press Release #LungCancerVaccine #BioNTech #mRNAtechnology #CancerResearch #NSCLC #CancerTreatment #MedicalBreakthrough #Immunotherapy #BNT116 #LungCancerAwareness #ScienceNews #ClinicalTrials

According to a 2025 study published in JAMA Internal Medicine and reported by VeryWell Health, researchers from UCSF analyzed data from 93 million CT scans performed in the U.S. in 2023 and projected that these could lead to over 100,000 future cancer cases, accounting for roughly 5% of all new cancer diagnoses annually. The risk comes from ionizing radiation, which CT scans use to produce detailed internal images. While a single scan poses minimal risk, the cumulative exposure, especially from multiphase scans or repeated imaging, can significantly increase cancer risk over time. That said, experts emphasize that CT scans remain life-saving diagnostic tools, and the goal isn’t to eliminate them but to optimize their use. According to the American College of Radiology, newer CT technologies use 30–50% less radiation than older models

Sleep-deprived? Your brain might be eating itself—literally. When we don’t get enough sleep, our brain doesn’t just get tired—it starts to eat itself. That’s the alarming takeaway from research in mice showing that chronic sleep deprivation triggers overactivity in glial cells, the brain’s internal clean-up crew. Normally, these cells maintain brain health by clearing away damaged or unnecessary components. But when sleep is lacking, a type of glial cell called an astrocyte becomes hyperactive, pruning not just damaged parts of neurons but healthy ones as well. In severely sleep-deprived mice, astrocytes began breaking down parts of synapses—critical connections between neurons—resulting in the destruction of up to 13% of brain cells. This zombie-like self-cannibalism has wide-reaching implications, especially in understanding neurodegenerative diseases such as Alzheimer’s, where disrupted sleep and neuronal damage often go hand-in-hand. Scientists believe this overactive clean-up response could help explain the cognitive decline associated with chronic sleep deprivation. While further research is needed to confirm how this plays out in humans, the findings make one thing clear: consistent, quality sleep is not a luxury—it’s essential brain maintenance that protects against long-term damage. Source: Science Museum of Virginia. "Question Your World: When Does the Brain Eat Itself?" (2018)

🧠 A new brain scan can tell you how fast your aging A single brain scan can reveal how fast you're aging and might even predict your risk of dementia and other health problems later in life, according to new research. Scientists have created a tool called DunedinPACNI that uses brain scans taken in midlife to measure biological aging, the wear and tear on your body that doesn’t always match your actual age. This tool was built using data from over 1,000 people born in the early 1970s in New Zealand, whose health has been tracked for decades. DunedinPACNI looks at 99 brain features, like the thickness of the cerebral cortex and the volume of gray matter, to estimate how quickly someone is aging. When tested on data from over 50,000 people, it accurately predicted risks of conditions like dementia and heart disease. The researchers say this approach works as well as or better than other biological age measures and applies across different groups of people. The idea is that if someone is shown to be aging faster than their chronological age, they could make lifestyle changes, like improving diet and exercise, years before major health issues appear. The team sees this as a way to identify dementia risk earlier, which is critical as rates of Alzheimer’s and related diseases rise globally. Although it’s not perfectly accurate, it shows promise as a quick, single-scan method to spot people who may need preventive care decades before symptoms show. This study was published in Nature Aging. source Whitman, E.T., Elliott, M.L., Knodt, A.R. et al. DunedinPACNI estimates the longitudinal Pace of Aging from a single brain image to track health and disease. Nat Aging (2025).

In a place known for its icy blues and snowy whites, researchers were stunned to find a bright green algae bloom thriving beneath Arctic ice. This strange sight was first spotted in 2011 by scientists from Stanford University who were tracking ocean life in the Chukchi Sea. The green patch turned out to be a massive bloom of phytoplankton—tiny, oxygen-producing organisms that usually need a lot of sunlight. The catch? Thick Arctic ice has always been thought to block sunlight, making such blooms impossible. The key to the mystery was thinner ice. A later study in 2017 by researchers at Harvard revealed that global warming had caused Arctic ice to thin out and become less reflective, allowing more sunlight to pass through. This unexpected access to light created just the right conditions for photosynthesis to kick in, sparking large under-ice blooms of phytoplankton. In fact, these blooms were found to be up to ten times more productive than usual, raising big questions about what this means for the future of the Arctic. Phytoplankton plays a vital role in producing oxygen and feeding marine life, but scientists worry that such fast and dramatic changes could throw the entire Arctic ecosystem off balance. Warmer temperatures, melting ice, and blooming algae could trigger unpredictable effects for everything from tiny fish to larger Arctic animals, creating yet another dangerous feedback loop in our warming world. PMID: 28435859 PMCID: PMC5371420