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Why Elon Musk named his son after this Indian?      #... https://youtube.com/shorts/m0PphxEFbxQ?si=N6lDVyZ5MlpIDv-k via
02/27/2026

Why Elon Musk named his son after this Indian? #... https://youtube.com/shorts/m0PphxEFbxQ?si=N6lDVyZ5MlpIDv-k via

The Indian Scientist Who Outlasted Prejudice!Did you know that Elon Musk’s son, Techno Mechanicus, has the middle name "Sekhar"? It is a tribute to one of th...

02/25/2026

RENEWABLE ENERGY INSIGHTS
Japan’s First Osmotic Power Plant: What It Means for Clean Energy
Japan has unveiled its first osmotic power facility in the coastal city of Fukuoka, marking a step into a little-known but promising form of renewable energy. This installation, only the second of its kind worldwide, is designed to generate around 880,000 kilowatt hours of electricity each year, enough to help operate a local desalination plant that provides drinking water for Fukuoka and nearby communities.

According to Dr Ali Altaee of the University of Technology Sydney, that output could supply roughly 220 average Japanese households. Though still in its early stages and relatively small in scale, osmotic power offers one major advantage over other renewable sources: it runs continuously, unaffected by changes in weather or daylight. By drawing energy from the natural mixing of saltwater and freshwater, the process delivers a reliable, round-the-clock supply. In this article, we will discuss what osmotic power is and how it might be used in the future.

What is Osmotic Power?

Osmosis is a natural phenomenon where water moves through a semipermeable barrier from a solution with lower concentration to one with higher concentration, aiming to equalise both sides. Imagine a glass split in half by a thin, selective membrane. On one side is saltwater, and on the other is fresh water. Because the salt cannot cross the barrier, the freshwater gradually flows toward the saltier side, diluting it in the process.

Osmotic power plants apply this same process by positioning seawater and freshwater on opposite sides of a specially designed membrane, with the seawater kept under mild pressure. As freshwater moves across into the saltier side, the volume of pressurised liquid grows, creating energy that can be captured. At the Fukuoka site, either river water or treated wastewater is combined with seawater in this setup. The resulting pressure build-up drives some of the water through a turbine linked to a generator, converting the natural flow into usable electricity.

Other Places Osmotic Power Is in Use

According to Professor Sandra Kentish from the University of Melbourne, the Fukuoka facility is only the second osmotic power plant in operation worldwide, following the first built in 2023 in Mariager, Denmark, by the venture company SaltPower. While the Japanese site is larger in scale, Dr Ali Altaee notes that its performance is comparable to the Danish plant. Smaller pilot projects have also been tested in countries such as Norway and South Korea. Altaee added that the University of Technology Sydney developed its own prototype, though progress stalled during the Covid pandemic, and he has contributed to building additional test sites in Spain and Qatar.

What Challenges Does Osmotic Power Face?

Although the principle behind osmotic power is straightforward, putting it into large-scale practice remains a challenge. Professor Sandra Kentish explains that a significant amount of energy is consumed simply by pumping water into the system and moving it through the membranes. “When fresh and salt water mix, energy is released,” she said, “but much of that potential is offset by the energy needed to push the two streams into the plant and the friction losses across the membranes. As a result, the net gain is relatively small.”

Even so, Kentish noted that improvements in both pump efficiency and membrane design are helping to address these limitations. She also highlighted a clever feature of the Japanese facility: it uses concentrated seawater, the brine left over from desalination, as one of its inputs. This increases the difference in salt concentration, allowing for greater energy recovery.

What’s Next for Osmotic Power

Both Kentish and Altaee see the Fukuoka plant as a significant milestone for osmotic power, demonstrating that the technology can be applied to generate electricity on a larger scale. Altaee added that the prototype at the University of Technology Sydney could be reactivated if government funding were provided, opening the door to a project of comparable scale to the Japanese facility. “New South Wales and Sydney have salt lakes that could serve as a resource, and we also have the technical know-how to build such a plant,” he noted.

The Renewable Energy Institute stays current with the latest advancements in the renewable energy sector by continuously monitoring industry research, emerging technologies and global policy developments. Keep up to date with developments through our Daily News or Renewable Energy Insights articles.

02/25/2026
02/24/2026

Most “car-replacing” ebikes still look and feel like… well, bikes. But the Elecy is trying something different.

Developed by British Formula 1 engineer Tamara Ivancova through her company Amara Automotive Ltd, this four-wheeled pedal-electric vehicle looks far more like a tiny car than a traditional bicycle. It offers full weather protection, two seats, and actual cargo space – while still operating in bike lanes.

Currently in functional prototype form, the Elecy features a composite body made largely from recycled and renewable materials. It also uses standard bicycle parts wherever possible, keeping things simple and serviceable.

Performance-wise, it has a maximum electric-assist speed of 25 km/h (16 mph), and a claimed range of up to 80 km (50 miles) on a 3-hour charge. The battery is removable for easy charging, and a second battery can be added to extend the range even further.

Inside, there’s space for one adult in the front and a child in the rear, plus 300 liters of cargo capacity — enough for groceries, school bags, or daily essentials. The lockable hood and weatherproof aerodynamic canopy provide protection from the elements, but the canopy can also be removed for a cabriolet-style ride. Air vents are included, and an optional climate control system is in development.

The mid-mount motor can even be disengaged for fully manual pedaling. Add GPS tracking and a full LED lighting system — headlights, brake lights, indicators, and tail lights — and it starts to blur the line between bicycle and microcar.

Measuring 2.5 m long, 0.8 m wide, and 1.3 m tall (98.4 x 31.5 x 51.2 inches), and weighing just 45 kg (99 lb), the Elecy is compact yet surprisingly capable.

A world tour with the prototype is planned this year, with testing and certification expected over the next 12–18 months. Preorders are hoped to begin later in 2026, with pricing to be announced then.

It’s not quite a car — and not quite a bike. And that’s exactly the point.

On youTube Make the Pill Fit the Ill | Sofia Tomov | TEDxUTK https://youtu.be/BCGyIq1BoEE?si=KJcxFKSYHQ-1Fxoh via  https...
02/17/2026

On youTube Make the Pill Fit the Ill | Sofia Tomov | TEDxUTK https://youtu.be/BCGyIq1BoEE?si=KJcxFKSYHQ-1Fxoh via

https://www.facebook.com/share/p/1PmxiVTHjq/?mibextid=wwXIfr

Sofia Tomov was sitting with her parents in their Knoxville, Tennessee home when a familiar pharmaceutical commercial flickered across the screen. The images showed smiling faces and sunny skies, but the soothing voiceover rattled off a long list of unsettling warnings.
May cause nausea, dizziness, irregular heartbeat.
Sofia turned to her parents with a question that most adults would never think to ask. Why do medicines help some people but hurt others?
Most twelve-year-olds would have accepted a simple answer and moved on. Sofia was not most twelve-year-olds. She needed to understand the reason behind the reason. So she started researching.
What she found shocked her.
Adverse reactions to prescription drugs were estimated to be among the top causes of death in the United States, killing over a hundred thousand people every year. These reactions claimed more lives annually than AIDS, diabetes, or pneumonia. This was not a minor side effect of modern medicine. This was a massive public health crisis hiding in plain sight, and most people had no idea it was happening.
Sofia was a homeschooled eighth grader who loved playing electric guitar, practiced fencing, and spent her free time nature journaling. She was curious about everything. But this problem grabbed her attention in a way nothing else had. She decided she was going to do something about it.
The root of the problem was in our DNA. Every person's genetic code is slightly different. Some people carry specific mutations that make them react dangerously to certain medications. A drug that is perfectly safe for most people could trigger organ failure or even death in someone with the wrong genetic variation.
Scientists already knew this. The field of pharmacogenomics had been studying it for years. But what they did not have was a practical, fast solution.
The challenge was time. In emergencies like heart attacks, seizures, or severe allergic reactions, doctors need to act immediately. They cannot wait hours or days for a patient's entire genome to be sequenced and analyzed. The human genome contains roughly six billion base pairs of information. Searching through all of that data for dangerous mutations simply took too long for real-world emergency medicine.
Patients in emergency rooms do not have hours. They have minutes.
Sofia had a bold idea. What if patients were screened during routine medical checkups while they were healthy? Their genetic results could be stored in their medical records. Then, if an emergency ever happened, doctors would already know exactly which medications to prescribe and which ones to avoid.
But even with a genome already on file, searching through billions of base pairs for the relevant mutations was still painfully slow with existing technology. The algorithms scientists were using simply could not process the data fast enough to be useful in a clinical setting.
So Sofia decided to make the process faster herself.
She had been taking computer science classes and had developed strong programming skills for her age. She studied the existing genomic search algorithms, understood their limitations, and then did something that impressed even professional scientists. She figured out how to run the code across multiple computer processors simultaneously, a technique called parallel processing, which dramatically reduced the time needed to identify dangerous genetic mutations in a patient's genome.
Her algorithm was not just a minor improvement. It was a significant leap forward. Instead of hours, it could scan a genome for medication-related mutations in a fraction of the time.
Fast enough to be practical. Fast enough to be used in real healthcare. Fast enough to potentially save lives.
Sofia envisioned a future where genetic screening would become as routine as checking blood pressure. Every patient's medical record would include a personalized list of medications to avoid. Emergency room doctors could prescribe treatments with confidence, knowing they would not accidentally trigger a fatal reaction.
In June 2016, Sofia entered her project in the Discovery Education 3M Young Scientist Challenge, one of the most prestigious science competitions for middle school students in America. Out of hundreds of entries from students in grades five through eight across the country, her algorithm earned her a spot as one of just ten national finalists.
She was paired with John Henderson, a 3M scientist, who mentored her over the summer via video calls as she refined and improved her prototype. In October 2016, she traveled to St. Paul, Minnesota, to present her work at the 3M Innovation Center alongside nine other brilliant young finalists.
This was far from Sofia's first impressive achievement. She had already filed a patent for a device designed to safely dispose of unused medications. She had published a children's book. She had passed two Advanced Placement courses while still in middle school and was enrolled in three more. The University of Tennessee at Knoxville had even accepted her as a part-time visiting student at just twelve years old, allowing her to take college courses while continuing her education at home.
Her mother Beverly, a teacher, and her father, who works in the computer science field, had nurtured Sofia's curiosity from the start. Beverly homeschooled Sofia with a philosophy centered on learning by doing and making connections, between ideas, with nature, and with other people.
Those lessons had clearly taken root in extraordinary ways.
Sofia did not win the top prize at the competition. But being named a national finalist at twelve years old was a remarkable achievement in itself. More importantly, her work carried real potential to make a difference in the world of medicine. She understood that her algorithm needed further development before it could be integrated into healthcare systems. She knew there would be regulatory hurdles, extensive testing, and the complexities of adapting new technology to existing medical infrastructure.
But none of that discouraged her.
Her long-term goals were already taking shape. She wanted to earn a doctorate in computer science and start her own company focused on machine learning, building systems that could solve complex problems by learning from massive amounts of data.
Sofia Tomov's story carries a message that everyone needs to hear. Age does not determine who gets to solve important problems. At twelve, she took on a challenge that had stumped professional scientists for years. She did not know more than they did. But she looked at the problem with fresh eyes and refused to accept that it could not be solved.
Curiosity alone is not enough, but curiosity paired with the willingness to learn real skills can change the world. Sofia did not just wonder why medications affected people differently. She taught herself enough computer science to actually do something about it.
Some of the most dangerous problems in our world are the ones we have learned to accept as normal. Hundreds of thousands of people are harmed or killed every year by adverse drug reactions, yet most people assume nothing can be done. It took a twelve-year-old watching a television commercial to ask the simplest and most powerful question of all. Why can we not fix this?
The future of innovation does not wait for permission, credentials, or age. While adults debate whether young people are ready for big challenges, young people like Sofia are already building the solutions.
She did not wait for a doctorate. She did not wait for funding or a laboratory. She started with the skills she had, the curiosity she was born with, and the support of parents who believed that learning should never have limits.
Genius does not wait for permission. It simply gets to work.
~Old Photo Club

Bike Gears using “Phrozen Arco 3D printer”https://www.facebook.com/share/1DftvneviS/?mibextid=wwXIfr
02/14/2026

Bike Gears using “Phrozen Arco 3D printer”

https://www.facebook.com/share/1DftvneviS/?mibextid=wwXIfr

A YouTuber just proved you don’t always need a metal chain to make a bike move.

Sergii Gordieiev, the mind behind the channel The Q, brought a chainless bicycle back to life using something unexpected: a row of 3D-printed plastic gears.

Instead of a traditional chain, the setup uses one large gear connected to four smaller ones. All of them are interlocked in a straight line. When the big gear turns, it transfers motion through the smaller gears, which then rotate the rear wheel. It works almost like a clock mechanism — simple in concept, but precise in ex*****on.

Getting it right wasn’t easy. If even one gear slips out of alignment, the whole system fails. That’s why accurate sizing was critical. Sergii designed each gear carefully and printed them using a Phrozen Arco 3D printer equipped with high-flow engineering nozzles that push melted plastic quickly. The result: clean, precise white gears that he later painted bright orange so they stand out against the bike frame.

Before mounting everything on the bicycle, he tested the gears on a wooden slab to check fit and motion transfer. Once satisfied, he secured them in place where the chain would normally sit. The final small gear connects directly to the rear wheel hub, completing the drive system.

The finished bike actually rides — powered entirely by interlocked plastic gears instead of a chain.

Beyond being a cool experiment, the project shows how 3D printing can make parts easier to replace or customize. If a gear wears out, you could theoretically print another one at home using filament you already have. For DIY fans, it’s a glimpse at how accessible fabrication tools are reshaping even something as familiar as a bicycle. 🚲

The best way to learn AI skills is to combine foundational knowledge in math and programming with practical, hands-on ex...
02/05/2026

The best way to learn AI skills is to combine foundational knowledge in math and programming with practical, hands-on experience through online courses, projects, and community engagement[1][2][3]. Effective learning involves structured study, experimenting with AI tools, and continuously applying concepts to real-world scenarios[4][5][2].

Top AI certification courses for 2026 include DeepLearning.AI’s Machine Learning Specialization for foundational knowledge, Google AI Essentials for beginners, and IBM AI Engineering Professional Certificate for technical skills. Other top choices feature AWS Certified Machine Learning Specialty for cloud-based ML, Harvard’s Graduate Certificate in AI for academic rigor, and Google’s Generative AI learning path for specialized, in-demand skills.

https://youtu.be/ylpkTn08sww?si=vfJAGzwXfi1IR9XC

Top Recommended AI Engineering Track - https://datacamp.pxf.io/bOXegbAfter wrangling through 20+ AI Engineering courses available on online learning platform...

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