Following on from their breakthrough human trial that successfully reprogrammed the immune system to overpower glioblastoma, an aggressive brain tumor, the same scientists have now further developed the mRNA vaccine to fight not one but any cancer. It has the potential to do away with chemotherapy, surgery and radiation treatment.

University of Florida (UF) scientists have developed an experimental vaccine that dramatically boosts the immune system’s ability to fight tumors – even without targeting a specific cancer type. This “general purpose” mRNA jab works in a similar way to a Covid-19 vaccine but with a different target; it instructs the body’s immune cells to rally and hit any kind of tumor in the same way they would attack a viral spike protein.

“This paper describes a very unexpected and exciting observation: that even a vaccine not specific to any particular tumor or virus – so long as it is an mRNA vaccine – could lead to tumor-specific effects,” said Elias Sayour, a pediatric oncologist and principal investigator at the RNA Engineering Laboratory at UF. “This finding is a proof of concept that these vaccines potentially could be commercialized as universal cancer vaccines to sensitize the immune system against a patient’s individual tumor.”

In 2024, a quantum state of light was successfully teleported through more than 30 kilometers (around 18 miles) of fiber optic cable amid a torrent of internet traffic – a feat of engineering once considered impossible.

The impressive demonstration by researchers in the US may not help you beam to work to beat the morning traffic, or download your favourite cat videos faster.

However, the ability to teleport quantum states through existing infrastructure represents a monumental step towards achieving a quantum-connected computing network, enhanced encryption, or powerful new methods of sensing.

A rather unassuming particle is playing an important role in the hunt for subatomic oddities. Similar to protons and neutrons, mesons are composed of quarks bound together by the strong nuclear force. But these short-lived particles have different characteristics that can reveal new information about the atomic nucleus and how the universe works.

Advancing this understanding could one day enable new discoveries in many fields, ranging from nuclear power to medicine and materials engineering.

The so-called a₂ meson is a relatively lightweight system of quarks. It is produced in experiments at the U.S. Department of Energy’s Thomas Jefferson National Accelerator Facility.

Purdue University is standing at the forefront of expanding space exploration and a future economy with the creation of the first-ever Comprehensive Space Engineering Degrees Program in the country.

The program combines both a new online master’s degree in space systems engineering and a new space engineering undergraduate certificate to the established array of cutting-edge programs in the College of Engineering.

The Comprehensive Space Engineering Degrees Program is the latest learning opportunity at Purdue, reflecting a demand for aerospace engineers around the world. The School of Aeronautics and Astronautics continues to offer a variety of important specializations within the undergraduate and graduate degree programs.

(Online programs )

Purdue has the first-ever Comprehensive Space Engineering Degrees Program with offerings ranging an online master’s degree to undergraduate space certificate.

What will we build? How will humanity expand and conquer the stars? Embark on this incredible audio-visual journey to find out…

Music:
Intro: ‘Helios’ by Scott Buckley.
Video: ‘Discovery’ by Scott Buckley.
Links:
• ‘Helios’ [Cinematic Orchestra CC-BY] — Sco…
• ‘Discovery’ [Epic Cinematic CC-BY] — Scott…
@ScottBuckley.

Patreon: / stargaze908
TikTok: / stargaze_youtube.
Discord: / discord.
Shorts: / @stargazeshorts.

00:00 — Intro.
00:50 — Dyson Swarm.
01:19 — Dyson Sphere.
02:18 — Supercomputer.
02:51 — Orbital Rings.
03:48 — Terraforming.
05:19 — Ringworld.
06:18 — Cosmic Engineering.

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²Department of Neurology and.

³Neuroregeneration and Stem Cell Programs, Institute for Cell Engineering, Johns Hopkins University School of Medicine, Baltimore, Maryland, USA.

Liver organoids with proper blood vessel networks have been successfully produced, as reported by researchers from Institute of Science Tokyo and Cincinnati Children’s Hospital Medical Center. This advancement addresses a major challenge in replicating the liver’s complex vasculature in lab-grown tissues. Using a novel 3D culture system, the researchers achieved the self-organization of four distinct precursor cell types into functional organoids, capable of producing essential clotting factors in a haemophilia A mouse model.

Over the past decade, organoids have become a major focus in biomedical research. These simplified, lab-grown organs can mimic important aspects of human biology, serving as an accessible and powerful tool to study diseases and test drugs. However, replicating the intricate arrangements and networks of blood vessels found in real organs remains a major hurdle. This is especially true for the liver, whose metabolic and detoxification functions rely on its highly specialized vasculature.

Because of such limitations, scientists haven’t fully tapped into the potential of liver organoids for studying and treating liver diseases. For example, in hemophilia A, a condition where the body cannot produce enough of a critical clotting factor, current treatments often involve expensive and frequent injections. An ideal long-term solution would restore the body’s ability to produce its own clotting factors, which could, in theory, be achieved using liver organoids with fully functional blood vessel structures called sinusoids.

Unlock All The Power of Your Mind:
https://thehiddenlibrary.org/

Behind the illusion of free choice and authentic thought lies an invisible architecture shaping the collective mind. In this video, we dive deep into the anatomy of large-scale mind control. This is a form of psychic engineering that goes far beyond propaganda and mainstream media. We expose the hidden mechanisms that domesticate consciousness and manufacture consensus, from symbolic archetypes to technologies of mass emotional manipulation.

You are alive, but not awake. You walk, speak, decide, yet everything in you is mechanical. An automaton moved by impulses you do not understand. The collective mind is the machine and you are just a part of it. This video is not entertainment. It is a call to inner work. If there is still a living spark within you, it will feel this. And maybe, for the first time, you will realize you have never been free.

The mechanical strength and toughness of engineering materials are often mutually exclusive, posing challenges for material design and selection. To address this, a research team from The Hong Kong Polytechnic University (PolyU) has uncovered an innovative strategy: by simply twisting the layers of 2D materials, they can enhance toughness without compromising material’s strength.

This breakthrough facilitates the design of strong and tough new 2D materials, promoting their broader applications in photonic and electronic devices. The findings have been published in Nature Materials.

While 2D materials often exhibit exceptional strength, they are extremely brittle. Fractures in materials are also typically irreversible. These attributes limit the use of 2D materials in devices that require repeated deformation, such as high-power devices, flexible electronics and wearables.

From punch card-operated looms in the 1800s to modern cellphones, if an object has “on” and “off” states, it can be used to store information.

In a laptop computer, the ones and zeroes that make up the binary language are actually transistors either running at low or high voltage. On a compact disc, the one is a spot where a tiny indented “pit” turns to a flat “land” or vice versa, while a zero represents no change.

Historically, the size of the object cycling through those states has put a limit on the size of the storage device. But now, researchers from the University of Chicago Pritzker School of Molecular Engineering have explored a technique to make the metaphorical ones and zeroes out of crystal defects, each the size of an individual atom, for classical computer memory applications.

UChicago researchers created a ‘quantum-inspired’ revolution in microelectronics, storing classical computer memory in crystal gaps where atoms should be.