Toggle light / dark theme

Mysterious black goo discovered aboard ship reveals species unknown to science

“The biggest surprise was that the ship goo had life in it at all,” researcher Cody Sheik, who discovered the substance, said in a press release. “We thought we’d find nothing. But surprisingly, we found DNA, and it wasn’t too destroyed, nor was the biomass too low.”

After further analysis, the team reconstructed 20 genomes from the sample. Some appear to represent entirely new branches of life, including what could be a previously unknown order of archaea and even a new bacterial phylum.

Inside the goo, scientists found microbes that thrive in semi-warm environments with no oxygen — conditions that closely match those inside the ship’s mechanical systems. Researchers believe the organisms may have hitchhiked on oil used to grease the rudder, remaining dormant until conditions allowed them to grow.

Genome pioneer Craig Venter dies: here’s how he transformed science

It’s very sad that Craig Venter passed away. One of a few people I’ve admired since middle school. Truly a life well lived.


Venter redrew the boundaries of biology — sequencing DNA at unprecedented speed, engineering synthetic life and charting ocean microbes.

World Science Festival

Does quantum mechanics actually imply that every possible outcome of every decision happens somewhere in an expansive reality? And if so, what does that mean for probability, free will, and our understanding of the universe itself?

Brian Greene sits down with David Deutsch, widely regarded as the father of quantum computing, to examine what many physicists are still reluctant to accept about their own theory. They explore why the many-worlds interpretation isn’t just a philosophical curiosity, what the wave function is really telling us about reality, and how decision theory may rescue probability in a fully deterministic multiverse. Deutsch also introduces constructor theory, his framework for rethinking the foundations of physics entirely and explains why the questions we’ve been trained not to ask might be the most important ones in all of science.

This program is part of the Rethinking Reality series, supported by the John Templeton Foundation.

Participant: David Deutsch.
Moderator: Brian Greene.

#worldsciencefestival #briangreene #cosmology #astrophysics.

ABOUT WORLD SCIENCE FESTIVAL:

The Science of PROJECT HAIL MARY

I talk about the science of Project Hail Mary and why it makes the story feel so grounded, exciting, and believable.

From microbes in space to the real challenges of long-duration space travel, this section looks at how the movie uses science as more than just background decoration. It also gets into why stories like this feel so refreshing right now, because they make curiosity, intelligence, and problem-solving feel dramatic again.

This is a conversation about the real science behind Project Hail Mary, what NASA’s work has to do with the movie, and why science fiction can still inspire wonder.

FULL EPISODE: • PROJECT HAIL MARY: Hope, Science, and Huma…
Listen to Project Hail Mary: https://amzn.to/3OSuE0K
Wear Project Hail Mary: https://amzn.to/4cY4vqy.
Fist My Bump: https://amzn.to/42nq1yN

Patreon: https://tinyurl.com/EgoPatreon.

What if humans could regrow tissue? New study moves science closer

For centuries, the inability to regrow lost body parts has been considered a defining limitation of humans and other mammals. While animals like salamanders can regenerate entire limbs, humans are left with scar tissue. But new research from the Texas A&M College of Veterinary Medicine and Biomedical Sciences (VMBS) suggests that this limitation may not be permanent. Instead, the capacity for regeneration may still exist—hidden within the body’s normal healing process.

“Why some animals can regenerate and others, particularly humans, can’t is a big question that has been asked since Aristotle,” said Dr. Ken Muneoka, a professor in the VMBS’ Department of Veterinary Physiology & Pharmacology (VTPP). “I’ve spent my career trying to understand that.”

In their study, published in Nature Communications, Muneoka and his colleagues detail a newly developed two-step treatment that led to the regeneration of bone, joint structures and ligaments. While the results were imperfect, the team believes this approach could be used more immediately to reduce scarring and improve tissue repair after amputations.

The Science of piRNA and Predicting Death With a Blood Test

Researchers have identified specific small non-coding RNA molecules, known as piRNAs, that may serve as potent biomarkers for predicting all-cause mortality. This breakthrough suggests that a single blood test could eventually quantify biological aging and help clinicians identify high-risk patients long before clinical symptoms of age-related decline emerge. More on the research.


A new study analyzed piRNA — first discovered in 2006 — as a strong predictor of short-term survival in older patients. It could one day be a simple blood test.

Science Still Can’t Explain Consciousness…Here’s Why

Support the Research Behind this Channel on Patreon:
/ arvinash.

REFERENCES
Quantum consciousness • Quantum Mind: Is quantum physics responsib…
When AI became Self Aware • When AI Becomes Self-Aware. Is Machine Con…
Is consciousness God? • Is consciousness God? And where is it loca…

CHAPTERS
0:00 Why does matter become aware?
0:47 What is consciousness (scientific perspective)?
1:52 WHERE is consciousness?(Scientific perspective)?
4:40 Is quantum mechanics at the root of consciousness?
6:45 The reductionist approach
7:17 \

The subtle science behind safer brain implants

In a recent publication appearing in Advanced Science, researchers at the Netherlands Institute for Neuroscience challenge the assumptions surrounding the design and materials used for brain implants. Softer, flexible implants are gentler than older ones, but they are not completely harmless. By carefully studying these effects, researchers can begin to design safer implants, and bring long-term, reliable implants closer to reality.

In laboratories around the world, scientists are working on a bold goal: restoring blindness using brain implants. But behind the futuristic promise lies a quieter, more complicated story about materials, assumptions, and the limits of what we really understand about the brain.

One part of this story includes a deceptively simple question: How do you place a foreign object in the brain without evoking a reaction?

/* */