Toggle light / dark theme

“Third state” of existence beyond life and death confirmed by study

In science fiction movies like Frankenstein and Re-Animator, human bodies are revived, existing in a strange state between life and death. While this may seem like pure fantasy, a recent study suggests that a “third state” of existence might actually be present in modern biology.

According to the researchers, this third state occurs when the cells of a dead organism continue to function after its death, sometimes gaining new capabilities they never had while the organism was alive.

Amazingly, if further experiments on cells from dead animals — including humans — prove this ability, it could even challenge the definition of legal death.

“GENES ARE NOT THE BLUEPRINT FOR LIFE” | Denis Noble

Denis Noble is a renowned biologist and pioneer in systems biology, known for his groundbreaking work on the heart and his influential contributions to the understanding of biological systems.

Listen on Spotify: https://open.spotify.com/show/4gL14b9

Become a YouTube Member Here:
/ @theoriesofeverything.

Patreon: / curtjaimungal (early access to ad-free audio episodes!)

Join TOEmail at https://www.curtjaimungal.org.

LINKS: — denis noble’s q\&a: • \

Axon-like active signal transmission

Dr. Tim Brown.

Taking…

Axon-mimicking Materials for Computing https://engineering.tamu.edu/news/2024/09/axon-mimicking-mat…uting.html.

Biology does things differently: some signals in the brain are also transmitted across centimeter distances, but through…


A method using semi-stable edge of chaos in LaCoO3 enables continuous signal amplification in metallic conductors without separate amplifiers, potentially revolutionizing electronic chip design.

Powered by renewable energy, microbes turn CO₂ into protein and vitamins

However, the yeast should be treated to rid compounds that can increase the risk of gout if consumed excessively. Even so, treated yeast still meets 41% of the daily protein requirement, comparable to traditional protein sources.

This technology aims to address several global challenges: environmental conservation, , and public health. Running on clean energy and CO2, the system reduces carbon emissions in food production. It uncouples land use from farming, freeing up space for conservation.

Angenent also stresses that it will not outcompete farmers. Instead, the technology will help farmers concentrate on producing vegetables and crops sustainably. The team’s yeast may also help developing nations overcome food scarcity and by delivering protein and vitamin B9.

Nanoscale silver exhibits intrinsic self-healing abilities without external intervention

As an innovative concept in materials science and engineering, the inspiration for self-healing materials comes from living organisms that have the innate ability to self-heal. Along this line, the search for self-healing materials has been generally focused on “soft” materials like polymers and hydrogels. For solid-state metals, one may intuitively imagine that any form of self-healing will be much more difficult to achieve.

Unlocking the secrets of diamond: New insights into nitrogen-vacancy center formation

Research teams from Wuhan University and the China University of Geosciences (Wuhan) have revealed new insights into the formation mechanism of nitrogen-vacancies (NV) centers in type-Ib diamonds, a phenomenon critical to quantum sensing and computing advancements. Using a novel irradiation and annealing method, the teams demonstrated how controlled temperature and orientation can significantly increase the density and depth of NV centers, paving the way for new applications in biological imaging and quantum technologies.

Uncertainty Minimization and Pattern Recognition in Volvox Carteri and Volvox Aureus

Learning and a spectrum of other behavioral competencies allow organisms to rapidly adapt to dynamically changing environmental variations. The emerging field of diverse intelligence seeks to understand what systems, besides ones with complex brains, exhibit these capacities. Here, we tested predictions of a general computational framework based on the free energy principle in neuroscience but applied to aneural biological process as established previously, by demonstrating and manipulating pattern recognition in a simple aneural organism, the green algae Volvox. Our studies of the adaptive photoresponse in Volvox reveal that aneural organisms can distinguish between patterned and randomized inputs and indicate how this is achieved mechanistically.

/* */