Lifeboat Foundation

Nothing lasts forever. Humans, planets, stars, galaxies, maybe even the Universe itself, everything has an expiration date. But things in the quantum realm don’t always follow the rules. Now, scientists have found that quasiparticles in quantum systems could be effectively immortal.

That doesn’t mean they don’t decay, which is reassuring. But once these quasiparticles have decayed, they are able to reorganise themselves back into existence, possibly ad infinitum.

This seemingly flies right in the face of the second law of thermodynamics, which asserts that entropy in an isolated system can only move in an increasing direction: things can only break down, not build back up again.

And China might develop it—and soon.

By Sebastien Roblin

Aging is one of the world’s greatest health problems. And subsequently, is the cause of most fatal diseases. Age-related processes are inevitable and cause a range of diseases. It is much more efficient and effective to tackle the aging itself rather than each disease it causes.

At the end of every chromosome are telomere caps which degrade as we age. This causes a number of issues. For example:

The human body secretes an enzyme that might increase our lifespan if properly developed.

The Thunder Child can right itself even in the harshest storms.

We are drawing close now to the Ending Age-Related Diseases Conference in New York City, so with less than a month before the big day, today is the ideal time to have a look at what has been happening.

Tickets are priced at only $500 and include access to two action-packed days of aging research and biotech business discussion. There will be talks covering the latest research progress along with talks involving the business and investment side of the industry, and this conference will feature a total of 34 leading experts in the field of rejuvenation biotechnology.

Refreshments and lunch are provided on site for your enjoyment during both days of the conference, and a conference program is available here.

An artificial nose developed at Tampere University, Finland, helps neurosurgeons to identify cancerous tissue during surgery and enables the more precise excision of tumours.

Electrosurgical resection using devices such as an electric knife or diathermy blade is currently a widely used technique in neurosurgery. When tissue is burned, tissue molecules are dispersed in the form of surgical smoke. In the method developed by researchers at Tampere University, the surgical smoke is fed into a new type of measuring system that can identify malignant tissue and distinguish it from healthy tissue.

An article on using surgical smoke to identify brain tumours was recently published in the Journal of Neurosurgery. “In current clinical practice, frozen section analysis is the gold standard for intraoperative tumour identification. In that method, a small sample of the tumour is given to a pathologist during surgery,” says researcher Ilkka Haapala from Tampere University.

This post originally appeared at Fight Aging!

Sizable factions within the research and advocacy communities are very interested in having aging officially classified as a disease, meaning its inclusion in the International Classification of Diseases maintained by the World Health Organization, as that is the basis for the definition of disease used by national regulatory bodies. The view is that this would open the door to greater large-scale institutional funding, more relevant clinical trials for therapies targeting the mechanisms of aging, and that this greater level of funding and activity will percolate back down the chain of research and development to accelerate progress. I think this a reasonable argument to make, though I would advocate for greater effort to be placed on finding a way to bypass the system rather than change it directly – the threat of competition tends to be more effective than petitions as a way to force change.

Continue reading “Inching Towards the Regulatory Classification of Aging as a Disease” »

New drugs based on proteasomes could treat previously undruggable diseases.