Lifeboat Foundation

Applied Omniscience in Transformative and Integrative Risk Management! By Mr. Andres Agostini

This is an excerpt from the presentation, “…Applied Omniscience in Transformative and Integrative Risk Management!…” that discusses some management theories and practices. To read the entire piece, just click the link at the end of article:

Please see the graphic at http://lnkd.in/dUstZEk

This is an excerpt from the conclusion section of, “…NASA’s Managerial and Leadership Methodology, Now Unveiled!..!” by Mr. Andres Agostini, that discusses some management theories and practices. To read the entire piece, just click the link at the end of this illustrated article and presentation:

In addition to being aware and adaptable and resilient before the driving forces reshaping the current present and the as-of-now future, there are some extra management suggestions that I concurrently practice:

1. Given the vast amount of insidious risks, futures, challenges, principles, processes, contents, practices, tools, techniques, benefits and opportunities, there needs to be a full-bodied practical and applicable methodology (methodologies are utilized and implemented to solve complex problems and to facilitate the decision-making and anticipatory process).

The manager must always address issues with a Panoramic View and must also exercise the envisioning of both the Whole and the Granularity of Details, along with the embedded (corresponding) interrelationships and dynamics (that is, [i] interrelationships and dynamics of the subtle, [ii] interrelationships and dynamics of the overt and [iii] interrelationships and dynamics of the covert).

Continue reading “NASA's Managerial and Leadership Methodology” »

Megan Cully

Altering the surface of orthopaedic implants has already helped patients – and nanotech can fight infections too

One of medicine’s primary objectives is to trick the body into doing something it doesn’t want to do. We try to convince our immune systems to attack cancer cells (our immune systems don’t normally attack our own bodies), we try to convince neurons to regrow (another unnatural phenomenon), and we try to convince the body to accept foreign bits, such as someone else’s kidney or a fake bone. In order to accomplish this, we try to make parts of our bodies we don’t want, such as cancers, look foreign. We try to make foreign bits that we do want, such as orthopaedic implants, look natural. Nanotechnology, as you might have guessed, can help us do just that.

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Tim Parker, Benzinga Staff Writer

Before scientists create something that has mainstream uses, it often starts as science fiction.

A new technology deep within IBM’s (NYSE: IBM [FREE Stock Trend Analysis]) Singapore research facility isn’t quite ready for the mainstream but when it is, the implications for those who suffer from fungal infections and later, other infections, could have a new ally in their fight but this ally is completely different than current treatments.

If you’re a fan of Star Trek, you’ve seen nanotechnology. These are microscopic machines that get inside machines or in this case, the body, to identify and fix problems.

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By John Hewitt

Simple tasks, like plucking the stem off a cherry, are still monumental challenges for artificial hands. With a bill of materials perhaps a few hundred components long, it is not surprising that their functionality is low compared with one assembled from trillions of components. A new prosthetic bionic hand, designed and built by researchers at Case Western University is now capable of using measurements from 20 sensor points to control the grip force of its digits. Incredibly, the sensor data is linked directly to the sensory nerves in the patient’s forearm. The control for the grip closure is then extracted myoelectrically from the normal biological return loop to the muscles in the forearm.

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Written By: Cameron Scott

Hands-free devices like Google Glass can be really transformative when the hands they free are those of a surgeon. And leading hospitals, including Stanford and the University of California at San Francisco, are beginning to use Glass in the operating room.

In October, UCSF’s Pierre Theodore, a cardiothoracic surgeon, became the first doctor in the United States to obtain Institutional Review Board approval to use the device to assist him during surgery. Theodore pre-loads onto Glass the scans of images of the patient taken just before surgery and consults them during the operation.

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Kelsey Campbell-Dollaghan on Gizmodo

At the dawn of rapid prototyping, a common predication was that 3D printing would transform manufacturing, spurring a consumer revolution that would put a printer in every home. That hasn’t quite happened—-and like so many emerging technologies, rapid prototyping has found its foothold in a surprisingly different field: Medicine.

The following studies and projects represent some of the most fascinating examples of “bioprinting,” or using a computer-controlled machine to assemble biological matter using organic inks and super-tough thermoplastics. They range from reconstructing major sections of skull to printing scaffolding upon which stem cells can grow into new bones. More below—and look out for more 3D printing week content over the next few days.

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By James Gallagher

Health and science reporter, BBC News

Body piercings have been used to control wheelchairs and computers in a move scientists believe could transform the way people interact with the world after paralysis.

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Anyone who has left youth behind them knows that bumps and scrapes don’t heal as fast as they used to. But that could change with researchers at the Stem Cell Program at Boston Children’s Hospital finding a way to regrow hair, cartilage, bone, skin and other soft tissues in a mouse by reactivating a dormant gene called Lin28a. The discovery could lead to new treatments that provide adults with the regenerative powers they possessed when very young.

Lin28 is a gene that is abundant in embryonic stem cells and which functions in all organisms. It is thought to regulate the self-renewal of stem cells with the researchers finding that by promoting the production of certain enzymes in mitochondria, it enhances the metabolism of these cellular power plants that found in most of the cells of living organisms. In this way, Lin28 helps generate the energy needed to stimulate the growth of new tissues.

Continue reading “Hair, bone and soft tissue regrown in mice by enhancing cell metabolism” »