Lifeboat Foundation: Safeguarding Humanity
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Category: science – Page 138

Quoted: “Sometimes decentralization makes sense.

Filament is a startup that is taking two of the most overhyped ideas in the tech community—the block chain and the Internet of things—and applying them to the most boring problems the world has ever seen. Gathering data from farms, mines, oil platforms and other remote or highly secure places.

The combination could prove to be a powerful one because monitoring remote assets like oil wells or mining equipment is expensive whether you are using people driving around to manually check gear or trying to use sensitive electronic equipment and a pricey a satellite internet connection.

Instead Filament has built a rugged sensor package that it calls a Tap, and technology network that is the real secret sauce of the operation that allows its sensors to conduct business even when they aren’t actually connected to the internet. The company has attracted an array of investors who have put $5 million into the company, a graduate of the Techstars program. Bullpen Capital led the round with Verizon Ventures, Crosslink Capital, Samsung Ventures, Digital Currency Group, Haystack, Working Lab Capital, Techstars and others participating.

To build its technology, Filament is using a series of protocols that include the blockchain transaction database behind Bitcoin; BitTorrent, the popular peer-to-peer file sharing software; Jose, a contract management protocol that is also used in the OAuth authentication service that lets people use their Facebook ID to log in and manage permissions to other sites around the web;TMesh, a long-range mesh networking technology andTelehash for private messaging.”

“This cluster of technologies is what enables the Taps to perform some pretty compelling stunts, such as send small amounts of data up to 9 miles between Taps and keep a contract inside a sensor for a year or so even if that sensor isn’t connected to the Internet. In practical terms, that might mean that the sensor in a field gathering soil data might share that data with other sensors in nearby fields belonging to other farmers based on permissions the soil sensor has to share that data. Or it could be something a bit more complicated like a robotic seed tilling machine sensing that it was low on seed and ordering up another bag from inventory based on a “contract” it has with the dispensing system inside a shed on the property.

The potential use cases are hugely varied, and the idea of using a decentralized infrastructure is fairly novel. Both IBM and Samsung have tested out using a variation of the blockchain technology for storing data in decentralized networks for connected devices. The idea is that sending all of that data to the cloud and storing it for a decade or so doesn’t always make economic sense, so why not let the transactions and accounting for them happen on the devices themselves?

That’s where the blockchain and these other protocols come in. The blockchain is a great way to store information about a transaction in a distributed manner, and because its built into the devices there’s no infrastructure to support for years on end. When combined with mesh radio technologies such as TMesh it also becomes a good way to build out a network of devices that can communicate with each other even when they don’t have connectivity.”

Read the Article, and watch the Video, here > http://fortune.com/2015/08/18/filament-blockchain-iot/

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One of the most symbolic and substantively important examples of environmental conflict is over Yellowstone National Park. Yellowstone is the first national park in the world, and perhaps the most important natural treasure in the US. More recently it has become a site for bitter and long-lasting environmental conflict. And it has made me wonder how the scientific arguments around the issues sit with the emotional reactions inspired by the landscape and history.

Read more

OK. In scientific terms, it is only a ‘hypothesis’ — the reverse of the ‘Disposable Soma’ theory of ageing. Here how it goes.

For the past several decades, the Disposable Soma theory of ageing has been enjoying good publicity and a lively interest from both academics and the public alike. It stands up to scientific scrutiny, makes conceptual sense and fits well within an evolutionary framework of ageing. The theory basically suggests that, due to energy resource constraints, there is a trade-off between somatic cell and germ cell repair. As a result, germ cells are being repaired effectively and so the survival of the species is assured, at a cost of individual somatic (bodily) ageing and death. To put it very simply, we are disposable, we age and die because all the effective repair mechanisms have been diverted to our germ cell DNA in order to guarantee the survival of our species.

The theory accounts for many repair pathways and mechanisms converging upon the germ cell, and also for many of those mechanisms being driven away from somatic cell repair just to ensure germ cell survival. In the past two or three years however, it is increasingly being realised that this process is not unidirectional (from soma to germ), but it is bi-directional: under certain circumstances, somatic cells may initiate damage that affects germ cells, and also that germ cells may initiate repairs that benefit somatic cells!

I can’t even begin to describe how important this bi-directionality is. Taking this in a wider and more speculative sense, it is, in fact, the basis for the cure of ageing. The discovery that germ cells can (or are forced to) relinquish their repair priorities, and that resources can then be re-allocated for somatic repairs instead, means that we may be able to avoid age-related damage (because this would be repaired with greater fidelity) and, at the same time, avoid overpopulation (as our now damaged genetic material would be unsuitable for reproduction).

Ermolaeva et al. raised the further possibility that DNA damage in germ cells may protect somatic cells. They suggested that DNA injury in germ cells upregulates stress resistance pathways in somatic cells, and improves stress response to heat or oxidation. This is profoundly important because it shows that, in principle, when germ cells are damaged, they produce agents which can then protect somatic cells against systemic stress.

This mechanism may reflect an innate tendency to reverse the trade-offs between germ cell and somatic cell repair: when the germ cells are compromised, there is delay in offspring production matched by an increased repair of somatic cells. In Nature’s ‘eyes’, if the species cannot survive, at least the individual bodies should.

In addition, it was shown that neuronal stress induces apoptosis (orderly cell death) in the germ line. This process is mediated by the IRE-1 factor, an endoplasmic reticulum stress response sensor, which then activates p53 and initiates the apoptotic cascade in the germ line. Therefore germ cells may die due to a stress response originating from the distantly-located neurons.

If this mechanism exists, it is likely that other similar mechanisms must also exist, waiting to described. The consequence could be that neuronal positive stress (i.e. exposure to meaningful information that entices us to act) can affect our longevity by downgrading the importance of germ cell repair in favour of somatic tissue repair. In other words, the disposable soma theory can be seen in reverse: the soma (body) is not necessarily disposable but it can survive longer if it becomes indispensable, if it is ‘useful to the whole. This, as we claimed last week, can happen through mechanisms which are independent of any artificial biotechnological interventions.

We know that certain events which downgrade reproduction, may also cause a lifespan extension. Ablation of germ cells in the C.elegans worm, leads to an increased lifespan, which shows that signals from the germline have a direct impact upon somatic cell survival, and this may be due to an increased resistance of somatic cells to stress. Somatic intracellular clearance systems are also up-regulated following signals from the germ line.

In addition, protein homoeostasis in somatic cells is well-maintained when germ cells are damaged, and it is significantly downgraded when germ cell function increases. All of the above suggest that when the germ cells are healthy, somatic repair decreases, and when they are not, somatic repair improves as a counter-effect.

In an intriguing paper published last month, Lin et al. showed that under certain circumstances, somatic cells may adopt germ-like characteristics, which may suggest that these somatic cells can also be subjected to germ line protection mechanisms after their transformation. A few days ago Bazley et al. published a paper elucidating the mechanisms of how germ cells may induce somatic cell reprogramming and somatic stem cell pluripotency. This is an additional piece of evidence of the cross-talk mechanisms between soma and germ line, underscoring the fact that the health of somatic tissues depends upon signals from the germ line.

In all, there is sufficient initial evidence to suggest that my line of thinking is quite possibly correct: that the disposable soma theory is not unidirectional and the body may not, after all, be always ‘disposable’. Under certain evolutionary pressures we could experience increased somatic maintenance at the expense of germ cell repairs, and thus reach a situation where the body actually lives longer. I have already discussed that some of these evolutionary pressures could be dependent upon how well one makes themselves ‘indispensable’ to the adaptability of the homo sapiens species within a global techno-cultural environment.

“It’s much easier to replicate experiments and catch fraud if you have access to the original data. Some journals currently reward researchers for sharing the data that they used in an experiment. In the highest level of this new framework, data sharing would not only become compulsory, but independent analysts would conduct the same tests on it as those reported by the researchers, to see whether they get the same results.” Read more

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“If goodwill and curiosity aren’t motivating researchers to work with open-source data on their own, there is still something that probably will: human limitation. ‘We have tiny little brains. We can’t understand the big stuff anymore,’ said Paul Cohen, a DARPA program manager in the Information and Innovation Office. ‘Machines will read the literature, machines will build complicated models, because frankly we can’t.’ When all you have to do is let your algorithms loose on a trove of publicly available data, there won’t be any reason not to pull in everything that’s out there. ” Read more

In 2014, I submitted my paper “A Universal Approach to Forces” to the journal Foundations of Physics. The 1999 Noble Laureate, Prof. Gerardus ‘t Hooft, editor of this journal, had suggested that I submit this paper to the journal Physics Essays.

My previous 2009 submission “Gravitational acceleration without mass and noninertia fields” to Physics Essays, had taken 1.5 years to review and be accepted. Therefore, I decided against Prof. Gerardus ‘t Hooft’s recommendation as I estimated that the entire 6 papers (now published as Super Physics for Super Technologies) would take up to 10 years and/or $20,000 to publish in peer reviewed journals.

Prof. Gerardus ‘t Hooft had brought up something interesting in his 2008 paper “A locally finite model for gravity” that “… absence of matter now no longer guarantees local flatness…” meaning that accelerations can be present in spacetime without the presence of mass. Wow! Isn’t this a precursor to propulsion physics, or the ability to modify spacetime without the use of mass?

As far as I could determine, he didn’t pursue this from the perspective of propulsion physics. A year earlier in 2007, I had just discovered the massless formula for gravitational acceleration g=τc^2, published in the Physics Essays paper referred above. In effect, g=τc^2 was the mathematical solution to Prof. Gerardus ‘t Hooft’s “… absence of matter now no longer guarantees local flatness…”

Prof. Gerardus ‘t Hooft used string theory to arrive at his inference. Could he empirically prove it? No, not with strings. It took a different approach, numerical modeling within the context of Einstein’s Special Theory of Relativity (STR) to derive a mathematic solution to Prof. Gerardus ‘t Hooft’s inference.

In 2013, I attended Dr. Brian Greens’s Gamow Memorial Lecture, held at the University of Colorado Boulder. If I had heard him correctly, the number of strings or string states being discovered has been increasing, and were now in the 10500 range.

I find these two encounters telling. While not rigorously proved, I infer that (i) string theories are unable to take us down a path the can be empirically proven, and (ii) they are opened ended i.e. they can be used to propose any specific set of outcomes based on any specific set of inputs. The problem with this is that you now have to find a theory for why a specific set of inputs. I would have thought that this would be heartbreaking for theoretical physicists.

In 2013, I presented the paper “Empirical Evidence Suggest A Need For A Different Gravitational Theory,” at the American Physical Society’s April conference held in Denver, CO. There I met some young physicists and asked them about working on gravity modification. One of them summarized it very well, “Do you want me to commit career suicide?” This explains why many of our young physicists continue to seek employment in the field of string theories where unfortunately, the hope of empirically testable findings, i.e. winning the Noble Prize, are next to nothing.

I think string theories are wrong.

Two transformations or contractions are present with motion, Lorentz-FitzGerald Transformation (LFT) in linear motion and Newtonian Gravitational Transformations (NGT) in gravitational fields.

The fundamental assumption or axiom of strings is that they expand when their energy (velocity) increases. This axiom (let’s name it the Tidal Axiom) appears to have its origins in tidal gravity attributed to Prof. Roger Penrose. That is, macro bodies elongate as the body falls into a gravitational field. To be consistent with NGT the atoms and elementary particles would contract in the direction of this fall. However, to be consistent with tidal gravity’s elongation, the distances between atoms in this macro body would increase at a rate consistent with the acceleration and velocities experienced by the various parts of this macro body. That is, as the atoms get flatter, the distances apart get longer. Therefore, for a string to be consistent with LFT and NGT it would have to contract, not expand. One suspects that this Tidal Axiom’s inconsistency with LFT and NGT has led to an explosion of string theories, each trying to explain Nature with no joy. See my peer-reviewed 2013 paper New Evidence, Conditions, Instruments & Experiments for Gravitational Theories published in the Journal of Modern Physics, for more.

The vindication of this contraction is the discovery of the massless formula for gravitational acceleration g=τc^2 using Newtonian Gravitational Transformations (NGT) to contract an elementary particle in a gravitational field. Neither quantum nor string theories have been able to achieve this, as quantum theories require point-like inelastic particles, while strings expand.

What worries me is that it takes about 70 to 100 years for a theory to evolve into commercially viable consumer products. Laser are good examples. So, if we are tying up our brightest scientific minds with theories that cannot lead to empirical validations, can we be the primary technological superpower a 100 years from now?

The massless formula for gravitational acceleration g=τc^2, shows us that new theories on gravity and force fields will be similar to General Relativity, which is only a gravity theory. The mass source in these new theories will be replaced by field and particle motions, not mass or momentum exchange. See my Journal of Modern Physics paper referred above on how to approach this and Super Physics for Super Technologies on how to accomplish this.

Therefore, given that the primary axiom, the Tidal Axiom, of string theories is incorrect it is vital that we recognize that any mathematical work derived from string theories is invalidated. And given that string theories are particle based theories, this mathematical work is not transferable to the new relativity type force field theories.

I forecast that both string and quantum gravity theories will be dead by 2017.

When I was seeking funding for my work, I looked at the Broad Agency Announcements (BAAs) for a category that includes gravity modification or interstellar propulsion. To my surprise, I could not find this category in any of our research organizations, including DARPA, NASA, National Science Foundation (NSF), Air Force Research Lab, Naval Research Lab, Sandia National Lab or the Missile Defense Agency.

So what are we going to do when our young graduates do not want to or cannot be employed in string theory disciplines?

(Originally published in the Huffington Post)