Global Nation Organization

Securing the Future With Love, Hardwork and Integrity

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Just as I suspected, Solar Energy is not the cheapest form of energy. Hopefully in the near future, energy suppliers will tap into hydropower and geothermal energy. Wind energy, while it has the potential to offer the same cost benefit as geothermal has an environmental impact that cannot be adequately justified. The best advantage of switching to geothermal energy is it is available anywhere. 

 The following article is reprinted from Discover Magazine

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The Cheapest Way to Power Your Car

If you had the right ride, hydropower could lop 2/3 off your gas bills.

Illustration by J. Siers 

With the price per barrel of crude oil at a formerly panic-inducing $90, and at the pump, the price in many areas is no longer just flirting with $3 a gallon. Imagine a world without gas-­guzzling combustion engines (it’s easy if you try), where much of our technology isn’t dependent on oil. We could then look objectively at how much each unit of energy—usually measured in Btu—costs and judge which energy sources make the most economic sense. Granted, a nuclear-powered car is not a likely alternative, but if it were possible to get other energy sources at the current taxed or subsidized cost into the gas tank, here’s how the costs would compare.

Information based on national averages from the Energy Information Administration, the Office of Energy Efficiency and Renewable Energy, and the National Renewable Energy Laboratory, all offshoots of the Department of Energy. Power plants measure energy in kilowatt-hours (kWh), and one kWh is equivalent to 3,413 Btu, or about 3 percent of the energy in one gallon of gasoline.

Fuzzy Math

*Based on California’s high average price per kilowatt-hour, according to the California Energy Commission.       


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If you don’t know me I should tell you, I fight for what is right. And this here is my fight.

About two months ago I watched the above video titled, “The Violent Oppression of Women in Islam.” It upset me so much that I became 100% determined to fight against Islam. The suffering women experience based on the sick teachings of Mohammed, a pedophiliac prophet of oppression needs to end.

To make this happen will not be easy. First, moderate Islam needs to stand up, speak FOR human rights and against Sharia. They need to speak out when members of their faith use Islam as a justification for violence and oppression. Second, women themselves must band together and fight for protection. Third, the rest of the world needs to educate themselves and acknowledge, Islam is NOT Peace.

I realize that other religions have treated women with the same disregard as Islam does today. But it is Islam that is spreading throughout the world and spreading their fascist ideology. Those of us, who are free to speak, must do so. We must speak loudly and repeatedly until all others are equally free to speak.

Thank you for taking the time to read.

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She is a daughter
A sister
A wife
A mother

Her womb nurtured
Her breast fed
Her blood is in your blood

But to you
She is less than a man

So you cloak her
And you choke her
You cut her
And burn her
You hang her
And lash her

You regard her as property
Readily disposable
At three times the sound

Your world is sad
And bereft of love
Your world is dark
And filled with hate
Your world is death
Now give it life

See her, the woman
A piece of two halves
She is worthy of more
Than the vulgarity
Of your holy trash


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Please watch this enlightening video on the history of Islam’s slaves.


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Truthfully, at my age there are few things in life that get me excited anymore. So you are wondering, what does turn me on? Okay, I’ll tell you. Two things - genius and innovation.
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Making Plastic as Strong as Steel
University of Michigan researchers have developed a nanoinfused polymer that is as strong as steel but as thin as plastic wrap
By Larry Greenemeier

NEW STEEL: University of Michigan researchers have found a way to make a composite plastic that’s as strong steel but lighter, transparent and thin as a piece of plastic wrap.
Courtesy of the University of Michigan

Could a seemingly simple clear plastic bag—the kind that you load your fruits and vegetables into at the supermarket—actually be as strong as steel? It could if it was made from a new composite plastic that blends the strength of nanoparticles with the pliancy of a water-soluble polymer.

Although it is no secret that nanotubes, nanosheets and nanorods are incredibly strong when combined in small numbers, larger materials made out of these microscopic building blocks cannot utilize much of that strength because the links between them are weak. But University of Michigan at Ann Arbor researchers report in Science that they have found a way to scale the strength of the nanomaterials to larger materials by transferring stress between nanosheets and a nanoscale polymer resembling white glue. Visually, it looks like a brick wall, where clay nanosheet “bricks” are held together by water-soluble polyvinyl alcohol “mortar.” The result, according to the researchers, is a composite plastic that is light and transparent but as strong steel.

“If you take the nanoscale materials individually, say one carbon tube or one clay sheet, their mechanical properties will be astonishing,” says U.M. engineering professor Nicholas Kotov, a co-author of the study. Simply combining a large volume of clay, nanosize platelets into one continuous block, however, results in a brittle chalklike material riddled with cracks.

Researchers created a strip of clear material as thick as a sheet of plastic wrap by using a robotic arm to uniformly blend many millions of square clay platelets 100 nanometers on each side and one nanometer thick (one nanometer equals 3.94 x 10-8 inch) with the same polymer used in Elmer’s glue. The robo-arm crafted this new material by dipping a piece of glass about the size of a stick of gum alternately into the gluelike polymer solution and then into a liquid that was a dispersion of clay nanosheets. The end result—consisting of 300 layers of the blended nanomaterials and polymer—was modeled after mother-of-pearl found in the lining of mussel and oyster shells.

“The material is an exemplary structure where we have achieved nearly ideal transfer of the nanoscale mechanical properties to the macroscale,” says Paul Podsiadlo, a doctoral candidate in U.M’s College of Engineering who assisted with the research. “If we can further achieve the same with these other nanomaterials then we will be able to make lightweight composites which will be exceeding the properties of steel by far.”

The bricks-and-mortar structure allowed the layers to form cooperative hydrogen bonds, which gives rise to what Kotov called “the Velcro effect”—one of the reasons the material is so strong. Such bonds, if broken, can reform easily in a new place. Kotov is developing methods to apply the composite in the development of microelectromechanical systems (MEMS) and devices, as well as microfluidics devices for actuation and valve manufacturing. In addition to military uses, improving the ductility of the researchers’ nanoinfused plastics could aid in the development of dent and scratch-resistant cars and windshields.

Now that the researchers have created a composite exhibiting resistance to deformation (stiffness) and resistance to load (strength), they are working to improve the composite’s ability to dissipate energy, thus improving its toughness, says U.M. mechanical engineering professor Ellen Arruda, another of the study’s co-authors. “We want the material to have the ability to absorb the energy of a projectile,” she says.

The impetus for the research was a $1.2-million grant awarded last year by the U.S. Defense Department, which was interested in developing more effective armor for the Air Force’s unmanned aerial craft as well as for vehicles and body armor for other branches of the armed forces.

The cost of this composite is difficult to estimate, Kotov says. The components are inexpensive and the process does not require large energy expenditures, but it is by no means a fast process. Cost will depend largely on how efficiently processes are developed to create nanoinfused composites and whether these composites need to be produced in high volumes. For highly specialized technologies such as MEMS and microfluidics devices, cost would not be as great an issue as it would in creating large sheets of armor.

The development of these composites is also expected to take less of a toll on the environment, because this superstrong polymer does not require the high temperatures or great energy expenditures required to make steel.


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Mohammed the BearHow much sillier can Muslims get? Are they insane or just completely defective in their thinking? I believe it is the latter. To think they want to execute Gillian Gibbons, a British school teacher in Sudan who allowed her students to name a teddy bear of all things, Mohammed. WTF????

Muslims are the sickest people on Earth. Every time they open their mouths, or riot, or make these insane demands – the world comes closer to realizing Islam is not compatible with humanity.

 


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Toxic Earth

I am not sure how much people understand the problem that is being posed by China’s cavalier attitude to product and environmental safety. If you think the toys your children are playing with are the only threat for toxicity you are wrong. Hidden problems exist.

Exactly what do you think is being done with the millions of tons of toys being recalled from lead and other heavy metal contaminants? I can tell you it will be one of two things. First, the toys will get distributed into countries with no standards for toxicity. Second, the products will be recycled. Now that may sound like a good option, but truthfully, it is not. The recycle process will separate and segregate the various parts for reprocessing. Metal pins and rods will get melted down and reformed. The plastic will get be reground and put back into the raw material supply chain.

The lead in these parts will not disappear by reheating and remolding into a new product.

On the plastic side, it is possible some of the regrind will be used for seemingly inert products, like dimensional plastic lumber. But others will be sold to plastic producers who will make who knows what with them. Most likely a lot of it will get molded into black plastic parts. Why black? Because black is the only color that will mask ALL other colors. I know this because I’m a plastic manufacturer. Internally, we reuse our scrap by regrinding and introducing small amounts back into the production process on certain parts. When making black parts we’ll increase the use of regrind. Because we are selective on the parts we will use our regrind on, we don’t use as much scrap as we make and sell it on the open market. So trust me, this is happening in China too.

The potential for toxicity is still very high and will require even more diligence on companies who are purchasing the finished products to test for heavy metal additives. There are lead test kits that home-owners can purchase, but what about all the other heavy metals such as Arsenic, Beryllium, Cadmium, Hexavalent Chromium, and Mercury.

Again this goes back to survival strategy. How will China’s disregard for human and environmental safety affect your personal survival, let alone the human species? This is something each of us needs to address on an individual level before contamination spirals out of control.


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If there is any reason to end our use of oil for fuel it should be situations like what we’ve seen happen this weekend in the Black Sea. Fortunately, people are working on new technologies that will help us move away from our oil dependence for fuel.

I am in a bit of a rush to get to the airport so if you call could just read this article I cut from Science Daily.

Microbial Fuel Cell: High Yield Hydrogen Source And Wastewater Cleaner

ScienceDaily (Apr. 24, 2005) — Using a new electrically-assisted microbial fuel cell (MFC) that does not require oxygen, Penn State environmental engineers and a scientist at Ion Power Inc. have developed the first process that enables bacteria to coax four times as much hydrogen directly out of biomass than can be generated typically by fermentation alone.

Dr. Bruce Logan, the Kappe professor of environmental engineering and an inventor of the MFC, says, “This MFC process is not limited to using only carbohydrate-based biomass for hydrogen production like conventional fermentation processes. We can theoretically use our MFC to obtain high yields of hydrogen from any biodegradable, dissolved, organic matter — human, agricultural or industrial wastewater, for example — and simultaneously clean the wastewater.

“While there is likely insufficient waste biomass to sustain a global hydrogen economy, this form of renewable energy production may help offset the substantial costs of wastewater treatment as well as provide a contribution to nations able to harness hydrogen as an energy source,” Logan notes,.

The new approach is described in a paper, “Electrochemically Assisted Microbial Production of Hydrogen from Acetate,” released online currently and scheduled for a future issue of Environmental Science and Technology. The authors are Dr. Hong Liu, postdoctoral researcher in environmental engineering; Dr. Stephen Grot, president and founder of Ion Power, Inc.; and Logan. Grot, a former Penn State student, suggested the idea of modifying an MFC to generate hydrogen.

In their paper, the researchers explain that hydrogen production by bacterial fermentation is currently limited by the “fermentation barrier” — the fact that bacteria, without a power boost, can only convert carbohydrates to a limited amount of hydrogen and a mixture of “dead end” fermentation end products such as acetic and butyric acids.

However, giving the bacteria a small assist with a tiny amount of electricity — about 0.25 volts or a small fraction of the voltage needed to run a typical 6 volt cell phone — they can leap over the fermentation barrier and convert a “dead end” fermentation product, acetic acid, into carbon dioxide and hydrogen.

Logan notes, “Basically, we use the same microbial fuel cell we developed to clean wastewater and produce electricity. However, to produce hydrogen, we keep oxygen out of the MFC and add a small amount of power into the system.”

In the new MFC, when the bacteria eat biomass, they transfer electrons to an anode. The bacteria also release protons, hydrogen atoms stripped of their electrons, which go into solution. The electrons on the anode migrate via a wire to the cathode, the other electrode in the fuel cell, where they are electrochemically assisted to combine with the protons and produce hydrogen gas.

A voltage in the range of 0.25 volts or more is applied to the circuit by connecting the positive pole of a programmable power supply to the anode and the negative pole to the cathode.

The researchers call their hydrogen-producing MFC a BioElectrochemically-Assisted Microbial Reactor or BEAMR. The BEAMR not only produces hydrogen but simultaneously cleans the wastewater used as its feedstock. It uses about one-tenth of the voltage needed for electrolysis, the process that uses electricity to break water down into hydrogen and oxygen.

Logan adds, “This new process demonstrates, for the first time, that there is real potential to capture hydrogen for fuel from renewable sources for clean transportation.”

###

The Penn State researchers were supported by grants from the National Science Foundation, the U.S. Department of Agriculture, the Penn State Huck Life Sciences Institute and the Stan and Flora Kappe Endowment. (Penn State (2005, April 24). Microbial Fuel Cell: High Yield Hydrogen Source And Wastewater Cleaner. ScienceDaily. Retrieved November 13, 2007) http://www.sciencedaily.com/releases/2005/04/050422165917.htm

In addition, please go visit the Microbial Fuel Cells website that has more information and news on turning waste into power.


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Yesterday I wrote about whether human actions are in concordance with our survival. I am not sure if I was clear enough though. While I do not believe humans are impacting global climate change, I do believe we are impacting our ecology. A perfect example are the two oil spills this weekend; one in San Francisco and the other along the Black Sea.

The San Francisco spill is downright puny at 58,000 gallons compared with 560,000 spilled in the Black Sea. So far 30,000 birds and an uncountable number of fish have been killed from a Russian oil tanker splitting open in bad weather. In addition, several humans have been killed. The damage to the ecology in the Black Sea will be devasting. It will take decades to cleanup. This type of occurence is the best reason to stop using oil for fuel.


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If you’ve read the first page of this website you will know one of our tenets is for humans to live in balance with our environment. This is an interesting task. You have to remember, people are as much a part of nature as all the other animals, minerals and vegetables. So for us to dominate and decimate our environment is nothing new…from a species point of view. It is a part of our survival strategy. However, with that said, because we are humans and because our only natural enemy is ourselves and to a greater extent - bacteria and virus’ - it behooves us to question if our impact on the rest of nature is in fact concordant with survival.  I am not a big believer in humans impacting global climate change. We are not that big of a threat when it comes to the big Kahuna in the sky, the Sun. The Sun has more influence on Earth than anything us lowly humans can think up. And the Earth itself packs quite a punch as well. Just think back to the tsunami from three years ago in the Indian Ocean. Earth has other surprises in store for us too. Such as super volcanoes and methane hydrates locked into the ocean floor that could bubble up into our atmosphere one day, as they have in the past. 

So getting back to the question: Are we only taking what we need from the Earth or are we pigging out on our resources? Unfortunately, there really is no way of knowing. All we can do is look at our current resources, contrast them with past levels and extrapolate. We know that commodities such as oil, gas, copper, helium are all finite and are quickly dwindling. We know that the seas are being emptied of fish in a relatively short period of time. We know people inhabit every single ecosystem on the planet. And with every new habitation we are like an invasive species, disrupting the ecological balance that was once there. But because we are only looking at the environment over a short span of time, one or two generations, we are not capable of accurately predicting our true impact. We have no way of knowing if this is in fact natural. And to be frank, it is. 

If our species does not survive, it will not be at the hands of man. It will be due to a force of nature itself. This does not mean we should be free to eat all the fish, chop down the forest, smelt all the copper, consume all the helium, burn all the coal, oil and gas, drink or pollute all the fresh water; it means we need to strike a balance. I say this because while these things are plentiful now, they will not be in a few thousand years. And I’d like to see humans live at least as, if not longer than the dinosaurs did, for several hundred million years. I’d like to see us evolve further and that will require us to live in concordance with our environment as we continue to drive the most powerful force in life — survival of the fittest. 

 

Survival of the Fittest Sculpture   

 


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Aloha readers,

The following is an article sent to me a few weeks ago by Franz. I should have posted it when he first sent it, but better now than never.

In many countries, cement is crucial for growth but an enemy of green
By Elisabeth Rosenthal International Herald TribuneSunday, October 21, 2007

In booming economies from Asia to Eastern Europe, cement is the glue of progress. The material that binds the ingredients of concrete together, cement is essential for constructing buildings and laying roads in much of the world.

Some 80 percent of cement is made in and used by emerging economies; China alone makes and uses 45 percent of global output. Production is doubling every four years in places like Ukraine.

But making cement creates pollution, in the form of carbon dioxide emissions, and the greenest of technologies can reduce that by only 20 percent.

Cement plants already account for 5 percent of global emissions of carbon dioxide, the main cause of global warming.

Compounding the problem, cement has no viable recycling potential, as the abandoned buildings that line roads from Tunisia to Mongolia demonstrate. Each new road, each new building, needs new cement.

“The big news about cement is that it is the single biggest material source of carbon emissions in the world, and the demand is going up,” said Julian Allwood, a professor of engineering at Cambridge University.

“If demand doubles and the best you can do is to reduce emissions by 30 percent, then emissions still rise very quickly.”

Worse yet, green incentives may be allowing the industry to pollute even more. The European Union subsidizes Western companies that buy outmoded cement plants in poor countries and refit them with green technology.

The emissions per ton of cement produced do go down. But the amount of cement produced often goes way up, as does the pollution generated.

Many of the world’s producers acknowledge the conundrum. “The cement industry is at the center of the climate change debate, but the world needs construction material for schools hospitals and homes,” said Olivier Luneau, head of sustainability at Lafarge, the Paris-based global cement giant.

“Because of our initiatives, emissions are growing slower than they would without the interventions.”

Cement manufacturers have invested millions of dollars in programs like the Sustainable Cement Initiative, yet many engineers like Allwood see “sustainable cement” as something of a contradiction in terms, like vegetarian meatballs.

Lafarge, a leader in introducing green technology to its field, has improved efficiency to reduce its emissions from 763 pounds, or 347 kilograms, of CO2 per ton of cement in 1990 to 655 in 2006. Its goal is to get to 610 by 2010, but it expects it will be difficult to get much below that number.

Lafarge, which bought 17 cement plants in China in 2005 and has holdings throughout eastern Europe and Russia, acknowledges that its emissions are growing year by year.

“Total emissions are growing because the demand is growing so fast and continues to grow and you can’t cap that,” Luneau said. “Our core business is cement, so there is a limit to what we can change.”

Cement is certainly a good investment these days.

“The construction market is booming in Eastern Europe, so cement factories are booming,” said Lennard De Klerk, director of Global Carbon, a Budapest firm that arranges investments in Ukraine, Russia and Bulgaria. “All the big cement companies, like Lafarge and Heidelberg Cement, have bought existing facilities there that generally use fairly outdated technology and that waste a lot of energy.”

Carbon trading schemes - green incentives created by the European Union and the Kyoto Protocol - encourage such purchases. But they also allow manufacturers to increase overall cement production, both in the developing world and at home.

The European Union effectively limits production of European cement makers in their home countries by capping their allowed yearly emissions. In places like Ukraine, meanwhile, there are no limits, so cement production can increase there without regulatory caps.

Moreover, European companies get allowances known as carbon credits to pollute more for use at home by undertaking green cleanup projects elsewhere. So buying an old Soviet factory and investing in converting it to green technology can bring multiple paybacks.

“They can invest in Ukraine and Russia, clean up, and earn carbon credits - the investment is much more attractive than it used to be,” said De Klerk, whose company brokers such “carbon” investments. Factoring the value of the carbon credits into the cost of refitting a factory in Ukraine, the predicted rate of return rises from 8.8 per cent to close to 12 per cent, he said.

Once outmoded plants are refitted with “clean technology,” their emission per ton of cement produced does decline. The Podilsky plant in Ukraine is being refitted with greener kilns - financed by the Irish cement manufacturer CRH to earn carbon credits - and energy consumption per ton of production is forecast to drop 53 percent.

But even that sharp drop may not be enough to stop the inexorable growth in cement emissions in the aggregate, or compensate for the new lease on life that refitting provides old factories that otherwise might have shut their doors. Production went up over 10 percent in Ukraine in 2005 and again in 2006. At Heidelberg Cement’s Doncement plant in Ukraine, output soared 55 percent in the first nine months of last year.

Old factories that for years were running at half capacity are now churning out cement as never before, propelled by booming economies and foreign investment.

And cement, which used to be produced and used locally, is increasingly shipped long distances. On the Internet, cement brokers are now selling relatively cheap Ukrainian cement to all corners of the world. Demand is particularly high in the Middle East.

Unlike many industries, cement has a basic chemical problem: The chemical reaction that creates cement releases large amounts of CO2 in and of itself. Sixty percent of emissions caused by making cement are from this chemical process alone, Luneau said.

The remainder is produced from the fuels used in production, which may be mitigated by the use of greener technology. So to “go green,” cement makers try to cut the fuel side of the equation.

When they buy plants in the developing world they often turn from a water-intensive system to a more energy efficient “dry” system. Ten percent of the fuel used by Lafarge is biomass and alternative fuels.

One industry project called the Cement Sustainability Initiative suggests that concrete should be mixed using smaller portions of cement to reduce emissions, and that cement buildings be given better insulation so that they are more energy efficient. But there is less incentive for cement manufacturers to take on fundamental changes in how to make buildings and roads.

Western cement manufacturers emphasize that the emissions problem cannot be solved until China and India and other booming economies realize that they must limit emissions as well. “Trying to solve emissions in the EU or G-8 will not solve the problem unless emerging economies and their cement production are included,” Luneau said.

Source: http://www.iht.com/articles/2007/10/21/business/cement.php

I had wanted to contrast this with alternative building materials, such as clay and bamboo, but am concerned that nothing truly has the properties of cement. It is a bit of a conundrum. I will write more in a few days about the use of bamboo in construction. In the meantime I want to to say Mahalo to all of you!